EDUCATING SUSTAINABILITY 21st century architecture manifesto joelle leong xinian / 1124635 / abpl90117
CONTENTS
INTRODUCTION / page 01
SUSTAINABILITY IN EDUCATION / page 05
INTRODUCING ALTERNATE PERSPECTIVES / page 07
BEING GEOGRAPHICALLY RESPONSIVE / page 11
ACHIEVING AN ECOTOPIA / page 15
BIBLIOGRAPHY / page 18
01
INTRODUCTION
02
Environmental crises have long been
Rather, the artificial and nature should be
in the global spotlight, where con-
approached as codependent and coexisting
stant
every
essences of life; instead of battling against na-
professional field is expended in or-
ture to help nature, one should instead adopt
der to reduce the detrimental effects
its sciences, working hand-in-hand with na-
of human actions onto Earth, in hopes
ture to produce longer-lasting solutions to
of possibly resolving them one day.
design problems of efficiency, sustainabili-
worldwide
efforts
from
ty, and health. By embracing and becoming Numerous steps have been taken in ar-
“an integral part of natural
chitecture to progress towards this dream
systems rather than replacing
of an ecotopia, through the incorporation
them with artificial ones” [1].
of renewable energy technologies, as well as passive ‘green’ design. However despite these common efforts to make a more sustainable architecture, one cannot deny that nature still exists independently to that, where most architecture in modern cities stand as visually stimulating artificial creations with green treatments simply applied to the surface.
1. Alexandru Micu, “Ecotopia 2121 shows what perfectly eco-friendly cities would look like,” ZME Science, published January 29, 2018, https://www.zmescience.com/science/ecotopia-project-cities/
03
Biomimicry’s concepts have been intro-
specific design environment and nature.
duced into architecture, attempting to respond to the notions of codependency
This manifesto takes a critical stance on the
with nature, where nature’s adaptive inno-
current provided standards of sustainable
vations are utilised to inform sustainable
education, whilst delving into how it can be
design. Still, its real-life applications remain
improved, by providing an insight into how
low, with architectural educations focus-
concepts of biomimicry can be tailored to
ing on ‘aesthetic’ physical building forms.
sustainably adapt and fit varying conditions of environments as well as its collaborations
To solve these plaguing environmental
with other environmental-design strategies
crises, it is foremostly crucial for current
which may further aid in humanity’s endeav-
and future architects to be thorough-
ours towards our symbiosis with nature itself.
ly educated and made more aware on environmental and sustainability issues so that they will be able to further integrate design with nature for an optimal architecture that is able to further reduce any negative environmental impacts through the understanding of the
04
05
S U STAI NAB I LITY I N E D U CATI O N Is what we’re learning enough? Majority of what is being taught regarding
Thus, it is crucial to address a shift in ide-
sustainable design pertains to the basic
ologies where instead using typical design
applications of green technologies and
methods, educators should promote dif-
passive/responsive façade design. Im-
ferent design approaches (i.e. biomimicry
portance is stressed in achieving above
and geodesign) to obtain a design which
a certain number in building sustainabil-
fully takes nature and its surroundings into
ity rating systems, instead of the design
consideration whilst striving for that high
processes and ideologies we should en-
sustainability rating. By introducing these
compass. Though having a common end
concepts of codependency and coexis-
goal, the current approaches to sustain-
tence with nature, we will be able to move
ability are not necessarily taken for na-
past the surface level design approaches
ture itself, but for the sustainability of the
and produce a building which is undoubt-
built environment where a building would
edly integrated within its environment.
have to just quantitatively meet a threshold sustainability regarding its carbon emissions, electricity consumptions, etc.
06
Fig.1. Pier Luigi Nervi, Palazzetto dello Sport, 1957.
07
INTRODUCING ALTE R NATE PERSPECTIVES Approaching sustainable design from a different point of view. Firstly, it is of most importance to fur-
approach of ‘Palazzetto dello Sport’, im-
ther inform on these alternative design
plemented by Italian engineer and archi-
approaches which encourage design-
tect Pier Luigi Nervi, mimics the rib struc-
ing with nature in mind. The findings of
ture from the leaves of the giant Amazon
biomimicry exist within an ever-expand-
water lily in order to produce an efficient
ing field of interest; nature serves as a
structural system for the thin roof fabric [2].
bank, rich and full of scientific knowledge and information which has been
By observing nature and applying its sci-
refined over millions of years through
ences into design, this project is suc-
evolutionary
response
cessful where it was able to retain a
environment..
visual charm whilst also sustainably re-
to
the
processes,
ever-changing
in
ducing the construction materials required The es and
functionally-based of
biomimicry driven
have
numerous
approach-
through its efficient and delicate qualities.
influenced notable
works of architecture: the structural
2. Francis Okeke and Chukwuemezie Okekeogbu, “Biomimicry and Sustainable Architecture: A Review of Existing Literature,” Journal of Environmental Management and Safety 8, no.1 (March 2017): 18-19.
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In addition to structurally informing archi-
The Eastgate Center is a notable suc-
tecture, biomimicry has proven useful in
cess story of biomimicry, where the build-
the field of passive design which allows
ing could function throughout the year
for the efficiency of costs and resources,
without the conventional use of air-con-
and above all environment sustainability.
ditioning or heating, and therefore being
Architect Mick Pearce attempted to de-
environmentally sustainable by reducing
velop an understanding on the ther-
the building’s overall energy expenditure.
moregulatory characteristics of termite mounds in his design for the Eastgate
Taking these two instances as precedents
Center in Harare, Zimbabwe, where a
may provide some insight as well as inspira-
conclusion was drawn on the use of
tion in the ways nature can influence design
wind-induced natural ventilation as their
for the better, without having to apply artifi-
thermoregulatory method. Thus, this at-
cial systems to the design while still remain-
tempt in mimicking termite mounds lead
ing visually captivating. The education pro-
to voids in the floor being designed to
vided on sustainability should exhibit how
trap cool air during the night, and during
nature can offer endless building and design
the day an induced air flow would circu-
solutions, which can aid us on our path to re-
late the cool air throughout the building [3].
writing our negative environmental impacts.
3. Michael Pawlyn, Biomimicry in architecture (Newcastle upon Tyne: RIBA Publishing, 2016), 100.
09
Fig.2. Mick Pearce, Eastgate Center, 1996.
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BEING G E O G RAPH I CALLY RESPONSIVE Responding to the environmental conditions of site.
12
Besides learning from natural biologies,
between the mentioned environmental-de-
the geographic conditions of the site in
sign strategies may be able to provide a more
which the design exists should be tak-
efficient, and successful means of designing
en into account and possibly further in-
with nature in mind, where topography, ma-
form the design outcome. The concepts
terials and other site-related environmental
of geo-design look at the in-depth re-
conditions are considered deeply, as well
search into the geographic conditions of
as the nature existing in that site and how
site so as to “respect the constraints” of
they adapt to thrive in that environment.
site, and “take advantage of the opportunities suggested by those conditions” [4].
A utopian notion of the collaboration of these two key strategies is loosely manifested in
Geographical design occurs when the
environmental professor Alan Marshall’s ‘Ec-
physical environment is being modified
otopia 2121’ project: a project which critically
through natural and or manmade inter-
reimagines cities of the future in regards to
ventions
. By being more geographi-
their adaptation to fit into a changed envi-
cally responsive and specific, the quality
ronment. Despite existing as fantasies, this
and efficiency of the end product can be
project can be considered an educational
informed by, or manipulated by the de-
initiative to increase awareness on global
signer to produce a more comprehensive
environmental issues and how that may im-
design that is optimally curated for its en-
pact our futures if we do not change the way
vironment. Furthermore, a collaboration
we think and approach nature as a whole.
[5]
4. William R. Miller, Introducing Geodesign: The Concept, (USA: Esri), 4. 5. Miller, Introducing Geodesign, 17.
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Fig.3. Alan Marshall, Accra 2121, 2017.
A scenario project which attempts to
community prevents the logging and de-
be an integral part of nature is ‘Accra
forestation of this forest ecosystem
2121’, which envisions the future of the
Therefore, producing a sustainable com-
capital of Ghana to be plagued by se-
munity which not only takes from nature,
ries of violent urban floods. The re-
but also gives and protects it. Though
sponse would then be the construc-
seemingly extreme, this scenario displays
tion of modular ‘tree-houses’, above the
the notions geo-specific design through
flood line, in surrounding forests; the
its direct response to the issue of floods,
forest provides the basic necessities for
as well as the intentions behind biomim-
its inhabitants such as food and building
icry where this natural forest-living would
materials, and in return, this tree-house
allow for social integration with nature.
6. Alan Marshall, “Ecotopia 2121 AD: Sustainable Cities of the Future,” Resilience: A Journal of the Environmental Humanities 1, no. 2 (June 2014): 15, doi: 10.5250/resilience.1.2.003.
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.
[6]
ACHIEVING AN ECOTOPIA Will we ever accomplish this utopian dream?
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The question of an ecotopia may be
the former, architecture can act as a big
achieved one day, by shifting the way
stepping zone towards the resolving of envi-
people approach solving environmen-
ronmental crises; using nature’s innovations
tal issues in order to progress towards
to inform sustainable design, and designing
this utopian goal of an environmentally
specifically for the geographics of a space to
sustainable world, where artificial deci-
produce an optimal architecture which has
sions made by man are constantly influ-
both quality and efficiency, whilst reducing
enced by nature, and in the best interests
any negative environmental impacts through
of nature. The practice of co-depen-
procuring a thorough understanding of the
dency with nature is a crucial aspect on
specific design environment and nature.
this journey of environmental recovery. To conclude, biomimicry on its own serves The two strategies mentioned in this
as a satisfactory means for integral de-
manifesto, biomimicry and geo-design,
sign by working alongside nature and not
both share the same principles where
against it. However, to further increase the
design decisions made are influenced
efficiency and sustainability of its outcomes,
by the environment and nature in the at-
and maximise its design potentials, geo-
tempt to integrate the artificial with nature
graphical aspects should be thoroughly re-
itself. By utilising biomimicry as the basis
searched and understood for an optimised
of design, and geo-design as an addi-
architecture that is site responsive whilst
tional means of magnifying the effects of
embracing nature as a life-long partner.
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BIBLIOGRAPHY 1. Pawlyn, Michael. 2016. Biomimicry in architecture. 2nd ed. Newcastle upon Tyne: RIBA Publishing. 2. Lakhtakia, Akhlesh, and Raúl José Martín-Palma. 2013. Engineered biomimicry. Amsterdam, Netherlands: Elsevier. 3. Urbano Gutiérrez, Rosa. 2020. Elements of sustainable architecture. New York: Routledge. 4. Miller, William R. Introducing Geodesign: The Concept. USA: Esri. 5. Marshall, Alan. “Ecotopia 2121 AD: Sustainable Cities of the Future,” Resilience: A Journal of the Environmental Humanities 1, no. 2 (June 2014). doi: 10.5250/resilience.1.2.003. 6. Okeke, Francis & Okekeogbu, Chukwuemezie. Biomimicry and Sustainable Architecture: A Review of Existing Literature 8, no.1 (March 2017). 7. Micu, Alexandru. “Ecotopia 2121 shows what perfectly eco-friendly cities would look like,” ZME Science, published January 29, 2018. https://www.zmescience.com/science/ecotopia-project-cities/ 8. Jetzkowitz, Jens. 2019. Co-evolution of nature and society: foundations for interdisciplinary sustainability studies. Cham, Switzerland : Palgrave Macmillan. 9. Downton, Paul F. 2009. Ecopolis: architecture and cities for a changing climate. Dordrecht: Springer.
FIGURE LIST Fig. 1. Pier Luigi Nervi, Palazzetto dello Sport, 1957. In Pawlyn, Michael. Biomimicry in architecture. 2nd ed. Newcastle upon Tyne: RIBA Publishing, 2016; 18. Fig. 2. Pearce, Mick. Eastgate Centre, 1996. In Okeke, Francis & Okekeogbu, Chukwuemezie. Biomimicry and Sustainable Architecture: A Review of Existing Literature 8, no.1 (March 2017): 20. Fig. 3. Marshall, Alan. Accra 2121, 2017. In Marshall, Alan. “Ecotopia 2121 AD: Sustainable Cities of the Future,” Resilience: A Journal of the Environmental Humanities 1, no. 2 (June 2014): 15. doi: 10.5250/resilience.1.2.003. Stock images, royalty free, www.pexels.com
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