5.2 - Innovation
5.2 - Innovation
5.2 - Innovation
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Categories of innovation: sustaining innovation; Process innovation
disruptive innovation; process innovation
Process innovation refers to developments associated with
Sustaining innovation the process that create or deliver services and products.
I
Process innovations such as those adoptedby Henry I
Sustaining innovation is simply the application of Ford in 1913 can have enormous effects not only on I
-ncremental adjustments to existing products that allow productivity, quality and economics but also far reaching I
.|rem to sustain sales and continue in the market. These social change. The moving assemblyline developed byFord !
;hanges often involve improvements in performance to produce motor cars not only allowed him to generate f,
-:nd quality by the addition of new features. Sustaining larger numbers of quality vehicles in a shorter period I
-nnovation often involves economies of scale or efficiencies of time but it also reduced the cost of the final product !
.rat may be gained through the implementation of making automobiles available at a price the general public fi
--ost cutting measures. These deliberate, planned and could afford. While Henry Ford was not the first to use the !
-lcremental innovations are more predictable from assembly line, he is credited with refining the controlled !
.l financial or investment perspective than disruptive movement of standardised parts and revolutionising mass
.lnovations. For example, in the category of household production. Labelled as 'Fordisml this allowed the mass
-.r'ens, self-cieaning features make the product more production of vehicles of a consistent quality.
.r-n,ironmentally friendly. Beds with independently
.,djustable firmness cater for individual sleep habits and
'.
ehicles with anti-collision sensors and auto parking make
:ars safer.
Disruptive innovation
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Probably the most significant example of process incremental innovation shown has taken place c',
innovation occurred around the time of the Industrial many decades. It demonstrates superficial refinem.:
Revolution, (-1759-1850), when whole industries moved of the exterior and the remodelling of an establis:..-
from craft production techniques to mechanisation and design with the introduction of more efficient motors :: -
the development of centralised factories with the ensuing some materials modifications. Essentially, however. ,
social change. underlying core design concepts, and the links betr'=.'
them, remain the same.
lnnovation strategies for design: architectural
innovation; modular innovation; confi gurational The variations shown point to minor, incremental chan:,
innovation taking place between the 1920s and the 1980s. The c
design concepts, systems principles and compor.
There are many ways to characterise innovation. This iinkages largely remain unchanged.
particular method proposed by Henderson and Clark is
useful because it combines a number of innovation styles
and charts their relationships relative to each other. The
chart in Figure 5.2.3 shows innovation plotted along two
axes at 90o to each other. The horizontal axis plots the
categorisation of innovation based on product or service
components while the vertical axis charts the effects of
modifying the linkages between components.
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o
!u!l Unchanged lncremental Modular
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q!
io f; Chansed Architectural Radical
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= Reinforced Overturned
Core concepts
Figure 5.2.4 lncremental innovation- electricfan
Figure 5.2.3lnnovation framework remodelled
from Henderson and Clark, Architectural lnnovation, Architectural inr-rovation is often triggered by reductio:-.
Administrative Science Quarterly, Vol. 35, No. 1, Special component size causing new component interactions
lssue: Technology, Organizations, ond lnnovation. (Mar., re-arrangement of existing components in such a \ra'. -
1990), pp.9-j0. to create an innor.ative response. The reduction in siz.
electronic components saw portable radios transfori:--.-
as electronic components became smaller and sm;.-.,
while the basic principle of the design remained the sa: -
Architectural or configurational innovation
Figure 5.2.5 shorvs an example of architectural inno\.r:
Architectural or configurational innovation works on a through the reconfiguration of an existing product
systems level, modifying not the individual components rearranging components in new ways. In this tc - -
of a design but their arrangement, Iinks and interactions the basic 'system' stays the same as do the underl,.'- -
to impro.'.e performance, usability or functionality. principles that make the product work. The box fan de..:
Examining changing fan technologies over time is one changes the relationships between the major componi
example of how incremental and architectural ir-rnovation and could be considered to be an architectural innovai: -
affects the design ofa product. With the motor centrally located and the guard ser,.''--
the additional roles of frame, base and controller mt -
The standard desk fans, shown in Figure 5.2.4, have been the same basic components are arranged in new wavs.
a stalwart of the air ventilation industry for decades.
Arrangement of blades, motors, guards and controllers Another example of architectural innovation is ,
-
is rvell established and as such little has changed. The development of cloud computing services where soltr, -'
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companies make programs available online without the Modular innovation
need for users to install them on their computer.
The key feature of modular innovation is the introduction
of nerv or substantially different components to a product
without changing core design principles affecting the
relationship or linkages bettveen component parts.
Examples of modular innor.ation include:
Figure 5.2.6 Radical innovation-Dyson fan According to Rogers, (1962), the stages of innovation
diffr"ision appear as shown by the graph in Figure 5.2.7.
Successful radical innovations establish netv dominant Groups of adopters and their relative percentages are
designs that disrupt existing markets attracting existing identified by the bell curve shaped black line. Market share
and new customers to the field. is indicated by the 'S' shaped grey'line ending in market
saturation (100%). The 'S' curve shorvs the initial slow rate
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of adoption transforming into a steeper more rapid pace Suppression
of adoption as consumers embrace the new product.
As documentedpreviouslyin section 5. 1-the effectiveness
of strategies for protecting IP - many companies suppress
innovation due to the uncertainty surrounding patent
infringement and potential litigation. In their 2009 book,
Patent Failure: How Judges, Bureaucrats, and Lawyers Put
Innovators (fi Risk, 1aw professors Bessen and Mer-rrer
o
-
o
showed that in 1999 the global costs of litigation, (outside
of the pharmaceutical industry), were US$12 billion rvhile
=
o
o the profits associated with patents in all of the combined
{ields only amounted to US$4 billion. Clearly the risk
associated with patent infringement particularly in grey
areas looms large and is a strong incentive for companies
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requirements. In this scenario, there maybe trans-national
winners and losers in the areas of employment and the
environment based around the same innovation. In the
case of global brands, multinational companies are now
able to span the globe with single standardized designs
that see profits from iocal sales distributed to the parent Essrrunnl rDEA
company offshore. This can have a detrimental effect on
Iocal empioyment, manufacturing, research and design Designers have a range of strategies for
and even national economies. !nnovation.
o lBo 20'12
Tneonv oF KNowLEDGE
Design is always looking to the future and new Nnrune oF DEsTGN
development. Do other areas of knowledge have
universal, timeless truths or are they continually Companies encourage advancements in
in flux? technology and services, usually by investing
in research and development activities. Even
though the R&D may be carried out by a range of
different experts from varied fields of research,
the development process is often based on
Whether it be materials developments, new manufacturing common principles and strategies to identify
processes or the latest aesthetic, the world of design the direction of development.This methodology
has always been obsessed with the next 'best thingl The structures the R&D of new technologies and
21st century is characterised as a time marked by the services.
embracing of rapid and constant change and as such all
areas of knowledge and human endeavour continue to o tBo 2012
pursue the truthl Socrates is quoted as saying, 'the only
thing we can know is that we know nothingi Heraclitus
of Ephesus (c. 535-c. 475 BCE)), was one of the first to
propose that, "radical flux renders it impossible to have Arn
knowledge of the sensible world......for there can be no
knowledge of that which is in fluxl' lnnovation should always occur in context and a
deep understanding of the culture as well as the
In all fields of investigation whether it be history, science behaviours, needs and wants of the consumer is
or psychology, whenever we discover something new we required.
have the opportunity to combine this with what we already
know in new ways and thus produce original thought or
new knowledge. All areas of knowledge have information
that we believe to be true based on our current levels of
understanding. Act of insight
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