20years Cultural Heritage Vol2 en
20years Cultural Heritage Vol2 en
20years Cultural Heritage Vol2 en
Volume II
EUR 22050 EN
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ISBN 978-92-79-09029-5
ISSN 1018-5593
doi 10.2777/22797
Printed in Belgium
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Foreword
Europe is rightly proud of its rich history with its diverse cultural experiences
and traditions, and especially its many wonderful cultural heritage assets.
However, now more than ever, the combination of environmental threats such
as climate change and socio-economic pressures put our European cultural
heritage in danger.
While the significant economic value of cultural heritage itself is much more
widely recognised nowadays, research in this area also has the potential to
enhance the activity of scientists and stakeholders in this field, contributing
to the competitiveness of SMEs and industry.
In this second Volume you will find outlines of nearly 100 projects
implemented between 2000 and 2008. In its 8 chapters, the book presents
cutting-edge research projects aiming at the preservation and restoration
of Europe’s vast patrimony, notably historic buildings, monuments and
artwork, and the analysis of their materials and constituents by means of non-
destructive methods and advanced technologies. The last chapters illustrate
the close links between the European Commission’s research and specific
preservation programmes such as the international cooperation with the
Mediterranean countries, the Culture 2000 programme from DG Education
and Culture, and COST Actions in this area.
We hope this publication will be useful and interesting for the owners and
managers of cultural heritage assets, as well as for restorers, conservators,
architects, SMEs and industry, and not least for the ultimate beneficiaries of
this research – the general public.
3
Table of contents
Foreword.............................................................................................................................................................................................................. 3
Editorial note....................................................................................................................................................................................................... 7
Chapter 1. Atmospheric pollution and climate change impacts for cultural assets.................................................................................. 9
Introduction....................................................................................................................................................................................................... 11
CARAMEL................................................................................................................................................................................................. 12
CHEF........................................................................................................................................................................................................... 14
CULT-STRAT............................................................................................................................................................................................. 16
MULTI-ASSESS . ..................................................................................................................................................................................... 18
NOAH’S ARK............................................................................................................................................................................................. 20
Chapter 2. Damage and restoration of monuments and historical buildings & industrial heritage.................................................... 23
Introduction....................................................................................................................................................................................................... 25
ASSET......................................................................................................................................................................................................... 26
COMPASS . ................................................................................................................................................................................................ 28
CONSIST..................................................................................................................................................................................................... 30
DESALINATION........................................................................................................................................................................................ 32
DIAS............................................................................................................................................................................................................ 34
FIRE-TECH ............................................................................................................................................................................................... 36
GRAFFITAGE ........................................................................................................................................................................................... 38
HISTO-CLEAN.......................................................................................................................................................................................... 40
ITER ........................................................................................................................................................................................................... 42
LICONS....................................................................................................................................................................................................... 44
ONSITEFORMASONRY........................................................................................................................................................................... 46
ROCEM....................................................................................................................................................................................................... 49
SALTCONTROL ....................................................................................................................................................................................... 51
Chapter 3. Novel microbiological tools for conservation............................................................................................................................ 53
Introduction....................................................................................................................................................................................................... 55
BACPOLES................................................................................................................................................................................................. 56
BIOBRUSH.................................................................................................................................................................................................. 59
BIODAM..................................................................................................................................................................................................... 62
BIOREINFORCE........................................................................................................................................................................................ 64
CATS – CYANOBACTERIA ATTACK ROCKS..................................................................................................................................... 65
COALITION ............................................................................................................................................................................................. 67
Chapter 4. Environment, cultural heritage and tools inside and for museums, archives and libraries, historic buildings, churches.... 69
Introduction....................................................................................................................................................................................................... 71
COLLAPSE................................................................................................................................................................................................. 72
CONSTGLASS............................................................................................................................................................................................ 74
FRIENDLY HEATING ............................................................................................................................................................................. 77
IDAP............................................................................................................................................................................................................ 79
IMPACT...................................................................................................................................................................................................... 81
INKCOR...................................................................................................................................................................................................... 83
LASERACT .............................................................................................................................................................................................. 84
LIDO............................................................................................................................................................................................................ 87
MASTER..................................................................................................................................................................................................... 89
MIMIC......................................................................................................................................................................................................... 91
MIP.............................................................................................................................................................................................................. 93
MODHT....................................................................................................................................................................................................... 96
MULTIENCODE........................................................................................................................................................................................ 98
PAPERTREAT.......................................................................................................................................................................................... 100
PAPYLUM................................................................................................................................................................................................ 102
PARELA.................................................................................................................................................................................................... 104
PROPAINT . ............................................................................................................................................................................................. 106
SENSORGAN........................................................................................................................................................................................... 108
SURVENIR............................................................................................................................................................................................... 110
VIDRIO..................................................................................................................................................................................................... 112
Chapter 5. Foster integration of cultural heritage in the urban/rural setting, monitoring and archaeology.................................... 115
Introduction......................................................................................................................................................................................................117
APPEAR.....................................................................................................................................................................................................118
ARCHAIA................................................................................................................................................................................................. 120
ARCHAEOMAP....................................................................................................................................................................................... 122
CURE........................................................................................................................................................................................................ 124
DEMOTEC................................................................................................................................................................................................ 126
ISHTAR..................................................................................................................................................................................................... 128
PICTURE.................................................................................................................................................................................................. 131
RUFUS...................................................................................................................................................................................................... 133
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SPRECOMAH........................................................................................................................................................................................... 135
SUIT.......................................................................................................................................................................................................... 136
Chapter 6. Marking and traceability of cultural heritage: infrastructure, advanced training courses and other supporting initiatives.....137
Introduction..................................................................................................................................................................................................... 139
ARCCHIP.................................................................................................................................................................................................. 140
AUTHENTICO......................................................................................................................................................................................... 142
CHEPRISS................................................................................................................................................................................................ 144
CHRAF...................................................................................................................................................................................................... 145
COINS ...................................................................................................................................................................................................... 147
EU-ARTECH............................................................................................................................................................................................ 149
FING-ART-PRINT................................................................................................................................................................................... 152
ITECOM.................................................................................................................................................................................................... 154
LABS TECH............................................................................................................................................................................................. 156
MUSOMED............................................................................................................................................................................................... 159
OSNET.......................................................................................................................................................................................................161
PANEURO................................................................................................................................................................................................ 163
SAUVEUR................................................................................................................................................................................................ 164
SUSTAINABLE HERITAGE................................................................................................................................................................... 166
SUSTAINING HERITAGE...................................................................................................................................................................... 167
Chapter 7. Cultural heritage and Mediterranean third countries (international cooperation) ......................................................... 169
Introduction......................................................................................................................................................................................................171
ARCHI-MED GLAÇURES...................................................................................................................................................................... 172
CAHRISMA...............................................................................................................................................................................................174
CERAMED............................................................................................................................................................................................... 176
CHERK..................................................................................................................................................................................................... 178
CHIME...................................................................................................................................................................................................... 180
DESERT PATINA..................................................................................................................................................................................... 181
EC-FORTMED ........................................................................................................................................................................................ 184
EFESTUS.................................................................................................................................................................................................. 186
ERATO...................................................................................................................................................................................................... 188
FOGGARA................................................................................................................................................................................................ 190
HERCOMANES ...................................................................................................................................................................................... 192
INFRARTSONIC...................................................................................................................................................................................... 194
JEWELMED ............................................................................................................................................................................................ 197
MED-COLOUR-TECH.............................................................................................................................................................................200
MENMED ................................................................................................................................................................................................ 202
NOESIS .................................................................................................................................................................................................... 204
OPERHA................................................................................................................................................................................................... 206
PRODOMEA . .......................................................................................................................................................................................... 208
PROHITECH .......................................................................................................................................................................................... 210
PROMET ................................................................................................................................................................................................. 212
QUARRYSCAPES . ................................................................................................................................................................................ 215
RUBIA . ....................................................................................................................................................................................................217
SHADUF . ............................................................................................................................................................................................... 219
TEXMED.................................................................................................................................................................................................. 221
WIND-CHIME......................................................................................................................................................................................... 223
Chapter 8. COST cooperation, Culture 2000 programme, external relations (Euromed etc.)........................................................... 225
Introduction..................................................................................................................................................................................................... 227
COST A27................................................................................................................................................................................................. 228
COST Action C17...................................................................................................................................................................................... 230
COST Action G7....................................................................................................................................................................................... 232
COST Action G8....................................................................................................................................................................................... 235
MOSS ....................................................................................................................................................................................................... 238
PCL ........................................................................................................................................................................................................240
Wooden handiwork/wooden carpentry: European restoration sites......................................................................................................... 242
Index by acronyms........................................................................................................................................................................................... 245
The list of cultural heritage research projects of FP5 ('City of tomorrow & cultural heritage' key action) and FP6 projects (Programme 'Specific Support to Policy')
– all being managed within Directorate Environment of DG Research – is provided with acronyms, titles and direct website addresses at the following address: http://
ec.europa.eu/research/environment/index_en.htm This list is also regularly updated with new FP7 Environment projects in the field of cultural heritage research. The
FP5–FP6 cultural heritage projects managed by the Environment Directorate of DG Research are all described in Volume II of this publication. However the projects related
to the international cooperation (although a high number are presented for the Mediterranean region), or to other cultural heritage projects included in this publication
– developed in other European Commission Directorates or linked organisations like COST – are not all listed but provide an illustration of the large extent and diversity
of connected cultural heritage projects.
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6
Editorial note
This publication consists of two volumes which illustrate the overall extent
and extreme diversity of research in the tangible cultural heritage field as well
as the inextricable links between the cultural heritage's preservation and the
environment's protection.
The first volume gives the reader a panoramic overview of the EC supported
research in the tangible cultural heritage field. It covers the way in which it
came into existence in 1986 and how it progressively developed itself over
20 years to finally reach today's European research and scientific cooperation
sectors, defining its own limitations by doing so.
The second volume, on the other hand, provides the user with short
descriptions of around 100 EC funded projects which were implemented
between the year 2000 and 2008, mainly in the context of the 5th and 6th
Framework Programmes (FP5 & FP6). These projects are grouped into 8
chapters according to their subject or type of action. For each project, its
summary starts by dedicating the first two paragraphs to describing the
scientific objectives and overall approach of the project, including its
innovative aspects. Paragraphs 3 to 5 then describe the project's scientific
outcome, its policy impact and how its results have been disseminated and
exploited, referring where relevant to publications, conferences, databases,
eventual patents, spin-offs...
For specific sub-fields of cultural heritage, chapters 1 to 5 of this second
volume include completed cultural heritage projects implemented within the
FP5 ‘Energy, Environment and Sustainable Development’(EESD) programme
and within the FP6 ‘Specific Support to Policies’(SSP) programme. It
should be noted that for projects not yet finished in 2008, the corresponding
summaries provide a "picture" of the activities implemented so far.
Then chapter 6 of this volume includes a few FP6 SSP projects related to
authentication and traceability but also to conferences and training courses,
as well as a certain number of projects which have been implemented under
other FP5 & FP6 specific programmes (such as "infrastructure", "industrial
technologies" and "social science").
Chapter 7 of volume 2 then subsequently compiles projects which were funded
under the FP5 & FP6 International Cooperation Research Programmes and
which targeted Mediterranean partner countries.
Finally, chapter 8 illustrates the "operational "and "research linked" initiatives
supported by other Commission programmes.
In each chapter, projects are indexed alphabetically. At the time of writing,
the projects' websites mentioned herein were operational and should remain
active for at least two years after the projects' finishing dates. But as many of
the projects already ended several years ago, please bear in mind that some of
the links might no longer be operational.
We would like to use this opportunity to inform the reader that, although this
publication was already made public as a draft version during the European
Conference on Cultural Heritage Research (which took place in Ljubljana on
the 10th and the 12th of November 2008) as well as in a more recent event of
FP7, this final version should be considered as the official release.
To end this editorial note, we wish to thank all Project Coordinators who have
provided information and illustrations related to their activities and who are
consequently responsible for the related contents.
Last but not least, we are grateful to our European Commission colleagues
from other relevant Directorates of DG Research as well as from DG
Education and Culture, and COST, for their valuable cooperation and input
to this publication.
The Editors
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8
Chapter 1
1. Atmospheric pollution and climate change impacts
for cultural assets
9
Introduction Climate change and atmospheric pollution pose serious threats to
historic buildings and monuments. Advanced sampling, monitor-
ing and modelling techniques are thus required to aid preservation
efforts and guide Europe’s climate change policy, as this chapter’s
projects demonstrate.
All the results of these projects will also be very useful in the context
of future FP7 projects focusing on climate change impacts and risk
mitigation.
11
CARAMEL
Carbon content and origin of damage layers
in European monuments
1. Problems to be solved and their chemical composition for two size-fractions (coarse and
fine particles) with a special focus on the carbonaceous component
The CARAMEL project aimed to contribute to the understanding of the (elemental and organic carbon particles: EC and OC). Particle char-
growth of black crusts and patinas in the multi-pollutant atmosphere of acterisation and the capture of their temporal (diurnal, weekly, sea-
European cities. Focus was put on the key role of carbon particles as sonal) variability could allow identification of the main prevailing
a vector of atmospheric pollution during transport, deposition onto the sources. In parallel, a series of combustion-derived organic marker
surfaces of buildings, and during physical and chemical transformations compounds were identified using source fingerprints.
when embedded in patinas. For this purpose, both experimental and
modelling studies were tentatively conducted in order to investigate Black patinas were analysed for the carbon content (EC, OC, car-
relationships between identified urban aerosol sources, airborne particle bonate, organic marker array) of embedded particles using a new
concentrations and monument soiling created by particulate deposition. methodology designed for the project. Their composition was then
An interesting aspect of the project was also the aesthetic side of the scrutinised and compared with that of atmospheric particles for his-
problem and the perception of soiling by different groups of people. torical and present-day soiling: a new methodology was formulated
Finally, the major challenge and ultimate objective was to provide atmos- for bulk carbon components, whereas the organic tracer analytical
pheric, soot-based (EC) thresholds for atmospheric particles compatible protocol was adapted for the search of traffic markers in crusts.
with the durable protection of cultural heritage at a European level.
The aesthetic of soiling was investigated following an original
Results obtained in the CARAMEL project are likely to provide approach. The perception of soiling was investigated through suit-
decision-makers with discussions for future urban management and able interviews both of professionals involved in building conserva-
atmospheric environment abatement policy. Connections and inter- tion and maintenance and of the public. A second aspect consisted
actions with other EC projects are obvious and ongoing. of the exploration of computer-based studies in virtual environments.
Results were gathered in view of possible relationships between aes-
2. Scientific objectives and approach thetic damage and patina soot contents.
The objectives for the CARAMEL project were to: The mathematics of soiling were examined against short- and
long-term experimental surface particulate concentration and optical
aa characterise the aerosol atmospheric content focusing on the car- results. Fractal forms of particles were also tested. In an approach to
bonaceous fraction (EC and OC) of target urban sites in order to aesthetics and transfer of colour from atmospheric suspended matter to
capture representative situations in European cities (for various stone, preliminary atmospheric EC thresholds could be proposed.
multi-pollutant situations under different meteorological conditions)
aa set a new analytical technique for non-carbonate in damage lay-
ers and obtain a comprehensive dataset for the exhaustive carbon The main results are given below:
content (carbonate: CC, elemental carbon: EC, organic carbon: 1. Carbonaceous particles are ubiquitous in the atmosphere and
OC) and other physical-chemical characteristics of black crusts form the main fraction of the aerosol phase.
from different European monuments This assessment is evidenced by the unique aerosol database for
aa deploy an array of different analytical techniques for multi- urban aerosols provided during the project. It is valid for Western
source organic tracer determination and apportionment European urban sites where a drastic policy for sulphur abate-
aa construct a methodology to rate the damage, from data gathered ment, applied for at least three decades, has successfully resulted
in the experimental part of the project, using kinetic and thermo- in low atmospheric sulphur concentrations.
dynamic arguments and test it with selected trial runs 2. Carbonaceous particles are also one of the main components
aa explore the aesthetic side of the problem by rating the dirtiness of of monument black crusts.
cultural heritage (public and specialist interviews) and construct- Historical and modern crusts and patinas form a complex matrix
ing an aesthetic index of variable physical and chemical properties. Chemical analyses
aa provide EC-based thresholds for EC concentrations in the atmos- and microscope investigations have shown that soot particles with
phere compatible with the durable protection of cultural heritage sulphur form a significant portion of the crusts but may present
aa provide a user-friendly model website decision tree simply different habits, structures and distribution in relation to
aerosol sources, natural stone and decay. The new analytical pro-
tocol allowed the construction of a meta database for the different
3. Achieved scientific results carbon components (EC, OC and carbonates) of crusts. O rganic
markers were extensively studied in the oil, diesel aerosols and
Atmospheric measurements were performed at four urban sites black crusts using a new protocol for biomarker identification.
(Paris, Seville, Milan and Florence) for particle size distribution Among others, an important result has been the ubiquitous pres-
12
CARAMEL
ence in both aerosols and crusts of various mono- and poly-acids with black carbon accumulated on building surfaces and the loss of
(probably oxidation end-products) of a biogenic (fatty acids) or aesthetic amenity. Carbon aerosol data were classified using cluster
anthropogenic (biomass burning, oil combustion-derived) origin. analysis and estimated blackening of stones (Munsell values) were
This significant fraction of polar organic species is likely to plotted against atmospheric EC concentrations. The threshold val-
migrate and bind with the underlying stone surface and could be ues obtained from questionnaires indicate that the threshold value
the major cause of ’stone yellowing’ after cleaning. for EC mass in the aerosol is of the order of 3.2 µgC/m3. This value
3. Source apportionment for soiling is complex but the role corresponds to EC in the crusts around 0.5% although this last
of combustion aerosol sources (mostly traffic) is clear. The value has to be taken with care, as many of the CARAMEL crusts
apportionment is site-dependent and will change in the future do not coincide with the current environment.
as it drastically changed in the past. Finally, a user-friendly web-based model has been constructed as
Atmospheric particles in modern European urban atmospheres a sequence of arguments that allow those responsible for cultural
are predominantly of anthropogenic origin and held by the sub- heritage to assess the factors that influence decisions on the accu-
micron (fine) aerosol phase fraction. mulation of black crusts.
Presently, at all sites, EC aerosol data point to a simple situation
where traffic is the predominant source. Aerosol composition
reflects differences primarily due to dissimilarities in the average 4. Policy impact
vehicle fleet. In Seville, the cathedral is mainly polluted along the
main street, Avenida de la Constitución, which channels the traf- As discussed above, our results show the overwhelming role that
fic of diesel buses downtown. On the other hand, the Florence site traffic plays in ambient atmospheric particulate pollution. Both die-
appears to undergo severe pollution from 2-stroke engines and sel and gasoline engines should be submitted to more severe control.
biomass burning in winter. Finally at all sites, the photochemical To a lesser extent, the regional use of wood burning contributes to
formation of secondary organics and sulphates on sunny days the pollution background and should be regulated. The low EC aero-
may affect air quality contributing from one-quarter to one-third sol annual threshold obtained for monument soiling (3.2 µgEC/m3)
of the fine aerosol mass. might indicate that monuments are very sensitive to EC particles.
So at present, combustion sources (vehicular exhaust and biomass
burning) are both sulphur-depleted, and resulting modern patinas
have a different structure and chemical composition than crusts 5. Dissemination and exploitation
formed in the past, which are enriched in gypsum. As a result, the
of the results
nature of the soiling (blackening) process has changed over recent
decades and the process of ‘stone yellowing’, due to absorption The work has been intensively disseminated internationally and the
and migration of organics at the calcareous surface of monu- dissemination process is still underway at different levels for dif-
ments, is likely to become increasingly important. ferent audiences, as papers, invitation-only seminars or conference
In this context, research conducted on laser efficiency in cleaning talks. Many articles have appeared in international journals.
procedures is of particular importance: indeed it has been shown
that a tandem laser treatment with 2-wavelengths (1 064 nm and CARAMEL book: Air Pollution and Cultural Heritage, (invited
355 nm) could remove the colour due to the deposition of both EC ed.: C. Saiz-Jimenez), 15 papers from the CARAMEL Consortium,
and OC particles. Balkema 2004
4. Mathematics and aesthetics of soiling.
The rate of darkening of material surfaces was shown to follow Contract number: Contract EVK4-CT-2000-00029
a properly bounded exponential function. In addition to offering Start date – End date: 01/01/01 – 31/12/03
physical understanding, this function offers useful parameters Contract type: FP5 Cost-shared research
such as the final reflectance (or darkening of the material) and Duration (in months): 36
the first order soiling rate. These parameters are site-dependent
(and a concentration of the depositing EC particles) and thus Coordinator details:
likely to change under future atmospheric conditions. For the Dr Hélène Cachier
Laboratoire des Sciences du Climat et de l’Environnement,
aesthetics of soiling, public response was explored at different
LSCE/CEA-CNRS, CEA – Orme des Merisiers, bat 701,
sites through a range of suitable questionnaires. Acceptability of
FR-91191 Gif sur Yvette, France
soiling patterns as distinct from simple amounts of soiling was E-mail: cachier@lsce.cnrs-gif.fr Tel : +33 1 69 08 94 79
also explored using methodologies typical of the psychology of
art. Results reveal strong preferences or negative reactions, gen-
erally in relation to the obscuring of architectural forms. Finally, Cristina Sabbioni
they also suggest that building management has to recognise the Consiglio Nazionale delle Richerche
delicate balance between cleanliness and historicity. Italy
5. Environmental transfer and atmospheric soot-based thresholds.
User-friendly model Cesareo Saiz Jimenez
Consejo Superior Investigaciones Cientificas
From public responses to questionnaires related to colour appreci- Spain
ation of the building (using Munsell value or grey-scale lightness),
a Munsell threshold value of 6.6 and a GSc threshold value of 4.6 Peter Brimblecombe
were obtained for a ‘building to be dirty or to need cleaning’. University of East Anglia
Environmental data was explored in view of a general relationship United Kingdom
13
CHEF
Cultural heritage protection against flooding
http://www.chef.bam.de
1. Problems to be solved The research will be carried out through interacting work packages,
which will provide clear progress beyond the current state of the art:
The European Community has suffered from disastrous floods in aa WP1: identification of typical environmental hazards related to
recent years, which caused enormous damage and left hundreds of flood and being decisive to cultural heritage. Here, flood mecha-
peoples dead in several European countries. The flooding occurred nisms and hydrology will be one important aspect. Moveable
across regional borders and involved neighbouring states along the and immovable cultural heritage will be classified according to
rivers Elbe (2002), Odra (1997), Rhine (1993 and 1995) and many its sensitivity.
more. The economic losses were extremely high and affected not aa WP2: damage analysis of different materials and moveable cul-
only local regions but also the whole European Community. Europe tural heritage, their properties and their interaction with moisture,
will have to face further flood catastrophes due to climate change salt, pollution and other phenomena related to flooding catas-
and further building activities in flood-prone regions. As one pre- trophes. Survey of possible flood-related damage, validation of
requisite to minimise costs for rehabilitation, there is an urgent need NDT- and MDT-methods for damage detection, classification
for protecting the common European moveable and immoveable and definition of damage threshold will be given.
cultural heritage against flood and other environmental hazards and aa WP3: classification of damage on historical structures and sites
the threatening conditions resulting from this. These services should including buildings, infrastructure (e.g. bridges) and cities for
include monitoring and supervising drying and repairs as well as a understanding the mechanisms of static and dynamic loading,
comprehensive damage assessment. According to Article 7 of the moisture and salt transport, contamination and erosion problems
new Directive 2007/60/EC of the European Parliament and of the as well as the vulnerability of whole structures and sites.
Council of 23 October 2007 on the assessment and management of aa WP4: analysis of preventive and emergency measures (admin-
flood risks, guidelines and recommendations for strategies for pre- istrative and technical) and of restoration and repair techniques
vention and mitigation of damage of cultural heritage against flood for materials, movable heritage, structures and sites. Conclusions
will be developed to be included in flood risk management plans. from previous floods and measures will be drawn related to the
development of new and innovative technologies.
2. Scientific objectives and approach aa WP5: running and new case studies on different objects will
be investigated with regard to a multitude of aspects. Full-scale
CHEF proposes the integration of multi-disciplinary research as sci- models in the shape of small buildings will also be used as inter-
entific support to European policies. In this frame, cost-efficient and mediate case between laboratory and real buildings.
effective tools for the development of new and innovative strategies will aa WP6: development of guidelines and recommendations for the
be provided. For avoiding or mitigating flood-related damage of cultural strategies for an assessment of the vulnerability of cultural heritage
heritage, a multitude of aspects has to be considered, like historical against flood, the prevention and mitigation of damage, the emer-
significance and context of the object, building structure and its location gency and the medium- and long-term post-flooding action plans.
in risk areas. But also technical problems like lack of documentation,
unspecified structural condition and assembly, unknown material char- 3. Achieved scientific results
acteristics and parameters of exposure require intensive investigations.
Among other outcomes of the first project period, two results are
highlighted here:
4. Policy impact
Historic power station in Prague, flooded during 2002 Vltava Protection against flood catastrophes is targeted in the first place at
flood. (Photo: V. Herle) people, but also it is also directed at nature, economic goods and the
Historic power station in Prague, flooded during
2002 Vltava flood. (Photo: V. Herle)
14
CHEF
built environment within cities and villages. Residential buildings, 5. Dissemination and exploitation
factories, offices could be relocated; damaged buildings might be
of the results
rebuilt in different places in non-risk areas. Cultural heritage is often
bound to certain locations, environments or landscapes and bears its A dissemination plan has been set up including conferences, publica-
value in its historical context. Measures for flood protection have to tions, and the identification of exploitable products (guidelines and
be settled rather on prevention, repair and maintenance. recommendations).
The strategies developed in the project can help to make protection and During the second project meeting in Dresden in September 2007, a
repair of cultural heritage against flood and related hazards far more public workshop was organised. Members from the user group were
effective and allow these measures to be undertaken on a large scale. invited and presentations from the partners and the user group were
With reasonable management of cultural heritage sites, whole neigh- given on the following topics:
bourhoods can be prevented from deterioration. Another aspect is the aa flooding – a global phenomenon
understanding of damage processes not only induced by flood but also aa cultural heritage – threats, dangers, help
by other aggressive environmental conditions, such as air pollution, aa assessment, diagnosis, treatments
microclimate, earthquakes, traffic vibrations, etc. This knowledge will aa presentations from CHEF project
help to take precautions against such events and will thus reduce the
impact of environmental damage on historical structures.
Coordinator details:
Dr Christian Köpp
Dr Christiane Maierhofer
Division VIII.2
Non-Destructive Damage Assessment and Environmental
Measurement Methods
Bundesanstalt für Materialforschung und –prüfung (BAM)
Unter den Eichen 87, 12205 Berlin
Germany CHEF partners during 2nd project meeting at Pillnitz
Email: christian.koepp@bam.de CHEF partners during 2nd project meeting at
Castle / Dresden. The high water during 2002 Elbe flood almost
Tel. number: +49 30 8104 4220 Pillnitz
reached the Castle
balcony./ Dresden. The high water
during 2002 Elbe flood almost reached the
balcony.
Milos Drdacky Ramiro Sofronie Miha Tomaževič
Institute of Theoretical and Applied ECOLAND Slovenian National Building and Civil
Mechanics (ITAM) Training Centre on Sustainable Engineering Institute
Czech Academy of Sciences Development Dept. of Structures
Czech Republic Romania Slovenia
15
CULT-STRAT
Assessment of air pollution effects on cultural
heritage – management strategies
http://www.corr-institute.se/cultstrat/
16
CULT-STRAT
soiling of sensitive materials, including consideration of appropriate In addition the manual, results have been published in numerous
adjustments that take into consideration the added value of materials scientific papers and at conferences, primarily those on research into
deployed on objects of artistic or cultural significance. For facilitat- cultural heritage.
ing practical application, a simple toolkit is recommended, which has
begun to be used as an indicator of damage on objects of cultural Two workshops have been organised within the project, both as
heritage on the World Heritage List. joint events of CULT-STRAT and ICP Materials Task Force of the
Convention on Long-Range Transboundary Air Pollution. The first
one – “Economic Impacts of Air Pollution on Cultural Heritage”
– was held at the University of Catania, Sicily on 6–7 April 2006.
The second one – “The Protection of Cultural Heritage from Air
Pollution: The need for effective local policy, maintenance and
conservation strategies” – took place in the Louvre Palace, Paris on
15–16 March 2007. The reports from the workshops are available on
the project website.
Coordinator details:
Dr Vladimir Kucera,
Swedish Corrosion Institute, Drottning Kristinas väg 48, SE-114
28 Stockholm, Sweden
E-mail: vladimir.kucera@corr-institute.se
Tel: +46 8 674 1725
E-mail: johan.tidblad@kimab.com
Tel: +46 8 440 4800
17
MULTI-ASSESS
Model for multi-pollutant impact and assessment of
threshold levels for cultural heritage
http://www.corr-institute.se/MULTI-ASSESS/
4. Policy impact
Interaction of atmospheric pollutants, meteorological condi-
tions and deposition mechanisms in the process of atmos- So far the effect on materials in general, and on objects of cultural
pheric corrosion. heritage in particular, has not been included in the Council Directive
1999/30/EC relating to limit values of air pollutants. The inclusion of
tolerable levels for corrosion and soiling rates of selected materials,
3. Achieved scientific results and corresponding limit values for pollutants in an analogous way
as for human health and ecosystems, would be a major step in the
Exposure programmes and laboratory investigations including char- protection of the European cultural heritage. The target levels should
acterisation of the pollutants HNO3 and particulate matter, together serve primarily for protection of ‘sensitive’ zones with objects of high
with the more traditional climatic and pollution (SO2) parameters, cultural value like medieval historical towns or objects included in
have resulted in several databases suitable for the evaluation of the UNESCO World Heritage List.
18
MULTI-ASSESS
Katerina Kreislova
SVUOM Ltd
Czech Republic
Tim Yates
Building Research Establishment Ltd
United Kingdom
Terje Grøntoft
Norwegian Institute for Air Research
Norway
Joanna Kobus
Institute of Precision Mechanics
Poland
Gundars Mezinskis
Riga Technical University, Institute of Silicate Materials
Latvia
19
NOAH’S ARK
Global climate change impact on built heritage and
cultural landscapes
http://noahsark.isac.cnr.it
1. Problems to be solved aa research, predict and describe the effects of climate change on
Europe’s built cultural heritage over the next 100 years
Climate change over the next 100 years is likely to have a range of aa develop mitigation and adaptation strategies for historical build-
direct and indirect effects on the natural and material environment, ings, sites, monuments and materials that are likely to be worst
including the historical environment. Important changes will include affected by climate change effects and associated disasters
alterations in temperature, precipitation, extreme climatic events, soil aa provide electronic information sources and tools, including web-
conditions, groundwater and sea level. Some processes of building based climate risk maps and a vulnerability atlas for heritage
decay will be accelerated or worsened by climate change, while oth- managers to assess the threats of climate change in order to visua-
ers will be delayed. While the impacts on individual processes can lise the built heritage and cultural landscape under future climate
be described, it is difficult to assess the overall risk posed by climate scenarios and model the effects of different adaptation strategies
change based on currently available data. Linking global changes aa advise policy-makers and legislators through the project’s policy
to the response of material surfaces of archaeological and historical advisory panel.
structures remains a challenge.
3. Achieved scientific results
As an initial work step, the most relevant climate parameters
affecting cultural heritage were identified. Outputs from Hadley
Models (HADCM3 and HADRM3) were used to provide a pic-
ture of the European climate from 1961 to 2099. These data
were employed to produce hierarchical maps aimed at presenting
broad regional future threats. Firstly, climate change was mapped
in terms of traditional climate parameters relevant to cultural
heritage. Secondly, climate parameters were combined to produce
specific heritage climatologies.
4. Policy impact
The output of NOAH’S ARK aims to underpin the following gaps
existing in current EU policy:
aa inclusion of cultural heritage protection as a prerequisite for imple-
menting sustainable development
aa inclusion of immovable cultural heritage among the indicators for
integrated assessment
aa favouring dialogue between air quality and climate change
programmes
aa providing input to the Environment Action Programme within areas
Ruins of the mediaeval church in Trzesacz, at the Baltic Sea, of climate change and quality of life.
Poland, destroyed by the shift of the coastline
5. Dissemination and exploitation
of the results
2. Scientific objectives and approach
The objectives of the NOAH’S ARK project were to: Publications:
aa determine the meteorological parameters and changes most criti- aa Bonazza, A., Brimblecombe, P., Grossi, CM. and Sabbioni, C.,
cal to the built cultural heritage ‘Carbon in black layers at the Tower of London’, Environmental
20
NOAH’S ARK
Science & Technology, 41, 2007, pp. 4199–24.
aa Brimblecombe, P., The NOAH’s ARK Project. ‘The impact of
May Cassar
future climate change on cultural heritage’, The eggs, Newsletter Centre for Sustainable Heritage -
& Information service of the E.G.U, 12, pp. 31-33, 2005. The Bartlett School of Graduate Studies
aa Brimblecombe, P., Grossi, C.M. and Harris, I., ‘The effect of University College London
long term trends in dampness on historic buildings’, Weather, United Kingdom
61, pp. 278–81, 2006.
Peter Brimblecombe
aa Grossi, C.M., Brimblecombe, P., Esbert, R.M. and Alonso, F.J., School of Environmental Sciences
‘Color changes on building limestone surfaces’, Color Research University of East Anglia
and Application, 32, pp. 320–31, 2007. United Kingdom
aa Kozlowski, R., Bratasz, L. and Jakiela, S., ‘Damage of wooden
Johan Tidblad
cultural objects due to changes in ambient relative humidity’,
Korrosions- och Metallforskningsinstitutet
Wood Science and Technology, (submitted) 2005. Sweden
aa Mašín, D. and Herle, I., ‘State boundary surface of a hypoplastic
constitutive model for clays’, Computers and Geotechnics, 32, Roman Kozlowski
pp. 400–10. Instytut Katalizy i Fizykochemii Powierzchni, Polska Akademia
Poland
The partners have also disseminated information at many confer-
Miloš Drdácký
ences. At the end of the project, the following operational database Ústav teoretické a aplikované mechaniky Akademie ved Ceské
and guidelines were produced: Republiky
aa web-based climate risk maps of European scenarios Czech Republic
aa a vulnerability atlas for cultural heritage for Europe based on the
Cesareo Saiz-Jimenez
potential impact of more intense rainfall, increased temperature, Consejo Superior de Investigaciones Cientificas, Instituto de
change in precipitation, increased storms, high winds and flood- Recursos Naturales y Agrobiologia,
ing and the effects these will have on historical buildings and Spain
their contents
Terje Grøntoft
aa guidelines on cultural heritage adaptation strategies to climate
Norsk Institutt for Luftforskning
change, which covered the following themes: rainwater and Norway
drainage infrastructure; effects on structures; effects on materials;
indoor–outdoor interactions. Ian Wainwright
Ecclesiastical Insurance Group
United Kingdom
Contract number: SSPI 501837
Start date – End date: 1/06/04 – 31/05/07 Antonio Gómez Bolea
Contract type: FP6-STREP Biologia y Medio Ambiente,
Duration (in months): 36 Spain
Coordinator details:
Prof. Cristina Sabbioni
Institute of Atmospheric Sciences and Climate (ISAC) - National
Research Council (CNR),
Via Gobetti 101, IT-40129 Bologna, Italy
E-mail: c.sabbioni@isac.cnr.it
Tel: +39 051 63995725
21
22
Chapter 2
2. Damage and restoration of monuments and
historical buildings & industrial heritage
23
24
Introduction The preservation of monuments and historical buildings – whether
ancient or more recent – present a host of problems. This chapter
focuses on the damage, protection and restoration challenges of built
cultural environment, including Europe’s industrial heritage.
However cultural restoration goes far beyond stone and plaster. The
CONSIST project developed new conservation materials and strate-
gies for ‘Industrial age’ iron and steel structures, while LICONS
examined new cost-effective techniques to repair and restore structural
timber. The thematic network FIRE-TECH sought to evaluate fire risk
in historical structures while meeting suitable fire code standards in
aesthetically acceptable ways.
25
ASSET
Assessment of suitable products for the conservation
treatments of sea-salt decay
1. Problems to be solved tions by sea salt and to immobilise the already present sea salt
creating a ‘memory effect’
The products suitable for preventing sea-salt decay should isolate aa to contribute to safeguarding buildings and monuments of cities
sea salts trapped in the pores and prevent further penetration. where the behaviour of stone and brick masonry is conditioned by
The care of monuments threatened by sea-salt damaging mecha- the marine environment.
nisms is a concern for the whole of Europe: how to hinder or limit
sea-salt damage to monument buildings in the most efficient and The project examined the sources and processes of penetration by the
durable way. The development of methodologies of minimising salts in the stone’s pores. Then, existing and new products (water repel-
sea-salt damage to historical buildings contributes to the reduction lents) were analysed on different types of stone, brick and masonry,
of the use of natural resources needed for retrofitting and protect- considering the depth of penetration in the materials containing salts,
ing historical buildings in the most effective way, consequently quality of the penetration (comparison between the penetration of the
helping to reduce costs involved in the protection maintenance. solvent and that of the active component), the diameter of the pores
The care of historical buildings is not only an aesthetic duty but is reached by the products employed and their effectiveness in circum-
also necessary for the economy of a country with tourism and cul- stances of accelerated/artificial aging (accelerated cycles of marine
tural activities in or around monuments. Ineffective or inappropriate, spray/drying). Finally, the application on representative materials
and even destructive, conservation interventions are often applied to exposed in situ and the control of the effectiveness in time of the con-
the various building materials under different microclimatic condi- servation treatments on selected surfaces (buildings and monuments in
tions without any knowledge of the specific sea-salt decay phenom- participating countries) were considered. The control of effectiveness
ena and mechanism triggered accordingly. in time of treatments was carried out with crystallisation tests, magnet-
ic resonance, dynamic simulator for sea salts and with non-destructive
The phases of the research in the ASSET project concerned the meth- tests in situ (automatically processed maps) of treated surfaces.
odology to quantify the damage of sea salt in coastal zones, selection
of traditional and new generation treatment products, consideration 3. Achieved scientific results
of possibilities and risks of treatments on salt-loaded substrates, and
the criteria methodology for the treatment. The damage on stone aaSea-salt sources
and brick masonry is caused by the intensification of weathering The recognised and investigated sea-salt sources are as follows:
processes provoked by sea salt. This damage affects many cities in • Sea flooding – in coastal areas, the problem of flooding is
Europe on the North Sea, Atlantic and Mediterranean coasts. especially acute, while subsidence due to the drainage and
withdrawal of underground waters is often found. Natural
The project sought to contribute to the conservation and recovery of compaction may also occur when naturally compacted sedi-
historical properties of European cultural heritage through the adoption ments are buried by younger material; an increase in flood-
of a new line of investigation. Suitable products are necessary to isolate ing is the main result of this type of subsidence.
sea salt trapped in pores and to prevent further penetration; however, • Rising damp – the phenomenon of capillarity is the principal
the suitability of their employment must be able to annul the humidity factor responsible for the rise of dispersed waters and those of
according to the environment in which stone materials and bricks are the superficial levels of the subsoil. In general, the water table
exposed. Therefore knowledge of the mechanisms of sea-salt decay gives rise to surface phenomena extending along the building
must be developed as well as tools and methodologies which improve walls of a persistent character (stains, mould, corrosion, etc.);
forecasting, monitoring and assessment of sea-salt damage. To have an on the contrary, the dispersed water, although quantitatively
exhaustive overview of the damage due to sea salt, many buildings were significant, has an irregular distribution which corresponds to
selected with differences in function, type of damage, location of the irregular behaviour of the stone.
most serious damage, damage materials, and main sources of salts and • Marine aerosol – the phenomenon of the condensation of
of moisture. The buildings selected as cases studies are located in Italy marine aerosol is generally extremely important for the
(Venice, brick and hard stone), in the Netherlands (brick), in France decay of a structure. This is because its particular mechanism
(La Rochelle, hard and soft stone) and in Greece (Rhodes, soft stone). produces very damaging effects both in qualitative and quan-
The exposure conditions allowed us to investigate the effects of flood- titative terms
ing from the sea, rising damp and marine aerosol as sea-salt sources. aaBuilding materials
Bricks different in chemical composition and textural proper-
2. Scientific objectives and approach ties – and hard and soft stone were the most common building
materials examined.
There were two principal objectives of the project: aaStone/brick decay patterns
aa to prepare, apply and control suitable products for conservation The decay patterns identified were related to the coastal environment
interventions on surfaces that are able to prevent further penetra- with different characteristics which can be summarised as follows:
26
ASSET
a) sub-tidal zone b) inter-tidal zone c) supra-tidal zone. The last phase of the project focused on the elaboration of a stand-
aa Implementation of masonry damage diagnostic system (MDDS) ard methodology and a protocol for the application of conservation
A form for the collection of data on the buildings investigated was treatments for sea–salt decay to European cultural heritage.
developed. The form was designed to be as flexible as possible,
a sort of checklist that helps the investigator to report the most 4. Policy impact
important information on the building. Particular attention was
given to the source of the sea salts and of the moisture. The project aimed to improve the EU’s social objectives by:
aa Selection of traditional and new generation treatment products aa Improving employment opportunities – the innovative technol-
Several liquid (traditional, both solvent- and water-based) and cream ogy proposed to improve forecasting and assessment of sea-salt
water repellents were tested in the first phase of the research. The per- damage established the best practice on solving problems and
formance of both water repellent and consolidant treatments on non- represents significant industrial and commercial potential. The
contaminated substrates was evaluated by means of laboratory tests in benefits also entailed an increase in production and jobs. End-
order to select the products. The treatments were chosen from among users of the project results could be scientists, restorers and
the most diffused products used in the past and the recently devel- architects, bodies in charge of the conservation of monuments,
oped cream treatments. The investigation was supported by nuclear firms producing treatment products and renderings, applicators
magnetic resonance (NMR), dynamic simulator and computerised of the treatment/rendering and university students.
analysis on treated and untreated samples. The nuclear magnetic aa Preserving or enhancing the quality of the environment – the
resonance measures were utilised to understand the moisture-salt acquisition of relevant scientific and technological research
transport in building materials and to follow the penetration of the results in Europe stimulates social awareness and increases the
applied products in the substrate assessing the final penetration depth. participation of citizens and countries in decision-making regard-
The experiments by dynamic simulator were fundamental from two ing historical buildings in a marine environment. The conserva-
perspectives: to detect the importance of the porosity in the processes tion interventions are planned for mitigation or abatement of
of stone decay and to assess the effectiveness of the treatment on natural pollution (sea-salt) effects on historical buildings. The
tested materials. The graphs ‘mass variation–time’ gave information technologies were applied with selected products and permitted
related to the porosity of the material, to the mass variations due to the restorers to work according to norms in a safe and accurate
first moisture absorption, and to the quantity of lost material due way. The products selected or developed should not be dangerous
to mechanical action of the salt re-crystallisation. Non-destructive for either human health or for the environment.
controls were developed to investigate aspects related to the influence
of conservation treatments on samples of building material. ICAW 5. Dissemination and exploitation
technique (integrated computerised analysis of weathering) was also
of the results
employed to detect in-situ intrinsic anisotropic features (textural, elas-
tic and mechanical) of the materials and the moisture/salt transport. Transferring new techniques – tools and databases were developed
aaEvaluation of the performance of water repellent treatments to elaborate the conservation strategies regarding the marine envi-
on salt-contaminated substrates ronment and damage to monuments, maximising the introduction of
The possibilities and risks of water repellent treatments when new and advanced materials and technologies. Many presentations
applied on salt-contaminated substrates were tested in the second were made at the 6th International Symposium on the conservation
phase of the research. The performance of treatments on salt- of monuments in the Mediterranean basin, Lisbon, 7–10 April 2004.
contaminated substrates was evaluated, taking into account the Zezza, F,, “Innovative technologies and materials for the protection
situations that occur most frequently in reality, and was simulated of cultural heritage, industry, research, education: European aspects
in the laboratory. and perspectives”, the EC asset project assessment of suitable prod-
aaPossibilities and risks of treatments on salt-loaded substrates ucts for conservation treatments of sea-salt decay, European confer-
The first consideration that emerges from comparison analysis of ence, Athens, 16–17 December 2003.
the laboratory tests indicates that:
• it was possible to assess the suitable products against
sea-salt decay Contract number: EVK4 - 2000 - 00023
• the identification of a suitable product from the selected Start date – End date: 1/02/01-30/04/04
products for the treatment depends on granulometry and Contract type: FP5 Cost-shared research
Duration (in months): 39
porosity of the different substrates.
aaStandard methodology for the application of Coordinator details:
protective products Prof. Fulvio Zezza
The development of guidelines for the application of suitable Università IUAV di Venezia, Facoltà di Architettura
products for sea-salt decay to European cultural heritage was an Tolentini - S.Croce 191, IT-30125 Venezia, Italy
E-mail: zezzaf@iuav.it
objective for the third phase of the research. The project verified
Tel: +39 041 257 1841
the incidence of the different environmental conditions of the
coastal zone and of the masonry morphologies to develop a stand-
ard methodology for the application of the protective products. It Rob van Hees, the Netherlands Organisation for Applied
must be stressed that the moisture/salt transport cannot be stopped Scientific Research, the Netherlands
through the application on the surface of the conservation products. Eugenio Vassallo, University of Venice, Italy
Remarkably, the masonry morphology and the foundation typology Fernand Auger, Université de la Rochelle, France
of the buildings influence the origin and the spreading of sea salt.
27
COMPASS
Compatibility of plasters and renders with salt-loaded
substrates in historical buildings
http://www.compass-salt.org
The research carried out within this project helped to clarify the The system can also offer support to individuals and organisations
relationship between pore-size distribution of plasters and salt crys- involved in the maintenance of built cultural heritage and diagnosis of
tallisation damage. damage in general.
The new explanation of part of the salt crystallisation damage The system assists the end-user in carrying out a thorough investigation,
mechanisms centres on the dilation due to NaCl and some other which includes:
salts after each crystallisation cycle, which is an irreversible proc- aa assessment of damage to render or plaster, causes, moisture/salt
ess, leading to bulging of the surface of the plaster and loss of load and sources
cohesion (sanding) (see figure). aa diagnosis, assessment of risk factors and advice on measures and
on most appropriate
28
COMPASS
The system has a broad background information section concerning
plasters and containing the main results of the research. 5. Dissemination and exploitation
of the results
4. Policy impact
Knowledge transfer was undertaken by (among others): newsletters,
Project results contributed to more sustainable cultural heritage, website and workshops; the website was to be open for a further five
through better and more effective interventions and maintenance. Well- years. Symposia in Madrid (ES), Paris (FR) and in Lisbon (PT) and an
maintained monument buildings will attract residents and tourists with end-users’ workshop in Zeist (NL) were successfully organised.
economic benefits for the community and a positive impact on the
quality of life in the cities. European industry were to benefit from the An important result, the decision support system M|DDS for knowledge
results by helping it obtain a leading position in this field. transfer towards end-users, was obtained. MDDS was available for pur-
poses including education (Delft University has started to use it in its
MSc courses). Other courses for practitioners are foreseen in 2006.
A large number of publications, interviews in local newspapers have
also contributed to the knowledge transfer.
Coordinator details:
Prof. Rob P.J. van Hees
TNO Built Environment & Geosciences
PO Box 49, 2600 AA Delft
The Netherlands
Email: rob.vanhees@tno.nl
Tel: +31 15 2763000
29
CONSIST
Comparison of conservation materials and strategies
for sustainable exploitation of immovable industrial
cultural heritage made of iron and steel
http://www.consist.fraunhofer.de
natural resins currently available. Pilot applications of the most Pilot objects 1, 2, 3
Policy and scientific request:
promising coatings on three selected objects in Ireland, Poland, - VOC-limitation
- reversibility
Preservation management plan with respect
and Germany will be performed to compare the advantages of to the exploitation of pilot objects after restoration treatment - improvement of protection
- improvement of accessibility
the new materials with the commercially available systems.
Pilot application of restoration and conservation materials
Management concepts for industrial heritage sites will be estab- and measures, recommendations for sustainable exploitation
of industrial heritage
lished to demonstrate the potential for economic growth through
the application of new methodologies. The proposed project will
provide a comparison between traditional and new materials, The project CONSIST will, on the one hand, identify promising tradi-
which will increase the preservation skills and exploitation of tional conservation materials and measures and, on the other hand,
industrial heritage sites while ensuring adequate protection. compare these established techniques with modern materials and appli-
cation skills. Moreover, the project aims to develop new conservation
2. Scientific objectives and approach materials for which the reversibility and re-treatability will be investi-
gated in laboratory experiments. This will lead to the most advanced
The objectives can be summarised as follows: conservation strategies for the specific field of industrial heritage. The
aa Compare traditional conservation materials and technologies with most promising solution to improve the properties of these ORMOCER®
modern conservation treatments, applied on iron/steel industrial- resins will be a combination of the existing ORMOCER® with other
monuments; systems coming from technical applications like polyurethanes or acr-
aa Evaluate the reversibility of conservation materials and measures, ylates. These water-based resins proved to be highly resistant to weath-
thus validating the re-treatability of industrial monuments; ering in industrial applications on iron/steel with good adhesion and
aa Adapt established application techniques and materials to large- consolidation properties (for example in the railway and automotive
scale outdoor industrial monuments with extensive surface areas; sectors). The functional reactive groups of these systems can be com-
aa Develop improved conservation materials, providing long-term bined with available ORMOCER® systems by a nano-scaled sol-gel
protection for indoor and outdoor iron and steel monuments, with synthesis of isocyanato-based or succinic acid-based polymerised acr-
special relevance to water-based transparent coatings, produced ylate silanes with hybrid sols (the latter normally used as ORMOCER®
by nano-scaled preparation techniques; precursors). The new systems will exhibit many important advantages:
30
CONSIST
they will be easy to apply by spraying, will consist of only one compo- A Framework for Action Com (1998) 605 final of 28.10.1998). The
nent as lacquer resin (without any primer application etc.), will show conservation material development will respect standards set by con-
high mechanical and weathering resistance, and will exhibit good adhe- servation ethics, focusing on the reversibility and re-treatability of
sion and consolidation properties. They will also be reversible due to transparent coatings. The newly developed systems are water-based
the content of acrylic functional groups. Curing will be performed at and thus provide an alternative to solvent-based lacquers and natural
ambient conditions and temperatures, supported by a cross-linking resins currently available. In this respect the project will support the
reaction (addition of hardener). implementation of EC Directive 1999/13/EU, aiming at the limita-
tion of the emission of volatile organic compounds released when
3. Achieved scientific results (planned) using organic solvents.
31
DESALINATION
Assessment of desalination mortars and poultices for
historic masonry
http://www.bk.tudelft.nl/desalination
1. Problems to be solved use in the participating countries has been conducted by means
of a general web-based survey and face-to-face interviews with
The DESALINATION project is dealing with some of the most dev- conservation professionals. The results have been used to select
astating effects of climate changes, that is to say increased rainfall mortars and poultices to be tested in the laboratory.
and floods, which can be expected to contribute to and significantly aa A common procedure for assessing the state of conservation
increase the salt loads in wall structures of historical buildings, both through sampling by powder drilling has been prepared and the
in coastal areas and along main rivers. The desalination treatments case studies research begun.
for built heritage are necessary because salts can cause huge dam- aa A new research methodology involving non-destructive tech-
age to valuable monuments and require high maintenance costs for niques has been developed to assess the salt damage of different
plasters, brick, stone and other building materials. In addition, salts substrates (characterisation of supports), to evaluate the perform-
cause irrevocable damage to valuable surfaces such as wall paintings, ance of desalination systems and to control the surfaces before
which cannot be replaced and protective treatments, such as water and after the desalination treatment.
repellents and consolidants, may even lead to more damage and aa A report on the characteristics of desalination mortars and
faster decay, in the presence of salts. mortar/poultices has been produced by laboratory analyses and
the selection of mortars poultices to be used in case studies has
The project will result in a better insight into the quality of desalina- been determined.
tion methods and an improvement in these methods and products, as aa The first results of salt diffusion on porous building materials have
well as their way of application. been obtained. The construction of a set-up to control the relative
humidity and airflow during the experiments in the NMR has been
2. Scientific objectives and approach undertaken and the construction for the NMR insert for measuring
the moisture and ion transport during poulticing started.
The central scientific and technical objectives of the project are to
gain a better understanding of salt transport mechanisms between 4. Policy impact
a salt-laden substrate and a material applied on top of that and to
assess the possibilities and limitations of desalination treatments. The proposed research fits into the European initiative towards
Non-destructive techniques (NDT) and nuclear magnetic resonance standardisation in the field of “Conservation of Cultural Properties”,
(NMR-scanner) test the surfaces and different substrate–mortar/ initiated by European standardisation organisations and for which a
poultice combinations with different granulometry will be applied. CEN/TC was set up (CEN 346).
Advanced techniques able to determine parameters and performance
of the desalination systems will be used. In the DESALINATION project, desalination methods will be
assessed, new scientific knowledge obtained and a new standard
The core of the project is the assessment of desalination systems on test proposed. This will contribute not only to the quality of the
wall and finishes in monument buildings and their impact on these methods themselves but also to the quality of the preservation of
monuments. The project will result in new knowledge about the way the monuments subject to these methods. In this respect the project
desalination works and the basic requirements for new desalination will greatly improve preservation and preservation strategies for
methods. Moreover, the project foresees: monument buildings and will contribute to decrease or even stop
aa the development of a test method for determining the effective- further deterioration of monument buildings. It will contribute to
ness of desalination systems; a sustainable cultural heritage in which less maintenance is needed
aa the definition of clear guidelines for an adequate choice of a and material will be replaced less frequently. To stop monument
desalination system for building materials (and constructions) to deterioration and come to preservative action is a key issue in the
be put at the disposal of those responsible for the care and mainte- EU policy for preserving European cultural heritage as is set down
nance of built cultural heritage (architects and advisors, and also in the “European Spatial Development Perspective (1999) and the
owners and heritage authorities); Community Action Plan in the field of Cultural Heritage” (Council
aa the practical and targeted dissemination of the knowledge through decision OJ 94/C 235/01).
MDDS (Monument Damage Diagnostic System);
aa d) the support of European SMEs in product development. 5. Dissemination and exploitation
of the results
3. Achieved scientific results
After one year from the project start, a first DESALINATION work-
After the first year of project research, the following results have shop has been organised by IUAV in cooperation with TNO and
been achieved: Remmers (P1, P2 and P6) in Italy in order to present to architects,
aa A review of desalination treatments and application techniques in contractors, SMEs and heritage authorities, responsible for care
32
DESALINATION
and maintenance of cultural heritage, some initial results from the
project. In addition to scientific presentations and discussions during Rob P.J. Van Hees
The Netherlands Organisation for Applied Scientific Research
the first day, practical demonstrations were given on the second. The Netherlands
The project website has been developed (www.bk.tudelft.nl/desalina-
tion) and will be updated with the research progress and newsletters. Véronique Vergès-Belmin
The first results of the project have been presented during some Laboratoire de Recherche des Monuments Historiques (LRMH)
international congresses: France
aa Zezza, F., “Assessment of salt damage problems: balance and per- Leo Pel
spectives of a research line to control the contaminated substrates”, Eindhoven University of
Salt Damage Congress, Ghent, Belgium, 9–11 May 2007. Technology - Department of Physics
aa Zezza, F., Galgaro, A., Di Sipio, E., Di Pietro, F., “Characterization The Netherlands
of a brick masonry by NDT analyses: the Terese convent case
Adrian Heritage
study, Venice”, 7th International Symposium on the Conservation
Fachhochschule Koeln
of Monuments in the Mediterranean Basin, Orléans, France, 6–9 University of Applied Science
June 2007. Germany
Eddie H. Seinen
Remmers Bouwchemie B.V
Contract number: SSPI 22714 The Netherlands
Start date – End date: 01/04/06–31/12/09
Contract type: FP6-STREP Bert van Bommel
Duration (in months): 45 Rijksgebouwendienst - Government Building Agency
The Netherlands
Coordinator details:
Prof. Fulvio Zezza Thomas Vieweger
University IUAV of Venice - Faculty of Architecture Enterprise Quelin
Tolentini - S.Croce, 191 IT-30125 Venice, Italy France
Email: zezzaf@iuav.it
Eric Pallot
Tel: +39.041.2571841
Architecte en Chef des Monuments Historiques
France
Eric Doehne
The Getty Conservation Institute
USA
33
DIAS
Integrated tool for in situ characterisation of effec-
tiveness and durability of conservation techniques in
historical structures (Drilling – Indentation – Acoustics of Stones)
http://minelab.mred.tuc.gr/dias
34
DIAS
in the preservation and restoration of historical monuments, quar-
rying and stone processing industries, geotechnical and petroleum Contract number: DIAS-EVK4-CT-2002-00080
engineering, construction sector and civil engineering sectors. A few Start date – End date: 01/11/02 – 31/10/05
examples are: Contract type: FP5 Cost-shared research
aa inspection of the quality of consolidation measures in stone Duration (in months): 36
structural members
aa in-situ monitoring of the rate of degradation of stones in struc- Coordinator details:
tures in aggressive environments versus the exposure time Dr George Exadaktylos, Associate Professor
aa evaluation in a quick, cost-effective and reliable fashion of the Technical University of Crete
Dept. of Mineral Resources Engineering, Technical University of
mechanical characteristics of virgin stone material as a function
Crete, University Campus, Akrotiri, GR-73100 Chania,Greece
of its position and orientation in the quarry (lithological unit and E-mail: exadakty@mred.tuc.gr
anisotropy direction) Tel: +30 28210 37690
aa characterisation of mechanical properties of rocks surrounding
various geotechnical constructions, such as tunnels, slopes, etc.
aa in-situ quasi-non-destructive durability and damage assessment
of buildings and civil engineering structures (e.g. bridges, tun- Euripides Papamichos
nels,) made from stone, concrete, etc. SINTEF Petroleum Research
aa in-situ monitoring of the increase in the strength of concrete in Norway
time after its placement in civil engineering structures.
Koen Van Den Abeele
This project could also significantly assist in the development of
KULAK, IRC
appropriate standardisation and quality control procedures, leading Belgium
to efficient presentation and restoration strategies of stones in his-
torical monuments and buildings. Also, more comprehensive train- Piero Tiano
ing and educational programmes could be established so that future CNR – ICVBC
Italy
architects, geologists, engineers and technologists fully understand
the physicomechanical properties and damage mechanisms of stones Emilio Valentini
in order to derive accurate predictions of performance of rocks and SINT Technology S.r.l.
concretes during the lifespan of buildings. Italy
Bart Bollen
5. Dissemination and exploitation IMCE.N.V.
of the results Belgium
35
FIRE-TECH
Fire-risk evaluation to European cultural heritage
4. Policy impact
A mathematical decision-supporting procedure is available to all stake-
holders in the field of cultural heritage and its protection against fire.
Additionally, a lot of information has been made available on fire
risks, existing national regulations in Europe, available fire protection
techniques and behaviour of ancient materials.
36
FIRE-TECH
A. Hornok
Non-profit Company for Quality Control
and Innovation in Building
Hungary
37
GRAFFITAGE
Development of a new anti-graffiti system, based on
traditional concepts, preventing damage to architec-
tural heritage materials
http://www.graffitage.com
1. Problems to be solved with polymeric amines modified by fluorocarbon residues. These will
be a new generation of anti-graffiti systems, which, after further devel-
Graffiti is a major and increasing danger to architectural heritage mate- opment, could be commercialised and applied by SMEs involved in this
rials, generating a negative social connotation at the same time. Apart market, thus increasing the competitiveness of these companies.
from aesthetic aspects, interactions of graffiti with substrate, as well as The main characteristics of these products are:
cleaning procedures, threaten historical substance. Monuments made aa low surface energy
of stone, bricks and mortar are menaced by this problem because, very aa permanent under outdoor conditions
often, porous natural materials have been employed. Two major kinds aa reversible using specially designed mild cleaning systems
of coatings are currently being used for protecting surfaces against graf- aa permeable to water vapour
fiti: permanent and sacrificial. The first kind is suited to materials with aa impermeable to liquid water
low porosity, such as metals and concrete, but does not fit the require- aa transparent
ments for porous ancient materials. The second is sometimes used in The objective will be achieved by means of research activities such as:
monuments but is not an appropriate solution, since removal procedures aa definition of requirements and test procedures
can damage substrates. Hence, an effective solution for anti-graffiti aa design of the new anti-graffiti system
systems is an urgent social and technical necessity. aa characterisation of substrates
aa comparative assessment of currently used and new protection and
conservation strategies
aa evaluation of the technical and socio-economic impact of the new
anti-graffiti on cultural heritage materials.
4. Policy impact
The project will have an important industrial impact, having a strong influ-
ence on the market share of a variety of industrial sectors like anti-graffiti
manufacturers and suppliers, restorers and graffiti cleaners, architects and
decision-makers of monument restoration, owners of monuments, etc.
Graffiti in the ‘Escuela de Artes Aplicadas y Oficios Artísticos’ The design of a new anti-graffiti product able to eliminate graffiti in an
of Barcelona. easy and inexpensive way would considerably reduce cleaning and main-
tenance costs of treated surfaces. In consequence, considering the suitabil-
ity of the product for cultural heritage and the reduction of maintenance
2. Scientific objectives and approach costs, the application of anti-graffiti in monuments is expected to increase
dramatically. The impact of the development of this project not only
The main objective of this project is to develop novel conservation coat- addresses direct economic aspects, but also has an important influence on
ings suited to protecting materials of historical monuments based on a the conservation of our monuments, strongly influencing the economy of
similar structure of ancient protein coatings and avoiding the disadvan- a region or city. Thus, the societal impact of the project is also noteworthy,
tages of currently used anti-graffiti coatings. This development is based contributing to the benefit of European society by promoting the adequate
on a totally new formulation made by complexation of polyampholites conservation of monuments and other cultural heritage.
38
GRAFFITAGE
Andre Laschewsky
Fraunhofer-Institut Angewandte
Polymersforschung
Water-based Polymers
Germany
Andrzej Dworak
Polish Academy of Sciences
Institute of Coal Chemistry
Poland
Dirk Hoffmann
Bundesanstalt für Materialforschung und – prüfung
Department VII Safety of Structures
Germany
Yves Vanhellemont
Belgian Building Research Institute
Materials, Technology and Environment
Belgium
Carlo Giavarini
Centro Interdipartimentale de Scienza e Tecnica
per la conservazione del Patrimonio Storico-Architettonico,
Università De Roma La Sapienza
Italy
M Paz Revilla
Restauraciones Siglo XXI, S.L.
Spain
Blanca Brea
Ayuntamiento de Bilbao
Gabinete de Arquitectura
Spain
39
HISTO-CLEAN
Intelligent measurement technology for laser
cleaning of historical buildings and monuments
40
HISTO-CLEAN
Coordinator details:
Dr Rudiger Burkhardt
Ingenieursbüro für Bauwerkserhaltung
DE-99427 Weimar, Germany
Tel: +49 3643 43 96 0
Fax: +49 3643 43 96 55
E-mail: burkhardt@ibw-weimar.de
Website: http://www.ibw-weimar.de
Thomas Brennan
TKB & Associates Ltd, Conservation House
Gallagh, Clontibret, Monaghan
Ireland
Erich Pummer
Pummers Atelier
Austria
41
ITER
Isotopic technologies applied to the analysis of
ancient Roman mortars
http://www.iter-eu.com
42
ITER
43
LICONS
Low intrusion conservation systems for timber structures
http://www.licons.org
1. Problems to be solved
Techniques for the safe, cost-effective repair and restoration of
structural timber are essential to maintain and improve the built
environment of European cities. The purpose of the project was
to develop, validate and provide the design tools for restoration
systems which combine structural adhesives and fibre-reinforced
plastics (FRP).
44
LICONS
Each SME repair contractor provided existing documentation for the
specification and execution of site-based repairs. This information Michael Herbert
was collated, the critical aspects identified and new documentation ECC Timber Engineering
United Kingdom
assembled. Information was incorporated from the most recent expe-
riences of repair contractors. Documentation was developed which
Pascal Boucher
brought together critical analysis and quality assurance recommenda- AMTC
tions. Monitoring and practical embedded sensor technologies were France
also evaluated. This research resulted in method manuals, quality
manuals and training packages produced by the consortium which Vitor Coias e Silva
enabled extensive positive quality assurance changes to the work- STAP
place for specialist sub-contractors. A dissemination event was held Portugal
at LNEC, Lisbon on 6–7 December 2004 which 20 practising pro-
Robert Etherington
fessionals attended. This was then repeated over three days in early
La Bottega del Restauro
2005. 75 individuals attended over the three-day period, including a
Italy
number of local authority staff involved with the European-funded
restoration of buildings in Lisbon. Further information is available on Christopher Mettem
the project website: www.licons.org TRADA Technology Ltd
United Kingdom
Paolo Lavisci
Legnodoc srl
Italy
45
ONSITEFORMASONRY
On-site investigation techniques for the structural
evaluation of historical masonry buildings
http://www.onsiteformasonry.bam.de
1. Problems to be solved 10 pilot sites were selected all over Europe and measurement cam-
paigns with various testing problems and applications of combined
For the effective restoration and conservation of historical buildings, NDT and MDT systems were performed.
a detailed assessment of the structural safety and detection and evalu-
ation of any damage of the masonry structure is required. The main The measurement campaigns were carried out at the following sites:
concern of the ONSITEFORMASONRY project was to make the Villa Litta (Milan), Avio Castle (Avio), San Alessandro (Lucca) and
assessment of historical structures more accurate and reliable, faster Pallazzo Bottagisio (Verona) in Italy, Church of Toro (Zamora) and
and cheaper. Therefore methodologies for the evaluation of the struc- Church of Turegano (Segovia) in Spain, Veltrusy Castle (Prague)
ture of historical masonry cultural heritage were developed. These in Czech Republic, Pisece Castle in Slovenia and Altes Museum
strategies were based on an effective and useful combination and (Berlin) and Wartburg (Eisenach) in Germany.
application of different non-destructive (NDT) and minor-destructive
(MDT) methods and considered the results of several case studies and 4. Policy impact
the experiences of the consortium members. Recommendations and
guidelines for the application of the integrated methodologies have The project has a significant impact on European policy and con-
been developed in close cooperation with end-users. tributes to the main social objectives of the European Community in
many ways. In brief the main contributions are in the areas of safety
2. Scientific objectives and approach and quality of life, environment policy, conservation of cultural
heritages, improvement of employment and the use/development of
For the investigation of cultural heritage monuments the use of non- skills, small firms’ policy, etc.
destructive (NDT) and minor-destructive testing (MDT) methods is
recommended. These techniques do not, or only to a limited extent, 5. Dissemination and exploitation
harm the valuable building fabric of the investigated object and are
of the results
thus particularly suited to application at historical buildings. A compi-
lation of the available testing techniques, their requirements and their Project leaflets (in four languages), a public website, numerous
performance specifications based on the evaluated needs was pro- publications and several workshops aimed at the information of an
duced. Some investigation methods or devices were further developed interested audience and involved other institutions or organisations
within the framework of the project and were set up as “prototypes” working in the same area. The project gained a lot of visibility in the
for an ongoing commercial exploitation. The strategies for an effec- scientific community, not least due to the large number of partners
tive and useful combination of different NDT and MDT methods (e.g. and their good reputation in the area of cultural heritage protection.
radar, ultrasonic, impact-echo, thermography, flat-jack) were lined out Cooperation with end-users led to the elaboration of guidelines and
considering the results of several measurement campaigns. recommendations, which are easily understandable, user-friendly
and serve as an information tool for anyone dealing with cultural
The required technical components and modifications were specified heritage. All documents produced during the project are published
and parameters from NDT, which can be used for structural and non- on a CD-ROM with an attached booklet.
structural assessment, were defined.
Besides the scientific research a number of exploitable technical
3. Achieved scientific results achievements of the ONSITEFORMASONRY project have been
identified:
Adapted methodologies for the application of investigation proce- aa new high-frequency antenna with separate transmitter and receiver
dures for the assessment of structural condition of historical build- enabling effective tomographic measurements
ings were developed. Optimisation of the different techniques as aa optimised impact-echo system
well as an improvement of the point density for data acquisition aa new ultrasonic transducer array for 3D structural tomographic
was achieved. A positioning system required for precise and effec- investigations
tive data acquisition with all applied techniques was developed aa prototype for sonic tomography
and tested. The modifications on radar (echo and transmission), aa positioning sensor for impulse-echo and tomographic investiga-
impact-echo and ultrasound devices were implemented afterwards. tion tools
The integration of all these single components was accomplished aa strategies for use of singular and combined NDT methods on
and the software packages necessary for fast and automated data historical masonry
analysis and reconstruction were developed. The complete systems aa software for 3D processing of echo-radar data and sonic/
were tested on specimen in the laboratory as well as on pilot sites at radar tomography
historical buildings. The application of structural models using the aa software for integrated analysis of results from complementary
analysed experimental data was outlined. methods
46
ONSITEFORMASONRY
aa catalogue of typical problems and parameters to be measured of Contract number: EVK4-CT-2001-00060
historical masonry Start date – End date: 01/11/01 – 31/10/04
Contract type: FP5 Cost-shared research
aa masonry laboratory specimen as reference objects for NDT of
Duration (in months): 36
masonry
aa theoretical models for the structural evaluation of irregular his- Coordinator details:
torical masonry Dr Christian Köpp
aa reports on the evaluation of pilot sites Dr Christiane Maierhofer
Division VIII.2
Tomographic image: cross Non-Destructive Damage Assessment and Environmental
section of masonry specimen Measurement Methods
showing internal voids Bundesanstalt für Materialforschung und -prüfung (BAM)
Unter den Eichen 87, 12205 Berlin, Germany
Email: christian.koepp@bam.de
Tel. number: +49 30 8104 4220
Luigia Binda
Politecnico di Milano
Dept. of Structural Engineering
Italy
Claudio Modena
Universita di Padova
Dipartimento di Construzioni et Trasporti
Italy
Mario Marchisio
Universita di Pisa
Dipartimento di Ingeneria Cilvile
Italy
New lig htweight radar antenn a (1.6
GHz) t e sted a t h istoric mas o nry Entrance hall of the Francesco Gravina
specim e n „Obelix“ “Altes Museum“ in Regione Toscana
Dipartimento delle politiche formative e dei beni culturali
Berlin as pilot site for
Italy
on-site measurements.
Here: Investigation of Jaime Carlos Galvez Ruiz
structures. Civil Engineering School
Universidad Politécnica de Madrid
Spain
Miha Tomazevic
Slovenia National Building and Civil Engineering Institute Andrej Zajc
Dept. of Structures IRMA Institute for Research in Materials and Applications
Slovenia Ljubljana
Slovenia
Christiane Hennen
Stiftung Luthergedenkstätten Riccardo Castegini
Germany Amministrazione Provinciale di Verona
Laboratorio Provinciale Prove su Materiali da Costruzione
Enrique Lorente Toledo Italy
Junta de Comunidades de Castilla La Mancha
Secretario General Técnico Milos Drdacky
Spain Institute of Theoretical and Applied Mechanics (ITAM)
Czech Academy of Sciences
Czech Republic
48
ROCEM
Roman cement to restore the built heritage effectively
http://www.heritage.xtd.pl
1. Problems to be solved prior to grinding as well as colour, oxide and mineralogical compo-
sition, particle size distribution and specific surface area of cement
Highly hydraulic binders, known as natural or Roman cements, were powders was characterised.
key materials for economic and easy manufacture of the stuccoes for
building exteriors during the 19th and early 20th centuries. Roman The hydration of natural cements was found to comprise two dis-
cements were produced by firing marls – limestone containing tinct stages: the immediate setting and early strength was due to
clay – below their sintering temperature and grinding burnt stones the formation of calcium aluminate hydrates; further slow hydration
to the required fineness. They distinguished themselves from other and strength development was brought about by the formation of
hydraulic binders principally by a very short setting time, agreeable hydrated calcium silicate gel.
texture and colour, little shrinkage on setting and excellent weather
resistance. Unfortunately, the material is no longer available on the A wide range of physical and mechanical parameters for historical
market and there is currently an absence of any broader information mortars was established as a base to evaluate the properties of new
on its characteristics and technologies for restoration. repair mortars. The most striking observation was a combination of
significant compressive strength with high porosity.
2. Scientific objectives and approach
Nuclear magnetic resonance was successfully used to determine
The essential objective of the project was to bring back to the market moisture distribution across the combinations of historical and
an historical material and technology. Hence, restorers and conserva- repair mortars during drying – the unperturbed transport of mois-
tors will be able to meet the fundamental principle of modern conser- ture through the interface between historical substrate and repair
vation – that the historical buildings should be repaired using materials mortar was identified as the key compatibility criterion as barriers
compatible with the original historical substance. An important aspect in moisture movement, which led to zones of damage due to ice and
is to raise awareness among the industry and professionals involved in salt crystallisation.
the care of the historical built environment of Europe as to the need
for re-introducing these adequate restoration materials. Larger amounts of Roman cements were produced in a pilot-scale
kiln and used in workshop trials and on-site conservation treat-
3. Achieved scientific results ments to evaluate the developed cements and mortars in the field. A
full-scale restoration of a facade of a historical building in Krakow
A number of representative historical buildings rendered and pioneered the use of Roman cements, re-established within the
decorated with Roman cement mortars were investigated within project in a practical, large-scale work, setting a new standard for the
the project. They were representative of different European areas in conservation of the 19th century built heritage.
terms of materials, historical periods and geography. The investiga-
tions included documenting their history, render technology, decora- 4. Policy impact
tive forms, existing condition and symptoms of decay, as well as
laboratory examinations of samples collected. The buildings ranged Contacts were established with urban practitioners and policy-
from Wycombe Abbey (1804), an early example of the use of Roman makers at different institutional levels to involve them as end-users
cement in England not long after it was patented there in 1796, to of the results, to consult on the project development and to carry out
the Municipal Commercial Academy in Krakow, Poland (1904) built joint case studies.
shortly before the outbreak of World War I, after which the domi-
nance of the newer Portland cement and modern functional archi- 5. Dissemination and exploitation
tecture brought a quick decline in the production and use of Roman
of the results
cement. The work allowed the project team to obtain information on
composition and properties of the historical cements and mortars to A series of brochures, presenting the turn-of-the-century architecture
provide compatibility criteria for new mortars. in Europe, as well as examining historical, technical and scientific
details of Roman cement technology were published. On conclu-
A survey and investigation of historical sources of raw materials in sion of the project advisory guidelines were published and several
Austria and Poland led to a selection of marls of chemical and min- regional workshops organised for restoration workers and policy-
eralogical composition which would produce the required hydraulic makers, and a technology profile was made available for enterprises
nature and appearance of the final burnt Roman cements. interested in technology transfer and exploitation.
49
ROCEM
Andrzej Klocek
AT Superbet Przedsiebiorstwo Betonow Specjalnych
Poland
Christian Gurtner
Atelier Gurtner
Austria
Karol Bayer
Faculty of Restoration
University of Pardubice
Czech Republic
Martina Stillhammerova
Pamiatkovy Urad Slovenskej Republiky
Slovakia
Klaus-Dieter Müller
Klaus Rogge Spezialbaugesellschaft mbH
Germany
50
SALTCONTROL
Prevention of salt damage to the built cultural herit-
age by the use of crystallisation inhibitors
1. Problems to be solved aa Workshops in the cities where testing was carried out, followed
by an international conference (Salt Damage Congress, Ghent
Salt weathering causes decay and damage to a wide range of materi- (Belgium), May 9–11 2007).
als, not least in buildings that are important to Europe’s cultural her-
itage. Salt works itself into stone pores and, in the worst cases, it can Contract number: SSP 501571
cause complete structural disintegration. A number of conservation Start date – End date: 01/01/04–30/06/07
treatments are available but they do not stop salt damage completely, Contract type: FP6-STREP
and in fact research shows some can actually exacerbate problems Duration (in months): 42
New conservation treatments are therefore needed that can both pre-
vent salt damage and improve desalination in stonework. Coordinator details:
Prof Patric Jacobs
Ghent University, Department of Geology and Soil Science,
2. Scientific objectives and approach Krijgslaan 281/S8, B-9000 Gent, Belgium
Email: Patric.Jacobs@UGent.be
SALTCONTROL aimed to develop a new method to prevent salt Tel: +32 (0)9 2644651
damage by using compounds that inhibit the growth of salt crystals.
Applying inhibitors prevents salt crystallisation in stone pores – salts
form instead on the surface causing much less damage. The project
evaluated these inhibitors in different ways – from atomic scale stud- Rob van Hees Andrew Putnis
ies to larger-scale tests and site trials. The work also included a thor- Netherlands Organisation Westfälische Wilhems-
ough investigation of how salt formations develop and behave. The for Applied Scientific Universität Münster
end result should lead to the creation of a tested, reliable procedure Research TNO Building and Institüt für Mineralogie
for the use of crystallisation inhibitors for conservation. Construction Research Germany
The Netherlands
3. Achieved scientific results Leo Pel
Michiel van Hunen Technical University
Netherlands Department for Eindhoven
aa A database was created with information on crystallisation
Conservation Department of Applied Physics
inhibitors. The Netherlands The Netherlands
aa Salt-damage problems were assessed at test sites.
aa Understanding of various factors and processes that control salt Eddie Seinen Robert Cerny
crystallisation in porous media was improved. Remmers Bouwchemie bv Czech Technical University in
aa There is greater knowledge of the effect of various additives on The Netherlands Prague:
the crystallisation of salt minerals in free solutions and in rock Department of Structural
substrates, for various salt systems Jan Van Heesewijk Mechanics
Monument Watch Czech Republic
aa On-site evaluation of the practical use of inhibitors was conducted.
The Netherlands
aa A feasibility study was undertaken on the use of crystallisation
Ivana Kopecka
inhibitors. Carlos Rodriguez National Institute for the
Universidad de Granada Preservation of Cultural
4. Policy impact Navarro Departamento de Heritage in Prague
Mineralogia y Petrologia Department of Technology,
The results contribute to existing policies that promote the sus- Spain Central Institute
tainable management of the built cultural heritage. By creating an Czech Republic
entirely new conservation technique, the project affects policy deci- Petros Koutsoukos
Foundation for Research and Clifford Price
sions relating to salt-damage prevention. The results could create
Technology Hellas University College London
possibilities for further research in areas industry outside those of
Laboratory for Inorganic and Institute of Archaeology
built cultural heritage. Analytical Chemistry United Kingdom
Greece
5. Dissemination and exploitation
of the results
aa In most part, refereed journals, books and conference proceedings
aa Project website
aa General leaflet on the use of inhibitors
51
SALTCONTROL
52
Chapter 3
3. Novel microbiological tools for conservation
53
Introduction What if we could use natural organisms to preserve and clean Europe’s
stock of cultural heritage rather than rely on invasive or industrial
processes? The study and application of novel microbiological con-
servation tools is precisely the aim of several projects featured in this
chapter. Given the vast potential of such technologies, COALITION
– an FP5-supported concerted action – strengthened information
exchanges across Europe about molecular microbiology for conserva-
tion, via numerous workshops, conferences, training events and new
databases.
55
BACPOLES
Preserving cultural heritage by preventing bacterial decay
of wood in foundation piles and archaeological sites
http://www.shr.nl
1. Problems to be solved importance so, in addition, two long-term field measurements were
carried out over a period of 12 months.
For a long time it was believed that storage in water or its use below
the ground water table prevented wood from biological degradation. Wood samples were taken to isolate and identify wood-degrading bac-
However, in the 1990s, serious problems with Dutch wooden founda- teria. Because no standard techniques were available, the main effort
tion piles were found to be caused by bacteria. This shows that bacte- of the microbiologists was the development of new methods. Right at
rial wood degradation should be regarded as a serious problem when the beginning of the project, microcosms were installed to simulate
dealing with wooden constructions under water; even wooden objects bacterial wood degradation in the laboratory to learn more about the
other than foundations could be affected. In contrast to fungal deg- process of degradation by manipulating the sediment conditions.
radation where the economical impact was realised a long time ago,
research on bacterial degradation has, until now, been of low priority 3. Achieved scientific results
and therefore little knowledge is available on the process.
The results from the 27 sampled sites indicate no justification in ignor-
One of the main objectives of BACPOLES was to provide basic knowl- ing the impact of bacterial wood degradation for piling constructions
edge on the impact of bacterial degradation on wood stored under and archaeological remains. The rest of Europe should also be aware
different environmental conditions, like foundations and archaeologi- of the concern for wood foundations; the role of bacterial wood degra-
cal wooden remains. Another issue was to protect wood under water dation, particularly in Venice, is considerably underestimated.
against bacterial decay and to develop practical preservation methods
for wooden foundations. In the last decades, scientists from all over With new techniques it was possible to isolate consortia of bacteria
the world have been unable to succeed in identifying wood-degrading which cause wood degradation. It became obvious that there is a
bacteria. Yet, to understand the process of degradation, identification wide variety of novel species and that these species belong to the
is crucial. Hence, the isolation and identification of wood-attacking CFB (Cytophaga-Flavobacterium-Bacteroides) complex. The bacte-
bacteria was one of the main challenges of the project. ria spread by gliding and their shape varies: they can be short and
thick as well as long and thin rods, but they can also be round. Each
2. Scientific objectives and approach of the wood-degrading bacteria species seems to have their own
environmental amplitude, suggesting that bacterial wood degrada-
Experts on wood and soil sciences, as well as microbiologists, tion occurs under a wide range of soil conditions, which was actu-
archaeologists and geophysicists from Germany, Great Britain, Italy, ally confirmed by the presence of bacterial wood degradation in
the Netherlands and Sweden collaborated in this project. The univer- all sampled sites. Additional research showed that wood-degrading
sities and research institutes concentrated on fundamental research, bacteria are present in all watery environments. Consequently, the
whereas the companies were responsible for the in situ investigation infection (always from the outside inwards) with wood-degrading bac-
of wooden foundations and the incorporation of new technologies for teria is not the important factor, but the intensity of the degradation.
wood preservation into existing techniques. The characteristic factor for wood-degrading bacteria is that they can
live, or even must live, in environments with low nitrogen and oxygen
In all five collaborating European countries, enquiries were made contents. The natural nitrogen content in wood is typically low and
on the impact of bacterial degradation on wood stored in sediment. in combination with the absence of oxygen, wood-degrading bacteria
Based on scientific and local reports, as well as on interviews with are one of few microorganisms able to adapt to these circumstances.
archaeologists and wood constructors, it had to be concluded that Although no relation was found between the degree of degradation
bacterial wood degradation was not recognised as an important and the sediment, shortage of nutrients seems to promote the degree of
threat to wood stored in sediments, in three of these five countries. bacterial wood degradation. Furthermore it is evident that the intensity
However, the importance of this type of wood degradation was cer- of degradation differs with timber species. Wood structures with a low
tainly realised in the Netherlands. resistance against water transport like alder, poplar and the sapwood of
pine and oak are much more susceptible to bacterial decay than wood
A standard procedure was developed to study the impact of bacte- structures with a high resistance, like spruce and the heartwood of
rial degradation in different environments. Research was carried pine and oak. The reason behind this is not fully understood, although
out at 27 sites in six European countries. There were 13 piling sites, it seems that the process of degradation is not only stimulated by a
of which two were older than 250 years, five marine sites and nine unidirectional water stream through the wood but also by an oscil-
archaeological sites. It was ensured that bacterial wood degradation lating water flux inside the wood. Beside permeability, it was already
could be expected. At all sites, wood, soil and water samples were known that lignin content also determines whether a wood species is
taken and analysed, and an environmental characterisation was made susceptible to bacterial decay. Pine and spruce have higher contents
based on visual observations and field measurements. During the than alder and poplar. Furthermore it was proven that oak heartwood
project it became evident that seasonal dynamics could also be of is very resistant against wood-degrading bacteria.
56
BACPOLES
issue on all the achievements of the project. In December 2007 this
4. Policy impact issue was published with 12 papers and an editorial.
aa Björdal, C. and Nilsson,T., “Culturing wood-degrading erosion bac-
The methods and knowledge increased, as well as promising pres- teria”, International Biodeterioration and Biodegradation, 2007.
ervation techniques already tested under laboratory conditions in aa Björdal, C. and Nilsson,T., “The use of kapok fibres for enrich-
BACPOLES, enabling preservation tests to be begun in the field in the ment cultures of lignocellulose-degrading bacteria”, International
near future. While there are three promising approaches, for all the Biodeterioration and Biodegradation, 2007.
approaches it is necessary to make a full description of the area to be aa Gelbrich, J.,Mai, C. & H. Militz, “Chemical changes in wood
treated. The site hydrology, as well as the identification of the bacteria degraded by bacteria”, International Biodeterioration and
consortium that causes the bacterial degradation, is most important. Biodegradation, 2007.
Conventional as well as methods developed within this project can be aa Huisman, D.J., Manders, M.R., Kretschmar, E.I., Klaassen,
used. Based on our enquiries, a first approach based on specific mix- R.K.W.M. & N. Lamersdorf, “Burial conditions and wood deg-
tures of phages can be made and tested in the field on its generality and radation at archaeological sites in the Netherlands”. International
efficiency, using monitoring techniques as developed in this project. Biodeterioration and Biodegradation, 2007.
A second approach is related to the hydrology. It became clear that aa Huisman, D.J., Kretschmar, E.I. & N. Lamersdorf, “Characterising
bacterial wood degradation was mainly active when there was a water physico chemical sediment conditions at selected bacterial decayed
flux through the wood. In order to investigate a static situation, either wooden pile foundation sites in the Netherlands, Germany and
the hydrology can be manipulated or the wood can be impregnated in Italy”, International Biodeterioration and Biodegradation, 2007.
the field to close its structure; alternatively, both strategies could be aa Klaassen R.K.W.M., “Bacterial decay in wooden foundation
combined with the additional result that the strength of the wood was piles: patterns and causes: a study on historical pile founda-
improved. As the efficiency of all conventional wood preservatives tions in the Netherlands”, International Biodeterioration and
against bacteria has not been reliably proved, a third approach should be Biodegradation, 2007.
tried using an active product, which is not toxic but affects the already aa Klaassen R.K.W.M., “Water flow through wooden foundation
weak position of wood-degrading bacteria by promoting others. piles – a preliminary study”, International Biodeterioration and
Biodegradation, 2007.
A general conclusion for policy is that the impact of bacterial wood aa Klaassen R.K.W.M., Eaton, R. & N. Lamersdorf, “Editorial
degradation for European cultural heritage is underestimated and special issue on bacterial wood degradation”, International
that methods on lab-scale have been developed to start a field test Biodeterioration and Biodegradation, 2007.
programme with promising methods to stop decay in situ. aa Kretschmar, E.I., Gelbrich, J., Militz, H.& N. Lamersdorf,
“Studying bacterial wood decay under low oxygen conditions –
5. Dissemination and exploitation results of microcosm experiments”, International Biodeterioration
and Biodegradation, 2007.
of the result
aa Kretschmar, E.I., Keijer, H., Nelemans, P. & N. Lamersdorf,
A digital version of the final report can be ordered for free at info@ “Investigating physico-chemical sediment conditions at decayed
shr.nl. wooden pile foundation sites in Amsterdam”, International
Biodeterioration and Biodegradation, 2007.
The results of BACPOLES offer not only more knowledge about the aa Landy, E., Mitchell, J. Hotchkiss, S. & R. Eaton, “Bacterial
process of wood degradation under water but also essential proce- diversity associated with archaeological waterlogged wood:
dures as well as essential methods to stop this type of degradation. Ribosomal RNA clone libraries and denaturing gradient gel
The demand of the Netherlands, as well as that of Sweden, is quite electrophoresis (DGGE)”, International Biodeterioration and
high to bring a commercial product on the market. Therefore a new Biodegradation, 2007.
proposal has been written to translate the BACPOLES results into a aa Nilsson, T. Björdal, C. & E. Fällman, “Culturing erosion bac-
commercial preservation strategy or commercial product. teria: procedures for obtaining purer cultures and pure strains”,
As bacterial wood decay is a European-wide problem, a search for International Biodeterioration and Biodegradation, 2007.
financial funding was conducted at the EU level (EUREKA, FP 6). aa Sass-Klaassen U., Vernimmen T. & C. Baittinger,
The idea is to install foundation pile fields where the velocity of the “Dendrochronological dating and provenancing of timber used
bacterial activity can be monitored over a longer time and the effect as foundation piles under historical buildings in the Netherlands”,
of preservation techniques, as developed by BACPOLES, can be International Biodeterioration and Biodegradation, 2007.
precisely tested in the field. In the Netherlands, a producer of foun-
dation piles joined the consortium, seeing it as a chance to increase
Contract number: EVK4-CT-2001-00043
the company’s production. The advantages of wooden foundation Start date – End date: 01/02/02 – 31/01/05
piles above concrete are obvious for the environment (low energy, Contract type: FP5 Cost-shared research
renewable resources). Duration (in months): 36
57
BACPOLES
58
BIOBRUSH
Novel approaches to conserve our European heritage:
bioremediation for building restoration of the urban
stone heritage in European states
http://www.biobrush.org
1. Problems to be solved aa evaluate delivery systems to carry biological agents to the stone
during treatment;
Mineral materials and stone structures in heritage buildings and aa characterise mineral changes in stones during bioremediation in
monuments are susceptible to structural and material changes under laboratory studies;
the influence of natural and anthropogenic factors. The occurrence aa assess the effect of the bioremediation process on stone properties
of detrimental crusts and incrustations on stonework, caused by in a series of small-scale laboratory studies;
nitrate and sulphate pollution processes, induce accelerated weak- aa perform in-situ field trials on buildings or monuments.
ening and deterioration of the matrix. Thus the problem of crum-
bling stone is a very real problem in European cities and urbanised The approach of the BIOBRUSH research programme was to:
developments. In the last few decades, alterations such as black aa develop bioremediation procedures for conservation practice at
crusts, nitratation and sulphatation, linked to increasing levels of historical sites endangered by the formation of detrimental crusts
dust, residual hydrocarbons and other organic pollutants, have been arising from the enrichment of salts and biopatina;
associated with corrosion. Trials to reverse these effects due to crust aa evaluate the environmental constraints;
formation have not been completely satisfactory. The techniques aa investigate the conditions on materials for bacteria to act effec-
that attempt to remove salt crusts from heritage stone artefacts by tively in situ;
washing with water are not practicable. Mechanical processes for aa conduct a risk analysis to establish the impact of these bacteria on
removal of nitrate and sulphate present in crusts can cause the loss of the materials and objects to be treated.
original surfaces or induce acceleration of degradation phenomena.
Any new procedures that avoid these problems were of immediate This research was intended to assess the extent to which the changes
benefit to the end-users, the conservators or industrial consultants. were beneficial and identify any detrimental aesthetic effects caused
The BIOBRUSH consortium investigated how bioremediation might by biocorrosion and biofouling or health implications during applica-
be used to remove stone salt crusts on stone in order to supplement tion and usage.
existing conservation technologies.
3. Achieved scientific results
2. Scientific objectives and approach
BIOBRUSH has generated two databases of information concern-
There is considerable evidence that microorganisms affect the miner- ing: the nature and extent of crusts on buildings in northern and
al composition of stone in monuments and cultural property. Bacteria southern Europe; and microorganisms with bioremediation poten-
are known to chemically transform sulphate and nitrate to gases tial for conservation work. A database of stone sample informa-
while others can produce calcite on mineral surfaces. Clearly there tion sheets compiled site and stone characteristics from 13 monu-
was potential to exploit these biochemical activities and use bacteria ments, mainly in Latvia, Greece and Italy, covering 22 natural
for crust removal from heritage stone but no systematic studies had stones with evidence of salt deposits and incrustations that were
been done to direct bioremediation to cultural heritage to produce subjected to mineralogical, chemical and biological analyses.
technology for application in conservation work. Stone materials for testing of the bioremediation techniques were
found at nearly all sites but five were selected for further study:
The novel basic aim of BIOBRUSH was to link mineralisation Epidaurus (GR2) white pentelic crystalline marble; Melos (GR4)
processes of desulfurication, denitrification and organic removal white andecitic tuff; Riga Brethrens cemetery (RTU300) fresh-
(to destroy salt crusts) to the phenomenon of biocalcification (to water limestone; Lübeck townhall (IWT/EOI-III) Gotland sand-
consolidate stone). The central goal was to provide an effective, stone; Matera Cathedral (SYR502) calcareous tuff. The nature of
environmentally friendly biotechnological tool for restoration and the crusts in European buildings was investigated and found to
conservation of cultural stonework, which would be investigated with be very varied. Physical properties of crusts showed remarkable
different heritage materials under different climatic situations so that shifts towards greater porosity within the weathered uppermost
the findings could be integrated into conservation practice. layers of the rocks and plaster, which are ideal for bioremedial
techniques. Sulphates were often present in a narrow 40 mm sur-
The research objectives of the BIOBRUSH programme were to: face zone of stone blocks. High levels of sulphate were detected
aa collect, catalogue and analyse stone samples from historical in stone from Matera Cathedral, Riga Brethrens cemetery, Lübeck
buildings and monuments across Europe showing evidence of salt townhall and Melos. Sulphate concentrations at Matera were
deposits and incrustations; found to be much more variable than nitrate. Nitrates, which
aa isolate, screen and select appropriate bacteria to establish a bacte- could only be detected at Matera Cathedral and Riga Brethrens
rial culture collection for use in European conservation; cemetery, formed a much more limited gradient in the surface
59
BIOBRUSH
zones. Generally, salt concentrations showed great variability,
which may cause major difficulties in bioremediation treatments. 5. Dissemination and exploitation
Organic pollutants were found at very low levels, unsuitable for
of the results
bioremediation using organic-degrading bacteria.
BIOBRUSH has generated two databases of information concern-
The project assembled a culture collection of bacteria with organic- ing: the nature and extent of crusts on buildings in Northern and
degrading, sulphate-reducing, nitrate-reducing and biocalcifying Southern Europe; and microorganisms with bioremediation potential
activities. The potential of bacteria to remove crusts was assessed for conservation work. The project has assembled a culture collec-
in laboratory experiments and candidate organisms identified. Risk tion of bacteria with organic-degrading, sulphate-reducing, nitrate-
assessments were conducted to reduce possible detrimental human reducing and biocalcifying activities. Questionnaires were devised to
health effects and adverse reactions on cultural objects. Field tri- gather information on selected stones and microbes for incorporation
als at a wide range of locations across Europe were completed in into BIOBRUSH databases. Risk assessment strategies have been
Greece, Latvia and Italy. Considerable variations were observed in developed to evaluate possible detrimental human health effects and
the performance of SRB and NRB during laboratory and field trials. adverse reactions with the cultural objects through field trials in
In many cases the effect of the carrier system masked any effects of Greece, Latvia and Italy. The BIOBRUSH consortium disseminated
the bacteria. The data indicate that the success with SRB was greater the research findings through:
with low porosity stones while NRB were more likely to work with aa website (www.biobrush.org);
stones of higher porosity, although the latter also worked with mar- aa circulation of a publicity brochure;
ble. On the basis of the results obtained with this project it is possible aa production of a poster;
to consider biotreatment using viable cells as a very good tool for aa email address (biobrush@port.ac.uk) for external and internal
sulphate and nitrate removal in certain cases. The negative impact contact.
of this application was small. The use of enzymes instead of viable
cells was not possible due to lack of availability on the market. The Nine workshops were held to plan the project, assess research results and
traditional methods based on mechanical, physical or chemical tools disseminate outcomes. A consortium agreement, covering conduct and
are often not satisfactory enough; in fact, some of them create risk ownership of the research, was signed by all partners. The BIOBRUSH
for the stone, while others do not solve the problems because nitrates project was represented at conferences: Krakow (May 2002), New
are highly soluble. For this reason biological methods investigated in York (June 2002), Seville (March 2003), Rhodes (September 2003),
the BIOBRUSH programme may be preferable and, with appropriate Seville (December 2003), Brussels (April 2004), Stockholm (June
application procedures, can be reliable. The time for biological appli- 2004), Cancun (August 2004),London (2004) and Portsmouth (2005).
cation is comparable with that for traditional methods. BIOBRUSH The coordinator organised an International Heritage meeting (HMS
has explored the limitations of bioremediation for the conservation 2005: Heritage Microbiology and Science) in Portsmouth at the end of
of stone and recommended practical outcomes to allow use by restor- BIOBRUSH (June 2005) and results were presented to scientists and
ers alongside other traditional methods. conservators from 17 countries. A research monograph summarising
the main findings was put on the BIOBRUSH website at the end of
4. Policy impact the project. The BIOBRUSH consortium has continued to publish and
acknowledge BIOBRUSH in scientific journals beyond the end of the
Deterioration of cultural heritage is a severe problem in European project. Invited talks, press conferences, seminars, academic courses
cities and urban developments. The relevance of this problem and contact with SMEs continued to be a part of the dissemination.
reaches all across Europe. The aim of the BIOBRUSH consortium Spin-out via further related projects and application for further fund-
was to investigate the use of biotechnology for bioremediation of ing is ongoing. A patent has been applied for in Italy for a related
stone. In practice this meant an international exchange of know- type of technology for the bio-cleaning of the surfaces of objects and
how and ideas to understand underlying deterioration processes buildings of various chemical natures (MI2006A000776, 19.04.2006,
and to develop treatment technologies for environmentally bur- “Procedimento di biopulitura di superfici di manufatti di diversa natura
dened stonework. The consortium addressed concerns about health chimica ed edifici”, number PCT/IT2007/000275).
and corrosion potential by carrying out risk assessments in coop-
eration with conservators and industry. In addition, the consortium Recent key publications on cultural heritage based on or acknowl-
actively sought opinions in the conservation community to ensure edging BIOBRUSH since the end of project:
that the research outcomes were known. Furthermore, the possible aa May, E., Novel approaches to preserve our European heritage,
replacement of potentially toxic chemical and harsh physical meth- BIOBRUSH Research Monograph, Project No. EVK4-CT-2001-
ods based on chemicals for conservation with biological techniques 00055, European Commission, http://www.biobrush.org, 2006;
is in line with EU energy and environmental policy. One of the aa Webster, A. M. and May, E., “Bioremediation of weath-
objectives of the research was to select microbial agents, available ered-building stone surfaces”, Trends in Biotechnology, 24, 6,
through a culture collection as a European resource, to be used for pp.255–60, 2006;
bioremediation of weathered artistic stoneworks. Further use of aa Cappitelli F., Zanardini E., Ranalli G., Mello E., Daffonchio D. and
this technological approach aimed to provide jobs for young gradu- Sorlini C., “Improved methodology for bioremoval of black crusts
ates in biotechnology, an emergent degree in Europe, as well as for on historical stone artworks by use of sulfate-reducing bacteria”,
qualified restorers, able to use this approach alongside traditional Applied and Environmental Microbiology 72, pp.3733–37, 2006;
techniques in conservation. aa May, E and Jones, M. (Eds.), Conservation Science: Heritage
60
BIOBRUSH
61
BIODAM
Inhibitors of biofilm damage on mineral materials
http://biodam.biogema.de
1. Problems to be solved aa To carry out field trials in respective partner countries to evaluate
newly developed treatments on a range of appropriate climatic
Heritage organisations responsible for the conservation of cultural conditions and materials.
heritage are challenged by high levels of biological colonisation on aa To report the results in congresses and journals, and to transfer
historical surfaces. In some circumstances, it is necessary to remove them to the restoration/conservation community in the EU.
these organisms to conserve the underlying surfaces or to prevent
disfigurement of the objects. Current treatments to combat growth 3. Achieved scientific results
are short-lived and some treatments will be gradually withdrawn to
protect the environment. Therefore, the heritage sector is looking During the three-year work period, the BIODAM team managed to
for new treatments to control biological colonisation of monuments, successfully screen for mycosporine, pigment and exopolysaccharide
where necessary. These should be effective and economical, yet pose inhibitors. Several cell permeabilisers and photodynamic agents were
no harm to the environment. The aim of this project was to develop tested in the laboratory. The characteristics of several test-stone materials
new conservation products, methodologies and technologies to pre- were analysed and described (three sandstones, one limestone and one
vent biofilm re-colonisation of treated stone materials, to evaluate mortar type). The toxicity data and toxicity testing for chemical inhibi-
their effectiveness, toxicity and environmental behaviour, and to tors and biocides were collected and analysed. The biodegradability of
establish the applicability of these methods in substitution or in addi- some of the biocides was screened in laboratory tests. Synergy effects
tion to traditionally used industrial biocides. The new approaches to of the chemical inhibitors were tested using stone-inhabiting bacteria,
biocontrol were the use of inhibitors of coloured cell pigments and cyanobacteria, algae, and fungi as test organisms. A characterisation of
exopolysaccharides, of cell permeabilisers, and of apoptosis (self- mineral changes on treated surfaces was effected and physical and chem-
induced cell death) inducers. Some compounds are derived from ical damage factors were identified for several of the artificial biofilms
antioxidant research in medical approaches, others from naturally applied. A photodynamic treatment prototype was developed and tested,
occurring systems. Photodynamic treatment presently used in cancer and compared with the effectiveness of conventional biocide treatment
therapy has been developed as a novel method for biocontrol on stone techniques. A brochure for future application recommendations and
substrates. The individual objectives are outlined below. techniques was planned and edited. It was published under the auspices
of the EU Environment and Cultural Heritage Programme, and also
2. Scientific objectives and approach Historic Scotland as one of the end-users in the programme. A number
of scientific papers and contributions were presented at congresses on
aa To develop pigment inhibitors and antioxidants, and test their conservation and published in journals and books.
effectiveness in protecting stone surfaces from chromatic altera-
tions by bacteria and fungi (melanins, carotenes) and algae (chlo- 4. Policy impact
rophyll, carotenes).
aa To evaluate the biodegradability, toxicity and chemical compat- As stated in the description of work, BIODAM targets the commu-
ibility of the compounds with stone. nity of conservation and restoration offices, agencies and compa-
aa To develop exopolysaccharide inhibitors and test their effective- nies. Environmentally acceptable solutions were developed in order
ness in preventing biofilm formation by algae, fungi and bacteria. to eliminate or reduce and inhibit biofilm growth and biofouling on
To evaluate the biodegradability, toxicity and chemical compat- material surfaces in general, and on monuments made of stone in
ibility of the compounds with stone. particular. The participation of two major technical research institu-
aa To develop and test products to enhance the permeability of tions dealing with material and environment research and develop-
microorganisms in order to increase the effectiveness of apopto- ment (VTT and INASMET), as well as of one governmental agency
sis inducers, biocides, pigment inhibitors and exopolysaccharide of protection of architectural heritage (Historic Scotland) and a
inhibitors. To evaluate the biodegradability, toxicity and chemi- consulting company in the material research and restoration work
cal compatibility of the compounds with stone. (BIOGEMA) greatly helped. They will also help in the future to
aa To develop and test products to eliminate microorganisms transmit the results into European policy of environment protection
growing on stone materials using a photodynamic treatment to and preservation of cultural heritage.
facilitate access of chemicals to microbial biofilms To evaluate
the biodegradability, toxicity and chemical compatibility of the 5. Dissemination and exploitation
compounds with stone. To develop a prototype of a portable
of the results
device for light excitation of photodynamic treatments.
aa To explore a range of different formulations of biocides, per- BIODAM results were disseminated and exploited via participation
meabilisers, pigment and exopolysaccharide inhibitors to protect in several important congresses: the Stockholm conference on stone
stone from biofilm and network colonisation. decay and conservation; the Krakow, London, and Prague confer-
aa To assess novel treatments for the compatibility with conserva- ences of the EU Cultural Heritage and Environment Programme;
tion methods and heritage surfaces. several SWAPNET conferences; and the conferences of the World
62
BIODAM
Cultural Heritage Cities Conferences in Rhodes and Mexico.
An end-user brochure has been finalised and were distributed to Contract number: EVK4-CT-2002-00098
Start date – End date: 01/12/02 – 30/07/05
architects, conservators and restorers on a European scale by Historic
Contract type: FP5 Cost-shared research
Scotland. Some important publications of the project are quoted
Duration (in months): 42
below. A database and website are also available under the same
location as indicated above. Altogether 10 quotable publications Coordinator details:
were printed in congress proceedings and international journals. Prof. Dr Dr h.c. W. E. Krumbein
A detailed bibliography of BIODAM was published on the website. Dr. Anna A. Gorbushina
Historic Scotland, RGU, ICBM and BIOGEMA are conducting and ICBM,
planning teaching unity for restorers/conservators and briefings for Carl von Ossietzky Universität Oldenburg,
architects and planners. Selected publications 2005–06: DE-26111 Oldenburg
E-mail: a.gorbushina@uni-oldenburg.de
aa Alakomi, H.L., Gorbushina, A.A., Krumbein, W.E., McCullagh,
Tel: +49 441 7983382; +49179 5231555
C., Saarela, M., Robertson, P. and Rodenacker, K., “Control of
biofilm growth through photodynamic treatments combined
with chemical inhibitors: in vitro evaluation methods”, in
proceedings of Heritage Weathering Conservation, Madrid, Jesus Valero
Balkema, in press, HWC 2006. INASMET
aa Gorbushina, A.A. and Krumbein, W.E., “BIODAM – Innovative Spain
Oberflächen, intelligente Baumaterialien und polyphasische
Behandlung von BiofilmschŠden an Bauwerksoberflächen, in Peter Robertson
proceedings of 6, Dahlbergkolloquium, Biofilme auf Fassaden Centre for Research in Energy and the Environment,
The Robert Gordon University
III, Wismar, in press, 2006.
United Kingdom
aa Young, M.E., Alakomi, H.L., Fortune, I., Gorbushina, A.A.,
Krumbein, W.E., Maxwell, I., McCullagh, C., Robertson, P., Màrius Vendrell
Saarela, M., Valero, J. and Vendrell, M., “Development of a bio- Dept. Crystallography and Mineralogy
cidal treatment regime to inhibit biological growths on cultural University of Barcelona
heritage”, BIODAM. Building and Environment, in press. Spain
aa Gorbushina, A.A. and Krumbein, W.E., “Biological Testing
of Inorganic Materials”, in Springer Handbook of Materials Hanna-Leena Alakomi and
Measurement Methods, Berlin: Springer, 2006. W. E. Krumbein Maria Saarela
VTT Technical Research Centre of Finland
et al., Investigations into the Control of Biofilm Damage with
Finland
Relevance to Built Heritage (BIODAM), Historic Scotland,
Edinburgh, 104p, 2006. Christiane Schönborn
BIOGEMA
Germany
Ingval Maxwell
Historic Scotland
United Kingdom / Scotland
63
BIOREINFORCE
Biomediated calcite precipitation for monumental
stones reinforcement
http://www.ub.es/rpat/bioreinforce.htm
64
CATS – CYANOBACTERIA ATTACK ROCKS
Control and preventive strategies to avoid damage
caused by cyanobacteria and associated
microorganisms in Roman hypogean monuments
http://www2.bio.uniroma2.it/biologia/laboratori/lab-botanica/Algae/CATS.htm
Protection and management of the artistic legacy found in hypo- The combination of all these data was used to construct models of the
gean monuments was addressed by a complete and complex multi- complexity of the hypogean environment showing the deterioration
disciplinary scientific study. CATS approached the problem by processes, the biofilm architecture and the biological activity occurring
including geological, geochemical, hydro-chemical, microclimatic, on lithic faces. In addition, the research determined that changing the
environmental, microbiological, ecophysiological, biochemical wavelengths used for illumination caused a decrease in the growth of
and genetic studies in two Christian catacombs: Domitilla and St unwanted cyanobacteria and that active biomolecules could potentially
Callistus in Rome (Italy), and in the pre-historical Cave of Bats in be useful to prevent and control the development of cyanobacteria-domi-
Zuheros (Spain). nated biofilms In this context, new microscopy methods were developed
for the study of biofilm structure, function and diversity that can be
The specific objectives of the project were to: applied to other microbial communities. Furthermore, the development
aa characterise the geological, geochemical, hydro-chemical and of non-destructive and safe methods for monitoring cyanobacterial bio-
physical environment of rocks unaffected or colonised by cyano- films was accomplished through the construction of a ‘portable sensor
bacterial communities inside Roman hypogea, and to evaluate monitor’, which holds together different microsensors for the measure-
possible preferences of cyanobacteria and associated microorgan- ment of threshold values of chemical species on endangered stones, and
isms for specific lithologies; the establishment of a promising new methodology based on the use of
aa describe the architecture and functioning of biofilms built by a portable spectroradiometer to detect phototrophic biofilm development
cyanobacteria and associated microorganisms on different types and to monitor growth. Microorganisms causing decay of lithic surfaces
of lithic surfaces; in Roman hypogea were poorly known. Most of them were identified
aa ascertain the most critical physical, chemical and biological fac- using new PCR-based molecular tools, isolated and characterised in
tors that control colonisation of rock surfaces; assess and quantify culture. Moreover, the feedback from the public (the final end-users)
the damage caused by cyanobacterial biofilms to different types towards the application of new lighting techniques in hypogean archaeo-
of surface; logical areas was evaluated for the first time, and the positive feeling
aa develop new physical methods to control and prevent biofilm expressed by the catacomb visitors hopefully initiated a new means of
growth using wavelengths in the visible part of the light spectrum interaction with citizens.
that are, at best, poorly used by photosynthesis;
aa identify siderophores and cell-to-cell signalling biomolecules, CATS also focused on other aspects of biodeterioration in Roman
and to experiment with their potential to interfere with biofilm hypogea. The influence of visitors was continuously monitored at
development; one site in St Callistus catacomb and it was shown to be relevant in
aa develop an innovative monitoring method using a multiparamet- changing microclimatic conditions that influence water condensation
ric microsensor device for the measurement of biogeochemical and, in turn, biological colonisation. The characterisation of lithic
parameters on endangered rock surfaces; faces resulted in the understanding of Roman procedures for plaster
aa test the response and expectation of citizens to the innovative preparation and allowed us to recommend similar old materials for
strategies proposed. restoration intervention in catacombs. Microorganisms, abundantly
detected in air samples, can attach to exposed surfaces and there
65
CATS – CYANOBACTERIA ATTACK ROCKS
establish microbial communities thanks to the favourable environ- 5. Dissemination and exploitation
mental conditions. A preliminary study of exopolymeric substances
of the results
was, therefore, extremely promising because of the role of these
biopolymers in biofilm adhesion and cohesion, and stone decay, and The results of the CATS project were disseminated through illustrative
could lead to future ‘bio-cleaning’ procedures. folders, poster presentations, CD-ROMs and a dedicated webpage. To
date, the circulation of 70 full papers within the scientific community
4. Policy impact and participation at more than 80 national and international meetings
have substantially contributed to this activity. Two interviews with
The problem of conservation, restoration and exploitation of Roman the project coordinator appeared in 2005 in Nature (433, pp.100–01)
hypogea is part of the more general need to safeguard the cultural on “The film crew”, and in Photonics (39, 4, pp.33–34) on “Photonics
heritage of Europe. This heritage has a significant influence on the applied to frescoes preservation”. In addition, a number of other initia-
economy of nations rich in archaeological remains, which includes tives were performed to exploit the project achievements, including
most of the Mediterranean countries, and influences two main socio- dedicated university courses and seminars, presentation at national
economic factors: the significant amount of human and financial stakeholder meetings, organisation of public exhibitions, national
resources needed to preserve important archaeological sites, and newspapers, and radio and television interviews.
the improvement of both tourism and the quality of life through
sustainable management of European artistic patrimony. The results
achieved by the CATS project can, therefore, have an economic rel- Contract number: EVK4-CT-2000-00028
evance for both European and Mediterranean countries particularly Start date – End date: 01/01/01-31/12/03
concerned with safeguarding monuments. The incorporation of the Contract type: FP5 Cost-shared research
two-phase methodology that was pursued by the CATS project, Duration (in months): 36
within under- and postgraduate courses in restoration, environmen-
tal and biological sciences, endeavoured to improve knowledge and Coordinator details:
understanding of the problems and implications connected to the Prof. Patrizia Albertano
University of Rome ‘Tor Vergata’, Faculty of Sciences,
managing of archaeological sites and conservation. The use of a
Department of Biology
biological anti-cyanobacterial strategy was never attempted before,
Via della Ricerca scientifica, IT-00133 Rome, Italy
and the possibility to apply new alternative biomolecules that inter- E-mail: albertano@uniroma2.it
fere with biofilm formation represented a future development. While Tel: +39 06 7259 4859/4332
sensor technology is inherently perceived as simplistic in nature,
biotechnology is still an obscure matter for most people. However,
the application of the two-phase strategy to the safeguard of cultural
heritage can provide opportunities to increase the knowledge base Ingrid Groth †John R Gallon U,
and understanding of the workforce. The more techno- and biotech- Hans Knöll Institute for Chris Smith
nologically advanced the workforce, the greater the understand- Natural Products Research University of Wales, Swansea
ing of the safety issues and willingness to overcome conservation Dept. Molecular Natural School of Biological Sciences
and environmental problems The CATS consortium is, therefore, Products Research United Kingdom
Germany
proposing methods that are not harmful to the environment and is
Flavio Graziottin
contributing to an increased knowledge of (new) organisms CATS Bernardo Hermosín IDRONAUT s.r.l.
also addressed the issue of preserving the environmental biodiversity Campos Consejo Superior de Italy
in archaeological hypogea. In fact, a further output from this project Investigationes Cientificas
was the large number of clonal isolates of phototrophic and hetero- Instituto de Recursos Clara Urzì
trophic bacteria that are a potential source for future exploitation of Naturales y Agrobiología University of Messina
the organisms and a challenge for the global market of such genetic Spain Dept. Microbiological,
resources. Most of the CATS results provide possible solutions for Genetic and Molecular
the conservation of Roman hypogea. In addition, methodologies Tiina Mattila-Sandholm Sciences
VTT Biotechnology and Italy
developed within the framework of CATS can be adapted to apply to
Microbiology
any other archaeological or historical site at which biological decay Finland Fabrizio Bisconti
of rock surfaces is occurring. This might generate new employment Pontificia Commissione di
for highly skilled technical staff members of SMEs active in the cul- Giuseppe Pallebehi Archeologia Sacra
tural heritage domain of conservation, and promote sustainable use University of Rome Vatican City
of cultural resources on which tourist activities, new infrastructures (Torvergata)
and job opportunities could develop. Expert input from end-users Faculty of Sciences
in different EU Member States can now be expected to develop the Department of Chemical
market of sustainable technologies for safeguarding cultural heritage Sciences and Technology
Italy
commercially. In the medium and long term, the results achieved
within the CATS project was relevant to EU policy on the conserva-
tion of European cultural heritage.
66
COALITION
Concerted action on molecular microbiology as an
innovative conservation strategy for indoor and out-
door cultural assets
2. Scientific objectives and approach An International Conference on Molecular Biology and Cultural
Heritage, Seville, March 2003.
aa To introduce and enhance the use of molecular biology and
biotechnology techniques, suitable to be of interest in the field A public databank containing a list of bioactive microorganisms iden-
of conservation/restoration of cultural heritage. The benefit tified on cultural heritage assets, with pure cultures (deposited at the
obtained from the application of these techniques are Belgian Culture Collection) and DNA sequences of microorganisms
• minimisation of sampling; A list of available techniques, new methods and their applications,
• optimisation of information in diagnostic studies on micro- a set of recommendations and protocols for molecular approaches
bial contamination of cultural assets; and such as sampling, extraction, PCR-amplification and analysis of
• analysis of potential health hazards, such as toxic or otherwise PCR products, fluorescent in-situ hybridisation (FISH), optimisation
bioreactive metabolites by the organisms present in the objects of steady protocols, and guidelines for health protection of restorers
undergoing restoration. These data formed the basis of guide- and museum workers were published in the book: Saiz-Jimenez,
lines for health protection of restorers and museum workers. C., Molecular Biology and Cultural Heritage, Balkema Publishers,
aa To obtain information on the type of microorganisms colonising Lisse, p.287, 2003.
different and representative materials, by producing an inventory
of the microorganisms associated with the damages to cultural Publication of eight issues of the electronic newsletter COALITION.
assets. This is a prerequisite to include biodecay as an integral The publication was continued under the support of the Spanish
part of the restoration process and allowed the design of the most CSIC Thematic Network on Cultural Heritage and can be accessed
effective treatments for eliminating active microbial communities at www.rtphc.csic.es.
and biodeterioration, and testing the efficiency of biocide and
cleaning treatments as well as follow-up of procedures. 4. Policy impact
aa To disseminate the advantages of using molecular techniques for
diagnostic purposes to end-users, for example architects, restor- COALITION fostered cooperation between scientists, conservators
ers, curators, those responsible for cultural heritage, etc. and restorers inside the EU, dissemination inside and outside the
67
COALITION
EU, and training of molecular microbiology techniques. This was
achieved by producing guidelines and recommendations for effec- Sabine Rölleke
tive evaluation of microbial activities and for safety manipulation Genalysis GmbH
of contaminated objects. The data were discussed in a panel with Germany
stakeholders and end-users and the transfer of technology from the
Werner Lubitz
research community to the conservation/restoration community was
Universität Wien, Faculty of Life Sciences
critically addressed. 5. Dissemination and exploitation of the results
Austria
Many articles have been published and are available via contacting
the coordinator or the website. Jean Swings
Universiteit Gent
5. Dissemination and exploitation Laboratorium voor Microbiologie
Belgium
of the results
Many articles have been published and are available via contacting Mirja Salkinoja-Salonen
University of Helsinki, Department of Applied Chemistry
the coordinator or the website.
and Microbiology
Finland
Wolfgang E. Krumbein
Universität Oldenburg
Institut für Chemie und Biologie des Meeres
Germany
Piero Tiano
Istituto per la Conservazione e la Valorizzazione dei Beni
Culturali
CNR
Italy
Clara Urzì
Università di Messina, Dept. di Scienze Microbiologiche
Italy
Coordinator details:
Prof. Dr Cesareo Saiz-Jimenez
Instituto de Recursos Naturales y Agrobiología, CSIC, Avenida
Reina Mercedes, 10, ES-41012 Sevilla, Spain
E-mail: saiz@irnase.csic.es
Tel: +34 95 462 4711 ext. 134
68
Chapter 4
4. Environment, cultural heritage and tools inside
and for museums, archives and libraries, historic
buildings, churches
69
Introduction
Damage from pollution, climate change and mass tourism is not all
about exterior facades. The inside of buildings, monuments and other
structures is at risk, too. Many EU-supported cultural heritage research
projects are ‘inward-focused’; for example, the projects – IMPACT,
LIDO, MIMIC and MASTER – developed forecasting models,
advanced sensor technology and prototypes using for instance lasers
to monitor the indoor impact on cultural objects of pollution, exposure
to light or fluctuations in humidity and temperature caused by human
presence in particular. Other projects targeted specific cultural objects
or curatorial tasks with huge economic implications. COLLAPSE
aimed to halt corrosion of lead and lead-tin alloy organ pipes, while
SENSORGAN developed new sensors for monitoring and detecting
harmful environments on pipes and wooden parts of organs.
71
COLLAPSE
Corrosion of lead and lead-tin alloys of organ pipes
in Europe
http://www.goart.gu.se/collapse
1. Problems to be solved in summer compared with winter. The use of white glue (polyvinyl
acetate glue) for building or restoring an organ can be another factor
The organ belongs to the core of European culture reflecting its that causes corrosion. There are many different types of white glue
diverse histories, traditions and stylistic periods. The European her- but all emit acetic acid.
itage of the organ is preserved in numerous historical instruments.
One major threat to this heritage is the indoor atmospheric corrosion Results from the field studies indicate that the tin content in the
of lead and lead-tin alloys of organ pipes. When the corroded pipes lead-tin alloy appears to influence the corrosion behaviour of pipe
have collapsed, there is no other way to solve the problem other than metal: in samples from the same organ – i.e. exposed to the same
replacing the historical pipes with modern ones – and a part of the atmosphere – the thickness and the coverage of corrosion products
audio cultural heritage is lost forever. decreases with increasing tin content in the alloy. However, labora-
tory experiments have shown that a few percent of tin will have a
2. Scientific objectives and approach protecting effect at lower humidity while at higher humidity the
protecting effect gradually disappears.
There have been no effective methods to prevent organ pipes from
being corroded, and to save the valuable instruments which have A method was developed to clean corroded pipes. A corroded pipe is
already been damaged. Moreover, there is no consensus on the reasons cleaned primarily to decrease the rate of corrosion by removing cor-
for the increased rate of corrosion attack. The COLLAPSE project rosive compounds (salts) from the surface. The insoluble corrosion
objectives were to define relevant methods and products as well as to products (for example, lead white) are not to be removed.
create conservation strategies in order to combat the corrosion of lead
and lead-tin alloy organ pipes. This was achieved through:
aa field studies and laboratory experiments to identify the factors 4. Policy impact
which cause indoor atmospheric corrosion of lead-tin alloy organ
pipes in order to avoid or impede corrosive environments; The knowledge of factors that create a corrosive environment com-
aa developing methods to clean, protect and preserve already cor- bined with the method developed to clean corroded pipes togeth-
roded pipes from further corrosion; er formed a conservation strategy offering cultural institutions,
aa applying recommended conservation strategies in a case study parishes, SMEs and authorities with new tools and methods to pre-
using the historical Stellwagen organ in St Jakobi church in vent pipe corrosion and thereby safeguard the cultural organ heritage.
Lübeck, which is severely affected by corrosion. This, in turn, increased the competitiveness of European organ-
building SMEs and provide numerous organ-building firms focus-
ing on organ restoration with relevant methods and tools for their
3. Achieved scientific results professional activities, as well as offering new work opportunities for
skilled handicraft people.
Field studies were performed on selected corroded and non-corroded
reference organs in Italy, the Netherlands, Belgium and Germany.
Methodologies were developed for documentation of the organs;
taking and analysing corroded pipe metal samples; sampling and
analysing the air in the organs and in the churches; and setting out
metal samples for long time exposure in the organs. Temperature and
relative humidity were logged in the organs for one year.
72
COLLAPSE
73
CONSTGLASS
Conservation materials for stained glass windows –
assessment of treatments, studies on reversibility
and performance of innovative restoration strategies
and products
http://www.constglass.fraunhofer.de
74
CONSTGLASS
aa Viacryl (acrylic / PU resin); Viacryl SM 564 (with Desmodur) Furthermore, the project will develop strategies required to reduce
aa Microcrystalline waxes (e. g. mcw 1129), Carnauba and Polythene the negative impact of mass tourism on cultural heritage, by reduc-
A waxes ing the cycle of treatment, damage and re-treatment (and to promote
aa BS 31 (methyl silicone resin) tourism itself as an outstanding European economical factor). This
aa SH-1 (epoxy resin) will support development and increase competitiveness of European
aa Epidian 53 (epoxy-resin, Bisphenol A- and Epichlorohydrine- countries as required in the Treaty establishing the European
based); solution of resin Epidian 5 (molecular mass <700) in sol- Community (Title XVIII, Research and Technological Development,
vent; hardener Z-1: N,N’-bis(2-aminoethyl)ethane-1,2-diamine Article 163). As the preservation methods developed in the project are
aa Putty: Henkel Rubson (neutral silicone), linseed oil chalk, Syton applicable also for other industrial areas (polymer and coating indus-
(silicic acid dispersion) etc. try), this proposal supports the “sustainable development of economic
activities” in Europe (Article 2). Furthermore, reversibility aspects in
Regarding the development of a new, inorganic-based glass-in- terms of organic synthetics impact on valuable original artworks are
glass consolidant, the most promising prototype resin is identified considered and evaluated within the project.
and under investigation now (application on crizzled glass samples
(craquelure damage), subsequent climate chamber testing). The prod-
uct will be protected by filing a patent. 5. Dissemination and exploitation
of the results
4. Policy impact Project Leaflet
Throughout the Middle Ages stained glass held a leading role in ‘Conservation Materials for Stained Glass Windows – Assessment of
Europe among the various artistic techniques. Therefore, stained Treatments, Studies on Reversibility and Performance of Innovative
glass may still be considered as a living witness of history. The Restoration Strategies and Products (Acronym: CONSTGLASS)’
intensive connections between Flanders and Spain during the 16th
century, for example, demonstrate the pan-European reality in this Conferences / Related Publications
field from past centuries to nowadays. Especially during the last dec-
ades, art historians elucidated many more examples for artistic and 1) GLASSAC, Valencia, ES (Glass Science in Art and Conservation),
cultural connections, which irrefutably testify that the tradition of March 08:
stained glass is a legacy of European civilization, far beyond national K. Wittstadt, P. Mottner (oral presentation):
borders. Therefore, the CONSTGLASS project team has been com- ‘Internal Fractures on Glass Objects - Cause Analyses and
posed to include all relevant scientific expertise, but also considering Conservation Attempts’
political aspects, reflecting the enlargement of the European Union: N. Tennent, J. Caen, P. Courtney, E. Lozano Diz (poster presentation):
‘Raman Spectroscopic Investigation of Polymers Used in Past Glass
The project contributes to the implementation of the EU policy to Conservation Treatments’
support the participation of small and medium sized companies in K. Pieters, P. Jacobs, J. Caen, U. Brinkmann (poster presentation):
European projects and RTD-activities (see: Treaty establishing the ‘Exploring the Potential of non-Destructive X-Ray Computed
European Community, implemented in 1998, Title XVIII, Research Tomography in the Conservation of Stained Glass’
and Technological Development, Article 163). Four out of eleven
partners have the status of a SME and further SMEs will be engaged 2) IRUG-08 Meeting (Infrared/Raman User Group), Vienna, March 08
as subcontractors, to provide routine conservation and scaffolding N. Tennent, J. Caen et al. (poster presentation) :
services. One of the SMEs active in the project (FCS) is located ‘In Situ Raman Spectroscopic Investigation of Polymers Used in Past
in the Highlands Regions of Scotland, which is an “Objective 1 Conservation Treatments’
status zone” (defined by the EC), which deserves special conditions
for funding. The participation in research projects will increase 3) CVMA Conference (Corpus Vitrearum Medii Aevi, American
the competitiveness of the SMEs, which is an important target of Section), Forum:
European policy. Conservation / Restoration of Stained Glass Windows, New York,
June 2009
The inclusion of a partner from Poland supports the Action P. Mottner et al. (all CONSTGLASS partners; oral presentation):
Programme of the EU, encouraging Eastern European countries as ‘The CONSTGLASS Project: Screening of Restoration-Conservation
new EU member States to participate in EU-projects. Campaigns and Materials Development for the Sustainable
Preservation of European Stained Glass Windows’
In addition, this project supports the Community Action Plan in the J. Caen, K. de Vis, N. Tennent (oral presentation):
field of Cultural Heritage (Council Decision – O.J. 94/C 235/01) and ‘Reversibility of Polymer Treatments on Stained Glass’
the European Spatial Development Perspective (ESDP, 10 May 1999)
by enhancing the sustainable exploitation of stained glass windows Workshop / Workshop Report
as part of our common cultural heritage and thus by supporting the
“conservation and management of natural resources and cultural Reversibility Workshop Artesis Hogeschool Antwerp, 13.-15. October
heritage”. 2008
‘Conservation Materials for Stained Glass Windows – Studies on
Reversibility’
75
CONSTGLASS
Stefan Truempler
Fondation du centre suisse de recherche et d'information sur le
vitrail
Switzerland
Joost Caen
Hogeschool Antwerpen, Conservation Studies, Antwerpen
Belgium
Norman H. Tennent
Tennent Norman Fyne Conservation Service FCS
United Kingdom
Patric Jacobs
Ghent University
Belgium
Franco Zanini
Sincrotrone Trieste SCPA
Italy
Thomas Warscheid
LBW-Bioconsult
Germany
76
FRIENDLY HEATING
Both comfortable for people and compatible with
conservation of art works preserved in churches
http://www.isac.cnr.it/friendly-heating/
1. Problems to be solved
Greater comfort and flexibility were obtained by means of a
aa Church heating provides inappropriate temperature (T) and rela- number of radiant sources with low surface temperature (e.g. 30–70
tive humidity (RH) levels or strong microclimate variations with °C) that are strategically placed in every pew to satisfy the different
tremendous impact on artwork conservation. physiological needs for heat of the various parts of the body.
aa Most of the heat supplied by church heating is dispersed within
the building, causing damage to artworks without providing com- For the priest and members of the choir, personalised solutions are
fort to churchgoers. used, e.g. heated carpets, small additional IR sources.
aa Thermal comfort is generally not compatible with conservation.
aa Church heating requires a huge amount of energy and has a large Not only were the needs of conservation taken into account but also
environmental impact, contrary to the Kyoto Protocol. the comfort of the churchgoers. Comfort was assessed from the ther-
aa Artworks are rapidly deteriorating in heated churches. mal sensation of people, measuring body temperature, as well as the
air temperature and the infrared radiant contribution at the height of
2. Scientific objectives and approach a person. Heating that was both safe and comfortable was reached,
which was confirmed by objective instrumental measurements.
aa To find a church-heating system compatible with artwork
conservation. The novel heating system is fast and the radiant heaters reached
aa To develop a heating system that is, at the same time, friendly to operation temperature in some 10 minutes. However, if the church is
artwork and comfortable for people. very cold, heaters should be switched on one or more hours before
aa To contain most of the heat in the area where people are located. occupation in order to help warm up the floor and seats.
aa To study the dynamics of the indoor air with CFD simulation and
field surveys. The system is modular, with the heated pews being independ-
aa To save energy on church heating in line with the Kyoto Protocol. ent of one another. New heated pews can be added or removed
whenever needed. Pews are in a fixed position on the floor, or are
3. Achieved scientific results fixed to a footboard and each pew has independent heating. The
actual number of pews that should be heated at each service can
Church heating is based on two heating strategies: to heat the entire be decided on at any moment, simply by looking at the number
room to provide a comfortable environment, or to leave the building of churchgoers present. This constitutes a further important sav-
cold and only keep the people warm. In principle, localised heating ing of energy, especially in the case of midweek services with a
is attractive for respecting artworks, but in general it is not very smaller attendance.
satisfactory in terms of comfort and invasiveness. The FRIENDLY
HEATING research project worked along this strategy, investigating 4. Policy impact
the way to improve comfort, to assess the impact on artworks and
risk thresholds, and to recognise the limit of applicability of this The project supports EU interest in protecting built heritage and in
methodology, especially in very cold areas. developing communication on cultural heritage. The results of the
project and the innovative monitoring methodologies applied have
A novel method was specifically studied for conservation. It constituted key support for three standards on conservation of the
was aimed at warming people, but at the same time leaving the cultural property of the European Committee for Standardisation
environment unaffected; church and artworks remained almost (CEN TC346/WG4): one concerning church heating compatible with
undisturbed in their natural microclimate. The advantages were the preservation of cultural property; another concerning specifica-
an improvement in the conservation standard and human comfort, tions for temperature and relative humidity to limit climate-induced
and a reduction in costs and energy demand. The environment and damage; and a third on procedures and instruments for measuring
artworks were monitored to establish a cause-effect relationship the temperature of the air and the surfaces of objects.
(e.g. microclimate perturbations and wooden dimensional change)
and also thresholds in the allowed microclimate fluctuations. This Improving thermal comfort in churches is beneficial to health, espe-
study demonstrated that, in addition to amplitude, the frequency of cially for older people and will make better use of uncomfortable
dangerous air parameter fluctuations is fundamental. To keep heat churches for worship, mass tourism or cultural activity (e.g. concerts,
localised, low temperature radiant heaters are preferred to convec- conferences). Artwork conservation is also a means to guaranteeing
tive air movements. This strategy was preferred after a comparison cultural tourism. A novel technology implies new skills and opens a
with other heating systems new market opportunity.
77
FRIENDLY HEATING
Arturo Busà
MILANOPROGETTI S.n.C
Italy
Marcin Kozarzewski
Firma Zajaczkowska – Kloda Sp. z o.
Poland
78
IDAP
Improved damage assessment of parchment
http://www.idap-parchment.dk
79
IDAP
use of its methods and knowledge. Finally, most techniques, defini-
tions etc. used and developed during the project are described in Contract number: EVK4-CT-2001-00061
detailed papers published on the part of the IDAP website available Start date – End date: 01/03/02 – 31/08/05
to network members. Development of and training in the assessment Contract type: FP5 Cost-shared research
Duration (in months): 42
method and use of the database methods took place at workshops
with participation of end-users from inside as well as outside Europe. Coordinator details:
In addition, researchers from the IDAP group have visited end-user Dr René Larsen
institutions and been visited by them in order to train individual School of Conservation, Royal Danish Academy of Fine Arts
experts in the techniques. This way of disseminating the results and Esplanaden 34, DK-1263 Copenhagen, Denmark
methods has continued after the project period, and several large E-mail: rl@kons.dk
archives, libraries and research institutions in Europe have imple- Tel: +45 33 74 4703
mented them in their practical and research work.
Marianne Odlyha
University of London, Birkbeck College
Department of School of Biological
and Chemical Sciences
United Kingdom
Frédérique Juchauld
Centre de Recherches sur la Conservation
des Documents Graphiques (CRCDG)
France
Tim Wess
University of Cardiff
Department of Optometry and Vision Sciences
United Kingdom
Marie Vest
Det Kongelige Bibliotek
Department of Preservation
Denmark
Magda Souckova
National Library of the Czech Republic
Conservation Department
Czech Republic
80
IMPACT
Innovative modelling of pollution and conservation
thresholds
http://www.ucl.ac.uk/sustainableheritage/impact
1. Problems to be solved elled for the indoor atmosphere, demonstrating that in conditions of
high light levels this can affect the indoor concentration of pollutants
The problem of pollution damage to cultural heritage in museums, such as nitrogen dioxide and ozone. The IMPACT pollution model
galleries and archives is faced by cultural heritage institutions has been developed for both naturally ventilated and mechanically
throughout Europe. Yet, although most institutions are aware of the ventilated buildings. The software has been written as two freely
pollution problem, and are keen to deal with it, they frequently lack available Java applets that can be run by any modern browser pro-
the expert knowledge to make informed decisions about what might gram. It has been developed with the continued involvement and
be the best approach to pollution control. Only the largest and most input of end-users who have made many suggestions for new features
prestigious institutions can be expected to employ conservators or and improvements.
scientists with any knowledge in this area. This project aimed to
develop a software tool to assist museums in dealing with the prob- By highlighting the role of deposition, the project has shown how
lem of pollutant damage to indoor cultural heritage. The tool enables a natural process can remove damaging air pollutants from the
museum staff, architects and engineers to make sensible decisions air in many types of cultural heritage building, before they have
about pollution control for their organisations. the chance to react with collections. This is of great importance
for museums, galleries, archives and libraries in particular. The
2. Scientific objectives and approach IMPACT software can highlight which building types are most and
least effective in utilising the natural process of deposition. The
The project sought to assist museums in the control of damaging project has also carried out research into how this process can be
gaseous pollutants through the production of a public domain (web- enhanced using special materials of high absorbing capacity. It has
based) software tool that can: demonstrated how such materials can be practically deployed in
aa predict indoor pollutant concentrations from outdoor concentra- museum environments, but further research is needed before usable
tions and building parameters; products can be developed.
aa give information on the damage this pollution is likely to cause
and suggest suitable control thresholds using a deposition-based 4. Policy impact
methodology;
aa assess the impact of different pollution control strategies and The project has contributed to European policy development for cul-
encourage museums to adopt best practice in preventive conservation. tural heritage by increasing knowledge and understanding in relation
It also developed materials suitable for use as passive pollution to pollution damage, and the development of policies and standards
absorbers in museums. to reduce such damage. The socioeconomic relevance of the software
The project approach was multi-disciplinary, bringing together is, as an educational tool, helping users to learn about air pollution
a consortium of universities, a research organisation, a SME, a behaviour in buildings and understanding its system nature. Through
museum and an architectural practice. The project combined labora- the software and the work that has been done on deposition-based
tory studies of pollution interactions with materials, pollution and thresholds, the project has sought to move thinking about pollution
material measurements in real museum situations, and designed and and cultural heritage away from just considering the concentration in
implemented a web-based software tool that could readily be used by the air, but also to think about deposition processes and how these
a non-specialist. The project research was underpinned throughout should be studied in order to better understand the damage that can
by a strong element of end-user input, both from the project partners occur to cultural heritage.
and through consultation with museum professionals, architects and
engineers at two end-user workshops organised by the project. 5. Dissemination and exploitation
of the results
3. Achieved scientific results
The project results were disseminated through two end-of-project
The project developed and perfected a methodology for the meas- workshops in London and Krakow. The project was presented at the
urement of deposition velocities of a wide range of materials under 5th EC Conference on Cultural Heritage (see http://www.ucl.ac.uk/
realistic ambient conditions. It has been applied to a wide range sustainableheritage/ conference-proceedings) in September 2004
of interior finishes and object materials to obtain new and bet- and at the COST G8 Workshop in Malta (November 2004). The
ter quality data than had been previously possible. The relative IMPACT software tool is being used by cultural heritage organisa-
humidity dependence of deposition velocity for sulphur dioxide, tions such as English Heritage in the United Kingdom, and as an edu-
nitrogen dioxide and ozone has been modelled, contributing much cational tool for teaching on the University College London’s MSc in
to the understanding of the role of water in the deposition process. ‘Sustainable Heritage’ and the University of Malta’s MSc/Diploma in
The homogeneous chemistry of reactive air pollutants has been mod- ‘Conservation Technology for Masonry Buildings’.
81
IMPACT
Coordinator details:
University College London
Dr Nigel Blades
UCL Centre for Sustainable Heritage, The Bartlett School of
Graduate Studies
University College London, Gower Street
London WC1E 6BT
United Kingdom
E-mail: n.blades@ucl.ac.uk
Tel: +44 20 7679 5965
Peter Brimblecombe
School of Environmental Sciences
University of East Anglia
United Kingdom
Susan Smith
Emcel Filters Ltd
United Kingdom
82
INKCOR
Stabilisation of iron gall ink-containing paper
http://www.Infosrvr.nuk.uni-lj.si/jana/InkCor/index.htm
1. Problems to be solved derivatives of piperidyl. They are radical scavengers and are thus
able to inhibit oxidative decay irrespectively of the type of transi-
Iron gall ink is probably the most important ink in Western history, tion metal which catalyses it. A patent proposal was submitted.
widely used from the Middle Ages until the 20th century. Due to the
ink’s corrosive properties, however, the damage caused so far is exten- 4. Policy impact
sive, with 60% of priceless Leonardo da Vinci oeuvre showing signs of
degradation and Bach’s hand-written music virtually falling apart. Novel knowledge and a proposed solution to the problem of ink-
induced decay contribute to the safeguarding of European cultural
2. Scientific objectives and approach heritage on paper. The patented treatment contributed to the eco-
nomic growth and creation of new jobs.
The main objectives of the InkCor project were to improve signifi-
cantly the present knowledge of the phenomenon of ink corrosion 5. Dissemination and exploitation
and to establish optimal non-aqueous conservation practices for
of the results
iron gall ink-containing documents, enabling their preservation
and undisturbed access. In order to achieve the objectives, a deeper A patent application for the stabilisation of paper using antioxi-
insight into the historical ink compositions and their corrosive prop- dants was submitted in 2004. The project results were disseminated
erties, especially with respect to the transition metal content, was widely via the Internet, leaflets and publications. At the end of the
needed. This knowledge allowed for the development of improved project, a workshop and conference were organised. A handbook
identification methods of corrosive inks and the selection of the was also produced.
appropriate antioxidants, which successfully inhibit decay of paper
containing iron gall ink. Contract number: EVK4-CT-2001-00049
Start date – End date: 01/03/02 – 28/02/05
3. Achieved scientific results Contract type: FP5 Cost-shared research
Duration (in months): 36
Excellent cooperation between European partners with different
expertise resulted in a range of achievements: Coordinator details:
aa Increased knowledge about iron gall ink components – numer- Dr Jana Kolar
Narodna in Univerzitetna Knjižnica (NUK)
ous historical iron gall ink recipes were collected and evaluated.
Laboratory for cultural heritage
The results were complemented by instrumental analyses of
Turjaska 1
historical documents using the in-air PIXE method. It was dem- SI-1000 Ljubljana, Slovenia
onstrated that some iron gall inks may contain almost as much E-mail: jana.kolar@nuk.uni-lj.si
copper as iron ions. Tel: +386 1586 1361
aa Deeper insight into the iron gall ink corrosion process – it was
demonstrated that under alkaline conditions, copper ions are
much better catalysts of peroxide decomposition than iron ions.
Efficient antioxidants should therefore not focus on stabilisation Steph Scholten Miloś Budnar
of iron ions alone. In addition, a correlation has been obtained Instituut Collectie Nederland Institut ‘Jožef Stefan’
between the width of the applied ink lines, pH, grammage of The Netherlands Slovenia
paper and the extent of ink corrosion. Based on these factors,
which can be acquired non-destructively from most historical Matija Strlič Ted Steemers
documents, it is therefore possible to predict the stability of his- Univerza v Ljubljani Nationaal Archief
torical iron gall ink containing paper. Faculty of Chemistry Preservation Department
aa Improved research methodology – model rag papers as well as and Chemical Technology The Netherlands
model inks were produced. Analytical methodologies for evaluation Slovenia
of the stability of iron gall ink-containing paper were developed. Robien van Gulik
aa Improved identification of iron gall inks – a non-bleeding test for Manfred Anders Teylers Museum
copper(II) ions was developed. It enabled conservators to identify Zentrum für The Netherlands
copper-rich iron gall inks. Bucherhaltung GmbH
aa Development of prototype non-aqueous stabilisation method – to Germany Ariane de la Chapelle
develop a non-aqueous method for stabilisation of iron gall ink- Musée du Louvre
containing paper, several antioxidants were evaluated. The most France
promising belong to a group of halides and pseudo-halides or were
83
LASERACT
Laser multitask non-destructive technology in
conservation diagnostic procedures
http://www.iesl.forth.gr/projects/laseract/index.aspx
84
LASERACT
ern laser technologies in conservation practices since by switching The Maltese monumental fortification was investigated for assess-
from one modular to another incorporated in one multi-task system ing deep deterioration and age problems (May 2005), crypts and
depends only on the structural conservation problem under concern tombs excavated in Costanza Romania were investigated for docu-
and the characteristics of the artwork itself. Therefore human mobili- mentation and wall-painting conservation (February 2004, in col-
ty is encouraged independently of local education and practices elab- laboration with project of CULTURE 2000). Recently the system
orating in synergy with the expertise of conservators and restores. was required for documentation of structural condition of 11th
Thus the integrated approach of multi-tasking systems is expected century wall paintings in a UNESCO World Heritage Monument at
to become competitive and dominate the technology advances in the St Savin, the Abbey of St Savin-sur-Cartempe. Impressive results
field of CH. However, this depends on policy decisions which would were obtained from the on-field campaigns in all the above-men-
allow further training, education and demonstration activities. tioned cases. In particular, Maltese fortification age consideration
was successfully assessed with preliminary studies indicating the
5. Dissemination and exploitation potential to classify the difference in age between Maltese stone
and to detect differentiation in deterioration processes. New results
of the results
of well-defined detachments were also obtained in Costanza crypts.
aa Demonstrations/press conferences (TV broadcast in local or In St Savin-sur-cartempe the results of holography module added
European TV channels-articles journals) dominant information and were used to drive the consolidation
aa Open public demonstration and press conference on St Dennis- process. The campaign was continued.
Paris (July 2006) aa Spin-off in negotiation procedure
aa Open public demonstration and press conference on Valetta aa Selected publications (publication list in updating process)
Malta (May 2005)
aa Demonstration and press conference on Heraklion Crete
(October 2004)
aa Open public demonstration in CER 2005 in Bruxelles,
(February 2005)
aa On-field campaigns:
aa Malta Valetta: inspection in Valetta fortification, Victoria church,
St John crypt
aa Romania Costanza: inspection in wall-paintings in tombs and
crypts excavations in Costanza
aa France St Savin-sur-cartempe: inspection in St Savin wall paintings.
85
LASERACT
Coordinator details:
Dr Vivi Tornari
Institute Electronic Structure and Laser/ Foundation for
Research and Technology-Hellas, Voutes 71 110, Heraklion,
Crete, Greece
E-mail: vivitor@iesl.forth.gr
Tel:+30 2810 391 394
Priority risk map for conservation of painting (attributed to Rafael, National Gallery of Athens)
86
LIDO
A light dosimeter for monitoring cultural heritage:
development, testing and transfer to market
http://www.lido.fraunhofer.de
http://www.lightcheck.co.uk
87
LIDO
Mauro Bacci
Istituto di Fisica Applicata ‘Nello Carrara’, IFAC-CNR
Italy
Martin Graham
Victoria and Albert Museum/ Conservation Department/
Science Section V&A
United Kingdom
Martin Dvorak
National Institute for the Preservation of Cultural Heritage, SUPP
Czech Republic
88
MASTER
Preventive conservation strategies for protection of
organic objects in museums, historical buildings and
archives
http://www.nilu.no/master
1. Problems to be solved eter film from before to after its environmental exposure. The
comparison of this value with the threshold levels is used as an
All over Europe, objects in museums, historical buildings and early warning of possible unacceptable environmental risk for
archives are being affected either by display or by storage conditions. the objects, through the use of a preventive conservation strategy
Unsuitable environmental conditions are a serious cause of decay. The developed in the project, which can be integrated with existing
key to the survival of these objects is achieving an acceptable indoor preventive conservation methods.
environment and vital to this is sustainable management of the cultural
property, including better preventive conservation strategies. 4. Policy impact
2. Scientific objectives and approach One of the aims of the MASTER project was to evaluate criteria for
environmental impact on the early warning dosimeters. In this respect
The MASTER project aims to provide conservator staff of museums, it supports the implementation of EEC directives on Environmental
historical buildings and archives with a new preventive conservation Impact Assessment (EIA Directive 85/337/EEC and EIA Directive
strategy for the protection of cultural property, based on an early warn- 97/11/EC). The project also contributes to the implementation of the
ing strategy assessing the environmental impact on organic objects, EC policy concerning the preservation and enhancement of cultural
such as fibre materials. An important part of the early warning system heritage. The MASTER project supports the EU interest in built her-
is the development of early warning dosimeters for organic materials itage and the development of communication of movable cultural
(EWO-Generic dosimeter and EWO-Specific dosimeter), which assess heritage. It is also relevant in the way it meets the goals – to increase
the deterioration of indoor organic materials. Current approaches to awareness, exchange experiences between professionals at a European
preventive conservation of organic objects were reviewed through level as well as devolving European networks devoted to conservation,
consultation with end-users, literature reviews and questionnaires. The training and research (Council Decision - O.J: 94/C 235/01).
innovative aspect of the preventive conservation strategy that this project
is developing is an early warning system including the EWO dosimeters 5. Dissemination and exploitation
that provided a relatively cheap and easy way for museums, as a first
of the results
step, to evaluate the quality of the environment they provide for organic
objects. Its relevance to conservation needs has been ensured by formal The dissemination of the MASTER project through publications and
consultation with end-users from across Europe. conference presentations has opened dialogue with a wide range of
end-users and European cultural heritage institutions on the issues of
3. Achieved scientific results preventive conservation strategies.
Two novel dosimeters (EWO-Generic dosimeter and EWO- Results from the project were also presented at the COST Action G8
Specific dosimeter) have been developed to assess the effects of Training School.
the environment on organic objects. A major advantage of the
new dosimeters is that the dose effect can be read directly at the During this event delegates from Europe and overseas discussed
location after exposure, and can be interpreted by comparison the project and development of the dosimeter. The emphasis of the
with acceptable exposure levels for different kinds of institution, dissemination on communicating project results with a wide range
from archives to open structures. The threshold levels are set of stakeholders, peers and end-users has helped develop a socioeco-
based on best available effect measures for the environmental nomic dimension to the project and outlined the benefits to muse-
parameters on organic objects and dyes, and existing standards. ums, historical buildings, archives and other institutions and the
The EWO-Specific dosimeter measures the doses of the separate best way that they can optimise those benefits. The commitment of
gases NO2, O3 and SO2. The EWO-Generic dosimeter has been the project to consultation at all stages of the project meant that the
calibrated against the combined effect of the oxidising gases final workshop arranged in London in January 2006 benefited from
NO2 and O3, temperature, RH (relative humidity) and UV light. well-developed viewpoints of conservation scientists and end-users
Combined high SO2 and RH values also affected the dosimeter. that were independent of the project.
For the EWO-Specific dosimeter the value for the dose result is
displayed as the three gas concentrations. For the EWO-Generic The MASTER EWO technology was further developed with the help
dosimeter, the result is displayed as a single digit, correspond- of SMEs in the sectors of production, marketing and sale. Marketing
ing to the dose value and a threshold interval. The dosimeters was performed in close cooperation with end-users and their experi-
are based on polymer and dye technology and the result of the ence with the product and further evaluation of its usefulness was
exposure is measured as a change in UV absorption of the dosim- essential. The involvement of end-users from museums and galleries
89
MASTER
gives potential for a wide impact. Besides the social and economic
benefits on society, there is also potential for SME profit from pro- Contract number: EVK4-CT –2002-0093
duction and marketing. Start date – End date: 01/02/03 – 31/01/06
Contract type: FP5 Cost-shared research
Duration (in months): 36
Coordinator details:
Dr Elin Dahlin
Norwegian Institute for Air Research,
Instituttveien 18, P.O. Box 100
NO-2027 Kjeller, Norway
E-mail: emd@nilu.no
Tel: + 47 63 89 80 00
May Cassar
University College London
The Bartlett School of Graduate Studies
Centre for Sustainable Heritage
United Kingdom
Jürgen Heinze
The exposure of the EWO dosimeter during the field test cam- Albert-Ludwigs Universität Freiburg
paign at the Trøndelag Folk Museum, Trondheim, Norway Freiburger Materialforschungszentrum
Germany
Mihalis Lazaridis
Technical University of Crete
Department of Environmental Engineering
Greece
Janusz Czop
National Museum Krakow
Poland
Anne Sommer-Larsen
Trøndelag Folkemuseum
Norway
Kathryn Hallett
Historic Royal Palaces
Hampton Court Palace
United Kingdom
90
MIMIC
Microclimate indoor monitoring in cultural heritage
preservation
http://iaq.dk/mimic/
1. Problems to be solved pollutants present; the type of building materials used; the degree of
heating; whether it is air-conditioned and whether the air is filtered;
Assessment of damage to indoor cultural heritage, in particular the rate of air exchange; the level and type of illumination; and the
by pollutants, is a major and growing concern for curators and ever-increasing numbers of visitors. It is also recognised that it is the
conservators/restorers. The aim of the MIMIC project is to pro- resulting synergistic action of this complex matrix of variables that
vide early warning systems to assess damage, initially in environ- produces damage on objects.
ments where relative humidity, temperature, light and pollutant
levels have been characterised. 3. Achieved scientific results
2. Scientific objectives and approach The project has developed damage dosimeters which can be used
either as continuous data loggers or as passive samplers interrogated
The main objective of the MIMIC project was to monitor the cumu- at monthly intervals. The damage measured by the coated crystal
lative damage caused by indoor environmental conditions to cultural arrays, and which reflects changes in the coatings, is expressed as a
objects in museums and historical buildings, in particular to easel ratio of frequency shift to the original coated frequency (f/F). These
and panel paintings. To achieve this objective, the protocol developed have been correlated to the physicochemical changes in the coatings
for paint dosimeters in the previous ERA project (Environmental through the combined use of spectroscopic and X-ray surface analyti-
Research for Art Conservation) was used and extended to incorpo- cal techniques. Direct temperature resolved mass spectrometry of the
rate quartz crystal microbalance/piezoelectric quartz crystal (PQC) paint tempera dosimeters, used at the outset of the project, together
technology. This was considered to be the technologically innovative with PCA-DA of the resulting data provided a chemical basis for the
part of this project. The basic idea was to construct an array of coat- initial ranking of some of the sites tested. Correlation exists between
ed piezoelectric crystals where the response profiles would monitor the measured damage (f/F) (crystals), the resulting measured chemi-
cumulative damage to the coating in terms of a direct readout, rather cal change, and the impact of environmental conditions. The damage
than requiring chemical analysis. Eventually, it would also be pos- measured is that of the egg tempera or resin mastic coating. The extent
sible to interrogate data via a telemetry link, as is currently proposed of the measured damage can be evaluated against the database pro-
in the new SENSORGAN project (sensor system for detection of vided by the MIMIC project: http://iaq.dk/mimic/
harmful environments in pipe organs). The coatings used were those To summarise, the following has been achieved:
of artists’ varnish and paint medium (tempera) applied also to steel 1. Two different types of damage dosimeter have been developed
substrates. Chemical changes in the similarly coated and exposed based on PQC technology: one type (passive sampler) is exposed
metal strips were monitored using spectroscopic and thermo- and subsequently evaluated in the laboratory and the second one is
mechanical techniques. Laboratory calibration was performed of the a continuous recording unit for online onsite readings.
coated crystal array response to selected doses of accelerated light 2. Chemical analysis of dosimeters.
and NO2 at known relative humidity (RH) values. 3. Correlation of chemical changes and the measured frequency shifts.
4. Recording of microclimate conditions and pollutants for periods
Sites in northern and southern European locations were selected of up to three years.
for exposure of the damage dosimeters and for detailed monitoring 5. Creation of a bilingual website (http://iaq.dk/mimic) for general
of environmental conditions (relative humidity, temperature, light, public access.
NO2, NOx, SO2, ozone and HONO and HNO3). Accordingly, an 6. Creation of software, ‘Grand Unified MIMIC Database’ (GUMD),
environmental dataset was obtained for correlation with the damage to organise climate data (hosted on http://iaq.dk/mimic).
assessment dataset obtained from the crystal array dosimeters. The 7. Reduction of the climate data has allowed the description of the
selection of sites also provided the opportunity to compare condi- sites in terms of their potential for damage.
tions at historical buildings; in some cases modified heating regimes 8. Dosimeter calibration by exposure to accelerated light and pol-
are used in order to stabilise RH levels within a range suitable for lutant levels.
mixed collections, and in others, in different climatic regions, there 9. Calculation of frequency shifts recorded by the dosimeter crystals.
is no control. An interdisciplinary research team was involved in the 10. Ranking of sites in terms of monitored damage.
project and included experts in preventive conservation of artworks,
measurement of air pollutants, analytical chemistry and instru- 4. Policy impact
mentation. The ability to identify and assess damage to cultural
heritage, in particular by indoor pollutants, as mentioned above, is Community social objectives, which intersect with this project, are
a major and growing concern for many curators and conservators/ the preservation of cultural heritage in indoor environments and the
restorers. It is recognised that the quality of indoor environments application of knowledge which assisted in risk and damage assess-
is influenced by a number of factors: the location of the museum or ment, and risk abatement. Improved preventive conservation meas-
historical building, which would determine the nature and level of ures taken to protect Europe’s cultural heritage would ensure that
91
MIMIC
future generations continued to experience enjoyment and enlighten- aa Ryhl Svendsen, M., Padfield, T., Smith, V.A. and De Santis, F.,
ment through their appreciation of cultural heritage. This accent on “ The indoor climate in historic buildings without mechanical
cultural heritage preservation ensures an improved quality of life for ventilation”, Healthy Buildings 2003, proceedings: Singapore
this and future generations. Awareness generally of pollutant levels 7–11 December, Vol. 2, ISIAQ, pp.278–83, 2003.
(i.e. indoor/outdoor pollutant levels) would assist in legislation for aa Selected presentations of the MIMIC project
better quality of life. aa Odlyha, M., presentation of the MIMIC project at the Master
project workshop, London, January 2006 “Microclimate Indoor
5. Dissemination and exploitation Monitoring in Cultural Heritage Preservation (MIMIC): early warn-
ing systems to assess damage and estimate threshold values”..
of the results
aa Odlyha, M., “Microclimate indoor monitoring for cultural herit-
Broad dissemination of the MIMIC project has been in the form age preservation (MIMIC): risk assessment of cultural heritage in
of publications in peer-reviewed journals, teaching material for art galleries, museums, historical houses, palaces, castles using
academic purposes, and information on the website for preventive piezoelectric quartz crystal technology”, oral presentation in ses-
conservators and curators to access. This project also resulted in an sion on cultural heritage and in book of abstracts, ICTAC 13th
exchange of expertise and training and assistance in conservation International Symposium on Thermal Analysis and Calorimetry,
of historical objects. The project has had an impact on the protocol Sardinia, Italy 12–19 September 2004.
of monitoring and assessing damage from the synergistic action of aa Odlyha, M., presentation of the MIMIC project at the EC G8 Cost
environmental conditions in cultural heritage buildings. As a result, Action Advanced School Conservation Centre Malta, Valletta,
conditions of preservation of cultural objects, in particular paintings, 29–31 October 2004.
in historical sites and the working conditions for corresponding per- aa Odlyha, M., presentation of the MIMIC project at the MIMIC
sonnel may be improved. A complete database and software, ‘Grand workshop 7–9 November CNR-Padova Italy and proceedings of
Unified MIMIC Database’ (GUMD), to organise climate data are this meeting was published on the MIMIC website (http://iaq.
hosted on http://iaq.dk/mimic. dk/mimic).
The crystal arrays in the prototype modules constructed in the Contract number: EVKV4-CT-2000-00040
MIMIC project are currently being used in two Framework 6 Start date – End date: 01/01/01 – 30/06/04
projects : SENSORGAN “Sensor system for detection of harmful Contract type: FP5 Cost-shared research
environments for pipe organs” (contract no. 022695) and PROPAINT Duration (in months): 42
“Improved protection of paintings during exhibition, storage and
Coordinator details:
transit” (contract no. 044254). In addition to resin mastic, lead-based Dr Marianne Odlyha
coatings are being used for monitoring microclimates in the vicinity School of Biological and Chemical Sciences, Birkbeck College,
of organ pipes and within microclimate frames for paintings. University of London, Mallet St, Bloomsbury, GB-WCIE 7HX
London, United Kingdom
Selection of publications E-mail: m.odlyha@bbk.ac.uk
aa Odlyha, M., Wade, N., Slater, J.M., Wang, Q., Campana, R., Rhyl Tel: +44 20 7079 0792
Svendsen, M., Padfield, T., De Santis, F., Smith, V.A., Bullock,
L., Ferreira, E.S. and Boon, J.J., Microclimate indoor monitoring:
damage assessment for cultural heritage preservation, Preprints Franco De Santis
ICOM (International Committee for Conservation), the Hague, Istituto Inquinamento Atmosferico
Sept 2005. Italy
aa West, R.H., Odlyha, M., Pratt, K., Roberts, A. and Hutton, S.,
Monitoring the environmental degradation of paint dosimeters A. Ruiz-Hernando and Victoria Smith
Alcazar
used to assess risk for fine art paintings on display by X-ray
Spain
photoelectron spectroscopy, Surface Interface Analysis, 36, 8,
pp.862–65, 2004. Linda Bullock
aa Odlyha, M., “The application of thermoanalytical techniques to The National Trust
the preservation of art and archaeological objects”, Handbook United Kingdom
of Thermal Analysis and Calorimetry, ed. M.E. Brown and P.K.
Gallagher, Elsevier, Chapter 2, Vol. 2, pp.47–92, 2003. Tim Padfield and Ryhl-Svendsen Morten
aa De Santis, F., Bellagotti, R., Vichi, F. and Allegrini, I., The National Museum of Denmark
‘Assessment of air qualità at the Galleria dell’Accademia, Denmark
Florence”, Exploring David, diagnostic tests and state of con-
Jaap J. Boon
servation, S. Bracci, F. Falletti, M. Matteini, R. Scopigno (Eds), FOM Institute for Atomic and Molecular Physics-AMOLF
Giunti, pp.126–29, Florence, 2004. The Netherlands
aa De Santis, F., Allegrini, I., Menichelli, S. and Vazzana, C.,
“Monitoring air pollution for the protection of cultural heritage:
the use of diffusive sampling”, Atti della Conferenza “Attualità
ed interdisciplinarietà della chimica analitica”, p.R7, Roma,
20–22 February 2002.
92
MIP
Transition Metals in paper
http://www.miponline.org
1. Problems to be solved related to MIP. Two new EU co-financed projects have been started
– PaperTreat (related to mass de-acidification) and Survenir (a
The problem to be solved by the network is to respond collectively to non-destructive analytical tool for determining paper degradation).
specific threats to the European paper-based cultural heritage. These All new initiatives are coordinated by MIP members.
risks include the deterioration, conservation and storage of paper
and ligno-cellulosic objects that have been affected by metal-tannin
corrosion throughout, many of which are stored in archives, libraries
and museums
93
MIP
94
MIP
95
MODHT
Monitoring of damage to historical tapestries
http://www.hrp.org.uk/aboutus/whatwedo/collectionscare/monitoringthedamagetohistorictapestries.aspx
96
MODHT
4. Policy impact
The project has produced an objective testing scheme for damage
assessment with which conservators were able to assess and track
the condition of the tapestries within their care. This is especially
important because of the invisibility of fibre damage: changes at the
molecular level have consequences for the physical strength of the
tapestry. A new understanding of degradation has been obtained and
changes in overall strength and colour can be described for the first
time in chemical terms. The state of the fibre is of vital importance Contract number: EVK4-CT-2001-00048
for the overall mechanical integrity of the tapestries and determined Start date – End date: 01/04/02 – 31/03/05
how they withstood being transferred to other locations for display. Contract type: FP5 Cost-shared research
The proven correlations between amino acid analysis, molecular Duration (in months): 36
weight (silk) and tensile strength (among other markers) of silk and
wool confirms the value of applying these analytical results to future Coordinator details:
conservation strategy. Useful correlations and inter-relationships Prof Christopher M. Carr
Department of Textiles and Paper,
have been established which benefit conservators. For example,
School of Materials,
the analytical techniques could be used to prioritise tapestries for
The University of Manchester,
interventional conservation treatment, and also to justify the level PO Box 88,
of intervention or support required in order to stabilise and display Sackville Street,
a tapestry. Manchester M60 1QD,
United Kingdom
5. Dissemination and exploitation Email: chris.carr@manchester.ac.uk
Tel: +44 (0)161 200 4131
of the results
This research has been published in a wide variety of fora to dis-
seminate information internationally, from peer-reviewed academic Kathryn Hallett
Historic Royal Palaces, Conservation and Collections Care
journals and conferences, to informal talks and tours for visitors
United Kingdom
and students. In addition to presentations at external international
conferences, a final MODHT Workshop, at Hampton Court Palace, Marianne Odlyha
in the UK, was undertaken in June 2005 to effectively disseminate Birkbeck College, University of London
the objectives, results and conclusions to potential end-users. Over 70 Department of Biological and Chemical Sciences
delegates attended with representation from heritage organisations United Kingdom
around the world. The results and discussion of the meeting and
project were published for wider dissemination. Anita Quye
National Museum of Scotland
Department of Conservation and Analytical Science
United Kingdom
Jan Wouters
Koninklijk Instituut voor het Kunstpatrimonium/ Institut Royal
du Patrimoine Artistique (KIK/IRPA)
Belgium
97
MULTIENCODE
Multifunctional encoding system for assessment of
movable cultural heritage
http://www.iesl.forth.gr/projects/multiencode/index.html
98
MULTIENCODE
Cultural Heritage, V Tornari, E. Bernikola, W Osten, R, M, Olafsdottir, Christina Tsaroucha, Michalis Doulgeridis, Roger
Grooves, G. Marc, G. M. Hustinx, E Kouloumpi, S Hackney M Groves, Marc Georges, Guy-Michel Hustinx, Vivi Tornari
aa Development of Impact Assessment Procedure and prelimi-
nary results with digital holographic speckle pattern inter- aa Multifunctional Encoding System for Assessment of Movable
ferometry for signatures multiencoding use,E. Bernikola, K. Cultural Heritage, V Tornari, E. Bernikola, W Osten, R, M,
Hatzigiannakis, Y. Orphanos, E. Kouloumpi, V. Tornari Grooves, G. Marc, G. M. Hustinx, E Kouloumpi, M. Doulgeridis,
aa Role of dynamic holography with photorefractive crystals in S Hackney, Strain-An international journal for experimental
a multifunctional sensor for the detection of signature features mechanics, submitted November 2007
in movable cultural heritage, Cédric Thizy, Marc Georges,
Michael Doulgeridis, Eleni Kouloumpi, Tim Green, Stephen
Hackney, Vivi Tornari Contract number: SSP 006427
aa Shearography as part of a multi-functional sensor for the Start date – End date: 01/09/05-31/08/08
Contract type: FP6-STREP
detection of signature features in movable cultural heritage,
Duration (in months): 36
Roger M. Groves, Wolfgang Osten, Michael Doulgeridis,
Eleni Kouloumpi, Tim Green, Stephen Hackney, Vivi Tornari Coordinator details:
Dr Vivi Tornari
aa P
hotorefractive holography for the assessment of movable art- Institute of Electronic Structure & Laser
works results obtained under the frame of the European project Foundation for Research & Technology–Hellas, Vassilika
MULTIENCODE, M. Georges, C. Thizy, S. Hackney, T. Green, Vouton, Voutes, 711 10 Heraklion, Crete, GREECE
E. Kouloumpi, V. Tornari, Proceedings of the OPTIMESS Email: vivitor@iesl.forth.gr
2007 Workshop 28th-30th, May 2007, Leuven, Belgium Tel. number: +30 2810 391394
aa Détection de défauts dans des oeuvres d'art par holographie Michalis Doulgeridis, Alexandros Soutzos
photoréfractive et utilisation pour la certification et la con- Conservation department
servation: présentation du projet européen MULTIENCODE National Gallery of Athens Museum
et résultats préliminaires, Marc Georges, Cédric Thizy, Tim Greece
Green, Stephen Hackney, Eleni Kouloumpi, Vivi Tornari
Stephen Hackney
Tate Gallery, Conservation department
aa Temporal phase measurement methods in speckle interferom- United Kingdom
etry for art conservation. R M Groves, W Osten, G Pedrini, M
Doulgeridis, E Kouloumpi, T Green, S Hackney and V Tornari,
Photon 06
99
PAPERTREAT
Evaluation of mass deacidification processes
http://www.infosrvr.nuk.uni-lj.si/jana/papertreat/index.htm
1. Problems to be solved In addition, standard model materials, evaluation criteria and quality
control criteria were developed, resulting in best practices and sig-
Paper production technologies that emerged in the 19th cen- nificantly simplifying the evaluation of emerging new preservation
tury contained a hidden menace which is now causing consider- technologies in the future.
able problems for the world’s libraries, archives and museums.
The increased use of acidic compounds in the production process 3. Achieved scientific results
has caused a pH shift in paper, making it more acidic, which has
resulted in the massive decay of library and archival holdings. In the first semester of the project, the analytical methodology was
The scale of the problem is huge: it is estimated that about 25% of developed, which enabled the rate of decay of paper-based material
the books in general library collections are already brittle and an at room temperature to be determined. A library is being surveyed
additional 60% are endangered. in order to define the extent of the acid-paper problem and offer an
input into the development of model materials, which best repre-
sented the variety of papers found in libraries and archives.
4. Policy impact
The contribution of the PaperTreat project is focused on improved
preservation. It therefore influences not only European but rather
the worldwide paper-based cultural heritage endangered by acid-
induced degradation. It could be expected that the projects’ main
result – enhanced preservation of archives and books – contributed
to a higher quality of life in our information-dependent society. In
addition, through evaluating the environmental and health aspects
of various preservations options, the project will contribute to a
healthier environment. PaperTreat also supports the international
cooperation objectives of the EU, thanks in particular to the Russian
State Library’s participation in the project.
Although the preservation strategies – mass deacidification and stor- Contract number: SSP 006584
age at lower temperatures – have been used for decades, their effect Start date – End date: 01/08/05 – 31/07/08
on the real-time ageing has not yet been evaluated. Together with the Contract type: FP6-STREP
evaluation of side-effects and cost estimates, this data is essential for Duration (in months): 36
the development of a suitable preservation strategy.
Coordinator details:
The PaperTreat project aims to establish the rate of decay of library Dr Jana Kolar
Narodna in Univerzitetna Knjiznica (NUK)
and archival paper-based material at room temperature, and to pro-
Laboratory for Cultural Heritage
vide estimates of the extension of its useful time, as achieved by mass
Turjaška 1
deacidification treatments or storage at low temperatures. The cost SI-1000 Ljubljana, Slovenia
estimates and side-effects of preservation actions were provided as E-mail: jana.kolar@nuk.uni-lj.si
well, which enabled end-users across Europe to optimise their pres- Tel:+386 1586 1361
ervation programmes.
100
PAPERTREAT
101
PAPYLUM
Chemiluminescence – a novel tool in paper conserva-
tion studies
http://www.science4heritage.org/papylum/
102
PAPYLUM
103
PARELA
Paper restoration using laser technology
http://www.art-innovation.nl
1. Problems to be solved of aesthetic and scientific evaluation of results can be seen as a new
scientific achievement.
The main objective of this project was to establish a laser-cleaning
system suitable for accurate and safe restoration of paper objects, To test the (long-term) effects of the cleaned samples, the knowledge
with focus on the incorporation of a reliable control system. From an of a previous European research project was applied (EU STEP
industrial point of view, the problem was to design (and ultimately CT 90-0100) successfully. No significant change on the sensitivity
produce) laser-cleaning stations for paper that are attractive and towards air pollutants of laser-treated papers samples was found.
accessible for small and medium-sized conservation companies. Based on the final evaluation on original objects by the expert team,
From an economic and social point of view, the focus lay on target- it was concluded that laser treatment proves to be a valuable tool
ing those conservation problems which cannot be treated using con- in the removal of adhesives and ink stains. The coordinating SME
ventional techniques and for which treatment exploiting specifically partner was able to develop a suitable laser-cleaning system with the
developed laser systems is economically attractive. Automation of incorporation of a detection system based on multi-spectral imaging.
the system, in order to enable fast and economical treatment, was an The system was demonstrated and evaluated by the expert team.
important objective to be reached considering the vast workload of
typical paper conservation and restoration projects. To achieve this 4. Policy impact
goal, efficient control algorithms and software incorporating the
developed scientific knowledge on laser-paper interaction had to be To guarantee a fair evaluation of laser cleaning, the conservation
developed. As a last step, through dissemination such as workshops problems selected within the project were also treated by the paper
and conferences, paper conservators and restorers had to be con- conservators using conventional methods to their best possible skill
vinced of the benefits of laser cleaning paper. and ability. A remarkable result was obtained during the evaluation
of these samples. Due to the accelerated ageing applied to all project
2. Scientific objectives and approach samples, the paper conservators were confronted with the physical,
chemical and aesthetic side-effects for the first time, which conven-
To develop such an innovative restoration tool successfully, detailed tionally treated objects will exhibit over a number of years. In many
research was carried out to gain sufficient knowledge of fundamen- cases, the conservators were shocked by the results. This insight
tal processes occurring when laser light interacts with paper and the from this project aimed to start a new discussion on the quality of
material to be removed. Within the project the following scientific cleaning of art objects and might lead to politically accepted quality
objectives were formulated: guidelines. From a social point of view, an important policy impact
aa establish the optimal laser parameter settings by studying the was the improvement of the working conditions of conservators and
effects of laser treatment on test samples and original samples; restorers. Due to the limited number of conservation approaches
aa create a suitable detection system for (semi) online control to (either mechanical or chemical), conservators frequently have to
safeguard against deterioration of the paper substrate and to dis- choose one that is less than optimal. Being aware of the dangers this
criminate accurately between areas to be treated or not in order to presents to the artwork, compensation is sought in increased care
guarantee precision in the presence of sensitive media; and concentration on the side of the restorer, often greatly lengthen-
aa determine the long-term behaviour of laser treated samples; ing the duration of the treatment. In many cases, the resulting strain
aa identify the effects of the environmental working conditions. leads to mental and physical fatigue and eventually repetitive strain
injury. Furthermore, the application of lasers should reduce the use
3. Achieved scientific results of chemicals for paper restoration, which is beneficial to both the
environment (waste disposal) and the health of the restorer.
The scientific objectives of the PaReLa were achieved. Within
the project, new knowledge was gained on fundamental processes 5. Dissemination and exploitation
occurring when laser light interacts with paper and the material to be
of the results
removed. Test systems based on well-defined substrates were applied
and the associate partners supplied suitable originals for comparison. Dissemination has taken place (and will continue to do so) at dif-
Threshold levels of the laser treatments were defined for three dif- ferent levels. Technical presentations and contributions have been
ferent laser types. Chemical, physical and aesthetical evaluations given at several conferences, for example at COLA03 and ITECOM
took place. An expert team was established which developed a uni- meeting (2003) in Greece, IIC meeting in Baltimore 2001 (USA),
form evaluation protocol. Internal standardisation took place within at the WPP conference 2003 in Bratislava (Slovakia) and the annual
the PaReLa project and as a result a new tool for the evaluation of AIC meetings in the US in 2003, 2004 and 2005. Further presenta-
manually and laser-cleaned objects was established. Based on these tions were given at meetings organised by end-users (e.g. at the
evaluations, conclusions were drawn on the safe usage of lasers on iron gall ink meeting at the National Museum in Enschede, 2002).
paper and operational guidelines were established. The combination Work has been published in both technical journals and applied
104
PARELA
journals, such as the European Materials Research Society Spring
Conference 2003 in Strasbourg, France. The final work presentation
Barbachano & Beny, S.A.
of the PaReLa project on November 28 2003 in the Museon in The
Spain
Hague was very well attended by the international field of paper
conservators and proves the relevance of the work and the need for Institut für Papierrestaurierung
innovative conservation strategies. Much interest has been shown by Austria
the scientific community in this EU Craft Research, since the estab-
lishment of the European thematic network on transition metals in Atelier Quillet
paper (EVK4-2002-20010). The results of projects such as INKCOR France
(EVK4-CT-2001-00049) and PaPyLum (EVK4-CT-2000-00038)
were discussed at PaReLa meetings and vice versa. A prototype Bernadette van Beek
Restauratie van Kunst op Papier
workstation is available to be exploited by the end-users. This gives
The Netherlands
paper conservators access to an additional tool to solve their conser-
vation/restoration problems. Furthermore, workshops are organised Susan Corr
frequently to educate and establish a basis within the paper conserva- Galway
tion community. Ireland
Restauratie-atelier De Tiendschuur
The Netherlands
Detail view of the before (left) and after image (right), showing
the removal of chalk inside the coat of arms, demonstrating the
high precisionof the cleaning.
Coordinator details:
Dr Dennis Schipper
Art Innovation b.v.
Zutphenstraat 25
NL-7575 EJ Oldenzaal, The Netherlands
E-mail: dennis.schipper@art-innovation.nl
Tel: +31 541 570720
105
PROPAINT
Improved protection of paintings during exhibition,
storage and transit
http://propaint.nilu.no/
106
PROPAINT
Perla Colombini
The PROPAINT project will University of Pisa
perform exposures of varnish Department of Chemistry and Industrial Chemistry
samples in accelerated labo- Italy
ratory tests inside and out-
side of microclimate frames
in museums and subsequent
physical and chemical anal-
ysis, to learn more about the
protective effect of varnishes
in different microclimates.
107
SENSORGAN
Sensor system for detection of harmful environments
for pipe organs
http://www.goart.gu.se/sensorgan
1. Problems to be solved organ, thereby constituting an early warning for the emergence of
cracks in the wood. When a microcrack develops, a sound pulse is
The pipe organ is an important part of the cultural heritage of emitted from the wood. This sound is not in the audible range but it
Europe. It reflects European traditions, thinking and general history is detected by the sensor.
and its development have mirrored the technical, social and econom-
ic development in society. The organ heritage found in all countries The acoustic emission method has been successfully tested in situ.
of Europe includes more than 10 000 historical valuable organs. Based on the work performed, a prototype sensor including sig-
nal acquisition system and software for signal processing is being
A major threat to this heritage is indoor harmful environments. designed and built.
Organic acids, also in combination with condensation phenomena,
create pipe corrosion causing serious damage to the pipes. Harmful Several available sensor types for the detection of condensation (e.g.
humidity conditions can create cracks in the vital wooden parts of micro chip including T and RH sensors, miniaturised resistive sen-
the organ, making the instrument unplayable. sor and digital capacitive wetting sensor) have been tested. Because
of application limitations for the tested sensors and the demanding
application (limited space in the pipes and harsh environmental
2. Scientific objectives and approach conditions), the development of a new type of sensor based on fibre
optics has begun. When droplets form on the fibre, they will disperse
The SENSORGAN project objectives are to make available new light, and the loss of transmitted light in the fibre can be detected.
instrumentation for monitoring and detecting harmful environments for
organs through the development of sensors for real-time measurement. 4. Policy impact
The system will contain three different sensors to detect:
aa levels of organic acids harmful to organ pipes The results from the project will contribute to:
aa environments damaging to wooden parts of organs aa preserving European organ heritage;
aa possible dew formation inside organ pipes aa developing improved organ restoration policies;
aa EU policies that bring socioeconomic, environmental and techno-
The sensors will be designed in order to be placed in the organ or logical approaches together;
in the pipes without disturbing playing or affecting the sound. The aa scientific grounds to assist the CEN in setting normative stand-
sensor system will be applied in the historical organ from 1611 in the ards for the conservation of cultural heritage, especially the
Minor Basilica of St Andrew the Apostle in Olkusz, Poland. The data microclimate inside churches;
collected from all the sensors will be analysed, microclimatic factors aa a general understanding of microclimatic factors that create harm-
creating harmful environments will be studied, and conclusions will ful environments for organs, whose impact on European building
be drawn for publications, mitigative strategies, and to support the environments will contribute directly to the quality of life and
Committee for European Standardisation (CEN). health of the members of the Community;
aa detecting harmful environments and assessing methods to impede
3. Achieved scientific results them, e.g. organ restoration, church restoration, installation of
friendly heating systems;
When an alternating electrical field is applied on a piezoelectric aa supporting and improving organ builders’ restoration practices.
quartz crystal, the quartz crystal starts to vibrate. If a coating is
applied on the crystal surface, the crystal frequency decreases. 5. Dissemination and exploitation
of the results
This property is used for the development of a sensor for detect-
ing organic acids corrosive to organ pipes. A coating of pipe metal The knowledge from the project will be disseminated through the
lead-tin alloy is applied on the crystal. When the coating reacts with project website, conferences, seminars, articles in the scientific lit-
the organic acids, the mass of the coating increases and a frequency erature and in organ building journals.
change of the crystal vibration can be detected.
A leaflet presenting the project and its objectives has been produced.
An early prototype of the sensor has been developed. The con- The partners of SENSORGAN are determined to exploit the results
tinued work will focus on optimisation and calibration of the and products of the project. An exploitation strategy will be defined
sensor properties. within the project.
A new and innovative method of recording acoustic emission activity The experience gathered with the EC projects Friendly-Heating and
has been employed to trace microfracturing of wooden parts of the SENSORGAN has been combined to produce a handbook: Church
108
SENSORGAN
heating and preservation of the cultural heritage: a practical guide to the
pros and cons of various heating systems, Electa Mondadori, Milan. Marianne Odlyha
Birkbeck College, University of London, School of Biological and
Chemical Sciences
Contract number: SSP 022695 United Kingdom
Start date – End date: 01/01/06–31/12/08
Contract type: FP6 STREP Lukasz Bratasz
Duration (in months): 36
Polish Academy of Sciences, Institute of Catalysis and Surface
Chemistry
Coordinator details:
Dr Carl Johan Bergsten Poland
Göteborg University, Göteborg Organ Art Center
P.O. Box 210 Dario Camuffo
40530 Göteborg National Research Council of Italy, Institute of Atmospheric
Sweden Sciences and Climate
Email: carl.johan.bergsten@hsm.gu.se Italy
Tel: +46 737 591946
Grazyna Praszelik-Kocjan
The Municipal Cultural Centre Olkusz
Poland
Andrea Cavicchioli
University of Sao Paulo
School of Arts, Sciences and Humanities
Brazil
Jan-Erik Svensson
Chalmers University of Technology
Department of Environmental Inorganic Chemistry
Sweden
109
SURVENIR
Near-infrared spectroscopy tool for collection surveying
http://www.science4heritage.org/survenir/
110
SURVENIR
university lab and two libraries, three archives, and two museums –
i.e. seven end-users – ensures an efficient and targeted dissemination Dirk Lichtblau Graham Martin
both of the gained knowledge and of the developed technology. The Zentrum für Bucherhaltung Victoria and Albert Museum
project results will be disseminated widely through the Internet, leaf- GmbH United Kingdom
lets and publications. At the end of the project (June 2008), a hand- Germany
book will be produced and a dissemination event will be organised. Jonas Palm
Jana Kolar Riksarkivet
National and University Sweden
Contract number: SSP 006594 Library
Start date – End date: 01/08/05 – 31/07/08 Slovenia Nikša Selmani
Contract type: FP6 STREP State Archives of Dubrovnik
Duration (in months): 36 Gerrit de Bruin Croatia
National Archives
Coordinator details: The Netherlands Mads Christian Christensen
Dr Matija Strlič, Associate Professor National Museum of Denmark
University of Ljubljana Barry Knight Denmark
Faculty of Chemistry and Chemical Technology The British Library
Aškerčeva 5 United Kingdom
SI-1000 Ljubljana
Slovenia
E-mail: matija.strlic@fkkt.uni-lj.si
Tel: +386 1241 9174
111
VIDRIO
Determination of conditions to prevent weathering
due to condensation, particle deposition and micro-
organism growth on ancient stained glass windows
with protective glazing
http://www.isac.cnr.it/~vidrio/
1. Problems to be solved and Cologne Cathedral, but in Saint Urbain Basilica no significant
difference was observed. The presence of the PG reduced the risk
In this project, the most important part was given to the observation of condensation on the internal side of the ancient window, with
and analysis of the painted surface, for a better understanding of the the condensation occurring mainly on the internal side of PG. The
effect of the environment and an improved protective system regard- system installed in Saint Urbain was the least efficient from this
ing the conservation of glass paint. point of view. Ventilation is influenced by the construction of the
glazing; a good distance and free circulation of air can guarantee a
2. Scientific objectives and approach higher exchange between inner atmosphere and the interspace, but
the effects on glass strongly depend on the concentration of pollut-
The main objectives were to: ants in the church. Gaseous and particle pollutants were investigated.
aa monitor the microclimate, characterisation of pollutants and The total mass and chemical composition of deposited particles was
microorganisms (indoor, outdoor and in the interspace between also analysed. Concentrations of O3 and SO2 were strongly reduced
glazing and original window); indoors compared with outdoors. In contrast, NO2 revealed higher
aa develop a new dew device to control condensation; indoor concentrations in Saint Urbain and Cologne from the burn-
aa evaluate the deterioration of glass with and without protective ing candles. In Sainte Chapelle only low concentrations of nitrates
glazing; were observed, but a formation of CaSO4-particles inside and in the
aa determine best practice to control condensation and minimise interspace was detected. Soiling is less important in Cologne than in
weathering; Troyes. A decrease of haze was observed on glass samples exposed
aa provide all the relevant parameters for glass corrosion and paint in the interspace if compared with samples inside; it is much more
alteration and to realise a new device to detect condensation. pronounced in Troyes where the ventilation is lower. The haze of the
inside samples is higher than for those outdoors due to the candles.
3. Achieved scientific results In general the results proved that the PG protects the stained glass
windows against most air pollutants. From a biological point of view,
The VIDRIO project aimed to provide appropriate solutions to the the PG has a protective effect in all three churches and good ventila-
problems relating to mass tourism, environmental risk and conserva- tion has a positive impact. The weathering of the glass, pit corrosion,
tion of stained glass windows, taking the Basilica of Saint Urbain in a white crust, etc. were also identified. For the grisailles, the loss of
Troyes and Sainte Chapelle in Paris (France) and Cologne Cathedral the paintwork due to the formation of fractures and detachment of
(Germany) as the subjects of study. Several important aspects not yet fragments was the main weathering phenomenon. Laboratory tests
understood were examined from a multi-disciplinary point of view. allowed the durability of the glass to be determined: Sainte Chapelle
The project carried out monitoring near two stained glass windows, is better than Cologne and Troyes. Samples exposed in the positions
one with protective glazing (PG), and another without. These places – external sheltered, unsheltered, interspace and inside – enabled the
were selected because of the microclimate, pollutants concentration, mechanism of weathering to be identified consisting of leaching of
deposition and the microorganisms, and evaluation of the deteriora- modifiers ions (K and Ca) and formation of a hydrated glass layer.
tion processes. A new dew point sensor to control the water conden- The extent of this phenomenon follows the scale: external unshel-
sation was developed. The most important results show that from a tered > external sheltered >>interspace ~ inside.
microclimatic point of view at the French sites, the PG protects the
ancient glass from the risk of condensation and from rapid tempera- The fundamental role of water (rain, condensation, water retained
ture changes. The greenhouse effect was observed in the interspace, on the surfaces by hygroscopic salts, etc.) and the time of dampness
but no negative effects were associated with this phenomenon. was clearly evident. Furthermore, the neoformations of syngenite and
gypsum, found especially on external sheltered samples, indicate an
The PG in Sainte Chapelle slightly reduced the relative humidity important influence of the acidic contaminants in the atmosphere.
(RH) near the internal side of the ancient window and the time of The progress of weathering leads to the formation of iridescent lay-
permanence of high RH values; in Saint Urbain the situation was the ers and of microfractures, observed in the originals, which severely
opposite, while no notable differences were observed in Cologne. change the optical and mechanical properties of the glass. A leaching
The environment in the interspace was characterised by slightly mechanism was also demonstrated for the lead silicate forming the
higher relative humidity than inside the church in Sainte Chapelle glassy phase of the grisaille; after centuries of exposure, this mecha-
112
VIDRIO
nism leads to the pulverisation of the paint. Tests in a climatic cham-
ber confirmed such a mechanism. Despite the high stress measured Contract number: EVK4-CT-2001-00045
between the grisaille and the underlying glass, the in-field exposure Start date – End date: 01/02/2002 – 31/03/2005
tests did not show evident mechanical weathering. Several labora- Contract type: FP5 Cost-shared research
Duration (in months): 38
tory tests, including thermal shock, confirmed that the variations of
temperature increase the instability of the fired paint and lead to the
Coordinator details:
formation of microfractures and flaking of particles, a phenomenon Dr Adriana Bernardi
observed in the original samples. The results indicated that the PG CNR-ISAC Corso Stati Uniti 4 IT-35127 Padova, Italy
exerts an efficient protection against the leaching of the external E-mail: a.bernardi@isac.cnr.it
glass surface of the original windows and reduces the thermal Tel: +39 049 8295906
stresses, microcracks and loss of the paintwork. Such improvement
is expected even in the presence of a non-optimum protective glaz-
ing. A series of recommendations were made and a list of the main
René Van Grieken
data was put in a certain number of special matrixes and given to the
Micro and Trace Analysis Center - Dpt. Chemistry - University
end-users. The main conclusions were that:
of Antwerp
aa The glazing protects from environmental attack. Belgium
aa The construction of the glazing strongly influences the quality
of the results. Hannelore Roemich and Peter Mottner
aa Their presence does not worsen the new environment. Fraunhofer Institute for Silicate Research
aa The new dew point sensor permits better control of the dangerous Germany
phenomenon of condensation.
aa Regarding the PG systems, internal ventilation is useful but the Roger Alexandre Lefevre
Laboratoire Interuniversitaire des Systèmes Atmosphériques
secondary effects are very limited.
(LISA), Université de Paris XII
aa The identification and correlation of the most important param-
France
eters were pointed out.
Marco Verità
4. Policy impact Stazione Sperimentale Del Vetro
Italy
This research favoured collaboration among researchers, SMEs,
conservators and end-users from throughout Europe. The policy Maura Bellio
implications were large and were very useful in providing European TECNO PENTA s.a.s.
Italy
standards and regulations.
Isabelle Pallot Frossard
5. Dissemination and exploitation of the Laboratoire de recherche des monuments historiques (LRMH)
results France
Sainte Chapelle:
Dew point sensor and
other microclimatic
devices installed on
stained glass window.
113
114
Chapter 5
5. Foster integration of cultural heritage in the
urban/rural setting, monitoring and archaeology
115
116
Introduction Europe’s cultural heritage encompasses not only the physical preser-
vation of buildings and structures but their integration into urban and
rural settings. Today cultural artefacts do not exist in isolation. They
have to fit into social and economic contexts. This chapter’s projects
address those objectives: for example, the wide-focus objective of
SUIT was to develop guidelines to ensure that, through participatory
approaches, the conservation of historical urban areas complies with
the EU’s impact assessment and environmental directives. Similarly,
APPEAR produced guidelines for decision-makers and managers
to integrate archaeological sites and historical sub-soil remains into
their urban environment, while looking to ‘conciliate’ conservation
and accessibility. Mass tourism can be a significant input for the
economy but, unless carefully controlled, it can damage structures
sensitive for instance to pollution, vibration, humidity. The FP6
project PICTURE, thus, assessed the threats and opportunities posed
by cultural tourism to built heritage in small and medium-sized cities
and developed a ‘strategic urban governance framework’.
117
APPEAR
Accessibility projects – sustainable preservation and
enhancement of urban subsoil archaeological remains
http://www.in-situ.be/A_pres_overview.html
1. Problems to be solved helped the reader gain more detailed insight into each of the fields of
expertise. The resources are of various types: tools and documenta-
Although there are many examples of successful accessibility tion, inventory of sites, case studies, references.
projects, there are also too many that are unsuccessful. Such unfor-
tunate experiences demonstrate that, too often, people responsible 4. Policy impact
for archaeological heritage are ill-equipped to deal with the dif-
ficult processes involved. An accessibility project is defined as all The principal areas of research targeted by the APPEAR project
the actions undertaken to integrate subsoil archaeological remains reflect and develop priorities established by the EU in the field of
in the contemporary urban environment, making them accessible, archaeological heritage protection:
understandable and enjoyable for the widest possible audience while aa enhancement and use of urban subsoil archaeological sites;
ensuring their preservation. aa in situ preservation and sustainable urban development;
aa promotion of open dialogue, cooperation and negotiation between
2. Scientific objectives and approach all stakeholders and involvement of the citizens.
The method of research encourages interaction not only among
The main objective of the research was to produce guidelines for many varied disciplines and stakeholders but also among different
professionals, managers and other decision-makers which enabled European countries, which stimulates the exchange of information
them to make informed judgments, and to identify, prioritise and about diverse cultures. Providing local communities with the means
implement the resulting actions needed to make urban archaeo- to manage such projects efficiently contributes to an enhanced qual-
logical sites available to the public within a framework of sustainable ity of life. Increased visitor numbers to archaeological sites has
development. This project took into account all the issues present in shown a consequent positive impact on the creation of jobs in the
an accessibility project: integration of the site into the contemporary area, for example in the catering trade.
urban environment and its social and cultural impact , preservation
of the site in situ, and methods of display and management. It aimed 5. Dissemination and exploitation
to provide a methodology for decision-making which took into
of the results
account all these factors and their interactions. Its originality lies in
the integration of these two different approaches within a sequential The APPEAR website provides all information relating to the project.
process: firstly the decision-making process, representing the back- In addition, the APPEAR guide is available in French and English
bone of the project structure, and secondly, an action phase based on on the APPEAR website, while the resources complementing the
a series of key actions relating to the fields of expertise and designed APPEAR guide are available in French. The APPEAR guide has been
to take the project forward. designed so that it can easily be printed in A4 format. All parts of
the APPEAR guide and the resources are interconnected. To enable
3. Achieved scientific results the user to find information quickly, hyperlinks have been inserted at
strategic points, to access the relevant information. The links are also
The main result is the APPEAR method – a practical guide for the designed to be easily understandable in the printed version.
management of enhancement projects on urban archaeological sites.
The APPEAR guide helped all those involved in projects for enhanc- A brochure giving information about the APPEAR guide has been
ing urban archaeological sites. It is based on the principles of strate- produced on an EC initiative. This ensured the promotion of the guide
gic management adapted by a number of researchers from different and the method to relevant individuals, organisations and groups.
disciplines and integrates all the factors and issues likely to occur During the international symposium organised within the framework
during what can often be a complex process. It offers a structured of the project, the APPEAR method was presented to a large inter-
mechanism for users to establish the goals to be reached within their national audience that brought together professionals, representatives
areas of expertise and to conceive and execute appropriate actions to from public authorities and project partners. The proceedings in
reach these with realism, flexibility and creativity. three languages (English, French and Spanish) are available on the
The guide is divided into four sections: APPEAR website.
aa putting the issue into context;
aa describing the enhancement process and the method used; The development of a large network of contacts throughout Europe
aa undertaking comprehensive review of the phases; ensured a dynamic exchange mechanism for information about the
aa outlining the key actions to be undertaken throughout the phases. project. Continual dissemination about the project has been under-
The four sections form a cohesive and coordinated whole. A synopsis taken by the partners in the form of published articles and reports in
and an overview are also provided to help the reader through the guide. journals, oral presentations at conference and seminars, and partici-
A number of resources complement the APPEAR guide. These pation in university and other training courses.
118
APPEAR
Coordinator details:
Dr Anne Warnotte
Name: IN SITU
Centre de recherches archéologiques
c/o Service de l’Archéologie du MRW
Avenue des Tilleuls 62
B-4000 Liège 1
Belgium Vesunna archaeological site, Périgueux, France
E-mail: insitu@win.be © APPEAR
a.warnotte@institutdupatrimoine.be
Tel: + 32 (0) 4 229 97 43-45
Fax: + 32 (0) 4 229 97 59
119
ARCHAIA
Training seminars on research planning, characterisation,
conservation and management in archaeological sites
http://www.archaia.eu
1. Problems to be solved furnish a common methodology for the organisation and planning
of archaeological parks. Finally, the protocols resulting from the
ARCHAIA has a global approach towards planning and manage- ARCHAIA training will represent a precious element for evaluating
ment of archaeological parks starting from the very first steps of and planning field interventions on conservation at all given scales,
field research and going through the characterisation of the materials providing a complete checklist of the operations necessary for the
retrieved and topographical studies in order to mould every bit of establishment of archaeological parks, after having selected scientifi-
historical information within a coherent project, properly displayed cally valid and practical practices.
for the public. In this SSA the great challenges posed by the urgency of an inte-
grated intervention coupled with the need for sound and updated
2. Scientific objectives and approach methodologies in order to:
aa provide advanced training on the most recent emerging results
Dealing with the initial programme of archaeological research in the from European research projects concerning modern archaeologi-
field, integrated with techniques of archeobiological and geoarchaeo- cal research;
logical investigation, our final goal is to supply participants with the aa propagate knowledge and spread information about best practices;
guidelines for moulding research strategies and managing archaeo- aa link different scientific communities and establish specialist
logical sites, in order to be able to publicly display the historical group memberships;
content derived from research results and effectively proceed to the aa analyse current innovation scientific procedures;
protection of cultural heritage. Five key topics have been selected: aa elaborate standardised protocols establishing field routines and plan-
Topic 1 concerns topography, surveying and landscape archaeol- ning strategies for effectively managing our archaeological heritage.
ogy; Topic 2 archaeological research and restoration of monuments;
Topic 3 material culture characterisation; Topic 4 anthropology 5. Dissemination and exploitation
and environment; and Topic 5 data processing and public presen-
of the results
tation. (Topics 1–2 will be dealt with in Bologna, Topics 3–4 in
Copenhagen, while Topic 5 is common to both.) The two seminars organised by ARCHAIA will provide advanced
training on the most recent emerging results mainly from European
3. Achieved scientific results research projects covering a series of issues on diverse subjects
applied to cultural heritage, which can be discussed together within the
While not yet completed, the ARCHAIA project will implement innovative unifying perspective adopted by ARCHAIA. Publication
two international training seminars on cultural heritage based on of the proceedings (in volume form in the BAR series, Oxford, due
an innovative integrated perspective deriving both from the human September 2008) and other forms of publicity will subsequently dis-
and the natural sciences. The seminars – one in Copenhagen (28–30 seminate the ARCHAIA approach at all training levels.
January 2008) and another one in Bologna (15–17 May 2008) – will
address 90 postgraduate students, scholars and professionals of dif-
ferent backgrounds. See the detailed programme of the seminars on
the website www.archaia.eu. The speakers at the seminars are among
the most qualified specialists at international level within each of
their fields. Lively scientific discussions at the end of each session
are expected.
4. Policy impact
The processing of advanced but nevertheless effectively and practi-
cally usable protocols concerning the planning and realisation of
archaeological parks has a very wide potential impact. At a first
level, it will create within the European and international scientific
community a reference point represented, in the first place, by the
network of contacts between research groups strongly differentiated The integrated archaeological and environmental park of
by their disciplinary profiles, but unified by mutual goals. At a sec- Tilmen Höyük, a Bronze Age capital in south-eastern Turkey.
ond level, this will provide scientifically valid diversified presenta- The antenna for the remote monitoring of critical parameters
tions within common guidelines. At an even higher level, this will on that site can also be observed
120
ARCHAIA
121
ARCHAEOMAP
Archaeological management policies
http://www.archaeomap.eu
The ARCHAEOMAP International Committee will work to obtain The final publication will raise awareness on the value and on the
good practices and new strategies for site management and protec- symbolic role of this heritage and will allow the spreading of new meth-
tion against deterioration and pressures of mass tourism. These odologies in the cultural, archaeological and environmental field. The
measures will have to be carried into effect within governmental and distance teaching module, disseminated around the Mediterranean basin
non-governmental organisations, research bodies, universities, public via UNINETTUNO, RAI MED SAT and the Avicenna Virtual Campus
and private bodies devoted to advancing training. For European part- within the framework of the UNESCO/MEDA-Eumedis project will
ners, the project results will be useful to improve multi-disciplinary contribute to the diffusion of the project results at the university level.
approach. The non-European partners will have an opportunity to A documentary will be broadcast across the Mediterranean via MED
adapt themselves to a management, conservation and enhancement SAT and RAI 3, in partnership with the French channel France 3 and
122
ARCHAEOMAP
Kostas Soueref
Archaeological Museum of Florina
Greece
Jean Mascle
Centre National de la Recherche Scientifique
Geosciences Azur
France
Max Guerout
Groupe de Recherche en Archéologie Navale
Service Historique de la Défense
France
Farrugia Mario
Fondazzjoni Wirt Artna
Malta
123
CURE
Centre for urban construction and rehabilitation:
technology transfer, research and education
http://www.pg.gda.pl/cure/
124
CURE
Coordinator details:
Prof Czesław Szymczak
80-952 Gdańsk, ul. Narutowicza 11/12, Gdańsk University of
Technoloy, Faculty of Civil and Environmental Engineering,
Department of Structural Mechanics
E-mail: szymcze@pg.gda.pl
Tel: +48 58 347 2147
125
DEMOTEC
Development of a monitoring system for cultural heritage
through European cooperation – accompanying measure
http://www.niku.no/demotec
126
DEMOTEC
127
ISHTAR
Integrated software for health,transport efficiency
and artistic heritage recovery
http://www.ishtar-fp5-eu.com
128
ISHTAR
developed by WHO. This tool provides estimates of life years lost due these areas, where social significance is evident at first sight. In the
to the effects of air pollution, noise annoyance and accidents effects. global economy, successful cities are not those which attract ‘export
The air pollutants impact on monuments is simulated by software industries’, but those able to supply the best services and resources,
purposely developed for ISHTAR by ENEA (IT) and PHAOS (EL). which enhance the overall productivity of the economic activities
This software can assess the loss of material or the deposition of performed in the urban arena. The most basic services which make a
crust and the money needed for maintenance. This module receives city attractive for citizens and business are those related to mobility.
information from the air pollution software and gives useful out- Sustainable transport is a goal in urban areas to enhance both the
put data to the module for the overall evaluation of the scenarios. productivity of economic and social activities, reducing the waste of
The model can provide estimates of damage for specific monuments time caused by congestion and the quality of life, because unsustain-
or for types of monument and building. able transport patterns are the main cause of current environmental
pollution. Integrated urban planning is an essential pre-condition to
For the overall analysis of the policy scenarios, two methodologies obtain a sustainable transport in the city of tomorrow. This aspect has
and software pieces are available: the cost–benefit analysis (CBA) been addressed in depth by the ISHTAR research, with the aim of
and the multi-criteria analysis (MCA). These tools gather the data creating a new awareness of the issues at stake among the national,
from the upstream models (following the required aggregations) and regional and local administrations in charge of urban management,
give the results of the comparison of the scenarios developed. In any planning and regulation in EU and CEEC countries.
case, the MCA takes into account the results of the CBA. Both of
them are developed by TRaC – LMU (UK). The integration software, 5. Dissemination and exploitation
developed by INRETS (FR), was made by a software manager that
of the results
launches the ‘software connectors’. The connectors are pieces of soft-
ware that upload the data needed by the single tool in the appropriate During the ISHTAR project an agreement among the involved
format, launch the tool and then download the results of the run in organisations (the ‘Software Agreement’) has been defined. This
the ISHTAR Suite Database, making them available for other tools or document, signed by partners and external software providers,
for the output through the geographic information system (ARCGIS) defines rights and duties about software provision, use and future
used for managing geographical data. An overall scheme represent- marketing.
ing the integration architecture of the ISHTAR suite is reported in
Figure 1. Furthermore, an ENEA spin-off project for the creation of new
advanced-technology-based firms (see www.consorzioimpat. it
U commands ISHTAR SUITE MANAGER – IMPACTS proposal), based on the development and marketing
of decision-support tools (such as the ISHTAR suite), has been
S
E
129
ISHTAR
130
PICTURE
Pro-active management of the impact of cultural
tourism upon urban resources and economies
http://www.picture-project.com/
131
PICTURE
Siri Elvestad
The Regional Secretariat of the Organisation
of World Heritage Cities
North West European Region
Norway
Gianbattista Bufardeci
Council of Syracuse
Italy
132
RUFUS
Re-use of foundations for urban sites
4. Policy impact
This project provided the EU with guidance, based on sound techni-
cal research, to re-use foundations, thereby speeding up the redevel-
opment of urban sites while at the same time significantly reducing
the resource consumption and creating sustainable redevelopment.
The guidance enabled the construction industry across Europe to
make a significant contribution to the sustainable development of
urban centres. By re-using the foundations, the use of raw materials
is reduced, the energy consumption for construction is reduced, the
volume of soil from foundation construction is virtually eliminated
Piled foundations through valuable archeology and the construction time significantly reduced with consequent
Would you re-use these piles?. reduction in the whole life costing of a building. Similarly if a build-
ing can be redeveloped for a change of use, without the need for addi-
tional or upgraded foundations, the savings in energy, raw materials
2. Scientific objectives and approach and disposal of spoil can be substantial.
This project aimed to provide ways to overcome the barriers, both 5. Dissemination and exploitation
technical and non-technical, to the re-use of foundations for sustain-
of the results
able development. The barriers to the re-use of foundations were that
the extent, location and integrity of the remaining foundations were 12 peer-reviewed papers plus 19 papers (were completed for the
not known with confidence because the owners of the present genera- RuFUS Conference), 20 journal articles and 13 presentations/lec-
tion of city buildings do not generally possess a good record of their tures have been completed to date.
foundations. The load capacity of the foundations will generally only
be known with confidence as there is little information about founda- The principal output from the project was the “Reuse of foundations
tion performance changes with time. There will be questions about for urban sites – a best practice handbook” that was launched at an
the durability of the materials in the existing foundations because International Conference on the Re-use of Foundations on Urban
they are difficult to assess. Non-technical issues include the insur- Sites at BRE in the UK on 19–20 October 2006. 38 papers were
ance of buildings with re-used foundations, professional indemnity accepted for the RuFUS conference and included in the proceedings
insurance for construction professionals and legal aspects. divided into five parts. Keynote lectures were presented for each sec-
tion that provoked good discussion sessions and the conference was
This project aimed to provide five innovative developments for safe, attended by over 100 people including some from outside Europe.
economic, sustainable preservation, renovation and construction in The RuFUS website is still active (with details of the RuFUS best
inner cities. The documents produced would provide guidance on practice handbook and conference proceedings) and it is notice-
133
RUFUS
able that at national learned society meetings ‘RuFUS sites’ are
mentioned showing that the re-use of foundations is now actively Tim Chapman G. Holm
considered during the early stages of site redevelopment. In the UK Ove Arup and Partners Ltd Swedish Geotechnical
a spin-off project to further investigate rapid load testing of piled United Kingdom Institute
foundations for re-use has begun, starting from the knowledge base Sweden
developed by the RuFUS project. E. Niederleithinger
Bundesanstalt für G. Evers
Contract number: EVK4-2002-00099 Materialforschung und Soletanche-Bachy
Start date – End date: 01/02/03 – 31/01/06 –prüfung Technique Development
Contract type: FP5 Cost-shared research Germany Innovation
Duration (in months): 36 France
Rab Fernie
Coordinator details: Cementation Foundations R. Katzenbach
Dr Tony Butcher Skanska Technische Universität
Geotechnics, BRE, Garston, Watford, WD25 9XX. UK
United Kingdom Darmstadt
Email: butchert@bre.co.uk
Institute für Geotechnik
Tel: +44 1923 664831
A. Stamatopoulos Germany
Stamatopoulus and Associates
Greece
134
SPRECOMAH
Seminars on preventive conservation, monitoring
and maintenance of the architectural heritage
http://sprecomah.eu
Coordinator details:
3. Achieved scientific results Prof Koenraad Van Balen
Katholieke Universiteit Leuven
ASRO Department
aa Exchange information and disseminate results of FP5–FP6
R. Lemaire International Center for Conservation
projects in cultural heritage research relevant to preventive
Kasteelpark Arenberg 40
conservation and monitoring for architectural heritage in a first B-3001 Leuven (Heverlee)
seminar in June 2007. Belgium
aa Development of common insights among researchers, profession- koenraad.vanbalen@bwk.kuleuven.be
als and students on research needs and priorities of development Tel: +32-(0)16-32.11.72
of understanding and instruments for monitoring, documenta-
tion, identification of changes in preservation and maintenance-
oriented interventions.
Dr Vincent Rotgé
aa Development of first draft for guidelines for further research pro- Institut International Fleuves et Patrimoine
moting preventive conservation and monitoring. Mission Val-de-Loire
81, rue Colbert, BP 4322
37 043 Tours cedex 1
France
rotge@mission-valdeloire.fr
Tel: +33 (0)2 47 66 94 49
135
SUIT
Sustainable development of urban historical areas
through an active integration within towns
http://www.suitproject.net/
136
Chapter 6
6. Marking and traceability of cultural heritage:
infrastructure, advanced training courses and other
supporting initiatives
137
Chapter 6 shows the diversity of research projects implemented in
Introduction this field with a broader policy or educational impact. International
trade in stolen and forged artworks is a major threat to cultural her-
itage, as are the effects of uncontrolled mass tourism. Sustainable
solutions are needed to both problems. Several FP projects combat
theft with high-tech identification technologies. A primary example
is the FP6 project, FING-ART-PRINT, which worked with Europol
to foil art forgers. Using high-resolution imagery, it scans the surface
‘roughness’ of a tiny section in a painting to create a three-dimen-
sional profile at sub-micron level. This should serve as an infallible
– and non-duplicative – tag of the work’s authenticity. COINS and
AUTHENTICO are other examples of projects targeting authentica-
tion of metal artefacts.
139
ARCCHIP
Advanced research centre for cultural heritage inter-
disciplinary projects
http://www.arcchip.cz
140
ARCCHIP
EC Directives on protected European cultural heritage. The project 5. Dissemination and exploitation
substantially helped to increase the international visibility of the insti-
of the results
tute and its attractiveness for foreign and young researchers.
The achieved results are accessible for professionals and the public on
This excellent position helped in the creation of international teams the project website www.arcchip.cz until 2014, and were printed in
to address newly emerging research problems and facilitated up-to- the five-volume proceedings European Research in Cultural Heritage
date non-formal international scientific cooperation, enabling the – State-of-the-Art Studies, ISBN 80-86246-22-1 (all five) and in other
testing and dissemination of European research results. The Centre of publications. The results have been used in international educational
Excellence attracted interest overseas, namely in the USA, and helped and training activities, namely in cooperation with the UCL London
to obtain a research grant for a new joint US–CZ project on historical courses (2002, 2003), a joint Czech–Italian course (2003) and the EC
wooden structures. The success in international grant competition pro- Conference on Urban Research in Prague, 2004. The experience is
vides stimulation and motivation, especially for young researchers. further being used in organising the 7th EC Conference on Research
into Cultural Heritage ‘SAUVEUR’ – Safeguarded Cultural Heritage:
Understanding & Viability for the Enlarged Europe in Prague, 2006.
Coordinator details:
Dr MiloŠ Drdácký, Associate Professor
Institute of Theoretical and Applied Mechanics of the Academy
of Sciences of the Czech Republic (ITAM), Prosecka 76,
CZ-190 00 Praha 9, Czech Republic
E-mail: drdacky@itam.cas.cz; arcchip@itam.cas.cz
Tel: +420 286 885382
141
AUTHENTICO
Authentication methodologies for metal artefacts
based on material composition and manufacturing
techniques
http://www.authentico.org
142
AUTHENTICO
Jadwiga Lukaszewicz
Nicholaus Copernicus University, Department for Conservation
of Architectonic Elements and Details
Poland
Anna Rastrelli
Centro di Restauro – Soprintendenza per i Beni Archeologici
della Toscana
Italy
Thilo Rehren
Goldsmith tool marks after studying the archaic use of the University College of London, Institute of Archaelogy
individual tool. United Kingdom
Coordinator details:
Dr Maria Luisa Vitobello
EJTN GEIE
Rue du Commerce, 124
BE-1000, Belgium
Operative Headquarters:
Via San Pedrino 17
20067 Paullo, Italy
Email: info@ejtn.org
Tel: +39 02 90634033
143
CHEPRISS
Cultural heritage protection in a sustainable society
http://www.ucl.ac.uk/sustainableheritage/Archive_0906/sustainableheritage/sustainableheritage/learning/asc2/index.htm
4. Policy impact
The advanced study course contributed to the stated aim of
“decoupling economic growth from environmental degradation”
(Introduction to Work Programme for Part A: Environment and
Sustainable Development) by disseminating the latest research find-
ings and information on how science and technology can be used in
the protection of European cultural heritage in a sustainable society.
The material suggested ways in which scientific research for cultural
heritage protection can meet the requirements of policy-makers for
evidence of environmental degradation.
144
CHRAF
Priorities and strategies to support cultural heritage
research activities within ECTP and future FP7 activities
http://www.ectp.org/chraf/default.htm
1. Problems to be solved produced as well as a specific leaflet for SMEs (translated into many
European languages) has been created.
The European Construction Technology Platform (initiated in 2004)
reflects the response of the construction sector to the demands of 4. Policy impact
European society, acting as an umbrella of the research initiatives in
Europe, and creating better synergy between European and national Considering that the main objective of CHRAF is the promotion and
industries, between public and private efforts with all relevant stake- implementation of cultural heritage research activities at European
holders. This initiative expects to raise the sector to a higher world- level, this would strengthen the new market niche of cultural heritage
class level of performance. conservation and restoration in the following aspects:
aa increasing the activity and market share:
The Focus Area of Cultural Heritage (FACH) was launched in aa increasing the activities in built heritage in the EU;
October 2004 with the aim of establishing a vision for 2030, a aa impact for the construction sector;
Strategic Research Agenda and an Action Plan for developing and aa impact for the tourism sector.
integrating it into the European Construction Technology Platform aa saving money in management of cultural heritage;
(ECTP) and to provide inputs to Seventh Framework Programme aa developing new products and methodologies for restoration.
(FP7) and future European research programmes. The challenge
of FACH is to enable cultural heritage research to be considered an The preservation of cultural heritage is also directly addressed at peo-
important topic in European research i.e. in FP7 and future research ple; therefore the promotion of cultural heritage research would result,
programmes, with a good position in the ECTP. in the long term, in the promotion of cultural activities carried out by
European citizens and the improvement of their quality of life.
The global objective of FACH is to promote research in new sustain-
able and preventive strategies, concepts, methodologies and tech- With regard to the construction sector, the active engagement of the
niques for conservation and restoration of the cultural heritage in European construction industry in cultural heritage safeguarding
order to improve the quality of life of citizens and the attractiveness gives a unique opportunity for its transformation into an R&D-
of Europe, particularly its cities, buildings and landscapes. intensive industry. Furthermore, the cooperative work in inter-
disciplinary teams with institutes, universities, stakeholders and
2. Scientific objectives and approach restoration professionals in the preservation of cultural heritage is
crucially important for future generations and offers very significant
The CHRAF project aims to support cultural heritage research RTD challenges. Knowledge deriving from the fundamental research
activities through a series of different coordination strategies. will be directly made available to end-users (like industry, heritage
By means of CHRAF the following objectives will also be achieved: authorities and restoration architects).
aa promotion and stimulation of information exchange in relation to
cultural heritage research activities; 5. Dissemination and exploitation
aa identification of priorities and development of strategies as inputs
of the results
to the ECTP and its Strategic Research Agenda (SRA) as well as
to future FP7 activities regarding cultural heritage research; The project has been presented in the 2nd and 3rd ECTP conferences
aa support of the organisation and coordination of the FACH, with celebrated in Versailles and Amsterdam.
respect to other FACH-related focus areas;
aa promotion of the dissemination, transfer, exploitation, assessment
Contract number: SSP 044208
and/or board take-up of past and present programme results,
Start date – End date: 01/10/06–31/03/08
emphasising public participation with stakeholders, SMEs, NGOs Contract type: FP6 Specific Support Action
and end-users; Duration (in months): 18
aa contribution to strategic objectives, notably regarding the
European Research Area (ERA); Coordinator details:
aa preparation of future community RTD activities and strategies for Dr Isabel Rodríguez-Maribona
inclusion and consultation of stakeholders and SMEs. Fundación Labein
Construction and Territorial Development Unit
Parque Tecnológico de Bizkaia
3. Achieved scientific results Calle Geldo, EDIFICIO 700
48160 Derio / Spain
Two versions of the SRA together with its implementation plans have Email: isabel@labein.es
already been prepared. In addition, leaflets about FACH have been Tel: +34 94 607 33 00
145
CHRAF
146
COINS
Combat online illegal numismatic sales
http://www.coins-project.eu
1. Problems to be solved (Cambridge), on coin classification – i.e. recognition of the coin type
– and identification – i.e. recognition of the individual coin.
The project aims at fighting online and auction sales of stolen ancient
coins using image-recognition techniques. A large majority of coins The COINS recognition algorithm is based on shape context and
stolen from museums and private collections are suspected to be quantum method. The algorithm, although already producing satis-
traded on the Internet and at auctions, hidden among the huge number factory results, is continually being improved.
of legal transactions, which makes the police control of coins offered
for sale an overwhelming task. Poor documentation of numismatic 4. Policy impact
collections adds further difficulty to crime enforcement.
The project is expected to facilitate the improvement of coin docu-
2. Scientific objectives and approach mentation systems, which unfortunately are still lacking in many
museums and collections, particularly in the smaller ones, and to
COINS will address the above problems on several regards: first, it foster the adoption of good practices in this area. Documentation is
will provide a documentation system and good practice guidelines, indeed the primary prevention against crime. By providing a way
based on international standards and a survey of users’ needs as to drastically reduce the number of cases to be manually checked,
stated by major museum numismatic curators. Second, it will set up the project results will help in a substantial way the work of crime
a novel algorithm for ancient coin recognition, having verified the enforcement institutions.
poor performance of those currently used for modern coins, which do
not take into account the peculiarities of ancient coinage procedures.
Third, it will develop an Internet search tool to extract and evidence
suspect cases of illicit trade.
Maaten et al
~ 76 % ~ 40 % ~4%
(edge-based statistical features)
Reisert et al ~ 91 % –
~8%
(gradient-based algorithm) Comparison of different methods on three coins. Arrows indi-
cate most similar coin images basing on shape context (solid
The following table (below) reports the success rate of the algo- line) and quantum method (dotted line)
rithm on a test set of coins provided by the Fitzwilliam Museum
147
COINS
Mike Vandamme
VARTEC
Belgium
Ernest Oberländer-Târnoveanu
MNIR
Romania
Mark Blackburn
The Fitzwilliam Museum
The geometrical parameters of the shape context method: dis- University of Cambridge
tance between contour points and tangent orientations United Kingdom
Coordinator details:
Prof Franco Niccolucci
PIN, Piazza Ciardi 25, 59100 Prato, Italy
niccolucci@unifi.it
Tel: +39 0574 602578
148
EU-ARTECH
Access, research, and technology for the
conservation of the European cultural heritage
http://www.eu-artech.org
In EU-ARTECH, 12 infrastructures are cooperating to achieve a Joint research led to significant results in the development of
permanent interoperability among institutions in the field of con- new instrumentation and methodologies. A new NMR depth-
servation, to disseminate common best practices and technologies, profiler opened the way towards the non-invasive examination of
to support access to advanced facilities for laboratory and in situ paint layer structure, also giving encouraging information on the
non-invasive studies on artefacts, and to create a common knowledge aging of binders. An innovative multispectral imaging device has
base to improve the quality of research. started to produce outstanding data, such as multiple IR images of
paintings, with an unprecedented resolution. A compact and light
Networking on the intelligent use of analytical resources and on system for XRD and XRF measurements in situ is in the final
materials and methods in conservation aims to propose protocols for stage of development.
material studies and promote common strategies in conservation.
4. Policy impact
Transnational access is offered by two advanced facilities,
exploiting innovative state-of-the-art technology and providing The coupling of networking activities with the development of
appropriate scientific, technical, and logistic support, particu- access and joint research increased the level of cooperation among
larly to first-time users. The first is AGLAE (Palais du Louvre, EU-ARTECH institutions, as well as those external to the consor-
Paris, F), staffed by a unique team of scientists, conservators tium, creating the basis for structuring a European research area
and art historians with special expertise in the non-destructive with common advanced resources, agreed high-quality practices and
elemental analysis of material artefacts. The second is MOLAB, homogeneous objectives.
a sophisticated mobile laboratory provided by a group of four
Italian institutions (in Florence and Perugia), consisting of a col- The introduction, for the first time in a European programme, of a
lection of prototype or state-of-the-art portable instruments for “mobile” infrastructure permitted in situ non-invasive measurements
non-invasive in situ measurements. on immovable objects, allowing measurements which were other-
wise impossible, facilitating communication between curators or
Joint research activities are devoted to the development of new conservators and scientists, and promoting the interest of the wider
technical capabilities to enhance the performance of the infrastruc- public in the problem of conservation.
tures and the quality of the services offered.
5. Dissemination and exploitation
3. Achieved scientific results of the results
In three years of activities, formats for reporting data and ana- EU-ARTECH established relations with relevant organisa-
lytical protocols have been produced, and a handbook for a correct tions, such as COST G8, COSTD42, CEN TC/346 (European
approach to scientific analyses (especially aimed at conservators) is Committee for Standardization), ICOM-CC (International Council
in preparation. Standard reference materials were also collected and of Museums-Committee for Conservation), IIC (International
classified for sharing with institutions both internal and external to Institute for Conservation), UNESCO, and IAEA (International
the consortium, allowing analytical results from different laborato- Atomic Energy Agency). Contacts were also established with
ries to be compared more effectively. extra-European institutions, in the USA (Getty Conservation
Institute, Los Angeles; Metropolitan Museum, New York) and in
Regarding transnational access, 38 projects involving 144 days of Latin America, and with SMEs.
work, with users from 10 different countries, have been carried out
149
EU-ARTECH
EU-ARTECH organised several conferences dedicated to non-inva-
sive analysis of cultural heritage artefacts (Amsterdam 2005), and to
advanced techniques for the examination of paintings (London 2004
and 2005; Colmar 2006). The proceedings of a workshop dedicated
to the painting technique of young Raphael have been published.
The diffusion of innovative technologies among young scientists
was promoted through initiatives such as the workshop Non-invasive
NMR and Cultural Heritage (Perugia 2005) or the GUPIX school,
(Paris 2005).
Coordinator details:
Prof Brunetto Giovanni Brunetti
Universita’ di Perugia
Centro SMAArt c/o Dipartimento di Chimica
Via Elce di Sotto 8
06123 Perugia, Italy
Email: bruno@dyn.unipg.it
Tel: +39 075 585 5509
150
EU-ARTECH
Luca Pezzati
Istituto Nazionale di Ottica Applicata
Italy
Michel Menu
Centre de Recherche et de Restauration des Musées de France
(C2RMF)
France
151
FING-ART-PRINT
Fingerprinting art and cultural heritage – in situ 3D
non-contact microscale documentation and identifi-
cation of paintings and polychrome objects
http://www.fingartprint.org
152
FING-ART-PRINT
technologies developed for ‘normal’ industrial use in order to provide
fingerprint records of objects of art and cultural heritage, this with- Mark Weber
out any physical contact with the object, and non-destructively. The NanoFocus AG
uniqueness of the fingerprints will allow the improvement of inter- Germany
national databases such as those mentioned above for such objects.
Pierre Boher
Museums and law enforcement agencies could then begin with the
ELDIM S.A.
most endangered objects, and/or those more likely to be on display
France
and/or loan. This is a particularly important development which
needs to be performed at a European level, given the open borders, Mady Elias
the ease of transport between countries, and the desire for objects on Laboratoire d’Optique des Solides
loan and/or complete travelling exhibitions. Université Pierre et Marie Curie
France
5. Dissemination and exploitation
Kirk Martinez
of the results University of Southampton
School of Electronics and Computer Science
Two official multi-day workshops for potential end-users from muse-
United Kingdom
ums, collections and law enforcement agencies are planned, one at
the 18-month-point of the project when the first integrated FING- Sophia Sotiropoulou
ART-PRINT prototype will be completed and operational, and the ‘Ormylia’ Art Diagnosis Centre
second at the end of the project. Both will provide a demonstration Sacred Convent of the Annunciation
of the system, but more importantly, allow sufficient hands-on testing Greece
of the system by cultural heritage personnel to get reliable feedback
on the operation of the system by the end-user. This feedback will
be combined with all other feedback obtained during the project to
help optimise the user friendliness of the instrument, as well as its
technical performance.
Coordinator details:
Dr William Wei
Netherlands Institute for Cultural Heritage
Gabriël-Metsu-Straat 8/16
NL-1071 EA Amsterdam
E-mail: bill.wei@icn.nl
Tel: +31 20 3054 741
153
ITECOM
Advanced study course: innovative technologies and
materials for the conservation of monuments
http://laertis.chemeng.ntua.gr/dpms_syvtnrnsn/itecom.htm
154
ITECOM
aa Moropoulou A: ITECOM Advanced Study Course: ‘Innovative
4. Policy impact Technologies and Materials for the Conservation of Monuments’,
in EC clustering workshop on FP5 cultural heritage projects:
aa Promotion of the education on science and engineering of State of progress and research results, possibilities for network-
innovative materials and technologies for the protection of cul- ing and spin-off, impact assessment and policy support, Brussels,
tural heritage. Support and promotion of high-quality studies 22 April 2004.
at a European level, providing advanced skills and knowledge, aa Moropoulou A: ‘Potentials and perspectives of postgraduate
and strengthening the competence and effectiveness of young education in conservation materials and techniques for the
European specialists. protection of monuments’ in Proc. 2nd National Conference
aa Dissemination and exploitation of the scientific achievements of on Appropriate Interventions and Safeguarding of Historical
numerous relevant EU or national research projects. Buildings, Thessaloniki, in press, 14–16 October 2004.
aa Creation of a platform for the integration of research, industry aa ‘Innovative Technologies & Materials for the Conservation of
and education in the field of cultural heritage protection, accom- Monuments: ITECOM Advanced Study Course’, poster presen-
plished by the course and the European conference/exhibition. tation in the Industrial and research exhibition of technological
aa Diffusion of knowledge in the field of cultural heritage protec- innovation at the Lavrio Technological and Cultural Park, 17
tion directly through the implementation of the multi-disciplinary December 2003.
course and indirectly through the CD-ROM, contributing to an
inter-European transfer of skills and expertise, and a method of Contract number: EVK4-CT-2002-65002
distance learning, thus supporting the upgrading of the European Start date – End date: 01/04/03 – 31/07/04
training system. Contract type: FP5 Accompanying Measure
aa Enhancement of the public’s awareness for the preservation of the Duration (in months): 16
quality of human and cultural environment, a central issue in the
Coordinator details:
‘City of Tomorrow and Cultural Heritage’.
Prof. Antonia Moropoulou
National Technical University of Athens, School of Chemical
Engineering, Section of Material Science and Engineering, 9,
Iroon Polytechniou str., Zografou Campus, GR-15780 Athens,
Greece
E-mail: amoropul@central.ntua.gr
Tel: +30 210 7723276
155
LABS TECH
Laboratories on science and technology for the con-
servation of the European cultural heritage
http://www.chm.unipg.it/chimgen/LabS-TECH.html
1. Problems to be solved: resources available in each institution was published on the project
website. The database was aimed at facilitating potential users in
Effective cooperation in the field of cultural heritage conserva- finding the nearest laboratories with the specific resources and
tion requires the collaboration of universities, research centres and competence required, giving contact names, email, phone numbers,
infrastructure devoted to the safeguard of the cultural patrimony of and postal addresses.
each country. Indeed, cooperation among institutions can be more
effective than traditional interaction between scientists because it Intercomparison of analytical results was carried out for bronze,
guarantees the participation of a wide range of facilities and types pigments, stones, and organic substances in artworks. The outcome
of user. In this way, the obvious risks of narrow or biased actions was an enhanced knowledge of the analytical procedures used in
are avoided. Moreover, infrastructure cooperation offers extended the various institutions, which led to a prognosis on the possibility
opportunities to identify and prioritise research needs of the field, of convergence towards common general protocols. Two workshops
which can then be developed and implemented, taking advantage of were organised on inorganic and organic analyses for the examina-
the existing resources and scientific expertise. tion of paintings (“The painting technique of Pietro Vannucci, called
il Perugino”, Perugia 2003, and “Binding media identification in art
2. Scientific objectives and approach objects”, Amsterdam 2003).
The objective of LabS TECH was the achievement of an effective A survey on the most common conservation practices in Europe
complementarity among 11 internationally distinguished infrastruc- (materials and methods) was also carried out, limited to four cat-
tures (10 European and one extra-European) working in the field of the egories of artefacts: metals, stone, wall paintings, and polychromy.
application of science and technology to the conservation of cultural The designed survey forms represented optimum guides for record-
heritage. The long-term aim was the creation of a common operative ing in a logical, sequential, and systematic way the restoration proce-
area for the design of a European “distributed facility” in the field. dures for a specific artwork. In spite of the obvious complexity of the
topic, the results indicated a general convergence towards traditional
Networking activities were planned on access and efficiency of methods with a minor preference for innovative methods (enzymes,
resources, methods and materials in conservation, data archiving laser cleaning, etc.). In the development of the task, a specific work-
and dissemination. Initiatives were developed to facilitate the wider shop, dedicated to “Silicon-based products in the sphere of cultural
use of research facilities by gathering and distributing knowledge on heritage”, was held in Rome in 2004.
existing resources and know-how in Europe, to foster cooperation
and exchange of trainees, to propose common protocols on material An inventory of databases on conservation materials was carried out
studies, and to develop joint research projects. Critical analyses of and, towards the uniformity of data archiving, a workshop was held
methods and materials in conservation had the goal of promoting on novel technologies for digital archiving, diffusion, and processing
common strategies for treatments of appropriate quality and long- of data in cultural heritage (Ormylia, Greece, 2004). Experts in digit-
term durability. Comparisons and discussions on data archiving and al libraries and representatives of cultural heritage institutions made
on hardware-software facilities had the objective of creating the evident the necessity for correlation, harmonisation and coordination
foundations for possible projects aimed at adopting common criteria of several parallel initiatives at national and European level.
among the participating institutions.
4. Policy impact
These activities were expected to lead to substantial enhancement of
access to the resources of the European infrastructures in the field, Through LabS TECH, a first integrated body of European institu-
together with the dissemination of good common practices both in tions belonging to ministries of culture, universities, and scientific
analytical studies and conservation procedures. research centres of different countries was created. The network
promoted positive interactions between the human and physical sci-
3. Achieved scientific results ences, creating the foundations for the design of EU-ARTECH, an
integrated infrastructure initiative now operative within FP6.
A survey on personnel, resources, and know-how available in
the European infrastructures was carried out, involving a total 5. Dissemination and exploitation
of 106 institutions (36 universities or educational institutions, 22
of the results
public research centres, 18 public cultural heritage institutions, 19
museum or library departments, 5 restoration centres, and others). During the project a brochure on the LabS TECH activities, edited
To disseminate the survey results, an easily manageable interface by the European Commission, was produced. The brochure was dis-
was built and a database on structure, activities, personnel, and tributed among the scientific community during 2003.
156
LABS TECH
Through the website, most of the LabS TECH results were dis-
seminated, included the database on the resources and know-how
available in Europe.
Coordinator details:
Prof Brunetto Giovanni Brunetti
INSTM (Consorzio Interuniversitario per la Scienza e
Tecnologia dei Materiali)
Via G..Giusti 9, 50121 Firenze Italy
Email: bruno@dyn.unipg.it
Tel: +39 075 585 5509
157
LABS TECH
158
MUSOMED
Mutual sources on modern Mediterranean architec-
ture: towards an open and shared system
http://www.architecturesmodernesenmediterranee.net
159
MUSOMED
Coordinator details:
Mercedes Volait
CNRS : IN VISU joint research unit, USR 3103
Institut national d’histoire de l’art
2, rue Vivienne 75002 – Paris
France
Email:mercedes.volait@inha.fr
Tel: +33-1 47 03 89 84
Ezio Godoli
Universita degli Studi du Firenze, Dipartimento di Storia Documenting indigenous modernity: Eugénie Ackaoui’s apart-
dell’Architettura e della Città ment building, by C. Floridia, arch., 1927 in Heliopolis (docu-
Italy ment showing condition in 1930). (Credit: Volait’s collection).
Ahmed Saadaoui
Université de la Manouba, UR Villes historiques de la Tunisie
et de la Méditerranée
Tunisia
160
OSNET
Thematic network on ornamental and dimensional stones
http://www.osnet.ntua.gr
161
OSNET
into Spanish in order to facilitate the dissemination of the collected
4. Policy impact technological knowledge at national level. The OSNET Network
involved 73 European organisations of which 18 are ornamental and
The activities planned in the framework of OSNET aimed to address dimensional stone quarrying and processing companies, seven are
the problems of the sector effectively and to lead to a harmonised equipment manufacturers, 34 research institutes, two public organi-
and unified European market, which should increase the share of the sations, eight consulting companies and four associations. The high
ornamental stone sector with beneficial effects to the EU economy number of network members and the extent of the foreseen delivera-
and employment. Part of these activities was the publication of bles necessitated the establishment of an efficient network structure.
special technical editions and guidelines, and the organisation of
training courses, while in the structure of OSNET, a whole sector
was devoted to technology-transfer issues. Apart from prevent-
ing future job losses, OSNET also contributed to the creation of a
qualified workforce. Furthermore, the network tried to assist local
SMEs, currently forming 95% of the sector and which do not have
easy and direct access to the newest information and modern tech-
nological tools, to acquire the necessary technology and information.
Finally, OSNET has sought to promote, indirectly, quality of life for
European citizens through the reduction of huge quantities of waste
generated in all stages of stone production, the reduction of emissions
and noise near production areas, rehabilitation of abandoned quar-
ries, and fulfilment of the market needs and requirements.
162
PANEURO
5th EC conference – cultural heritage research:
a pan-European challenge
http://www.heritage.xtd.pl
1. Problems to be solved Europe, and a poster session presenting local or national activities, specific
issues, problems and solutions.
The principal objective of the 5th EC Conference ‘Cultural Heritage
Research: a Pan-European Challenge’, organised 16–18 May 2002 in 4. Policy impact
Krakow, Poland, was to foster cooperation between Western Europe
and Central Eastern Europe by highlighting experiences and achieve- It was the first time that this conference had taken place in a candidate
ments as well as problems specific to each side. country. Its title “Cultural heritage research: a Pan-European chal-
lenge” was chosen, referring to the new enlarging Europe where the
2. Scientific objectives and approach protection and integration of our common European cultural heritage
has a very important role to play. A particular challenge is the integra-
The specific objectives of the conference were to: tion of the research potential of the Newly Associated States into the
aa present results of concluded or advanced projects from the European Research Area.
Framework Programmes, with emphasis on East–West collabora-
tive research; 5. Dissemination and exploitation
aa present national or regional activities with emphasis on mutual
of the results
opening up and networking in the perspective of the European
Research Area; The accompanying press and media event attracted journalists from 15 coun-
aa review the research requirements of SMEs active in the cultural tries and helped to disseminate the results of this conference, not only to experts
heritage market from the perspective of the needs of their clients in the field of cultural heritage but also to the general public. 700 copies of the
– the owners/managers of cultural heritage; conference report were published in book form under the title Proceedings of
aa see how research can help the cities both in Member States and the 5th EC conference cultural heritage research: a Pan-European challenge.
candidate countries to protect and integrate cultural heritage The proceedings contain all the welcome addresses and plenary lectures,
into the living city, to enhance cultural identity of the citizens, 13 contributions from the invited speakers during the plenary sessions, 60
to secure the economic and employment benefits of sustainable oral presentations during 4 workshops, 4 reports with conclusions and rec-
cultural tourism; ommendations of the workshops, and 72 abstracts of posters. The proceed-
aa involve a wide range of stakeholders from across Europe – ings are also available in electronic form and can be downloaded from the
researchers, planners, architects, businesses, city experts and conference website at http://www.heritage.xtd.pl. Full versions of many of
administrators, owners of objects; the posters with all texts and illustrations are also available on the website.
aa secure wide participation of participants from the candidate countries.
Contract number: EVK4-CT-2001-60001
3. Achieved scientific results Start date – End date: 01/01/02 – 31/07/03
Contract type: FP5 Accompanying measure
The conference was successfully organised within the planned dates. It fol- Duration (in months): 19
lowed the earlier conferences of Rome (1997), Aachen (1998), Santiago di
Coordinator details:
Compostela (1999) and Strasbourg (2000), but had its own identity, reflect-
Dr Roman Kozlowski
ing the needs and recognising the location and timing. The end of the Fifth Institute of Catalysis and Surface Chemistry,
Framework Programme and the preparations for new opportunities in the Polish Academy of Sciences
Sixth Framework Programme was an appropriate time to survey the state of ul. Niezapominajek 8, PL-30-239 Kraków, Poland
collaborative European research in the field, to review the technologies and E-mail: nckozlow@cyf-kr.edu.pl
methods that had been proposed and tested, and to consider what still needed Tel: +48 12 6395119
to be done and explored. A new approach was adopted in the organisation of
the conference. It was the first time that an open call for papers and poster
presentations was made. The aim was to make the scope of the conference as
wide as possible and to ensure that all interested persons could establish the
state of the art in the cultural heritage field in Eastern and Western Europe.
More than 300 participants from the EU and candidate countries, as well as
from the Ukraine, Israel, Turkey, Egypt and even South America made this
conference a success and demonstrated the importance of cultural heritage
issues. A wide participation of young researchers and students especially
from the candidate countries was important. The conference comprised
plenary sessions illustrating the present state of the research and setting the
base for future activities, workshops reviewing major challenges in the field
of cultural heritage and exploring the wealth of relevant expertise across
163
SAUVEUR
Safeguarded cultural heritage – understanding and
viability for the enlarged Europe
http://www.arcchip.cz/ec-conference/
1. Problems to be solved stration salon” was opened to innovative products and processes.
In the final plenary session, the conference adopted the Prague
The project aimed at the consolidation and impact assessment of concluding message. This document presents the joint standpoint of
results achieved in EU and other international research projects relat- representatives of major European and international bodies support-
ed to movable and immovable cultural heritage. Special focus was ing cultural heritage research including the European Commission,
given the exploitation and spin-off of cultural heritage research results UNESCO, Council of Europe, ICOMOS, ICCROM, ICOM, Europa
and testing of the acceptability of new sustainability approaches and Nostra, Organisation of World Heritage Cities, Getty Conservation
new technologies by the user community, SMEs, owners, managers Institute; to summarise these conclusions, all stakeholders expressed
and restorers or conservators of the cultural heritage. SAUVEUR a strong demand that cultural heritage be mainstreamed into EU
was designed to further define the role of Europe’s cultural heritage and national policies and research programmes. In this respect,
research within the international context and as part of international the European institutions should support the incorporation of cul-
cooperation. tural heritage themes into relevant priorities and tasks of Seventh
Framework Programme, and mitigate unintentional negative effects
2. Scientific objectives and approach on cultural heritage of other EU legislation in application of the
Article 151.4 of the EC Treaty; in addition, the newly established
SAUVEUR consisted of the organisation of the 7th European European Research Council (ERC) should consider in its pro-
Conference on Cultural Heritage Research in Prague, in 2006. grammes the importance of basic research for cultural heritage.
The wider public was addressed by means of special accompanying
events in order to ensure feedback and response from non-profes-
sional stakeholders. The conference comprised sessions dealing
with political exploitation and public dissemination of cultural herit-
age research, the international role of European cultural heritage
research, poster displays and verbal presentations of policy impact
assessment, research infrastructure achievements, innovative appli-
cations and new ideas, as well as coordination of national education
and research into cultural heritage issues.
During the conference, attention was especially given to the fact that
there is a wide range of accumulated problems in historical settle-
ments affecting the movable and immovable heritage and related to
environmental changes, social impacts, economic issues, growing
tourism and inadequate cultural heritage management as well as
threats from natural hazards. All these issues require that cultural
heritage research continues to develop advanced environmental tech-
Dr. Andrea Tilche, DG Research, representing the European nologies through the knowledge generated from basic research and
Commission the adaptation of scientific developments from other sectors.
164
SAUVEUR
Coordinator details:
Dr Miloš Drdácký, Associate Professor
Institute of Theoretical and Applied Mechanics of the Academy
of Sciences (ITAM)
Czech Republic
Email: drdacky@itam.cas.cz
Tel: +420286885382
165
SUSTAINABLE HERITAGE
Science and technology of the environment for
the sustainable protection of cultural heritage
http://www.ucl.ac.uk/sustainableheritage/learning/asc/
1. Problems to be solved for cultural heritage protection can meet the requirements of policy-
makers for evidence of environmental degradation.
A need was identified to disseminate the results of EC Research
for the Protection of Cultural Heritage to professionals, particularly 5. Dissemination and exploitation
those in the early part of their career, who are working in the field
of the results
of conservation and conservation science. Conservation practitioners
need greater awareness of the relevance of scientific research being The instructors all prepared course notes to accompany their ses-
done in their subject so that they make use of it. It was also identified sions. These have been disseminated after the course through the
that there is limited integration and use of research results in educa- course website, which has been made freely accessible to the cultural
tion and training courses. heritage community at http://www.ucl.ac.uk/sustainableheritage/
learning/asc/. As a condition of acceptance onto the course all the
2. Scientific objectives and approach participants prepared and implemented a dissemination plan on what
they had learned in their home countries and institutions.
The objectives were, through an EC Advanced Study Course, to:
aa disseminate recent scientific research relevant to the sustainable Contract number: EVK4-CT-2001-65001
protection of cultural heritage among scientists from EU Member Start date – End date: 01/11/01 – 31/05/02
States, newly accessioned states and candidate countries, thus Contract type: FP5 Accompanying Measure
levelling the playing field within Europe; Duration (in months): 7
aa communicate this research through a variety of teaching meth-
odologies and techniques. The course comprised approximately Coordinator details:
60% practical and 40% traditional teaching; Prof. May Cassar,
UCL Centre for Sustainable Heritage, The Bartlett School of
aa demonstrate to participants that results of scientific research must
Graduate Studies, University College London, Gower Street,
be applied and diffused at different levels in order to address
GB-WC1E 6BT London, United Kingdom
the expectations of a wide range of end-users. Participants were E-mail: m.cassar@ucl.ac.uk
asked to devise a dissemination plan for their own countries, after Tel: +44 20 7679 1780
the course.
4. Policy impact
The Advanced Study Course contributed to the stated aim of
“decoupling economic growth from environmental degradation”
(Introduction to Work Programme for Part A: Environment and
Sustainable Development) by disseminating the latest research find-
ings and information on how science and technology can be used in
the protection of European cultural heritage in a sustainable society.
The material presented suggested ways in which scientific research
166
SUSTAINING HERITAGE
Sustaining Europe’s cultural heritage:
from research to policy
http://www.ucl.ac.uk/sustainableheritage/
167
168
Chapter 7
7. Cultural heritage and Mediterranean third
countries (international cooperation)
169
170
Introduction Nowhere is the past more layered in Europe than around the
Mediterranean basin – a region which has been the cradle of great
civilisations, fundamental sources of modern knowledge and culture,
and all our technological and aesthetic achievements. EU-supported
research brings together EU and partner countries around the region
to enhance and preserve its rich cultural legacy and targets the
Mediterranean’s long-range sustainable development by boosting
exchanges of scientific know-how and technologies, as well as links
between research centres, businesses and other stakeholders.
171
ARCHI-MED GLAÇURES
Composite archaeomaterials, glass-ceramic,
of architecture in Mediterranean space
1. Problems to be solved art and techniques (Museum of Manises). It also called on experts
from the European network – PACT-FER – specialists in pottery,
Two types of problem were approached and solved: the ARCHI-MED research, as curators, etc.
programme relates to an emblematic material of the Mediterranean
architectural cultural heritage – glazed ceramic. Used to protect and 3. Achieved scientific results:
decorate public or private buildings, it is a composite material of
cultural heritage and nano-technology
synthesis, in the modern sense of the word. Its composite character
confers decorative and functional properties so remarkable that since of medieval Islam
its invention thousands of years ago, this type of glazed ceramic is At the beginning, observations were only performed on a micromet-
still used today in the Mediterranean area. Nowadays in architec- ric scale. To explain the colouring of the metallic lustre, it was nec-
ture, glazed ceramic is utilised for the decoration or rehabilitation essary, to our great surprise, to carry out nanometric observations.
of ancient buildings, and its production contributes to the dynamism The results were as follows:
of the industry. aa the optical properties of a metallic lustre result from the interaction
of the light with the silver and/or copper nano-particles.
The first problem is structural and methodological: the glazed aa the colouring is due to the phenomenon of resonance plasmon
ceramic is traditionally tackled by art historians, technicians, restor- between the electronic clouds of metal particles and light.
ers or architects who do not have another resource available to them
to recreate these artefacts, and they call upon craftsmen or industry. 4. Policy impact
Unfortunately, time shows that the result is often disappointing: cur-
rent technologies do not have the same knowledge. Further scientific and technical results were achieved: this pro-
gramme crystallised an area full of cooperation between profession-
The second problem – of a more scientific nature – relates to seek- als and researchers for the future. For example, a substantial project
ing answers to questions concerning physical and technical charac- involving 41 teams (researchers, companies) from 18 countries in
teristics: techniques, decoration and deterioration of some types of the Mediterranean area envisages an export of knowledge to Central
ceramics in architectural decoration. Asia, which uses much of this type of material for the conservation
of architectural heritage.
Is it possible to solve the mystery of Baghdad’s men who created, in
the mid-9th century AD, extraordinary tiles with a metallic lustre 5. Dissemination and exploitation
decoration which still decorate the mihrab of Sidi Oqba’s mosque in
of the results
Kairouan, Tunisia?
The results were presented to professional ceramists (craft and industry)
2. Scientific objectives and approach at three meetings and four exhibitions between 2000 and 2003. There
were 29 publications in specialised reviews, five PhDs, the creation of a
To achieve the scientific objectives, the research strategy consisted of thematic database, five training actions, masters’ dissertations, 35 com-
working on archaeological samples in situ (Kairouan) or those from munications and the edition of a synthesis report of 244 pages.
scientific excavations (Paterna, Ravello, Dax, etc.). Some methods of
observation or analysis were conventional and common – imagery
in scanning electron microscopy, transmission electron microscopy,
elementary analyses associated with energy-dispersive X-ray spec-
trometry, identification of the crystallised phases by X-ray diffrac-
tion, Raman spectrometry, etc. Other methods were more unusual for
cultural heritage objects – texture by cathodoluminescence; analysis
in situ (at Kairouan) of optical properties by spectral analysis of
the reflected light of the decorations; photoelectron spectrometry
to specify the state of oxidation of metals; Auger spectrometry to
identify and locate some components, etc.
172
ARCHI-MED GLAÇURES
Lusterware on glazed ceramics: Double aspect according to the angle of observation (Diffuse Light or Specular Reflexion): side by
side gilded and blue reflections (SR)
173
CAHRISMA
Conservation of the architectural heritage by the revival
and identification of the Sinan’s mosques’ acoustics
http://server.oersted.dtu.dk/www/oldat/cahrisma/
4. Policy impact
The probject developed a methodology that should have apparent
benefits, both in identification and conservation fields, to implement
the combined architectural heritage.
174
CAHRISMA
Coordinator details:
Prof Zerhan Yuksel (Karabiber)
Yildiz Technical University (YTU), Faculty of Architecture,
Building Physics Department
Besiktas, TR-34349 Istanbul
Turkey Virtual crowd entering mosque and performing Namaz
E-mail: karabi@yildiz.edu.tr ceremony (EPFL final report 2003)
Tel: +90 212 259 70 70 ext. 2255
Roberto Pompoli
Universita degli Studi di Ferrara
Dipertimento di Ingegneria
Italy
Daniel Thalmann
Ecole Polytechnique Federale de Lausanne
Computer Graphics Lab-LIG
Swiss Federal Institute of Technology
Switzerland
Real-time virtual reconstruction of Sokullu Mosque
(EPFL final report 2003) Nadia Magnenat Thalmann
Université de Genève
VR lab
Switzerland
Michel Vallet
Institut AEDIFICE
Lyon
France
Paul Micallef
University of Malta
Communication and Computer Engineering Dept.
Malta
175
CERAMED
Identification, recovery and improvement of ancient
Mediterranean ceramic manufacturing technologies
for the reproduction of ceramic artefacts of archaeo-
logical value
http://www.cera-med.net
2. Scientific objectives and approach To avoid problems of authentication in the art market, the design and
promotion of a CERAMED ‘Museum Quality’ label for technological-
The key objectives of CERAMED were to: ly authentic and aesthetically sound reproductions have been adopted.
identify raw materials used in the production of ancient Mediterranean
ceramics. 5. Dissemination and exploitation
aa recover lost manufacturing techniques.
of the results
aa improve manufacturing processes by applying modern scientific
methods, while respecting health and safety regulations. aa Website (http://www.cera-med.net) providing general informa-
aa disseminate knowledge. tion to the open public.
aa Successful organisation of five major exhibitions in four
The approach to achieve the above objectives involved diverse scien- Mediterranean countries where high-quality ceramic reproduc-
tific expertise including: tions were presented to broad audiences.
aa ethno-archaeological research and documentation to identify aa Multilingual information package on CERAMED results (in
surviving traces of the old techniques; English, Greek, Spanish and Turkish).
aa detailed physicochemical studies of relevant archaeological arte- aa Exhibition catalogue with detailed documentation of the
facts and locally available raw materials; CERAMED reproductions (in English and Greek).
aa experimental ceramic reproductions and evaluation in order to aa DVD on “Mediterranean Ceramics”, describing production
reveal the closest match to the ancient technologies; processes of the five Mediterranean ceramics studied during the
aa consideration of health and safety aspects of contemporary repro- CERAMED project.
ductions aiming at the introduction of lead-safe formulations and aa Series of lectures, training workshops and seminars on CERAMED
practices. results and achievements.
aa 36 conference presentations/articles in journals and books.
3. Scientific results Details are available from the coordinator.
aa MSc and PhD theses:
With CERAMED having come to the end of its operation in June aa Zeybekoglu, H.G., “Hardnes – strength relations for vitreous mate-
2006, the key scientific achievements of the project were to: rials”, MSc, Yıldız Technical University, İstanbul, Turkey, 2004.
aa characterise raw and related materials (clays, mineral pigments) aa Ioannou, E., “Vibrational study of glazes and ceramic materials
used for the production of ceramic artefacts by employing mod- for the reproduction of ceramic artefacts of archaeological value”,
176
CERAMED
MSc, National University of Athens, Athens, Greece, 2005.
aa Garcia Iñañez, J., “Caracterització arqueomètrica de la ceràmica
majòlica dels centres productors d’Aragó”, DEA, Universitat de
Barcelona, Barcelona, Spain, 2005.
aa Madrid i Fernández, M., “Estudi arqueològic i caracteritza-
ció arqueomètrica de la terra sigillata de la ciutat de Baetulo
(Badalona)”, PhD, Universitat de Barcelona, Barcelona, Spain,
2005.
aa Garcia Iñañez, J., “Caracterització arqueomètrica de la ceràmica
vidrada decorada de la Baixa Edat Mitjana al Renaixement als
centres productors de la Península Ibèrica”, PhD, Universitat de
Barcelona, Barcelona, Spain, 2007. Attic Red Figured Lekythos
aa Establishment of three pilot workshops in Morocco, Turkey and
Jordan dedicated to the further study, recovery and revival of the
ancient technologies of Mediterranean ceramics.
aa Raising the awareness of public cultural authorities to the eco-
nomic and moral advantages of encouraging the recovery and
revival of ancient ceramic artefact techniques.
Coordinator details:
Dr E. I. Kamitsos
Theoretical and Physical Chemistry Institute, National Hellenic
Research Foundation,
48 Vass. Constantinou Ave., GR-11635 Athens, Greece
E-mail: eikam@eie.gr
Tel: +30 210 7273828
El Arby En-Nachioui
Eleni Aloupi
Faculte des Lettres et
Thetis Authentics Ltd, Science
Sciences Humaines,
Université Mohammed I and Techniques for Art -
Morocco History - Conservation
Greece
Jaume Buxeda i Carrigos
Dept. Prehistòria, Història
Antiga i Arqueologia,
Universitat de Barcelona
Spain
177
CHERK
Cultural heritage enhancement in the region of
Kenitra (Morocco)
http://www.cherk.info
3. Achieved scientific results At a social level we can list the following: awakening local people
to their national heritage, in particular the younger generation, and
The new partnership gathered accurately reflects the Euro- improving the Barcelona Declaration goals through principles of
Mediterranean spirit of the project, with the participation of cooperation with local institutions and people.
the Superintendence of Cultural Heritage (Malta), the Gibraltar
Museum (United Kingdom), the University of Cambridge (United The general objective of INCO activities carried out under FP6 is to
Kingdom), the Université de Perpignan ‘Via Domitia’ (France), help open up the European Research Area to the world. The pres-
the Musée National d’Histoire Naturelle (France), the Deutsches ervation and management of the cultural patrimony are carried on
Archaeologisches Institut (Germany), the Agence Nationale through strategies able to facilitate development, focusing on herit-
d’Archéologie (Algeria), the Institut Mauritanien (Mauritania),, the age and integrating preservation approaches with social-economic
Institut National des Sciences de l’Archéologie et du Patrimoine objectives, such as sustainable tourism. The exploitation of signifi-
(Morocco), the Université de Kenitra ‘Ibn Tofail’ (Morocco), the cant prehistoric archaeological sites and specimens encouraged new
University of Naples ‘Federico II’ and the University of Rome ‘La tourist itineraries. Furthermore, a stronger awareness of the impor-
Sapienza’ (Italy). This group is a prerequisite for the development of tance in preserving national cultural heritage helped provide new job
archaeo-anthropological studies in the Maghreb. opportunities in the field.
The achieved results were:
1. mapping of sample areas, prioritising those endangered and/ The environment of the Maghreb today is very different from that
or unknown; before the process of desertification of the Sahara, which culminat-
2. creation of fieldwork forms and a databank for the creation and ed with the almost complete aridity of the region, with the excep-
updating of a GIS: such an instrument offers the perfect match- tion of the land close to the coasts. The archaeological data are
ing of topographical base layers with archive sources, historical strictly correlated to the geographical and ecological perspectives;
and archaeological data, palaeo-demographical and palaeo-envi- the contemporary environmental landscape is the very last stage of
178
CHERK
a continuous and articulated historical exploitation of the territory,
originally chosen for specific aspects. For this reason, scientific
research and skilled technologies used for the CHERK project
objectives contribute to clear up the mystification, the imprecise
and superficial knowledge of Northwest African history.
Coordinator details:
Prof. Alfredo Coppa
University of Rome ‘La Sapienza’
Dep. BAU
Piazzale A. Moro, 5
IT-00185, Rome
Italy
E-mail: alfredo.coppa@uniroma1.it
Tel: +39 06 49912350
Mohammed Mehdi
Université de Kenitra ‘Ibn Tofail’
Morocco
179
CHIME
Conservation of historical Mediterranean sites by
innovative seismic protection techniques
http://dipmec.unipv.it/research/chime/
180
DESERT PATINA
Re-creation of the patina of engraved or painted
saharan sandstones bearing 15 000 years of
climatic changes
1. Problems to be solved warming, with aridity crisis alternation and rainy periods. Then we
briefly touch on two results of the international programme “Patine du
Preparing for the effects of global warming should be a concern for Désert” (2004–07), funded by the European Commission.
“responsible” public institutions: it consists of anticipating, in all fields,
how to face the threat represented by global warming. This is particu- 3. Achieved scientific results
larly true in three sectors – cultural heritage, alimentary and sanitary
risks. In those frequently linked fields, the dangers are diverse. Thermic
or hydric gap, aridity, demography, “return of rain” after drought, floods,
3.1. First: information sources protection
wars and their consequences..., haemorrhagic fever, malaria, ... or viruses (rock art and support, archaeology)
like chikungunya, west Nile and many others! Those diseases frequently Thousands of sandstone engravings and paintings found in the Sahara
have a viral origin with a vector: insects. So what to do? are unknown to the general public. If we manage to read and under-
stand it in connection with other data (archaeology, palaeoclimatology,
physical chronology), those representations of men, women, children
and animals describe the behaviour and reaction of populations to
climatic changes like a comic book. It is important to make this excep-
tional cultural heritage known and preserve it against natural change or
human deterioration. In particular, it is vital to be able to recreate sand-
stone patina when it has been broken by a “desquamation” or graffiti...
This is the first result of the programme which updates knowledge
on sandstone patina formation mechanisms and proposes an original
“recreation” technique of the patina elaborated in laboratories and suc-
cessfully tested in Morocco.
181
DESERT PATINA
Coordinator details:
Prof Max Schvoerer, (Archaeomaterials Physic) Cathodoluminescence view (purple-brown: quartz; white:
President of the network K-feldspath, yellow: altered feldspath)
"FER-PACT"
10 rue Charles Gounod, 33130 Bègles
France Figs B, C, D: Oukaïmeden sandstone section (BDX 8872)
Email: schvoerer@u-bordeaux3.fr
Tel: +33 5 57 12 45 46 or +33 5 85 03 66
182
DESERT PATINA
Jean Pierre Massué, Sophie Desgouilles, Barbara Barich and Daniela Zampetti
Mathias Mayer Università di Roma “La Sapienza”
FER-PACT Réseau européen “Sciences et Patrimoine Culturel” Italy
France
Vincenzo Francaviglia
Ginette Aumassip, Nadjib Ferhat, Michel Tauveron and Mohamed Arch. Lucciano Cessari
Alliche Consiglio Nazionale delle Ricerche
Association les amis du Tassili Azjer Italy
Algeria
Claude Ney
Mohssine El Graoui, A El Hajraoui and Susan Searight Team : Manuel Boizumault, Sylvain Pont
Ministère de la Culture et de la Communication Université de Bordeaux3 - CNRS
Direction du Patrimoine Culturel - Centre National du Patrimoine France
Rupestre de Marrakech,
Morocco Jungner Högne
University of Helsinki
Mahmoud Abdel Moneim Finnish Museum of Natural History
Faculty of Education Finland
Ain Shams University
Department of Biological and Geological Sciences Abichou Akim
Egypt Department of Physical Geography
University of Tunis
Karl-Heinz Striedter Tunisia
Frobenius Institut
Germany
183
EC-FORTMED
Restoration and use of the early Medieval fortifica-
tions in the East Mediterranean countries
http://users.auth.gr/papayian/
4. Policy impact
The proposed holistic approach is expected to contribute to the Front page of the proceedings published for the 1st European
thorough documentation of the history, materials and techniques Workshop in “Restoration and use of the early medieval forti-
of construction, and to the minimisation of the interventions so as fications in the east Mediterranean countries”, that took place
to preserve the authenticity of the old structure. In addition, it con- in Veria, Greece, 27–29 September 2003. The workshop was
tributed to reducing the cost and upgrading the quality of the repair realised in the frame of EC–FORTMED project
works, to the promotion of the traditional techniques and local low-
potential materials, so better control and management of the restored
castles can take place.
184
EC-FORTMED
Kostas Migdalis
Planning And Research
Greece
Edoardo Danzi
Instituto Universitario Architettura Venezia
Italy
Zeynap Ahunbay
Technical University of Istanbul
Turkey
Fawwaz Al-Khraysheh,
The permanent exhibition, concerning the Castle of Serbia, Ministry of Tourism and Antiquities
studied by the EC-FORTMED project, is located inside the Jordan
archaeological site of the Castle of Servia, Greece
Coordinator details:
Prof. Ioanna Papayianni,
Aristotle University of Thessaloniki, Dept. of Civil Engineering,
P.O. Box 482, GR-54124 Thessaloniki
Greece
E-mail: papayian@civil.auth.gr
Tel: +30 2310 995783; +30 2310 995699
185
EFESTUS
Tailored strategies for the conservation of
archaeological value of Cu-based artefacts from
Mediterranean countries
http://www.efestus.just.edu.jo
1. Problems to be solved ing the manufacturing of the objects carried out in ancient times
by repeated cycles of cold or hot mechanical work and thermal
The first problem was to identify the degradation causes of repre- treatments;
sentative Mediterranean Cu-based archaeological artefacts as a func- aa a new advanced method and equipment for determining the
tion of the archaeological context, chemical composition and metal- environmental key parameters affecting the long-term stability of
lurgical features. With that information, the second problem was to artefacts during exhibition or storage in museums;
find reliable conservation methods and safe materials to ensure a aa the capability to produce a wide series of 13 reference Cu-based
long and stable life for the artefacts during exhibition and storage, alloys whose chemical composition, micro-chemical structure
thus also avoiding post-burial degradation phenomena. and metallurgical features are similar to those of ancient alloys.
These reference Cu-based alloys are not commercially available;
2. Scientific objectives and approach aa a new method for producing degraded materials for evaluating
the effectiveness of conservation materials and methods. This
The scientific objectives and the approach of the EFESTUS project new method produces patinas similar to those grown on archaeo-
were to: logical artefacts.
aa select archaeological contexts and bronze artefacts representa-
tive of different possible deterioration phenomena, and identify
the chemical and physical degradation mechanism by means of
advanced investigation techniques. The archaeological objects
included coins, weapons, and small and large artistic objects
ascribed to the following material classes: Cu-Sn, Cu-Pb, Cu-Sn-
Pb and Cu-Zn-Sn-Pb;
aa produce Cu-based reference alloys characterised by chemical
composition and metallurgical features similar to those of the
ancient selected artefacts. It is worth noting that these alloys are
not commercially obtainable and cover the major families of
archaeological Cu-based alloys known in antiquity from ancient
times to the Roman period;
aa design and produce tailored, innovative, removable conservation
materials or methods to be used for each specific degradation
phenomenon and their validation, using the reference alloys sub- Micro-chemical structure of a cross-sectioned archaeological
jected to accelerated degradation procedures, which have been bronze object: the copper cyclic degradation reaction induced
purposely developed; by chlorine is occurring.
aa develop an integrated information system allowing communica-
tion, control and exchange of information within the partners and
European and Mediterranean museum and conservation institutions;
produce an atlas with detailed physical-chemical information on
the selected Cu-based artefacts related to the burial conditions, 4. Policy impact
degradation mechanism and conservation methods.
Conservation of cultural heritage is a fundamental mission of the
3. Achieved scientific results Mediterranean countries where the major part of the ancient and
fascinating witnesses of human art and creativity are conserved.
The main scientific results achieved were: Ancient bronze artefacts are highly valued objects for their intrinsic
aa the identification of degradation causes of Cu-based archaeo- historical nature, and for the great and sophisticated skill used to
logical artefacts. The first one is induced by the ubiquitous and produce them.
nearly constant presence of chlorine that forms copper chlorides
at the interface between patina and metal. The chlorine-based The major problems in stopping degradation and in saving these
species induce at RH > 30%, the cyclic degradation of copper, ancient witnesses are the degradation phenomena occurring during
romantically defined as “bronze disease”. The other source the archaeological burial and the post-excavation reactions which
of degradation of the bronze archaeological artefacts are their take place during exhibition or storage and, in particular, that are
intrinsic metallurgical features whose formation is induced dur- caused by the cyclic copper degradation.
186
EFESTUS
The results of the EFESTUS project identify some materials and Finally, the website shows the purposely designed EFESTUS degrada-
methods for ensuring a more stable life for the bronze archaeologi- tion accelerated procedures and conservation materials and methods.
cal artefacts during exhibition and storage by defining some tailored
conservation strategies. The EFESTUS materials and methods are currently being validated in
some conservation institutions of the Mediterranean basin.
5. Dissemination and exploitation
The EFESTUS project was presented at the “Communicating European
of the results
Research” exhibition held in Brussels on 14–15 November 2005.
The dissemination of the EFESTUS project results has been carried
out via the presentation of contributions at national and international Contract number: ICA3-CT-2002-10030
conferences, and the publication of papers in international maga- Start date – End date: 01/01/03-31/12/05
zines and on the project website. The EFESTUS website reports on Contract type: FP5 Cost-shared research
the results achieved from the characterisation of nine representative Duration (in months): 36
Mediterranean archaeological contexts, from the monitoring activities
Coordinator details:
of the atmosphere of seven representative Mediterranean museums
Dr Gabriel Maria Ingo
and from the study of about 60 Cu-based artefacts. In addition, it gives Istituto per lo Studio dei Materiali Nanostrutturati – Consiglio
information concerning degradation mechanisms and agents. The Nazionale delle Ricerche
database includes the chemical composition and the description of the Area della Ricerca di Roma 1 – Montelibretti
metallurgical features and manufacturing techniques for each bronze via Salaria km 29.5, CP 10, IT-00016 Monterotondo Stazione,
artefact. The website also describes the production of 13 EFESTUS Rome, Italy
Cu-based reference alloys with metallurgical features similar to those E-mail: ingo2@mlib.cnr.it, gabriel.ingo@ismn.cnr.it
of the ancient alloys. Tel: +39 06 90672336
187
ERATO
Identification, evaluation and revival of the acoustical
heritage of ancient theatres and odea
http://server.oersted.dtu.dk/www/oldat/erato/
2. Scientific objectives and approach Recording with reconstructed musical instruments (left) and a vir-
tual audience in reconstructed Aosta Odeon (right)
The scientific and technological objectives can be summarised
as follows: 4. Policy impact
aa identify the acoustic characteristics of ancient theatres
aa and odea The developed methods may be applied in the future for visualisation
aa identify and select musical instruments, music, song, and auralisation of virtually reconstructed buildings and perform-
aa clothes and style of performance of the Hellenistic and Roman period ance spaces. The results from this project could have a beneficial
aa create virtual restoration and revival of cultural heritage influence on the modern use of ancient theatres, especially from an
aa evaluate the acoustic heritage in the virtual restorations acoustic point of view.
aa compare the acoustic heritage in the Hellenistic theatre,
aa the Roman theatre and the odeum
aa provide information for future restoration works on ancient
aa theatres
aa provide guidelines for the modern use of ancient theatres.
188
ERATO
Kingdom, 1–3 September 2005.
aa VSMM 2004, 10th International Conference on Virtual Systems
and Multimedia, Ogaki City, Japan, 17–19 November 2004. Yildiz Technical University Aedifice
aa 3rd International Conference in Science and Technology Physics Department Laboratory of
on Archaeology and Conservation, Zarqa, Jordan, 7–11 Turkey Psycho-Acoustics
December 2004. France
aa VAST ‘04, 5th International Symposium on Virtual Reality, Zerhan Karabiber Yuksel
Archaeology and Intelligent Cultural Heritage, Brussels and Turkey Michael Vallet
Oudenaarde, Belgium, 7–10 December 2004. France
aa UIA 2005, XXII World Congress of Architecture, Istanbul, The Hashemite University
Turkey, 30 June–10 July 2005. Institute of Tourism Swiss Federal Institute
aa Forum Acusticum 2005, Budapest, Hungary, 29 August – 2 and Heritage of Technology
September 2005. Jordan Lausanne
aa XX Symposium of CIPA, The ICOMOS and ISPRS Committee Switzerland
on Documentation of Cultural Heritage, Torino, Italy, 26 Talal Akasheh
September–1 October 2005. Jordan Daniel Thalmann
aa VSMM 2005, 11th International Conference on Virtual Systems University of Geneva
and Multimedia, Ghent, Belgium, 3–7 October 2005. Universita Degli Studi Switzerland
aa 4th International Conference in Science and Technology di Ferrara dipartimento di
on Archaeology and Conservation, Amman, Jordan, 7–11 Ingegneria Miralab
December 2005. Italy Switzerland
aa ERATO Project Symposium, Istanbul, Turkey, 20 January 2006
aa 6th International Conference on Auditorium Acoustics, Roberto Pompoli Nadia Magnenat-Thalmann
Copenhagen, Denmark, 5–7 May 2006 Italy Switzerland
aa 19th ICA International Congress on Acoustics, Madrid, Spain,
2–7 September 2007
Coordinator details:
Prof. Jens Holger Rindel
Danmarks Tekniske Universitet, Ørsted Dtu/Acoustic
Technology Anker Engelundsvej 1, Bldg. 101
DK-2800 Kgs. Lyngby
Denmark
E-mail: jhr@oersted.dtu.dk
Tel: +45 4525 3934
Fax: +45 4588 0577
189
FOGGARA
Inventory, analysis and exploitation of traditional
water techniques of European and Saharan drainage
tunnels
http://www.ipogea.org/foggara/index_eng.htm
In the European countries, the project aroused lively interest for the
very possibility of re-proposing this technique to solve problems of
water supply. In some localities, the experimental use of drainage
tunnels was proposed as a valid alternative for the practice of very
deep wells that exhaust water tables instead of absorbing renewable
water resources.
190
FOGGARA
Nadia Djelal
Ecole Polytechnique d’Architecture et d’Urbanisme d’Alger
Algeria
191
HERCOMANES
Heritage conservation and management in Egypt
and Syria
The overall objective of the HERCOMANES project was to high- 4. Policy impact
light the importance of modern heritage, specifically objects and
sites built and developed during the 19th and early 20th centuries. The modern heritage of one central district in Cairo (Zamalek) and
These objects and sites represent an urban and architectural heritage the city of Mansoura has already been documented by the French/
that reflects culture and civilization and deserves to be recognised Egyptian team in collaboration with CULTNAT (National Centre for
and conserved. The project focused on heritage conservation man- Documentation of Cultural and Natural Heritage). The documenta-
agement, thus assisting decision-makers to proceed with their efforts tion of the heritage of Port Saïd city is ongoing.
in the conservation process.
Saïd Halim Palace (1898) in downtown Cairo has been listed, deci-
HERCOMANES deals with two different sites chosen in the cit- sion 121/2002. The Supreme Council of Antiquities has agreed on
ies of Cairo and Aleppo, located within the boundaries of the the restoration and the re-use of Saïd Halim Palace as the ‘Cairo
city centres and erected by local bourgeoisies in the 19th century. Historical Museum’.
192
HERCOMANES
tions, Harpocrate et Institut de Recherche pour le Développement,
IRD, Alexandrie, Mars 2008, 350 pages, plans, photos.
Sahar Atteya
The publication on the website of the two GIS of Cairo and Aleppo Centre for Architecture and Engineering Design Support
are being prepared by the IRD Department of Cartography and were Faculty of Engineering, Cairo University
issued in 2007. Egypt
There were many spin-offs of HERCOMANES in Egypt and Syria. Salaw Sakkal
Details are available from the coordinator. Faculty of Engineering Aleppo University
Faculty of Architecture
Contract number: ICA3-1999-00004 Syria
Start date – End date: 04/04/00 – 03/10/03
Contract type: FP5 Cost-shared research Bruno Cassetti
Duration (in months): 42 Instituto Universitario d’Archittetura di Venezia
Italy
Coordinator details:
Dr Galila El Kadi Jean-Claude David
Institut de Recherche pour le Développement, IRD,
Université de Lyon, GREMMO
Unité de recherche ‘Environnement Urbain’ UR029, 32,
Maison de l’Orient
Avenue Henri Varagnat, FR-93143 Bondy
France France
E-mail: elkadiga@link.net
Tel: +33 1 48 02 55 00
Fax: +33 1 48 47 30 88
193
INFRARTSONIC
Development of a novel and integrated portable
non-destructive analysis system for the documentation
of artworks
http://www.igd.fraunhofer.de/igd-a7/images-video/infrartsonic/
194
INFRARTSONIC
Icons Group. InfrArtSonic was presented on a stand at this event. wall paintings in the Protaton Church, Mount Athos, Greece,
During the exhibition, parts of the system that had already been Icon and Portrait International Conference ICOM-CC-WOOD,
developed were demonstrated. The feedback of the conservators was Furniture and Lacquer, Egypt, 18–20 September 2006.
encouraging for the consortium since they were very interested in 9. I. K. Vlachos and G. D. Sergiadis, On the intuitionistic defuzzifica-
using mobile systems for in situ analysis of monuments where there tion of digital Images for contrast enhancement, 7th International
are art objects that cannot be moved. FLINS Conference on Applied Artificial Intelligence, Genova
(Italy), 29–31 August 2006.
Targeted seminars 10. I. K. Vlachos and G. D. Sergiadis, A heuristic approach to intui-
tionistic fuzzification of color images, 7th International FLINS
Two seminars A novel and integrated portable non-destructive Conference on Applied Artificial Intelligence, Genova (Italy),
analysis system for the documentation of artworks aimed to give an 29–31 August 2006.
overview of InfrArtSonic. 11. G.Karagiannis, C. Salpistis, D. Alexiadis, A. Damtsios, G.
aa Targeted seminar in Cairo, March 2007 Sergiadis, Identification of artworks paint layers, by UV/Vis/
aa Targeted seminar in Nicosia, November 2007 nIR/mIR spectroscopy, using diffuse radiation theory, acoustic
microscopy and signal processing techniques, (in Greek), 2nd
Some publications – announcements National Conference of Mechanical & Electrical Engineers,
Athens, 2007.
1. Georgios Karagiannis, D. Alexiadis, G. Sergiadis, C. Salpistis, 12. I. Vlachos, G. Sergiadis, A two-dimensional entropic approach
Processing of UV/VIS/nIR/mIR diffuse reflectance spectra and to intuitionistic fuzzy contrast enhancement, in WILF2007
acoustic microscopy echo graphs for stratigraphy determina- International Workshop on Fuzzy Logic and Applications, 2007,
tion, using neural networks and wavelet transform, accepted Genova, Italy.
for publication to the ΙΕΕΕ 3rd International Conference on 13. I. Vlachos, G. Sergiadis, Intuitionistic fuzzy histogram hyperboli-
Information & Communication Technologies: From Theory to zation for color images, in WILF2007 International Workshop on
Applications - ICTTA’04 - April 7 - 11, 2008 Umayyad Palace, Fuzzy Logic and Applications, July 2007, Genova, Italy.
Damascus, Syria. 14. I. Vlachos, G. Sergiadis, Hesitancy histogram equalization, in
2. Georgios Karagiannis, Christos Salpistis, Georgios Sergiadis, Proc. 2007 IEEE International Conference on Fuzzy Systems, July
Ioannis Chryssoulakis, ‘Non-destructive multi-spectral reflec- 2007, London, UK.
toscopy between 800 nm and 1900 nm: an instrument for the 15. Sister Daniilia, Elpida Minopoulou, Fr. Demosthenis
investigation of the stratigraphy in paintings’, Review of Scientific Demosthenous, Georgios Karagiannis, A comparative study of
Instruments (RSINAK), vol. 78, issue 6, June 2007 wall paintings at the Cypriot monastery of Christ Antiphonitis: one
3. G. Karagiannis, Chr. Salpistis and G. Sergiadis, ‘Development of artist or two?, J. Archaeol. Sci., 2007.
a Novel Method for Non-Destructive Stratigraphy Determination
of Artworks using Acoustic Microscopy and UV/VIS/nIR spec- Publicity to the press
troscopy’, 7th EC conference Safeguarded cultural heritage - • Presentation of the scientific work of “Ormylia” Art Diagnosis
understanding & viability for the enlarged Europe, Prague, 31 Centre within the INCO action in Euronews (September
May–3 June 2006 2008).
4. G. Karagiannis, Chr. Salpistis and G. Sergiadis, ‘Development of • A short announcement of the project was published by RSS
a novel method for non-destructive stratigraphy determination of to the Jordanian Times on Tuesday, 22 February 2006 No
artworks using acoustic microscopy and UV/VIS/nIR spectros- 9217, p.3. The subject was the participation of RSS to the
copy’, poster presentation to the international workshop Non- InfrArtSonic project.
destructive analysis and testing of museum objects organised in
the frame of the COST G8 action in Nicosia, 18–20 May 2006
5. Fr Demosthenis Demosthenous (ENALIAN), Ora et Labora, Oral Contract number: SSP 015338
presentation on icons among the target objects of InfrArtSonic Start date–end date: 01/01/06–31/12/08
system within WP2, International workshop Non-destructive Contract type: FP6 STREP
analysis and testing of museum objects organised in the frame of Duration (in months): 36
the COST G8 action in Nicosia, 18–20 May 2006.
6. Fr Demosthenis Demosthenous (ENALIAN), Oral Presentation Coordinator details:
Dr Georgios Karagiannis
on icons among the target objects of InfrArtSonic system,
Sacred Convent of the Annunciation IMSP,
International seminar on Theory and practice in conservation, “Ormylia” Art Diagnosis Centre
Lisbon, 4–5 May 2006. Tel: +302371098400
7. G. Karagiannis, G. Sergiadis, C. Salpistis, G. Sakas , B.G. Brunetti, Fax: +302371098402
R. Bahgat, S. Abdul Rahim, Fr D. Dimosthenous, Fr. I. Barakat, Greece
Development of a novel system for non-destructive stratigra-
phy determination of artworks using acoustic microscopy and
UV/VIS/nIR/mIR spectroscopy, Icon and Portrait International
Conference ICOM-CC-WOOD, Furniture and Lacquer, Egypt,
18–20 September 2006.
8. Sister Daniilia, Sophia Sotiropoulou, Georgios Karagiannis,
Christos Salpistis and Dimitrios Bikiaris, The pathology of the
195
INFRARTSONIC
Georgios Sergiadis
Aristotle University of Thessaloniki
Department of Electrical and Computer Engineering
Greece
Georgios Sakas
Fraunhofer-Gesellschaft Zur Förderung
der angewandten Forschung E.V.
Germany
Bruno G. Brunetti
Consorzio Interuniversitario Nazionale
per la Scienza e Tecnologia dei Materiali
Italy
Reem Bahgat
CULTNAT – Center for Documentation
of Cultural and Natural Heritage
Egypt
Abdel Rahim Saqer Figure 1: The InfrArtSonic system, while scanning an art
Information Technology Centre object (wall painting fragment).
Royal Scientific Society
Jordan
George Nahas
University of Balamand Saint John of `Damascus Faculty of
Theology
Lebanon
196
JEWELMED
Comparative analysis of manufacturing technologies
in goldsmithing from VII to I century B.C. in the
Mediterranean area
http://www.jewelmed.net
1. Problems to be solved ing from similar projects and in cooperation with museums,
scientific organisations, as well as through laboratory analyses
One of the objectives of the JewelMed Data Bank and of the edu- and workshop experiments; the collected information has been
cational activities promoted locally by the partners, is to improve electronically stored, according to a specific format, satisfying
socio-economic development through the recovery of ‘knowledge’ the highest scientific requirements and sufficiently flexible for
and ‘memories’ – a heritage that would otherwise disappear. online availability.
aa Comparative studies: specialists from the scientific, archaeologi-
While the need for new highly qualified professionals preserving the cal and technical organisations contributed to the study involving
artistic heritage in museums is strongly felt, actions focused on the re- a detailed description of the methodologies relating to the identi-
qualification of existing professional expertise are also necessary fied technique.
aa Scientific supporting technologies for material characterisation
2. Scientific objectives and approach (laser, SEM, EDX, metallography, atomic absorption, X-ray fluores-
cence and X-ray crystallography) contributed to the identification of
Recovering the “historical memory” should be considered the true production processes, alloys in use, joining methods, etc. and to the
inspirational principle of the project, the objective of which was the reconstruction of the ‘technological history’ of the artefacts.
identification of the various cultural levels (aesthetic, technological,
socio-cultural, artistic, symbolic) associated with the production and The detailed view shows traces of removal of filler material. Working
the use of precious artefacts. traces, resulting from very sharp tools, are evident and confirm the
scrupulous and meticulous handcrafting process.
A reconstruction of the values and the application context were
achieved by analysing the many aspects of the object. In the period Minor amounts of copper and silver, which did not cause the melting
considered, the jewel-gift already fulfilled the function of a real temperature to decrease significantly, were found along the joining
cross-cultural ‘thematic network’ exchange, involving ideologies areas. The sharp edge between the dendritic surface of the filler and
and technologies. the smooth surface of the adjacent parts indicate that only the filler
material melted, even if its melting temperature is the same or nearly
The selected approach for achieving the objectives above the same as that of the bulk material.
described covers:
aa identification and recovery of ancient working technologies;
aa improvement of traditional manufacturing technologies;
aa analysis of their potential for the future use and their effective
utilisation in restoration of cultural artefacts;
aa integration of scientific data and museum objects.
197
JEWELMED
and a strong incentive, thanks to an in-depth study supported by the
most up-to-date information (IT) and scientific technologies. For a
craft full of tradition and culture, such as jewellery art, the result-
ant decrease in working costs could generate important and positive
effects on employment levels, improving the competitiveness of the
Euro-Mediterranean region in this sector.
5. Dissemination and exploitation
of the results
Multimedia technologies allow the project results to be presented
for training or educational purposes of identified and documented
manufacturing technologies.
JewelMed Database
JewelM ed Database
198
JEWELMED
Coordinator details:
Dr Maria Luisa Vitobello
European Jewellery Technology Network
Rue du Commerce 124
BE-1000 Brussels, Belgium
Operative Headquarters:
Via San Pedrino 19,
20067 Paullo, Italy:
Email: info@ejtn.org
Tel: 39 02 90634033
Dimitrios Fotiadis
Angelos Delivorrias
University of Ioannina
Benaki Museum,
Computer Science Dept. Greece
Greece
Promotional information – AIR MALTA Magazine
Talal Akasheh
Hesham Hassan
The Hashemite University
Jordan
Marinos Ioannnides
Tasos Harissis
Higher Technical Institute
Systema Technologies S.A.
Cyprus
Nathaniel Cutajar
National Museum of Archaeology
Malta
Franco Rustichelli
University of Ancona
Institute of Physical Science
Italy
199
MED-COLOUR-TECH
Investigation, revival and optimisation of traditional
Mediterranean colouring technology for the
conservation of the cultural heritage
1. Problems to be solved 4. Policy impact
Dyeing and painting with natural organic materials have been MED-COLOUR-TECH is reinforcing the competitiveness of EU and
fundamental in art and intrinsic to the cultural identity of the Mediterranean countries at multiple levels: scientifically, through
Mediterranean area, since Antiquity. The reconstruction and revival the development of new diagnostic and identification methodologies,
of traditional manufacturing processes for natural organic colorants, with respect to natural dye-stuff identification found in art objects.
as well as of dyeing procedures or painting techniques is essential for The project is also supporting European organisations and companies
the preservation of the Mediterranean cultural heritage. with the production of new materials (organic pigments and colour-
ing components) that are currently in great demand by organisations
active in the area of cultural heritage conservation, pharmacology,
2. Scientific objectives and approach plant pathology and analytical chemistry. MED-COLOUR-TECH
is expected to elucidate aspects of colouring technologies developed
1. Investigation and optimisation of analytical methodologies for in the Mediterranean area in various historical periods, leading
dye-stuff identification; application on selected art objects of the ultimately to the formulation of protocols with recommendations for
Euro-Mediterranean cultural heritage and formulation of corre- conservation strategies.
sponding recommendations on conservation.
2. Systematic analysis and reconstruction of ancient painting/dyeing
techniques, developed in the Mediterranean area in various histori- 5. Dissemination and exploitation of the
cal periods, to elucidate the local ancient colouring technologies.
results
3. Dissemination of natural organic pigments and corresponding
colouring components, currently not available in the market, to the aa Database operational at the end of the project
scientific community, interested target groups and general public. A database, entitled Database for natural organic pigments of the
Mediterranean area, will be available on the Internet and on CD.
Historical and chemical data regarding dyes and artworks investi-
3. Achieved scientific results gated within the framework of the project will be included.
200
MED-COLOUR-TECH
Coordinator details:
Dr Ioannis Karapanagiotis
ORMYLIA Art Diagnosis Center
Sacred Convent of the Annunciation
Ormylia, Chalikidiki, 63071
Greece
Tel: +30 23710 98400
Kermes is a dyestuff which has been used since antiquity
and it is obtained from the insect Kermes vermilio Planchon
(photograph).
Evangelia Varella
Department of Chemistry, Aristotle University of Thessaloniki
Greece
Leopold Puchinger
Institute of Chemical Engineering, Vienna University of
Technology
Austria
Ziad Al-Saad
Institute of Archaeology and Anthropology, Yarmouk University
Jordan
Rachid Benslimane
Ecole Supérieure de Technologie, Université Sidi Mohamed Ben The painting techniques of several post-Byzantine icons have
Abdellah been investigated. An example is shown in the photograph:
Morocco “St. Luke painting the Virgin” (41 x 33 x 0.2cm), Domenikos
Theokopoulos (El Greco). Benaki Museum, Athens, Greece.
Recep Karadag
Faculty of Fine Arts, Marmara University
Turkey
Georg Kremer
Kremer Pigmente GmbH & Co. KG
Germany
Mohammed Mubarek
Department of Chemistry, University of Jordan
Jordan
201
MENMED
From the adoption of agriculture to the current
landscape: long-term interaction between man and
environment in the East Mediterranean basin
http://ftp.mac.es/barcelona/recerca.htm
202
MENMED
Coordinator details:
Prof. Miquel Molist
Universitat Autònoma De Barcelona, Prehistory Department,
Edifici B, Campus De La UAB, ES-08193 Bellaterra
(Cerdanyola Del Vallès), Spain
E-mail: Miquel.Molist@uab.es
Tel: +34 935814310
203
NOESIS
Non-destructive image-based manuscript analysis
system
http://www.eunoesis.org
204
NOESIS
Database at the end of the project
The final system was hosted on an XML-based online database acces-
Contract number: SSP 509145
sible via the Internet. All historical information discovered during the
Start date – End date: 01/09/04 – 31/08/08
project was added to the database to aid future researchers.
Contract type: FP6 STREP
Duration (in months): 48
Coordinator details:
Dr Alexandra Psarrou
Harrow School of Computer Science
University of Westminster
Watford Road
Harrow HA1 3TP
UK
Email:psarroa@wmin.ac.uk
Tel: +44 020 7911 5904
205
OPERHA
Open and fully compatible next generation of
strengthening system for the rehabilitation of
Mediterranean building heritage
http://www.operha.eu
1. Problems to be solved The main innovative aspects of the project lie directly with the main
objective – that is, the aim of developing a novel strengthening sys-
There is a strong need in the Mediterranean area (as it is exposed to tem, based on FRP solutions developed some years ago, mainly to be
seismic hazards, harsh environmental conditions, sometimes humid- applied to civil works, although there remains a lack of research in
ity or salinity…) for more efficient restoration solutions to structural this topic. A design specifically adapted to cultural heritage require-
problems of cultural heritage. However, there is currently no suit- ments, considering cultural, technical, societal and economical
able integrated solution specifically adapted to historical buildings. aspects, has not yet been developed.
One common approach is to replace the materials when the buildings
are too weak or not suitable for tourism and other activities but this 3. Achieved scientific results
has led to irreversible cultural loss. As such, this method should be
limited to critical cases. A new combination between the three strengthening elements is being
developed by the application of inorganic and modified mortars with
Another more efficient solution is to strengthen the building with a basalt textile embedded, as the strengthening core. The application
new materials. Until now, there are no specific strengthening sys- procedure is being defined based on the different typologies and sub-
tems designed specifically for cultural heritage, and current solu- strate materials of whole project Mediterranean countries.
tions come directly from other sectors (mainly civil works). There
is therefore a strong need to develop a specific, fully compatible
system for cultural heritage. In such cases, specific effort has to 4. Policy impact
be made to reduce the architectural impact. Indeed the traditional
strengthening systems, which are used for non-historical buildings, The OPERHA project relates to the area B.2.1: “Materials, artefacts,
have not yet sufficiently reduced their visual impacts. In addition, the monuments and sites of the thematic issue protection and conserva-
use of strengthening techniques causes radical changes in building tion of cultural heritage”.
structures. This can cause extensive physical damage over time if the
strengthening structure if not well designed for the ancient material OPERHA aims at providing a generic solution both for par-
properties. Thus, there is a need to develop an appropriate strength- ticular monuments and inhabited historical buildings.
ening package which addresses all these requirements. As such, the new strengthening system matches the general objective:
“Architectural and other patrimonial elements could range from specific
2. Scientific objectives and approach buildings to city sections, villages and archaeological sites and materials
(stone, adobe, wood and other organic/inorganic materials)”.
The overall objective of the project is the design, development, test-
ing and validation of an adaptable integrated package for structural The societal implications of all work carried out for the preservation of
strengthening historical buildings in Europe and the Mediterranean cultural heritage is obvious. In the presented proposal, as well as in most
area, based on advanced composite materials. This adaptability will be of the projects concerning cultural heritage preservation, the final end-
defined by the design of an “open” and “fully compatible” solution. user of the developed technology and knowledge is society at large.
This system consists of a reversible strengthening system dedicated to The outcome of the project will contribute to the European and
historical building structures and based on specifically designed ele- Mediterranean area’s competitiveness in the field of heritage
ments (strips, sheets, bars, anchorages, adhesives, mortars), including: building protection of existing constructions and monuments.
aa the strengthening core – an open fibre-reinforced plastic (FRP) It will contribute to the development of industry and consulting
laminate solution, related or not to commercial products, able to activity devoted to seismic evaluation and upgrading of buildings
strengthen different structural elements (vaults, arches, walls) and based on a fully European practice inspired by the integrated and
substrates (masonry, adobe bricks and timber) with modifications performance-oriented concepts which could be eventually exported
in resins and fibre component disposition; to other continents.
aa fixing system – based on organic adhesives and/or anchorage devic-
es in cases of substrate needs or structural element dimensions; The OPERHA project will contribute to ensuring and consolidat-
aa conditioning mortars – based on inorganic (lime) and organic mod- ing economical activity and employment-based cultural tourism,
ified mortars with regards to preparing the substrates (usually in especially in such areas (like some Mediterranean regions) which,
decayed conditions) for FRP application and with regards to reduc- with a level of economical development under the European average,
ing visual impacts of the interventions (aesthetic integration). nevertheless enjoy important medieval architectural heritage.
206
OPERHA
Coordinator details:
Dr José Tomás San-Jose Lombera
Fundación Labein
Construction and Territorial Development Unit
Parque Tecnológico de Bizkaia, Calle Geldo, Edificio 700
48160 Derio (Spain)
Email: tomas@labein.es
Tel: +34 94 607 33 00
207
PRODOMEA
Project on high compatibility technologies and systems
for conservation and documentation of masonry works
in archaeological sites in the Mediterranean area
http://www.prodomea.com
208
PRODOMEA
Talal Akili
University of Damascus, Faculty of Architecture
Architectural Research Centre of old Damascus
Syria
Cristina Sabbioni
Consiglio nazionale delle Ricerche
Istituto di scienze dell’atmosfera e del clima
Italy
Coordinator details:
Dr Antonella Grossi
Istituto Cooperativo per l’Innovazione
Via Ciamician 2, IT-40127 Bologna, Italy
E-mail: a.grossi@bo.icie.it
Tel: +39 051 243131
Fax: +39 051 243266
Marino Luigi
Università di Firenze – Dipartimento di storia dell’architettura e
restauro delle strutture architettoniche
Italy
209
PROHITECH
Earthquake protection of historical buildings by
reversible mixed technologies
http://www.prohitech.com
210
PROHITECH
Figure 1: Mustapha Pasha Mosque, Skopjes (Macedonia) Figure 2: Fossanova Abbey, Latina (Italy)
211
PROMET
Developing new analytical techniques and materials
for monitoring and protecting metal artefacts from
the Mediterranean region
http://www.promet.org.gr
1. Problems to be solved for natural aging in their respective museums. The consortium has
begun developing, evaluating and/or testing new corrosion inhibitors,
The main conservation problems that affect metal artefact col- corrosion inhibitor additives (for waxes or varnishes) and barrier
lections in the Mediterranean basin may be attributed to the high films that meet the conservation standards for protecting museum
relative humidity and the presence of aggressive agents in the atmos- artefacts. Metal coupons have been artificially aged and distributed
phere. Conservation strategies have to be tailored to take into account throughout the consortium to provide a basis for further testing of
the different environmental conditions and the degradation causes the new materials.
occurring in the countries of the Mediterranean basin. To decrease
the rate of the degradation phenomena, it is not possible to protect Two periodic meetings have occurred for the consortium in the
the metal collections by placing them in strict environmentally first reporting period, where the results of the survey of the col-
controlled areas or by treating them on a regular basis, due to the lections were presented. The results of the first two recording
large number of objects and the heavy cost of repeated maintenance. periods resulted in 16 joint publications and 33 individual pub-
Furthermore, many of these artefacts are contaminated with soluble lications in refereed journals or conference proceedings, specifi-
salts, such as chlorides, and can only be saved by proper documenta- cally related to the PROMET project. The results of PROMET led
tion/analyses, stabilisation treatment, and protecting them with an to eight PhD theses.
appropriate corrosion inhibitor and/or coating.
4. Policy impact
2. Scientific objectives and approach
The strategic impact of the project should provide a founda-
This project aims to establish and promote a conservation strategy tion to develop a maintenance policy for protecting and moni-
designed for the Mediterranean region by developing portable moni- toring indoor metal collections in the Mediterranean region.
toring systems and protection methods, including the identification The conservation approach for safeguarding metal collections
of degradation phenomena, for collections of precious metals, iron would be developed with new portable, non-destructive and semi-
and copper alloys. destructive analytical techniques, new materials (i.e. corrosion
inhibitors and coatings) for protecting metals in the long term,
The main objective is to establish a survey approach for document- and developing or adapting existing scientific techniques for the
ing the problems and needs of metal collections and developing new documentation and analysis of large metal collections. Along with
innovative scientific techniques, micro X-ray fluorescence (μ-XRF) pilot studies undertaken in the Mediterranean region, a survey
and laser-induced breakdown spectroscopy (LIBS) for analysing was conducted of metal collections using the defined approach to
metal artefacts, quickly, non-destructively and in situ. This approach determine the extent of the conservation problems and needs in
is applied to several metal collections housed in the Mediterranean the Mediterranean for such collections.
region to identify their problems and needs. Furthermore, safe and
new corrosion inhibitors, coatings and barrier films are being devel- In short, the results of the proposed project would provide a
oped and tested as alternatives for use in metal conservation. means for the protection of cultural heritage property by offering
viable solutions that can be applied by end-users (conservators
3. Achieved scientific results and museum professionals).
During the first year, the consortium has optimised the LIBS tech- Also, the development of new portable analytical techniques would
nique for the analyses of metal reference alloys, with a compact enhance the competitiveness of European SMEs in providing
LIBS instrument currently in the integration phase. Also, prelimi- state-of-the-art analytical techniques to the international market.
nary experimental tests for evaluating the performance of selected Furthermore, the determination of which new corrosion inhibitors
micro-XRF spectrometer components have been carried out and set and coatings are suitable for conservation of metal artefacts would
up. The consortium established the survey methodology for assessing introduce more consumers (i.e. conservators) to these European
the problems and needs of metal collections in the Mediterranean products, and open up a new market to the producers of these prod-
region. The initial survey of metal collections from 11 museums ucts in Europe. Finally, the results of our work could also help the
across the Mediterranean region, outlining their characteristics in metals industry in identifying the most suitable coatings and/or cor-
terms of technology and condition, has been completed by many rosion inhibitors from our long-term testing (the tests are carried out
of the partners. From the survey work, some of standard reference on the worst-case examples) for corroded surfaces exposed to high
alloys were designed to mimic (as closely as possible) the artefacts relative humidity with sea salt.
under study. These reference alloys were produced on a large scale
as metal coupons that were distributed throughout the consortium
212
PROMET
Coordinator details:
Dr Vasilike Argyropoulos
The Department of Conservation of Antiquities and Works of Art
Technological Educational Institute of Athens
Ag. Spyridonos, GR-12210 Aigaleo, Greece
E-mail: Bessie@teiath.gr
Tel: +30 210 5385459
Cast bronze mirror Archaeological Museum of Ancient
Messene, Greece (2nd century BC), and a radiograph of the
same mirror where the characteristics of casting technique
Pareskevi Pouli and previous conservation treatment are depicted
The Institute of Electronic Structure and Laser of the Foundation
for Research and Technlogy
Greece
Christian Degrigny
Heritage Malta, Conservation Division – Diagnostics Science
Laboratories
Malta
213
PROMET
François Mirambet
Laboratoire de Recherche des Monuments Historiques (LRMH)
France
Andreas Karydas
Institute of Nuclear Physics, The National Center
for Scientific Research ‘Demokritos’
Greece
214
QUARRYSCAPES
Conservation of ancient stone quarry landscapes in
the Eastern Mediterranean
http://www.quarryscapes.no
1. Problems to be solved Old Kingdom Period, and thus providing a unique insight into eve-
ryday life. In Aswan, Egypt, the project has ‘uncovered’ the perhaps
The cultural heritage of the Eastern Mediterranean is predominantly most long-lived quarry landscape in the world. Silicified sandstone
made from stone. Throughout antiquity thousands of smaller and from this area has been quarried since the Early Palaeolithic and
larger stone quarries were exploited. The archaeological record in onwards, for tools, utilitarian stone products and monumental stone.
the quarries comprises rare evidence of stone extraction sites, roads, The same quarry landscape was used as a case for building a model
harbours, settlements, ceramics and inscriptions, which collectively for assessing the significance of such long-lived, socially embedded
constitute an ‘ancient quarry landscape’. Such landscapes are of and complex quarry landscapes. QuarryScapes has also carried out
crucial importance, not only to our understanding of the lives of the a comprehensive study on the risk from which such landscapes are
non-elite, but also of the political and ideological ambitions of an suffering in Egypt; in addition to evaluating classes of risks and their
elite that drove resource exploitation to such heights. Yet, as heritage local and regional impact, a forthcoming report suggests a simple
sites of such enormous historical importance, these have largely gone methodology for facing such problems. In addition to research, some
unrecognised, mainly due to poor documentation, which has conse- innovation activities form an important part of the project. One
quently led to their current indiscriminate destruction from actions important result is the establishment of a national Egyptian database
such as modern development and quarrying. of several hundred sites.
215
QUARRYSCAPES
Marc Waelkens
Katholieke Universiteit Leuven
Departement Archeologie, kunstwetenschap
en musicologie - Afdeling Archeologie
Belgium
Elizabeth Bloxam
University College London
Institute of Archaeology
United Kingdom
Nizar Abu-Jaber
Yarmouk University
Department of Earth and Environmental Sciences,
Faculty of Science
Jordan
Part of an ancient sandstone quarry landscape west of Aswan,
Egypt, comprising huge areas of quarries from different periods Naguib Amin
Supreme Council of Antiquities
Egyptian Antiquities Information System
Egypt
Nina Prochazka
North South Consultants Exchange
Egypt
Lorenzo Lazzarini
Università IUAV di Venezia
Laboratorio di Analisi dei Materiali Antichi -
Dept. of Architectural History
Italy
Coordinator details:
Dr Tom Heldal
Geological Survey of Norway
Natural Stone Team
NO-7491 Trondheim
Norway
E-mail: tom.heldal@ngu.no
Tel: +47 73904000
216
RUBIA
Circum-Mediterranean ethnobotanical and ethnographic
heritage in traditional technologies, tools, and uses of
wild and neglected cultivated plants for food, medicine,
textiles, dyeing and handicrafts
http://www.rubiaproject.net
217
RUBIA
LARES, Quadrimestrale di studi demo-etno-antropologici, ISSN: Pardo de Santayana, M., Pieroni, A., Puri, R. (editors) The dynam-
0023-8503, 70, 1, 2004. ics of bio-cultural diversity in the New Europe: people, health and
aa Pieroni, A., Giusti, M.E., de Pasquale, C., Lenzarini, C., Censorii, wild plant resources, Berghahn, Oxford, UK, in press.
E., Gonzáles-Tejero M.R. et al., “Circum-Mediterranean cultural
heritage and medicinal plant uses in traditional animal healthcare: Further articles and book chapters for international peer-reviewed
a field survey in eight selected areas within the RUBIA project”, journals/books have been submitted or are in preparation.
Journal of Ethnobiology and Ethnomedicine 2, 2006, 16 (online
journal, no page numbers)
aa Pieroni, A., “People and mountains in Kelmend”, documentation Contract number: ICA3-2002-10023
of a field study on traditional knowledge in the northern Albanian Start date – End date: 01/01/03 – 31/12/05
Alps, Wageningen University, The Netherlands, 2007. Contract type: STREP
Duration (in months): 36
aa Hadjichambis, A., Paraskeva-Hadjichambi, D, Della, A., Giusti,
M.E., De Pasquale, C., Lenzarini, C., Censorii, E., Gonzales- Coordinator details:
Tejero, M., Sanchez-Roja, C., Ramiro-Gutierrez, J., Skoula, Dr Andrea Pieroni
M., Johnson, C., Sarpaki, A., Hmamouchi M., El-Johri, S., Department of Social Sciences
El-Demerdash, M, El-Zayat, M., Pieroni, A., “Wild and semi- Wageningen University and Research Centres
domesticated food plants consumption in seven circum-Med- Postbus 8060
iterranean areas”, International Journal of Food Sciences and NL-6700 DA Wageningen
Nutrition, accepted, in press. The Netherlands
aa Pieroni A., “People and plants in Lëpushë. Traditional medicine, E-mail: a.pieroni@netcologne.de
local foods, and post-communism in a north Albanian village”, in
218
SHADUF
Traditional water techniques: cultural heritage for a
sustainable future
http://www.shaduf-eu.org
Case studies from different countries highlight the range of water In Palestine, traditional water harvesting techniques were classified,
harvesting systems in the Mediterranean region: as well as the Selwan (Gihon) Spring in Jerusalem and its ancient
aa drainage, tanks, terracing systems in selected area in Italy water systems
aa Shaduf and Seguia irrigation in Saoura and Gourara (Sahara
219
SHADUF
4. Policy impact
The policy brief provides recommendations on traditional water sys-
tems for a better future, addressing policy issues and technical issues.
Coordinator details:
Dr Maria Luisa Vitobello
EJTN GEIE, European Jewellery Technology Network
Rue du Commerce 124, BE-1000 Brussels, Belgium
Operative Headquarters :
via Roberto Cozzi 53, IT-20125 Milan, Italy
E-mail: ejtn@ieni.cnr.it
Tel: +39 02 66173 359/296
Pietro Laureano
IPOGEA Use of a Shaduf for lifting water from a well in Talmine,
Italy Algeria: Photo by SUD TIMMI
Abdelkarim Benhassan
SUDTIMMI Sarl
Algeria
Abdelkrim Benammar
USTO (Université des Sciences et de la Technologie d’Oran),
Département d’Architecture
Algeria
Samir El Jaafari
UMI (Université Moulay Ismaïl)
Morocco
Aysar Akrawi
PNT (Petra National Trust)
Jordan
220
TEXMED
New materials and eco-sustainable technologies for
the conservation and restoration of textiles
http://www.sud-lab.com/src/KA4tools_details.asp?id=368
1. Problems to be solved periods and to different geographical areas, was created. Information
on each artefact was collected and summarised giving the different
There is an urgent need, jointly acknowledged by EU Member States and complementary ways that the conservation of a textile may be
and Mediterranean Partner Countries (MPCs), to preserve the cultural approached and the history of the artefact interpreted. The prototype
heritage consisting of natural fibrous polymers such as textiles, books, for a website was developed to produce the catalogue in electronic
miniatures, papyri and parchment. form and for the dissemination of the Texmed results.
2. Scientific objectives and approach Researchers from Cairo University (Egypt) and Yarmouk University
(Jordan) were given training in the use of scientific equipment at the
The objectives of this project were to: Institute of Chemistry and Technology of Polymers (Italy) for the appli-
aa achieve new polymeric materials with specific properties for the cation of investigation techniques such as scanning electron micros-
durable and eco-sustainable conservation and restoration of textile copy, optical microscopy, Fourier transformed infrared spectrometry,
artefacts using processes with minimal environmental impact; instron machine and accelerated aging in a climatic chamber.
aa set up investigative methodologies based on non-destructive tech-
niques for identifying the nature, origin, colour, dye and manu- Contract number: ICA3 – CT-1999-00001
facturing of fibres. Such objectives were pursued by integrating Start date – End date: 01/04/00 – 31/03/04
research activities on advanced, different and complementary Contract type: FP5 Cost-shared research
topics simultaneously faced by a multi-disciplinary team. Duration (in months): 48
4. Policy impact
The principal impact of the project was the strengthening of the
scientific and technological cooperation among EU Member States
(Italy and Spain), EU Associate States (Israel) and MPCs (Egypt,
Morocco and Jordan).
221
TEXMED
222
WIND-CHIME
Wide-range non-intrusive devices toward conservation
of historical monuments in the Mediterranean area
http://dipmec.unipv.it/research/chime/
1. Problems to be solved aa El-Borgi, S., Choura, S, Neifar, M., Smaoui, H., Majdoub, M.S.
and Cherif, D., “Seismic Vulnerability Assessment of a Historical
The problem was how to retrofit monumental structural systems Building in Tunisia”.
using non-invasive and reversible innovative techniques. aa Syrmakezis, C.A, Mavrouli, O.A. and Antonopoulos, A.K.,
“Aseismic protection of Historical Structures using Modern
2. Scientific objectives and approach Retrofitting Techniques”.
aa Chrysostomou, C., Stassis, A., Demetriou, T. and Hamdaoui, K.,
The specific objective of this project was the development of a “Application of Shape Memory Alloy Prestressing Devices on an
sustainable and cost-effective retrofit technology, which allowed Ancient Aqueduct”.
the non-intrusive rehabilitation of historical monuments in the aa El-Borgi, S., Neifar, M., Ben Jabeur, M., Cherif, D. and Smaoui,
Mediterranean area. H. “Use of Copper Shape Memory Alloys in Retrofitting
Historical Monuments”.
3. Achieved scientific results aa El-Attar, A., Saleh, A. and El-Habbal, I., ”The Use of SMA
Wire Dampers to Enhance the Seismic Performance of Historical
A state-of-the-art update was conducted. Stone Structure: An Experimental Approach”.
aa A metallurgical and thermo mechanical characterisation of dif-
ferent shape memory alloys (mainly the classical Ni-Ti alloy and
a Cu-based alloy), in order to avoid a last-minute inconsistency
between material and application, was pursued.
aa Case studies were identified in the historical areas of the
Mediterranean partners.
aa Several laboratory implementations.
aa A real application on an aqueduct in Cyprus.
4. Policy impact
Homogenisation of estimation and retrofitting techniques for cul-
tural heritage preserved across the Mediterranean basin.
223
WIND-CHIME
224
Chapter 8
8. COST cooperation, Culture 2000 programme,
external relations (Euromed etc.)
225
226
Introduction Beyond EU-supported research projects developed under the succes-
sive Framework programmes, there are also other ways on how the
EU promotes coordination and best practices in cultural heritage.
This concerns in particular EU activities promoted in the context of
education and culture, the regional policy, and the support to external
relations (Europe-aid). As a mere illustration of the diversity of areas
concerned, only a few examples of projects are presented in this
chapter which were supported by the Culture 2000 (2000–06) pro-
grammed under DG Education and Culture focusing especially on
the exchange of experiences, exhibition, visualisation and dissemina-
tion of results: e.g. MOSS to monitor, safeguard and visualise under-
water shipwreck sites, PCL to promote and sustain the management
of cultural landscapes, WOODEN HANDWORK & CARPENTRY
to contribute, among others, to the diffusion of technical knowledge
in the field of woodworking techniques.
227
COST A27
Landmarks, understanding pre-industrial structures in
rural and mining landscapes
http://www.soc.staffs.ac.uk/jdw1/costa27home.html
228
COST A27
5. Dissemination and exploitation 20 countries have signed the Memorandum of Understanding for
the action: Austria, Belgium, Cyprus, Denmark, Estonia, France,
of the results
Germany, Greece, Iceland, Ireland, Italy, Malta, the Netherlands,
Publications: Portugal, Romania, Slovakia, Slovenia, Spain, Switzerland and
aa Behrends, O., Clavel-Lévêque, M. and Peyras, J. (eds.), “ the United Kingdom.
Les controverses sur les terres ”, Agennius Urbicus, Naples Some 70 research teams from scientific institutions with about
(Consorzio Interuniversitario Gérard Boulvert), forthcoming. 300 researchers (both senior and junior) are involved.
aa Ruiz del Árbol, M. and Orejas, A. (eds.), “Cultural landscapes
in European research: projects and networks ”, Madrid (CSIC),
2005.
Action number: COST A27
Planned publications: Start date – End date: 24/06/04 – 23/06/08
Contract type: COST network (Memorandum of Understanding)
aa Presentation of case studies on rural and mining zones. The final
Duration (in months): 48
aim is to prepare a global and high-level publication on rural and
mining landscapes, showing the complete chain from the research Coordinator details:
to the exploitation of landscapes as cultural heritage, 2007–08. Dr Almudena Orejas,
aa “Managing and Protecting Landscape in Europe – a summary Department of Ancient History and Archaeology. Institute of
by COST A27 ”, coordination: Graham Fairclough and Per Grau History. CSIC
Moller, 2007. C/ Duque de Medinaceli, 6, ES-28014 Madrid, Spain
aa Publication of a guide of European cultural landscapes, coordi- E-mail: aorejas@ih.csic.es
nation: Christoph Bartels, Laure Lévêque and María Ruiz del Tel: +34 91 429 0626
Árbol, timetable, 2007.
The Roman gold mine of Las Médulas (León, Spain). An exam- Illustration of the technical Roman Treaty ‘De Agrorum Qualitate’
ple of an ancient mining landscape. The various types of land by Frontinus. The rationalisation of management and the exploita-
used left visible traces on the ground. This sometimes involves tion of the land have directed the writing of several technical trea-
well-preserved networks used during a broad period; these cir- ties over time. The action proposes deepening in a sample of spe-
cumstances facilitated the fossilisation of certain elements. cialised texts for land surveying, the metal and stone extraction.
Dalene Skov (Northern Funen, Denmark). An example of a well preserved field system of ridge and furrow. The pre-industrial exploi-
tation of landscapes was possible due to the use of specific technologies. The action is particularly concerned with the disappeared
techniques that can only be detected from the traces left during the working process and from very rare written documents.
229
COST Action C17
Built heritage: fire loss to historical buildings
http://www.heritagefire.org
4. Policy impact
Working group activities will affect policy areas that include:
Data, loss statistics and evaluating risks (WG 1)
aa data and fabric analysis
aa qualitative risk analysis
Available and developing technology (WG 2)
aa available technology (fabric and materials)
In an uncontrolled emergency situation the intensity of a fire
aa state-of-the-art solutions can reach a temperature of over 1000º Celsius in only 3 minutes.
Cultural and financial value (WG 3) This poses a major threat to life, building and contents alike. Yet,
aa financial data and risk much complacency exists in the minds of heritage building own-
aa loss recovery ers when asked the challenging question “What do you want left
Property management strategies (WG 4) after the fire?” The intention of COST Action C17 is to address
aa support for property managers the significant physical and cultural loss of Europe’s built herit-
aa staff training. age to the damaging effects of fire in a pragmatic manner. The
aim is to provide building owners and other interested parties
with relevant guidance and meaningful advice
230
COST Action C17
231
COST Action G7
Artworks conservation by laser
http://alpha1.infim.ro/cost/
4. Policy impact
Laser techniques, including cleaning systems, are nowadays well
accepted by the conservation community in European countries.
The innovation is having useful consequences in the conservation
policy. The delicate phase of cleaning can preserve historical lay- Laser cleaning of stone by professional restorers: a panel of the S.
ers with high precision, due to the removal selectivity, micron by Maria del Fiore Cathedral in Florence is being cleaned after prelimi-
micron. The restoration is less invasive and ordinary maintenance nary tests have determined the appropriate laser parameters
is planned. A novel policy was brought in for historical buildings,
232
COST Action G7
Laser cleaning of gilded bronze is today a well-established tech- Laser cleaning where pigments are present is still an open issue:
nique: the first demonstration has been the cleaning of the renais- here laser cleaning of deteriorated frescoes was demonstrated at
sance masterpiece by Lorenzo Ghiberti "Gates of Paradise" the S. Maria della Scala in Siena using a photo-thermal effect
called laser spallation
233
COST Action G7
234
COST Action G8
Non-destructive analysis and testing of museum objects
http://srs.dl.ac.uk/arch/cost-g8/
235
COST Action G8
ultrasonic probes, gamma-ray transmission, video-thermogra- The first results in different domains positively point to a new
phy, photothermal deflection spectroscopy, chemiluminescence, approach into the interpretation of the cultural heritage that the
thealasermetry. More interestingly, some of these techniques are Essenes left behind and emphasise our united input to preserve it
now portable, and the damage can be assessed and monitored in for coming generations.
situ. Another aspect of this working group has been focused how
new early warning systems (dosimeters, sensors, etc.) developed
to monitor the damage of artefacts can be used to further explain
analytical data obtained from non-destructive investigations.
236
COST Action G8
237
MOSS
Monitoring, safeguarding and visualising North European
shipwreck sites: common European underwater cultural
heritage – challenges for cultural resource management
http://www.nba.fi/INTERNAT/MoSS/
1. Problems to be solved theme included methods to produce information, and to handle and
transform this information into different visual materials.
The MoSS project aimed to improve our knowledge concerning
three scientific themes: monitoring, safeguarding and visualising 4. Policy impact
shipwreck sites. Generally the project aimed to develop good prac-
tices for professionals to protect underwater cultural heritage and to The monitoring theme produced good policy practices to design and
make people aware of the importance of our common underwater monitor protocols, and to monitor shipwreck sites. In addition, recom-
cultural heritage. The three scientific themes were researched at four mendations to work with data-loggers, including the improved use
significant European shipwrecks sites in the Netherlands, Germany, of data-loggers, were introduced. In the Netherlands, Germany and
Sweden and Finland. Finland, environmental monitoring of the underwater cultural heritage
is now a more integrated part of the general in-situ protection policy
2. Scientific objectives and approach when possible. The safeguarding theme has affected policy level in
all MoSS project partner countries and, since the end of the project,
The aim of the monitoring theme was to collect environmental infor- management plans have, for example in Finland, been written for other
mation, to assess and better understand how wreck site formation, underwater sites as well. The visualising theme has increased knowl-
preservation and degradation are influenced by environmental vari- edge for producing the visual material in an efficient way.
ables and to help develop more efficient in-situ preservation strate-
gies. The safeguarding theme aimed to identify the best practices and
choices for the management of underwater cultural heritage and to 5. Dissemination and exploitation
produce good standards. The visualising theme investigated differ-
of the results
ent visualising methods and developed more efficient ways to show
the unseen underwater cultural heritage to both the researchers and aa MoSS project newsletters 2002:I-2004:III (the eight editions are
the general public. The MoSS project combined the three scientific all available on the website)
themes to achieve the best results for each theme. aa The final report of the MoSS Project (available on the website)
aa “What is MoSS” – folders
3. Achieved scientific results aa “What is MoSS” – posters
aa “Wreck” – a booklet by Charles Barker (a publication for children
The monitoring theme produced written monitoring protocols and young people)
designed individually for each site and collected environmental aa MoSS website
information like currents, salinity, oxygen, redox-potential, pH, tem- aa Three MoSS seminars between 2002 and 2004
perature, conductibility and turbidity with the use of data-loggers. aa Four management plans
In addition, different wooden and textile samples were placed at the
sites for certain periods to understand the biological processes at the
sites. Finally, the results were analysed and interpreted to discover Contract number: 2001-2909
which environmental variables damage the MoSS wreck sites, what Start date – End date: 01/07/01 – 30/06/04
kind of processes are going on at the sites and how to protect the sites Contract type: Culture 2000
in a more efficient way. Duration (in months): 36
Coordinator details:
The safeguarding theme produced four management plans for the
Dr Sallamaria Tikkanen (01/07/01 – 31/07/03); Dr Riikka Alvik
four MoSS shipwreck sites. Also a general guideline called the (01/08/03 – 30/06/04)
MoSS Master Management Plan was introduced to be used as good The National Board of Antiquities, Maritime Archaeology Unit,
standardised practice and protocol for the management of historical Hylkysaari, FI-00570 Helsinki, Finland
wreck sites. Two of the MoSS shipwrecks were covered with nets to E-mail: sallamaria.tikkanen@nba.fi; riikka.alvik@nba.fi
protect them. Tel: +358 9 40501
238
MOSS
Charles Barker
Mary Rose Archaeological Services
United Kingdom
Friedrich Lüth
The Archaeological State Museum
Department for Management of Archaeological Monuments
and Sites of Mecklenburg-Vorpommern
Germany
Martijn R. Manders
The Netherlands Institute for Ship and Underwater Archaeology
The Netherlands
239
PCL
Pathways to cultural landscapes
http://www.pcl-eu.de
240
PCL
241
Wooden handiwork/wooden carpentry
http://www.culture2000-wood.org
1. Problems to be solved ences and two videoconferences were organised. A website and
three books have been realised collecting all the experiences of
The increased awareness towards restoration and conservation on the project.
architectural heritage as a whole, and in terms of historical construc-
tion techniques, has given rise to a renewed interest in the study 4. Policy impact
of wooden structures, both on new constructions and on existing
building restoration issues in Europe. With specific reference to aa Environmental aspects were essential in dealing with wooden
the restoration of existing buildings, it must be stressed that the architectures – the development of a special programme which
variegated articulation typology in various geographical areas across foresees the environment as a resource (wood), and the building
Europe, and the specific nature of wood as a material (biological), in the environment (wood).
making defining homogenous principles for preserving and respect- aa Enhancement of European sites with cultural value.
ing local building cultures difficult. The specific standards of the aa Involvement of SMEs.
different European countries need to be harmonised to obtain the
appropriate approach to the material and the decay process of the 5. Dissemination and exploitation
wooden artefacts, with criteria for their restoration, conservation
of the results
and maintenance.
Publications on the experiences of the project:
2. Scientific objectives and approach aa Bertolini Cestari, C. (ed.) “Wooden handwork/wooden carpentry:
European restoration Sites”, proceedings of Culture 2000 project,
The approach of the project was multi-disciplinary, involving Italian action, Elsevier, Paris, 2001.
National Boards of Antiquities, architects, engineers, technical aa Bertolini Cestari, C., Amorim Faria, J. and Soikkeli, A. (ed.)
assistants and SMEs, carpenters, universities and students involved “European timber buildings as an expression of technological and
in the protection of cultural heritage. The general objectives of the technical cultures”, proceedings of Culture 2000 project, Finnish
project were targeted at the conservation and preservation of the and Portuguese actions, Elsevier, Paris, 2002.
cultural heritage and the practice of working with wood. Concerning aa Bertolini Cestari, C., Marzi, T., Seip, E. and Touliatos, P. (ed.)
innovation aspects, wooden prototypes were realised to demonstrate “Interaction between science, technology and architecture in tim-
the theoretical approach to the theme and particular aspects of inno- ber constructions”, proceedings of Culture 2000 project, Greek,
vative technologies were analysed through conferences. The other Norwegian, Italian actions, Elsevier, Paris, 2005. Realisation of
objectives were to: CD-ROM, videos, website.
aa enhance cultural differences and the interaction among scientists, aa Preparation of an international post-graduate master programme:
technicians and craftsmen “Wood-based building design for sustainable urban develop-
aa implement workshops on different European sites devoted to the ment’, with Politecnico di Torino, Technical University of Vienna
specific training of young professionals through exchanges with and Technical University of Dresden (due to start in 2006).
qualified scientists, technicians and specialised carpenters, both
on a theoretical and practical level
aa realise one prototype complying with traditional architecture and Contract number: 2000-1174
woodworking techniques. Start date – End date: 01/10/00 – 30/09/03
Contract type: Culture 2000, Action 2
3. Achieved scientific results Duration (in months): 36
The project has realised its aims through the definition of a Coordinator details:
‘European laboratory of cultural heritage wooden buildings’, Prof. Clara Bertolini Cestari
Dipartimento di Progettazione architettonica e di Disegno
which contributed to the development and diffusion of technical
Industriale, Facoltà di Architettura II, Politecnico di Torino
knowledge and practice, such as preservation principles, diag-
Viale Mattioli 39, IT-10125 Torino, Italy
nostic techniques and intervention techniques, linking tradition E-mail: clara.bertolini@polito.it
and innovation techniques in this sector at a European level. Tel: +39 011 5646507 Fax: +39 0115646599
The main idea was to use existing restoration sites in Europe for
the organisation of visits and work camps, using those sites at the
same time as restoration laboratories, classrooms and forums of
exchange of international approaches, methods and techniques.
One prototype was realised, complying with traditional architec-
ture and woodworking techniques. Seven international confer-
242
Wooden handiwork/wooden carpentry
Gotland University College Zoppoli & Pulcher, construction and restoration firm,
Sweden Turin, Italy
243
244
Index by acronyms
245
246
ACKNOWLEDGEMENTS
Firstly, we would like to thank the officials of DG Research, in particular the Environment Directorate and its Unit I 3 dealing with
cultural heritage, who authorised this publication, as well as colleagues of the Coordination Unit I.1 and Administrative Unit I.6 for their
continuous support. Our gratitude goes also to colleagues of Unit I.3 who directly contributed to the preparation of this publication in
particular Adele Lydon and Astrid Brandt-Grau and Assistants Gaelle Famelaer and Liesbeth Chevalier.
Thanks also go to colleagues of other Commission Departments involved or linked to the activity of cultural heritage, in particular from the
Directorate for International cooperation of DG Research, Unit D.3, and the Directorate General for Education and Culture, Unit C.1.
Finally we wish to acknowledge the valuable input provided by the Coordinators of all FP5 and FP6 projects mentioned in this second
volume of publication and thank them for their esteemed cooperation.
EUR 22050 — Preserving our heritage, Improving our environment, Volume II - Cultural heritage research: FP5, FP6
and related projects
ISBN 978-92-79-09029-5
doi 10.2777/22797
Price (excluding VAT) in Luxembourg: This is a bounding publication, the total price is 25 EUR.
248
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KI-NB-22050-EN-C
Preserving our heritage, Improving our environment
The first volume of this publication highlights nearly 20 years of European Commission-supported research
in the field of ‘tangible’ or physical cultural heritage. This cooperation has helped reinforce Europe’s
research and technological foundations for protecting and renovating our movable and immovable cultural
heritage through new scientific methodologies, tools, materials and processes. In particular Volume 1
provides the reader with an overview of the EU’s commitment to research in cultural heritage, the differ-
ent forms of scientific and research cooperation and how they have developed over the years. The impact
of such cooperative efforts also includes their economic contribution to the Lisbon Strategy and affects
a wide range of related EU policies embracing the environment, tourism, the construction sector, regional
policy, culture, etc.
From its beginning in 1986, EC research in cultural heritage has been mainly supported or managed within
the framework of the Commission’s environmental research policy. Since then, about 120 projects have been
supported involving more than 500 stakeholder organisations from all European countries.
This second volume provides readers with an overview of nearly 100 cooperative projects in cultural herit-
age since 2000 in eight different ‘clusters’. These include the outcome of completed projects under FP5 and
FP6. All projects are grouped according to their discipline or most related programme. They also include
some projects that illustrate the close objectives and links between European research programmes and
operational programmes in cultural heritage.
Together, the two volumes offer a useful reference for all cultural heritage stakeholders: scientists, her-
itage managers, conservators and curators, architects, SMEs, and the ultimate beneficiaries of culture:
Europe’s citizens.
As the EU is now implementing the Seventh Framework Programme on Research, this publication should
boost awareness of the key results that span the full gamut of cultural research disciplines. It offers a
basis for future projects, policy orientations and decisions to further develop Europe’s world leadership in
this field.