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45 pages, 15746 KiB  
Article
Building Resilience through Territorial Planning: Water Management Infrastructure and Settlement Design in the Coastal Wetlands of Northern Apulia (Salpia vetus-Salapia) from the Hellenistic Period to Late Antiquity
by Roberto Goffredo and Darian Marie Totten
Land 2024, 13(10), 1550; https://doi.org/10.3390/land13101550 - 24 Sep 2024
Viewed by 841
Abstract
This Gulf of Manfredonia has, for millennia, been the primary water feature of the coastal wetland of Northern Apulia, Italy, although modern reclamation works make writing its long-term history challenging. Our recent paleoenvironmental research has reconstructed the evolution of the southern half of [...] Read more.
This Gulf of Manfredonia has, for millennia, been the primary water feature of the coastal wetland of Northern Apulia, Italy, although modern reclamation works make writing its long-term history challenging. Our recent paleoenvironmental research has reconstructed the evolution of the southern half of this lagoon since the Neolithic period. Here, we write a history of water management and environmental change in this landscape from the perspective of two key urban sites: pre-Roman Salpia vetus and Roman Salapia. The Roman architectural historian Vitruvius recounts the abandonment of Salpia vetus and the refoundation of Salapia. We employ his narrative as a frame for a more complex environmental history, starting from a historiography of this landscape’s study and a summary of our interdisciplinary research agenda, which unifies environmental, topographical, remote sensing, and archaeological approaches. Resilience in this changeable wetland environment was only possible through an integrated and intentional management of water among rivers, the lagoon, and the Adriatic Sea. While Salpia vetus exploited this wetland and thrived for centuries, the settlement eventually collapsed due to human and environmentally impelled factors. Roman Salapia subsequently emerged with a different approach, new infrastructure, and a new location. This blueprint would sustain urban life in this wetland for six centuries and lay the groundwork for the Medieval town. Full article
(This article belongs to the Special Issue Resilience in Historical Landscapes)
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<p>Coastal Daunia (Northern Apulia): Location of the Daunian and Roman settlements mentioned in the text (elab. by R. Goffredo).</p>
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<p>Geological and geomorphological map of the study area (from Susini et al., 2023 [<a href="#B13-land-13-01550" class="html-bibr">13</a>]). Legend: (1) main towns; (2) archaeological sites; (3) boreholes; (4) water stream (natural/artificial channel); (5) alluvial fan; (6) carbonate Units (Mesozoic); (7) carbonate Units (Pliocene); (8) marine deposit—Middle Pleistocene; (9) alluvial deposit—Middle Pleistocene; (10) infralittoral deposit—Middle Pleistocene; (11) alluvial deposit—Middle/Upper Pleistocene; (12) alluvial deposit—Upper Pleistocene; (13) alluvial plain—Upper Pleistocene/Holocene; (14) beach deposit—Holocene; (15) reclamation deposit—Recent time; (16) artificial reservoir—Recent time (for interpretation of the references to color in this figure legend, the reader is referred to the web version of this article, as for all figures henceforth).</p>
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<p>Excerpt from the Aragonese Map of the Province of Bari and part of Basilicata, copied by Ferdinando Galiani (1767). Paris, National Library of France, Maps and Plans, Ge AA 1305/3.</p>
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<p>IGM aerial photographic coverage of the northern Apulia coast (elab. by R. Goffredo).</p>
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<p>The site of <span class="html-italic">Salpia vetus</span> and the wetland area of Marana di Lupara (on the left: 1955 aerial photograph; on the right: topographic map by IGM).</p>
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<p>The three <span class="html-italic">Peninsulas</span> of <span class="html-italic">Salpia vetus</span> and the lagoon in the reconstruction proposed by Fernanda Tiné Bertocchi [<a href="#B21-land-13-01550" class="html-bibr">21</a>]. Aggere = embarkment; Salapia preromana = pre-roman Salapia; Montagna di Salpi = Salpi Mountain; Salapia romana = Roman Salapia; saline = saltworks; mare = sea; residui della palude = remnants of the swamp; palude interrata in antico = swamp buried in ancient times; canale artificiale = artificial canal; grande penisola (scavi 1967) = large peninsula (excavations 1967); penisola (scavi 1968) = peninsula (excavations 1968); penisola con resti di abitato (scavi 1978-79) = peninsula with ruins (excavations 1978-79).</p>
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<p>The site of Roman <span class="html-italic">Salapia</span> and medieval <span class="html-italic">Salpi</span> in a historical aerial photograph by IGM (1954–1955). In the upper left corner, the interpretation of aerial photographic anomalies by G. Schmiedt [<a href="#B19-land-13-01550" class="html-bibr">19</a>]. A: Monte di Salpi, site of medieval <span class="html-italic">Salpi</span>, which Schmiedt believed to be the acropolis of the Roman city; B: urban perimeter during the Roman period, which subsequent research has shown to be much smaller; C-F-G-H-I-L: traces of Neolithic villages; D: traces of Roman farms.</p>
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<p>Map of the 10 drilled boreholes, in the area between the sites of <span class="html-italic">Salpia vetus</span>, <span class="html-italic">Salapia</span>, and <span class="html-italic">Salpi</span> (from Susini et al., 2023 [<a href="#B13-land-13-01550" class="html-bibr">13</a>]).</p>
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<p>Georeferenced survey in a GIS environment of all the archaeological sites already known before the start of our research in the <span class="html-italic">Salpia vetus</span>-<span class="html-italic">Salapia</span> area (elab. by R. Goffredo).</p>
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<p>Georeferenced mapping of anomalies detected through aerial photo interpretation. In the upper left: detail of an analyzed sector (within the black square), where the complex stratigraphy of traces related to ancient road networks and agricultural plots is clearly visible (elab. by R. Goffredo).</p>
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<p>Map of the territory between the settlements of <span class="html-italic">Salpia vetus</span>-<span class="html-italic">Salapia</span>-<span class="html-italic">Salpi</span> and the present-day salt pans of Margherita di Savoia, indicating the area subjected to systematic field survey (in gray) and the routes of the modern <span class="html-italic">tratturi</span> (drove-roads) crossing the study area.</p>
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<p>Evolutionary model of the Salpi lagoon during the Holocene (from Susini et al., 2023 [<a href="#B13-land-13-01550" class="html-bibr">13</a>]). (<b>a</b>) Late Northgrippian (4.250–2.250 ca BCE); (<b>b</b>) Early Meghalayan (2.250–550 ca BCE); (<b>c</b>) Late Meghalayan (550 BCE—Present). Legend: (1) archaeological sites; (2) water streams; (3) alluvial fan; (4) carbonate Units—Mesozoic; (5) carbonate Units—Pliocene; (6) marine deposit—Middle Pleistocene; (7) alluvial deposit—Middle Pleistocene; (8) infralittoral deposit—Middle Pleistocene; (9) alluvial deposit—Middle/Upper Pleistocene; (10) alluvial deposit—Upper Pleistocene; (11) alluvial deposit—Upper Pleistocene/Holocene; (12) swamps deposit—Holocene; (13) Dune belts—Holocene; (14) Lagoon—Holocene.</p>
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<p>The <span class="html-italic">Lago Giardino</span> on the map <span class="html-italic">Capitanata. Olim Melapia, et Japigia pars</span> by Giovanni Antonio Magini (16th century).</p>
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<p>Reconstructive hypothesis of the coastal strip between <span class="html-italic">Sipontum</span> and <span class="html-italic">Salpa-Salapia</span> according to C. Delano Smith [<a href="#B34-land-13-01550" class="html-bibr">34</a>].</p>
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<p>Comparison between pollen and micropaleontological data from the SAM9 core. The ecological groups of pollen, Non-Pollen Palynomorphs (NPPs), and ostracods are aligned with the main paleoenvironmental changes of the Salpi Lagoon and with archaeological data from the Tavoliere plain. Halophytic herbs: Amaranthaceae; Riparian trees: <span class="html-italic">Alnus</span>, <span class="html-italic">Populus</span>, <span class="html-italic">Tamarix</span>; Xeric herbs: Cichorieae; Erosion indicators: <span class="html-italic">Glomus</span>, <span class="html-italic">Pseudoschizaea</span>; Algae: <span class="html-italic">Botryococcus</span>, <span class="html-italic">Pediastrum</span>, Zygnemataceae (from Susini et al., 2023 [<a href="#B13-land-13-01550" class="html-bibr">13</a>]).</p>
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<p>The evolution of the coastal lagoon near <span class="html-italic">Salpa vetus</span> from the 7th–6th centuries BCE (<b>A</b>) to the 4th–2nd centuries BCE (<b>B</b>), indicating the main and secondary road system (elab. by R. Goffredo).</p>
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<p>Core SAM9. Percentage diagram of selected pollen and Non-Pollen Palynomorph (NPP) taxa. Curves are exaggerated by a factor of 5× (from Susini et al., 2023 [<a href="#B13-land-13-01550" class="html-bibr">13</a>]).</p>
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<p>The fortification of the <span class="html-italic">I Peninsula</span> and the probable dam (from Fernanda Tiné Bertocchi [<a href="#B21-land-13-01550" class="html-bibr">21</a>]).</p>
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<p>Detail of a pair of IGM aerial photographs from 1955 to 1954, in which the linear traces moving from <span class="html-italic">Salpia vetus</span> toward the settlement’s hinterland are clearly visible (elab. by R. Goffredo).</p>
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<p>Map of the recognized traces (<b>A</b>) and reconstructive hypothesis (<b>B</b>) (elab. by R. Goffredo).</p>
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<p>Extrapolation of orientations 60–75° east. Cartographic basis: Regional Technical Map. In black, the traces of axes with a linear development and an orientation of 64–71° east visible in aerial photography (courtesy of Valeria Volpe).</p>
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<p>Magnetometry results of the urban plan, city walls, and extra-urban structures. Note the relief gradient of the Roman town and the surrounding area (elab. R. Goffredo).</p>
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<p>Photos of remains of W–E running drain from the early phase of <span class="html-italic">Salapia</span>. (<b>A</b>) in profile, (<b>B</b>) in extent. (G. De Venuto, 2014).</p>
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<p>Cesspool of the 4th c. CE bath complex at <span class="html-italic">Salapia</span>. (<b>A</b>) full feature from above, (<b>B</b>) detail of drainpipe, masonry, and line of bedrock (photo R. Goffredo, 2014).</p>
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<p>Plan of <span class="html-italic">Salapia</span>, with position of the canals revealed by magnetometry investigations, and the positions of the SAM5, 6, and 7 cores (elab. R. Goffredo).</p>
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<p>Drone photographs of the remains of masonry walls at Torre Pietra (R. Ragno).</p>
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<p>Map of the Salpi Lagoon, with the positions of <span class="html-italic">Salapia</span>, the villa of San Vito, and Mattoni (elab. R. Goffredo).</p>
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<p>Amphora finds from the 2013 urban survey of the <span class="html-italic">Salapia</span> site. Note the concentration between the eastern flank of the city walls and the present-day shore (elab. R. Goffredo).</p>
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23 pages, 26611 KiB  
Article
An Evidence-Based Assessment of Biophilic Interior Design in a Traditional Context: The Case of the Kingdom of Saudi Arabia
by Alis Saad Shbaita, Simge Bardak Denerel and Buket Asilsoy
Sustainability 2024, 16(18), 7979; https://doi.org/10.3390/su16187979 - 12 Sep 2024
Viewed by 1584
Abstract
Biophilia is a concept that suggests humans have an innate connection to nature. Biophilic design needs to be addressed under the umbrella of environmentally sustainable design, which is crucial in regard to the current urban development agenda. The Kingdom of Saudi Arabia, as [...] Read more.
Biophilia is a concept that suggests humans have an innate connection to nature. Biophilic design needs to be addressed under the umbrella of environmentally sustainable design, which is crucial in regard to the current urban development agenda. The Kingdom of Saudi Arabia, as a Gulf country possessing valuable traditional architecture with rich local diversity, also needs to implement strategies for the establishment of sustainable development goals. The evaluation of biophilic design in the interior design environment through the values of traditional architecture can be a positive step towards reconnecting the built environment with nature. Within this scope, after a theoretical evaluation of biophilia, biophilic design (BD), and existing BD frameworks, in this study, we used the Biophilic Interior Design Matrix (BID-M) to assess biophilia in traditional Saudi architecture. Three heritage buildings in each of the four regions, amounting to twelve buildings in total, were rated for each of the BID-M matrix’s 54 listed features. According to the findings of a quantitative assessment based on the qualitative evaluation of biophilia in the chosen heritage buildings, these traditional buildings have a remarkably high score regarding biophilia. As such, there is a clear indication of the potential for aligning heritage building values with biophilic interior design features. This new approach, uniquely tailored to the rich and diverse cultural identity of the Kingdom of Saudi Arabia, is crucial for incorporating sustainability into modern construction and has significant implications for the future of architecture in this region. Full article
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<p>Biophilic Interior Design Matrix (BID-M) by [<a href="#B26-sustainability-16-07979" class="html-bibr">26</a>].</p>
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<p>Exterior and interior of Saudi Arabia’s traditional architecture in different regions (developed by the author).</p>
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<p>Wooden doors with various details and levels of richness in different regions of Saudi Arabia (developed by the author).</p>
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<p>Research design flow chart adapted from [<a href="#B26-sustainability-16-07979" class="html-bibr">26</a>] by the corresponding author.</p>
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<p>The BID-M scores of traditional buildings in the central region of the Kingdom of Saudi Arabia.</p>
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<p>The BID-M scores of traditional buildings in the western region of the Kingdom of Saudi Arabia.</p>
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<p>The BID-M scores of traditional buildings in the eastern region of the Kingdom of Saudi Arabia.</p>
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<p>The BID-M scores of traditional buildings in the southern region of the Kingdom of Saudi Arabia.</p>
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<p>The BID-M scores of all traditional buildings for each region in the Kingdom of Saudi Arabia.</p>
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<p>The average BID-M scores of traditional buildings for all regions in the Kingdom of Saudi Arabia.</p>
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16 pages, 2663 KiB  
Article
UN-Sustainable Urbanism: The Challenge of “Lock-In”
by Michael W. Mehaffy
Sustainability 2024, 16(17), 7301; https://doi.org/10.3390/su16177301 - 25 Aug 2024
Viewed by 752
Abstract
The term “sustainable urbanism” has been criticized over its inconsistent and imprecise definition, leading to challenges in implementing actionable reforms and achieving urban sustainability goals. A clearer approach may be to identify its opposite: specifically, forms of urbanism that cause an unacceptable buildup [...] Read more.
The term “sustainable urbanism” has been criticized over its inconsistent and imprecise definition, leading to challenges in implementing actionable reforms and achieving urban sustainability goals. A clearer approach may be to identify its opposite: specifically, forms of urbanism that cause an unacceptable buildup of toxic or climate-altering emissions, deplete resources beyond sustainable levels, progressively destroy critical ecologies, and cause other identifiable sources of potentially catastrophic harm to human and urban welfare. Here, we present a model of such an “unsustainable urbanism”, and we further observe that it is in fact the dominant model of urban structure to this day. Its features include an over-reliance on low-occupancy vehicular transport, at the expense of other modes including walking; inefficient envelope, size, orientation and adaptability of buildings; ecologically destructive infrastructure systems for handling water, energy and other resources; and—under-appreciated but fundamentally important, as we will explore—the decline of a well-connected, walkable, functionally and aesthetically appealing public realm. This model remains dominant in spite of the many goals, agendas and declarations on sustainable urbanism at the highest policy level. We observe that the lack of progress is in large part the result of system “lock-in”—economic and professional incentives and disincentives, standards, laws, codes, and other forms of feedback that reinforce “business as usual” and create barriers to reform. Therefore, the agenda ahead must address the specific levers of change to overcome this systemic lock-in, drawing insights from economics, technology and the social sciences to do so. We present the outlines of this agenda and make conclusions for the necessary steps ahead. Full article
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<p>Google Books’ Ngram Viewer of usage of the term “sustainability” (Google, 2024).</p>
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<p>Google Books’ Ngram Viewer of usage of the term “sustainable urbanism” (Google, 2024).</p>
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<p>A graphical representation of the four-factor model of unsustainable urbanism.</p>
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<p>The power of cognitive and ideological lock-in, established through concerted campaigns of marketing and persuasion: (<b>a</b>) Shell Oil Company advertisement in Life Magazine, 1937, and (<b>b</b>) a contemporary example of the result from Dallas, Texas (public domain).</p>
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<p>Three examples of new compact, walkable, mixed-use communities that draw on the demonstrably successful functional and aesthetic patterns of traditional city and town cores throughout human history: (<b>a</b>) Le Plessis-Robinson, France; (<b>b</b>) Poundbury, UK; and (<b>c</b>) Orenco Station, Oregon USA.</p>
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27 pages, 7043 KiB  
Article
A Decision Support Evaluation Framework for Community-Based Collaborative Urban Regeneration Processes
by Lucia Della Spina
Sustainability 2024, 16(15), 6434; https://doi.org/10.3390/su16156434 - 27 Jul 2024
Viewed by 903
Abstract
The current debate on urban regeneration highlights the significance of social innovation and the reuse of cultural heritage to develop new economic and entrepreneurial models, creating value chains and benefits for communities. International and European directives, such as the European Agenda 2030 and [...] Read more.
The current debate on urban regeneration highlights the significance of social innovation and the reuse of cultural heritage to develop new economic and entrepreneurial models, creating value chains and benefits for communities. International and European directives, such as the European Agenda 2030 and the New European Bauhaus, advocate for inclusive and sustainable urbanization, encouraging participatory and circular urban regeneration processes. This study presents a decision support framework for community-based collaborative urban regeneration processes, focusing on the urban area of Reggio Calabria in Southern Italy. In this region, some cultural assets have been reactivated and made accessible, while others remain inactive, underutilized, or abandoned. The research aims to explore how to effectively enhance cultural heritage and promote urban regeneration through a collaborative network strategy. By employing multicriteria analysis, involving the selection and definition of specific criteria and indicators for each site, a priority map is created to facilitate the implementation of regeneration processes. The application of this approach in the urban center of Reggio Calabria demonstrated its effectiveness in revitalizing unused or abandoned cultural heritage, transforming it into a catalyst for urban vibrancy and vitality. Full article
(This article belongs to the Section Sustainable Urban and Rural Development)
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<p>Map of heritage assets in the urban area of Reggio Calabria.</p>
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<p>Cluster classification of cultural heritage.</p>
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<p>Effect matrix: Cluster A.</p>
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<p>Custer A—ranking alternatives.</p>
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<p>Priority map.</p>
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<p>Scenarios.</p>
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20 pages, 5247 KiB  
Article
Design With, Not For, Local Community: Utilizing e-Participation Tools in the Design of Socially Sustainable Vertical Emirati Public Housing
by Omar Sherzad M. Shareef and Khaled Galal Ahmed
Buildings 2024, 14(7), 2235; https://doi.org/10.3390/buildings14072235 - 20 Jul 2024
Viewed by 919
Abstract
The United Arab Emirates (UAE) is slowly transitioning from traditional single-family public housing to a ‘vertical’ typology to meet the increasing demand on public housing, solve the problem of the scarcity of land in urban areas, and contribute to achieving its local agenda [...] Read more.
The United Arab Emirates (UAE) is slowly transitioning from traditional single-family public housing to a ‘vertical’ typology to meet the increasing demand on public housing, solve the problem of the scarcity of land in urban areas, and contribute to achieving its local agenda for sustainable development goals. However, the direct involvement of Emirati residents in the design process of the recently developed limited number of vertical public housing projects has been missing. This research aims to involve a sample of Emirati residents, representing the targeted category for vertical public housing, in the pre-occupancy evaluation of the design of Al Ghurfa, the very recently developed vertical public housing project, focusing mainly on assessing the attainment of social sustainability in this design. The research method included four phases, including initiating a conceptual framework from relevant literature reviews, digitalizing the case study design, developing the conventional and e-Participation interview scenarios and scripts, and selecting a sample of Emirati young citizens who participated in the study. The results of the study successfully highlighted the participating residents’ preferences and concerns regarding the design of the investigated pioneering vertical public housing project. The findings revealed the interviewed citizens’ perceptions of the investigated social sustainability principles in the vertical housing design pertaining to mixed-use development within and outside the vertical residential building, social integration among neighbors of the building, vertical and horizontal accessibility inside and outside the building, security measures for the residents of the buildings and their privacy, design measures of the high-quality living environments, the user-responsive design of the housing units, and the importance of their involvement in the design. This helped propose a set of recommended design actions for attaining social sustainability in vertical housing design tailored to the specific needs of Emirati residents. The research has also revealed the successful merger between the conventional and advanced e-Participation tools in involving the residents in assessing the professional design of vertical public housing as a new emerging typology that is expected to prevail in the near future. Full article
(This article belongs to the Section Architectural Design, Urban Science, and Real Estate)
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<p>(<b>a</b>) Three-dimensional (3D) perspective view of the Dibba Al-Hosn vertical public housing project; (<b>b</b>) 3D perspective view of the Al Ghurfa high-rise social housing project (source: the authors).</p>
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<p>Conceptual plans and a section for the levels for the 6 typical housing units in the Al Ghurfa Project. The enclosed hidden red color lines define the 3 levels of one unit (source: the authors).</p>
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<p>The research design following a four-steps process and the detailed actions.</p>
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<p>Digitalized design of Al Ghurfa vertical housing project: (<b>a</b>) showing 3D BIM model for the whole building (<b>b</b>) showing a section view for the unit’s entrance level with the upper level, and (<b>c</b>) showing section view of the unit’s entrance level with the lower level (source: the authors).</p>
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<p>VR-ready perspective views for the Al Ghurfa vertical housing project: (<b>a</b>) human eye perspective view: (<b>b</b>) bird’s eye perspective view (source: the authors).</p>
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<p>Examples of the scale 1:1 ‘virtual’ interior spaces for a typical housing unit in the Al Ghurfa vertical housing project: (<b>a</b>) majles room, (<b>b</b>) family living room, and (<b>c</b>) the master bedroom (source: the authors).</p>
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<p>The VR-Metaverse e-Participation interviews; (<b>a</b>) interviewing a staff member, (<b>b</b>) interviewing a female senior student, and (<b>c</b>) interviewing a male senior student (source: the authors).</p>
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23 pages, 5272 KiB  
Article
Balancing Social and Cultural Priorities in the UN 2030 Sustainable Development Goals (SDGs) for UNESCO World Heritage Cities
by Bayan F. El Faouri and Magda Sibley
Sustainability 2024, 16(14), 5833; https://doi.org/10.3390/su16145833 - 9 Jul 2024
Cited by 2 | Viewed by 2214
Abstract
There is a strong relationship between heritage-led urban regeneration and the UN initiatives for Sustainable Development (SD). These include the Intangible Cultural Heritage Convention (ICH; 2003) and Historic Urban Landscape (HUL; 2011) under the UNESCO mandate and the Sustainable Development Goals (SDGs; 2015) [...] Read more.
There is a strong relationship between heritage-led urban regeneration and the UN initiatives for Sustainable Development (SD). These include the Intangible Cultural Heritage Convention (ICH; 2003) and Historic Urban Landscape (HUL; 2011) under the UNESCO mandate and the Sustainable Development Goals (SDGs; 2015) and the New Urban Agenda (NUA; 2016) under the UN mandate. Despite the presence of those initiatives, regeneration in a World Heritage city often leads to the disappearance of intangible heritage, gentrification, excessive tourism, and social exclusion. Therefore, this paper critically identifies the shortcomings of those initiatives in addressing social and cultural sustainability. It uses the recently inscribed city of As-Salt on the WHL to showcase how the relevant SDGs’ targets and indicators are problematic in monitoring and measuring the sustainability of urban regeneration practices in WH cities. This is achieved by investigating where heritage and culture are embedded within the descriptions of goals and indicators in the three initiatives (SDGs, NUA, and HUL) document. A content analysis, using the NVivo qualitative data analysis tool, was conducted in order to identify complementarity, synergies, and correlations among the goals and indicators related to social and cultural sustainability. This paper concludes by suggesting an integrated approach under the umbrella of the SDGs for a more sustainable heritage-led urban regeneration alternative for cities acquiring UNESCO WH status. Full article
(This article belongs to the Special Issue Cultural Heritage Conservation and Sustainable Development)
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<p>The corpus of the UN (United Nations) initiatives for sustainable development Source: creation of the first author.</p>
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<p>Oqbe bin Nafe’s project Phase 1 is highlighted in green on an aerial photo taken in 2014, Phase 2 is highlighted in red, and Phase 3 is highlighted in yellow Source: creation of the first author.</p>
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<p>(<b>a</b>) Oqbe bin Nafe Project in As-Salt City Center highlighted by the author on an aerial photo that was taken in 2007; demolished buildings are highlighted in red. (<b>b</b>) The new project design [<a href="#B36-sustainability-16-05833" class="html-bibr">36</a>].</p>
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<p>The timeline for implementing the Oqbe bin Nafe project’s Phase 2. Source: creation of the first author.</p>
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<p>An integrated approach toward Sustainable Development from the three initiatives (SDGs, HUL, and NUA) Source: creation of the first author.</p>
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<p>Analyzing the secondary data from the three initiatives’ contents using NVivo. The figure shows how the data relevant to Target 8.1 were categorized as definitions and indicators, Source: creation of the first author.</p>
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<p>Studying correlations and word-frequency analysis that was performed in those two categories: (<b>a</b>) a figure that shows a correlation of the terms used in the initiatives; and (<b>b</b>) word-frequency analysis using NVivo.</p>
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24 pages, 3504 KiB  
Article
Defining Sustainable Placemaking in Spatial Planning: Lessons from a South African Case Study
by Wessel Strydom, Karen Puren and Ernst Drewes
Sustainability 2024, 16(13), 5378; https://doi.org/10.3390/su16135378 - 25 Jun 2024
Viewed by 1264
Abstract
This study explores the concept of sustainable placemaking from a spatial planning perspective, focusing on Marabastad, a township in South Africa. Drawing on the New Urban Agenda and Sustainable Development Goals, this research seeks to understand how placemaking can contribute to the creation [...] Read more.
This study explores the concept of sustainable placemaking from a spatial planning perspective, focusing on Marabastad, a township in South Africa. Drawing on the New Urban Agenda and Sustainable Development Goals, this research seeks to understand how placemaking can contribute to the creation of liveable, resilient, and sustainable human settlements. Through a review of the placemaking literature and a case study, this study examines the evolution of placemaking towards sustainability and its application in diverse cultural, geographic, and socio-economic contexts. The findings reveal the importance of creating and enhancing places that are environmentally responsible, socially inclusive, economically viable, and culturally meaningful. The Marabastad case study illustrates the challenges and possibilities of sustainable placemaking in a multicultural and urbanising community. Economic interventions (e.g., tourism promotion and community markets), social interventions (e.g., education and community events), and environmental interventions (e.g., infrastructure upgrades and preservation of cultural sites) are proposed to address the complex challenges faced by Marabastad. This study emphasises the role of spatial planners in advancing theories and practises of sustainable placemaking, highlighting the need for context-specific approaches to promote inclusive and resilient urban environments. Full article
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<p>Locality map of Marabastad, Kroonstad (South Africa) (adapted from Google Earth).</p>
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<p>Dimensions of strong sustainable placemaking (source: authors’ own construction).</p>
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<p>Research methodology (source: authors’ own construction).</p>
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<p>Research context and surrounding neighbourhoods (Adapted from Google Earth).</p>
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<p>Zoning map of Marabastad (adapted from Figure No. 14B [<a href="#B118-sustainability-16-05378" class="html-bibr">118</a>]).</p>
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<p>Challenges in the built (<b>left</b>) and natural (<b>right</b>) environment of Marabastad (source: photographs by observations fieldworkers).</p>
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<p>Sustainable placemaking in Marabastad.</p>
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20 pages, 6557 KiB  
Article
Sustainability Assessment of Urban Public Transport for SDG Using Geospatial Big Data
by Qinghua Zhang, Chuansheng Liu, Linlin Lu, Jangling Hu and Yu Chen
Sustainability 2024, 16(11), 4542; https://doi.org/10.3390/su16114542 - 27 May 2024
Viewed by 1281
Abstract
Rapid urbanization has resulted in various challenges, including a decline in environmental quality, traffic congestion, housing tensions, and employment difficulties. To address these issues, the United Nations introduced the “2030 Agenda for Sustainable Development”. One of the specific targets, 11.2.1, aims to tackle [...] Read more.
Rapid urbanization has resulted in various challenges, including a decline in environmental quality, traffic congestion, housing tensions, and employment difficulties. To address these issues, the United Nations introduced the “2030 Agenda for Sustainable Development”. One of the specific targets, 11.2.1, aims to tackle transportation problems. This study focuses on Guilin City, which is designated as an innovation demonstration zone for the national sustainable development agenda. The research conducted in this study examines the state of public transportation in six urban areas of Guilin City from 2015 to 2021, utilizing the United Nations Sustainable Development Goals (SDGs) indicator system, evaluation method, geospatial analysis, and entropy value method. The findings reveal that the coverage area of public transportation in the six urban areas of Guilin City expanded from 147.98 km2 in 2015 to 259.18 km2 in 2021. The percentage of the population with access to public transportation increased from 69.06% in 2015 to 71.63% in 2018 and further to 75.60% in 2021. While the accessibility of public transportation in the other four districts exceeds 90%, Lingui District and Yanshan District have lower accessibility, but it is gradually improving. The center of gravity for public transportation is also shifting towards the southwest, with Lingui District and Yanshan District experiencing gradual development. The evaluation score for sustainable development increased from 64.30 to 74.48, indicating a transition from a low sustainable development level to medium sustainable development level. Significant progress has been made in the indicators of the share of new energy buses, the rate of bus sharing, the coverage rate of bus stops, and the number of public transportation vehicles per 10,000 people. However, the indicators for the average distance between bus stops, the average speed of public transportation, and the density of public transportation routes are growing at a slower pace. The development of urban public transportation continues to improve, and the overall trend is positive. The sustainable development evaluation framework and positioning method proposed in this study serve as a reference for the sustainable development of Guilin City. Additionally, it provides insights for evaluating the sustainable development goals of public transportation in tourist cities like Guilin in China and worldwide. Full article
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<p>Overview of the study area.</p>
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<p>Workflow for SDG indicator assessment in this study.</p>
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<p>Nuclear density of spatial distribution of residential areas in Guilin from 2015 to 2021.</p>
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<p>Spatial distribution nuclear density of bus stops in Guilin from 2015 to 2021.</p>
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<p>The Center of Gravity and Standard Deviation Ellipse Distribution of Bus Stops in Guilin City from 2015 to 2021.</p>
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<p>Spatial distribution of service areas (500 m) of bus stops in the six districts of Guilin from 2015 to 2021.</p>
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<p>Spatial distribution of SDG11.2.1 in the six districts of Guilin from 2015 to 2021.</p>
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<p>The proportion of the population with convenient access to public transport stations in the six districts of Guilin from 2015 to 2021.</p>
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39 pages, 1162 KiB  
Article
Creativity and Innovation in Civic Spaces Supported by Cognitive Flexibility When Learning with AI Chatbots in Smart Cities
by Sarah A. Chauncey and H. Patricia McKenna
Urban Sci. 2024, 8(1), 16; https://doi.org/10.3390/urbansci8010016 - 16 Feb 2024
Cited by 3 | Viewed by 2859
Abstract
The purpose of this study is to advance conceptual understandings of the cognitive flexibility construct, in support of creativity and innovation in smart city civic spaces, employing the use of large language model artificial intelligence chatbots such as ChatGPT. Based on a review [...] Read more.
The purpose of this study is to advance conceptual understandings of the cognitive flexibility construct, in support of creativity and innovation in smart city civic spaces, employing the use of large language model artificial intelligence chatbots such as ChatGPT. Based on a review of the research and practice literature, this study formulates a conceptual framework for cognitive flexibility in support of creativity and innovation in AI environments, adaptable to smart cities. A research design is used that employs AI as a design material, in combination with a topical inquiry involving boundary setting and perspective taking, to co-pilot an exploration with ChatGPT-3.5/4. This study operationalizes the framework for applications to learning approaches, addressing flexibility and inclusivity in smart city spaces and regions. With the rapid evolving of chatbot technologies, ChatGPT-4 is used in the exploration of a speculative real-world urban example. This work is significant in that AI chatbots are explored for application in urban spaces involving creative ideation, iteration, engagement, and cognitive flexibility; future directions for exploration are identified pertaining to ethical and civil discourse in smart cities and learning cities, as well as the notion that AI chatbots and GPTs (generative pre-trained transformers) may become a zeitgeist for understanding and learning in smart cities. Full article
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<p>Triangulation of the literature review.</p>
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<p>Conceptual framework for cognitive flexibility in support of creativity and innovation in AI-rich environments.</p>
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<p>Conceptual framework for cognitive flexibility in support of creativity and innovation in civic AI-rich spaces in smart cities.</p>
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20 pages, 6625 KiB  
Article
A Geospatial Decision Support System for Supporting the Assessment of Land Degradation in Europe
by Piero Manna, Antonietta Agrillo, Marialaura Bancheri, Marco Di Leginio, Giuliano Ferraro, Giuliano Langella, Florindo Antonio Mileti, Nicola Riitano and Michele Munafò
Land 2024, 13(1), 89; https://doi.org/10.3390/land13010089 - 12 Jan 2024
Viewed by 2037
Abstract
Nowadays, Land Degradation Neutrality (LDN) is on the political agenda as one of the main objectives in order to respond to the increasing degradation processes affecting soils and territories. Nevertheless, proper implementation of environmental policies is very difficult due to a lack of [...] Read more.
Nowadays, Land Degradation Neutrality (LDN) is on the political agenda as one of the main objectives in order to respond to the increasing degradation processes affecting soils and territories. Nevertheless, proper implementation of environmental policies is very difficult due to a lack of the operational, reliable and easily usable tools necessary to support political decisions when identifying problems, defining the causes of degradation and helping to find possible solutions. It is within this framework that this paper attempts to demonstrate a new valuable web-based operational LDN tool as a component of an already running Spatial Decision Support System (S-DSS) developed on a Geospatial Cyberinfrastructure (GCI). The tool could be offered to EU administrative units (e.g., municipalities) so that they may better evaluate the state and the impact of land degradation in their territories. The S-DSS supports the acquisition, management and processing of both static and dynamic data, together with data visualization and on-the-fly computing, in order to perform modelling, all of which is potentially accessible via the Web. The land degradation data utilized to develop the LDN tool refer to the SDG 15.3.1 indicator and were obtained from a platform named Trends.Earth, designed to monitor land change by using earth observations, and post-processed to correct some of the major artefacts relating to urban areas. The tool is designed to support land planning and management by producing data, statistics, reports and maps for any EU area of interest. The tool will be demonstrated through a short selection of practical case studies, where data, tables and stats are provided to challenge land degradation at different spatial extents. Currently, there are WEBGIS systems to visualize land degradation maps but—to our knowledge—this is the first S-DSS tool enabling customized LDN reporting at any NUTS (nomenclature of territorial units for statistics) level for the entire EU territory. Full article
(This article belongs to the Section Land – Observation and Monitoring)
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<p>Synthetic workflow of the basic structure of the LANDSUPPORT GCI architecture, functions and technological components.</p>
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<p>SDG 15.3.1 indicator. Assessment for Europe (reference period 2001–2018). Red pixels: areas classified as degraded; green pixels: areas classified as improved; no color: areas classified as stable.</p>
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<p>SDG 15.3.1 indicator. Details of change detection between 2001 and 2018. Red pixels: areas classified as degraded. No color: areas classified as stable.</p>
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<p>Two examples of NDVI trend analysis superimposed over urbanized areas (visible behind) by SDG indicator classes. Legend: green (improvement), yellow (stable), red (degraded). Red dots: centroids of pixels where the GEE codes have been run. (<b>A</b>): positive trend as classified in (<b>B</b>); (<b>C</b>): negative trend as classified in (<b>D</b>).</p>
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<p>The municipality of Rome (white boundaries). Red surfaces represent the urban class (CLC level 1) considered “stable” from 2000 to 2018; The graph shows with respect to red areas, the % of surfaces classified as stable during the period 2001–2018 by both the indicator 15.3.1 in the original version (UNCCD LDN) and the improved version (iLDN).</p>
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<p>The graph shows with respect to the urban areas “stable” (CLC level 1) during the period 2000–2018, the % of surfaces classified as “stable” during the same period by both the indicator 15.3.1 in the original version (UNCCD LDN) and the improved version (iLDN). The data are referred to municipalities with 300 K–3 M range of population (EUROSTAT); iLDN data (orange) are sorted in ascending order.</p>
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<p>On the left, from top to bottom, the UNCCD LDN indicator details for change detection between 2001 and 2018 in the cities of Rome, Naples, Milan and Berlin. On the right, the same cities classified by using the improved indicator (iLDN). Red pixels: areas classified as degraded; green pixels: areas classified as improved; no color: areas classified as stable.</p>
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<p>Graphic User Interface of the LANDSUPPORT S-DSS. (<b>A</b>) Data viewer. (<b>B</b>) Map viewer. (<b>C</b>) Analysis tool. (<b>D</b>) GIS tools. (<b>E</b>) Selection of spatial scales. (<b>F</b>) Model requester for LDN tool.</p>
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<p>Example of the LDN tool output (technical report produced on the fly).</p>
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<p>Graphic representation of zonal statistics by LDN tool applied at the national level.</p>
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<p>Results of the SDG 15.3.1 indicator superimposed over the territory of Campania.</p>
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<p>Zonal statistics indicating the magnitude of degraded/improved lands across the territory and the data aggregated by land use classes.</p>
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<p>Surfaces classified as degraded or improved according to the SDG indicator for the municipality of Naples.</p>
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31 pages, 10044 KiB  
Article
Refugee and Migrant Integration in Urban Spatial Structures and City Development: Case Study of Busan, South Korea
by Sreenidhi Konduri and In-Hee Lee
Sustainability 2023, 15(24), 16857; https://doi.org/10.3390/su152416857 - 14 Dec 2023
Viewed by 1998
Abstract
With the increasing protracted displacements and overall worldwide migration in recent decades, local integration has been considered a durable solution. Accordingly, global agendas have recommended the inclusion of migrant populations, especially within urban frameworks, as cities have always been deemed as migrant hubs. [...] Read more.
With the increasing protracted displacements and overall worldwide migration in recent decades, local integration has been considered a durable solution. Accordingly, global agendas have recommended the inclusion of migrant populations, especially within urban frameworks, as cities have always been deemed as migrant hubs. This study examines the influence of migrant spatial integration in city development and municipal policy against the historic backdrop of Busan. From liberation (1945) to post-war industrialization (1960s–1980s), Busan experienced population surges with the inflow of refugees and migrants that historically changed government policies and urban development plans. Based on archival research, secondary data, and GIS mapping, this study explores the influence of migrant populations on the city demographics, physical development, and housing initiatives during different periods. The findings of this study highlight the “local turn” in migrant spatial integration and the production of new urban geographies that portray “humanitarian” and “migrant” urbanism, thereby offering insights into sustainable urban futures for migrant and displaced populations. Full article
(This article belongs to the Section Sustainability in Geographic Science)
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<p>Population growth (1945–2000).</p>
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<p>Evolution of Busan city (1914–Present).</p>
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<p>Evolution of Busan city during the Japanese Colonial Period (1934) (<b>a</b>) and after the liberation (1946) (<b>b</b>) on a current city base map.</p>
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<p>Busan city map (1946) showing the location of refugee settlements.</p>
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<p>Refugee shelters (<b>top</b>) and disposed materials from US Military units used for construction (<b>bottom</b>) (source: adapted with permission from HanGeun Kim).</p>
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<p>Great Busan Station and Gukje (International) Market Fire Accident in November 1953 (source: adapted with permission from HanGeun Kim).</p>
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<p>Gukje (International) Market (<b>a</b>,<b>b</b>) and refugees unloading the supplies in Busan Port (<b>c</b>) (source: adapted with permission from HanGeun Kim).</p>
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<p>Ami-dong in 1953 (<b>a</b>) and city view following the fire accidents in 1953 (<b>b</b>,<b>c</b>) (source: adapted with permission from HanGeun Kim).</p>
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<p>Busan city extent in 1956 and relief, welfare, and refugee housing locations.</p>
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<p>City views showing a mix of residential, commercial, and industrial uses in 1953 (Source: adapted with permission from HanGeun Kim).</p>
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<p>Map from 1960 showing the functions of different centers.</p>
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<p>Thematic maps of population in 1970 showing the influence of 1960s housing developments.</p>
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<p>Land readjustment projects announced by the city government (1968–1969). (Source: adapted with permission from HanGeun Kim.)</p>
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<p>Informal housing in Dong-gu (<b>a</b>), Jung-gu (<b>b</b>), and Seo-gu (<b>c</b>) along the Sanbok road. (Source: adapted with permission from HanGeun Kim.)</p>
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<p>Yeongju apartments. (Source: adapted with permission from HanGeun Kim.)</p>
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<p>Sasang industrial complex plan (1969) (<b>a</b>) and industrial development in Gamcheon-dong, Saha-gu (<b>b</b>) and Beomil-dong, Dong-gu (<b>c</b>)<b>.</b> (Source: adapted with permission from HanGeun Kim.)</p>
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<p>City extent and development directions (1971).</p>
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<p>Thematic map of population in 1980 showing the influence of 1970s housing developments.</p>
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<p>Thematic map of population in 1990 showing the influence of 1980s housing developments.</p>
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<p>Yeonsan-dong housing development (<b>a</b>) and Banyeo-dong housing development (<b>b</b>). (Source: adapted with permission from HanGeun Kim.)</p>
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<p>Policy migration areas.</p>
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<p>Formation of Ami-dong and Gamcheon-dong Taegukdo Village (source: Archives, Department of Geography, College of Education, Jeju National University, and National Spatial Data Platform of Korea).</p>
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<p>Population density (1970, 1980, 1990) of Busan.</p>
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18 pages, 3307 KiB  
Article
Implementation of Sustainable Development Goal 11 (Sustainable Cities and Communities): Initial Good Practices Data
by Gulnara N. Nabiyeva, Stephen M. Wheeler, Jonathan K. London and Noli Brazil
Sustainability 2023, 15(20), 14810; https://doi.org/10.3390/su152014810 - 12 Oct 2023
Cited by 7 | Viewed by 5920
Abstract
The Sustainable Development Goals (SDGs) represent a central framework for guiding sustainable urban development. However, it is not clear how and where SDG 11 (Sustainable Cities and Communities) is being implemented, and how such implementation might be improved. We investigate this subject by [...] Read more.
The Sustainable Development Goals (SDGs) represent a central framework for guiding sustainable urban development. However, it is not clear how and where SDG 11 (Sustainable Cities and Communities) is being implemented, and how such implementation might be improved. We investigate this subject by analyzing United Nations (UN) SDG Good Practices data from 2018 to 2021, using content analysis, classification, and descriptive statistics. The resulting analysis and classification is new in this field. We applied five criteria to the 336 SDG 11 responses: (1) geography; (2) actors; (3) progress toward targets; (4) areas of implementation; and (5) scale of action. Overall, 86 of the 193 countries that adopted the 2030 Agenda submitted at least one SDG 11 good practice. Thirty-three countries contributed 73.8% of the total, and most developing countries did not make submissions. A very small number of responses (between 2.6 and 9.1%) addressed equity-related targets. Good practices from developed countries were usually more technology-oriented and system-forming; developing countries typically focused on issues of day-to-day concern. This analysis points to the need for better and more systematic reporting on SDG 11 implementation, a more active public sector role in SDG implementation and reporting, more focus on dimensions related to social equity, and better formulation of urban sustainability targets and indicators. Full article
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<p>Distribution of good practices by countries and open calls.</p>
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<p>The distribution of good practices by actors.</p>
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<p>Contribution of actors to the implementation of SDG 11 by types of economies.</p>
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<p>The Distribution of good practices by the targets of SDG 11.</p>
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<p>The distribution of good practices by scale and types of economies.</p>
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<p>The distribution of good practices by the targets of SDG 11 and types of economies.</p>
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26 pages, 12702 KiB  
Article
Mitigation and Resilience of Local Climatic Zones to the Effects of Extreme Heat: Study on the City of Barcelona (Spain)
by David Hidalgo García and Julián Arco Díaz
Urban Sci. 2023, 7(4), 102; https://doi.org/10.3390/urbansci7040102 - 26 Sep 2023
Cited by 1 | Viewed by 1756
Abstract
Global warming is precipitating an amplification of severe meteorological occurrences such as prolonged dry spells and episodes of elevated temperatures. These phenomena are instigating substantial elevations in environmental warmth, with metropolitan regions bearing the brunt of these impacts. Currently, extreme heat is already [...] Read more.
Global warming is precipitating an amplification of severe meteorological occurrences such as prolonged dry spells and episodes of elevated temperatures. These phenomena are instigating substantial elevations in environmental warmth, with metropolitan regions bearing the brunt of these impacts. Currently, extreme heat is already impacting 30% of the global populace, and forecasts suggest that this figure will escalate to 74% in the forthcoming years. One of the objectives outlined in the United Nations 2030 agenda, specifically within Sustainable Development Goal 11 (SDG11), is the attainment of sustainable urban development. To achieve this, it is imperative to scrutinize and delve into urban environmental conditions in order to understand their dynamics comprehensively. This understanding serves as the foundation for implementing mitigation and resilience strategies against climate change, ultimately enhancing the well-being of city residents. In this context, the field of remote sensing and geographic information systems has made substantial advancements. Notably, the UrbClim model, developed by the European Space Agency, facilitates the assessment of environmental conditions within numerous European urban centers. This research, utilizing data from UrbClim, examines the evolution of the heat stress index (Hi) during extreme heat conditions in Barcelona during the summer of 2017. Leveraging Landsat 8 satellite imagery, we derived the following variables: the normalized difference vegetation index and the normalized building difference index. Our findings reveal that during extreme heat conditions, the Hi index experiences an escalation, with areas characterized by a higher population density and industrial zones displaying lower resistance in contrast to regions with a lower population density and rural areas, which exhibit greater resilience to Hi. This disparity can be attributed to higher vegetation coverage and reduced building density in the latter areas. In this way, Hi increases more quickly and intensely and decreases more slowly when using high temperatures compared to average temperatures. This is of utmost importance for the future planning of new urban developments. Full article
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<p>Study area, Barcelona, Spain.</p>
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<p>Methodology.</p>
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<p>LCZ of the city of Barcelona. WUDAPT atlas (<a href="https://LCZ-generator.rub.de/submissions" target="_blank">https://LCZ-generator.rub.de/submissions</a>) (accessed on 25 September 2023).</p>
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<p>% of surface area of each LCZ of the city.</p>
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<p>NDVI index of the city of Barcelona.</p>
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<p>NDBI index of the city of Barcelona.</p>
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<p>Indices NDVI and NDBI of the city of Barcelona by LCZ.</p>
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<p>Temperature evolution values per LCZ.</p>
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<p>Humidity evolution values per LCZ.</p>
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<p>Hi evolution (a) average values and (b) values per LCZ.</p>
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<p>Hi index under normal ambient conditions by LCZ.</p>
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<p>Hourly average ambient temperatures.</p>
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<p>90th percentile hourly mean ambient temperatures.</p>
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<p>Hourly average humidity.</p>
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<p>90th percentile hourly mean humidity.</p>
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<p>Hourly average Hi (°C).</p>
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<p>90th percentile hourly mean Hi.</p>
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<p>Hi hourly average (scale according to <a href="#urbansci-07-00102-t001" class="html-table">Table 1</a>).</p>
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<p>90th percentile hourly mean Hi (scale according to <a href="#urbansci-07-00102-t001" class="html-table">Table 1</a>).</p>
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27 pages, 1846 KiB  
Article
Fostering Urban Destination Prosperity through Post COVID-19 Sustainable Tourism in Craiova, Romania
by Mirela Mazilu, Amalia Niță, Ionuț-Adrian Drăguleasa and Oana Mititelu-Ionuș
Sustainability 2023, 15(17), 13106; https://doi.org/10.3390/su151713106 - 31 Aug 2023
Cited by 6 | Viewed by 1985
Abstract
In accordance with the 2030 Agenda, the prosperity of tourist destinations holds a crucial role in the sustainable development of urban areas. Tourism represents an imperative solution in transitioning from survival to success after the COVID-19 pandemic. The stakeholders in the field should [...] Read more.
In accordance with the 2030 Agenda, the prosperity of tourist destinations holds a crucial role in the sustainable development of urban areas. Tourism represents an imperative solution in transitioning from survival to success after the COVID-19 pandemic. The stakeholders in the field should introduce new tourism forms that enable a more comprehensive strategy for managing and developing responsible tourism, bringing into focus new skills, resources, and levels for change to develop resilience, urban community satisfaction, and the unique intrinsic attraction of each tourist destination in Romania. This study develops a model of prosperity for urban tourist destinations, which can be applied to medium-large cities in Romania. We propose for the city of Craiova the use and identification of four spheres of sustainability, which in turn have a set of 17 indicators. The research method used to determine the indicators has two stages: (1) the analysis of the specialized literature to identify the appropriate indicators for an urban destination and (2) statistical analyzes and interviews with internal stakeholders (residents), which present their tourist perspective of the city. This article tackles an innovative concept, called prosperity and innovation in Craiova tourism, which can be implemented in all tourism niches and brings new development perspectives that correspond to the norms of sustainable development and their direction towards sustainability. The article addresses the concept of prosperity in tourism and contains information about: the definition of prosperity, the concept of prosperity (an engine of innovation in tourism and its implications), but also perspectives for a prosperous tourism policy in Craiova tourism. Full article
(This article belongs to the Special Issue Enhancing Sustainable Rural Development through Tourism Strategies)
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<p>Localization of Craiova in the local, regional, and national context. Source: authors’ processing using ArcGIS 10.7.1.</p>
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<p>Model of city prosperity. Source: processed by authors.</p>
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<p>Preferred activities during weekend in Craiova. Source: data processed by the author in Microsoft Excel 2010 Spreadsheet Software.</p>
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15 pages, 2716 KiB  
Article
Urban Planning and Sustainability in the Cities of Castilla-La Mancha (Spain): Current Challenges
by María Ángeles Rodríguez-Domenech and Maria Carmen Cañizares Ruiz
Land 2023, 12(8), 1540; https://doi.org/10.3390/land12081540 - 3 Aug 2023
Cited by 1 | Viewed by 1284
Abstract
The concept of sustainability has recently become a key matter of concern in urban planning, especially in the context of ever-increasing populations in urban spaces, as noted in the United Nations’ Sustainable Development Goal 11, “Sustainable cities and communities”. In this study, we [...] Read more.
The concept of sustainability has recently become a key matter of concern in urban planning, especially in the context of ever-increasing populations in urban spaces, as noted in the United Nations’ Sustainable Development Goal 11, “Sustainable cities and communities”. In this study, we analyze the policies that are shaping the transition toward urban sustainability in the Spanish context. We focus on the evolution of such policies since the end of the last century, from Local Agenda 21 to the current sustainable development strategies. The territorial scope of the study covers the five provincial capitals of the region of Castilla-La Mancha (Albacete, Toledo, Guadalajara, Ciudad Real, and Cuenca). The research question posed herein is: “Have the policies that have been applied made these cities more sustainable?”. The methodology for answering this question is based on bibliographic analysis and analytical analysis, achieved by the qualitative method of interviewing the agents involved in the ISUDS, and conducting an applied analysis of the main actions developed in each of the cities, for which collaboration with the city councils has been key. Synthetic analysis has been used to conduct research using geographic information systems. The key findings relate to the progress made in achieving urban sustainability in these medium-sized cities, and the success of the urban planning process. We identified the following variables in the current ISUDS actions: new uses for unused urban lots, new building construction programs, street rehabilitation, building rehabilitation, and neighborhood regeneration. Full article
(This article belongs to the Special Issue Urban Morphology, Sustainability, and Regional Development)
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<p>Location of the selected cities and their municipalities in the region of Castilla-La Mancha (Spain). Source: Authors’ own elaboration.</p>
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<p>Summary of ISUDS actions with an impact on the urban morphology of Albacete. Source: Authors’ own elaboration, using ArcGIS online and ISUDS Albacete information.</p>
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<p>Summary of ISUDS actions with an impact on the urban morphology of Ciudad Real. Source: Authors’ own elaboration, using ArcGIS online and ISUDS Ciudad Real information.</p>
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<p>Summary of ISUDS actions with an impact on Cuenca’s urban morphology. Source: Authors’ own elaboration, using ArcGIS online and ISUDS Cuenca information.</p>
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<p>Summary of ISUDS actions with an impact on Guadalajara’s urban morphology. Source: Authors’ own elaboration, using ArcGIS online and ISUDS Guadalajara information.</p>
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<p>Summary of ISUDS actions with an impact on Toledo’s urban morphology. Source: Authors’ own elaboration, using ArcGIS online and ISUDS Toledo information.</p>
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