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The Master's programme named "Strategic Leadership Towards Sustainability" is offered at the Blekinge Institute of Technology (Blekinge Tekniska Högskola) in Karlskrona, Sweden. This Master's programme builds on four central themes: (1) four scientific principles for socio-ecological sustainability; (2) a planning methodology of "backcasting" based on those scientific principles for sustainability; (3) a five-level model for planning in complex systems, into which backcasting is incorporated as a strategy; and (4) the understanding that within basic scientific constraints, creativity is allowed and encouraged. This course book focuses mainly on the description of a structured approach to sustainable development and is the primary reference for the Master's programme within this scope. The text revolves around a generic, structured model for planning and decision-making in any complex system, recognizing that the key focus for sustainability, human society within the biosphere, is inherently a complex system. As such, the text describes five essential system levels including: (i) the system; (ii) success; (iii) strategy; (iv) actions and (v) tools. Within this 5-level model, the approach “backcasting from principles of socio-ecological sustainability” provides a solid basis for strategic sustainable development. With respect to the second theme, the textbook emphasises that the basic constraints required by the structured approach (the 5-level model, backcasting, and scientific principles of sustainability) actually serve to promote creativity in ways that are productive and complementary to the goal of sustainability. Chapters 6-13, in particular, explore how this approach spurs innovation toward sustainable development in a number of selected disciplines (e.g. organisational learning, strategic business planning, industrial ecology, product development). Course Book Chapter Layout The introduction chapter presents all the core elements of the planning methodology named "Backcasting from Basic Socio-Ecological Principles of Sustainability". Part 1, of the book, containing the first four chapters, covers the next circle and goes deeper into the core elements without losing the overall structure. Part 2, containing the following nine chapters, takes a third, yet deeper, look at some related disciplines like basic science, social sustainability, organisational learning and change, industrial ecology, etc. (Circle 3). The whole idea of Backcasting from Principles is to create a meaningful structure of the overview, and only then tackle the details on a higher and higher degree of detail.
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Strategic Leadership towards
Karl-Henrik Robèrt
George Basile Göran Broman Sophie Byggeth
David Cook Hördur Haraldsson Lena Johansson
Jamie MacDonald Henrik Ny Jonas Oldmark
David Waldron
Published at Blekinge Institute of Technology, Karlskrona, Sweden, in close
cooperation with The Natural Step
Core Curriculum for the Master's Programme
"Strategic Leadership towards Sustainability"
About the Book and the Cover
This book follows a whole-systems, structured approach to the concept of
strategic leadership towards sustainability. It is based on systems thinking, and
revolves around a five level framework for planning and decision-making in complex
systems - Backcasting from Principles. From a thorough enough understanding of the (i)
system, in this case, human society within the biosphere, follows a (ii) principle
understanding of success, in this case sustainability, which allows for a (iii) systematic
planning methodology that informs (iv) actions as well as the (v) tools for monitoring
and managing the actions.
The spirals on the cover symbolise the way these materials are presented – beginning
with a high level, structured overview of core concepts (the innermost circle) followed by
progressively more detailed and sophisticated consideration of concepts in later circles
(while always taking advantage of the clarity offered by the structured approach). The
introduction to this book addresses the ‘first circle.' Part 1 (Chapters 1 – 4) covers
‘Circle 2' and Part 2 (Chapters 5 – 13) goes into more detail, collectively covering Circle
3. The outer circles (4 – 5) represent later, more advanced aspects of the overall Master's
Programme (for which this book is intended). Circle 4 is course-based whereas Circle 5
is based on a final thesis where a particular topic will be explored in depth.
Copyright © 2004 by the Authors:
Karl-Henrik Robèrt, George Basile, Göran Broman, Sophie Byggeth, David Cook,
Hördur Haraldsson, Lena Johansson, Jamie MacDonald, Henrik Ny, Jonas Oldmark and
David Waldron
All rights reserved
Strategic Leadership towards Sustainability / Karl-Henrik Robèrt, George Basile, Göran
Broman, Sophie Byggeth, David Cook, Hördur Haraldsson, Lena Johansson, Jamie
MacDonald, Henrik Ny, Jonas Oldmark and David Waldron
Printed in Karlskrona, Sweden, by Psilanders grafiska
Second Edition. Printed August 2005
Printed on Nordic Swan Labelled paper
Acknowledgement / ix
To the Reader /xi
Introduction to Strategic Leadership Towards Sustainability /xiii
PART 1. An Overview of the Method Backcasting from Principles to Inform and
Guide the Practice of Strategic Leadership Towards Sustainability / 1
Chapter 1. Moving from the Cylinder Paradigm to
the Reality of the Funnel / 3
Introduction / 4
The Cylinder Illusion versus the Reality of the Funnel / 6
Some Experiences from Organisations that Recognize the Funnel / 11
Chapter 2. Planning in Complex Systems – Backcasting from Basic
Principles for Success / 15
Introduction to Decision-Making in Complex Systems / 16
A Generic, Five Level Model for Planning in Complex Systems / 28
The Five Level Model for Sustainable Development / 30
The ABCD Process: A Game for Sustainable Development / 45
Chapter 3. Getting Professional – the Role of Experience / 49
Starting the Sustainability Game / 50
Using Experience to Determine Priorities at the Detailed Level / 53
Conclusion / 58
Chapter 4. Implementation – Alignment of Practices,
Tools and Concepts / 61
Introduction / 62
A Brief Description of some Tools, and their Relationship to
the Framework. / 63
Some Related Organisational Initiatives and Concepts / 70
Conclusion / 77
PART 2. A Deeper Look into Some Related Disciplines / 83
Chapter 5. Basic Science and Ecological Sustainability / 85
Introduction / 85
Scientific methods / 87
Ethics / 88
Science, Natural Laws and Principles / 88
Thermodynamics / 94
Complex Systems/ 118
History of the Earth and the Evolution of Life / 126
Basic Principles for Ecological Sustainability / 134
Chapter 6. Social Sustainability / 141
Introduction / 142
The Social Template – Strategic Planning for Social Sustainability / 148
Chapter 7. Our Economy and the Governance of Our Commons / 165
Introduction / 166
Public Policy and Macroeconomics (Within “Society
in the Biosphere”) / 170
Discussion / 188
Chapter 8. Organisational Learning and Change / 199
Introduction / 200
A structured Guide to Organisational Learning and Change / 203
Conclusion / 218
Chapter 9. Management Systems for Sustainable Businesses / 219
Introduction / 220
Management Systems / 223
Building the Vision / 225
Business Planning from the Vision / 228
Managing the Strategic Plan / 244
Chapter 10. Systems Thinking and Modelling for Sustainability / 255
Introduction / 256
What is Systems Thinking and Modelling? / 257
Discussion / 276
Chapter 11. Industrial Ecology / 281
Introduction to Industrial Ecology / 282
Sub-Concepts of Industrial Ecology and the Five Level Model
for Strategic Planning / 286
Concluding Remarks on Industrial Ecology and Strategic Planning
for Sustainability / 299
Chapter 12. Sustainable Product Development / 301
Introduction / 301
Product Development / 302
Ecodesign versus Sustainable Product Development / 306
A Method for Sustainable Product Development (MSPD) / 309
The Sustainable Design Space – A Proposed Integration / 312
Conclusion / 315
Chapter 13. The Science and Subtleties of Backcasting from Basic Principles
of Sustainability / 317
Part 1: Questions and Answers about the framework / 318
Part 2: Questions and Answers about the Application of
the framework / 331
Glossary / 341
Key References / 347
This book has been prepared primarily for the International Masters Programme entitled
Strategic Leadership Towards Sustainability being offered by the Blekinge Institute of
Technology (Blekinge Tekniska Högskola) in Karlskrona, Sweden. It has been prepared
through the cooperative efforts of a group of authors that include: physical scientists,
social scientists, educators, sustainable business consultants, engineers and researchers
associated with the Blekinge Institute of Technology and/or The Natural Step, a charitable
organisation with a mission of education for sustainable development.
The authors would like to thank all the people associated
with The Natural Steps international network – from
national organisations, client businesses, government,
academia and other organisations – for sharing their
learning experiences over nearly 15 years to help make this
what we believe is not only a rigorous approach to sustainable development but also one
that is grounded in considerable practical experience.
They would also like to thank the Blekinge Institute of Technology itself,
for supporting the development of this new Masters Programme within
the new profile area: Applied Information Technology and Sustainable
Development of Industry and Society.
With respect to actual writing of this book, we would like to thank Göran Carstedt of the
Society for Organisational Learning for his kind advice, Kerstin Abrahamsson from The
Natural Step, Sweden for her invaluable assistance and Jennifer Woofter for her editorial
comments in this second edition.
Karl-Henrik Robèrt, George Basile, Göran Broman, Sophie Byggeth, David Cook, Hördur
Haraldsson, Lena Johansson, Jamie MacDonald, Henrik Ny, Jonas Oldmark and David
Karlskrona, Sweden
August, 2005
To the Reader
About the Masters Programme
The Masters programme named Strategic Leadership Towards Sustainability is offered at the
Blekinge Institute of Technology (Blekinge Tekniska Högskola) in Karlskrona, Sweden.
This Masters programme builds on four central themes:
(1) four scientific principles for socio-ecological sustainability;
(2) a planning methodology of "backcasting" based on those scientific principles
for sustainability;
(3) a five-level model for planning in complex systems, into which backcasting is
incorporated as a strategy; and
(4) the understanding that within basic scientific constraints, creativity is allowed
and encouraged.
This course book focuses mainly on the description of a structured approach to
sustainable development and is the primary reference for the Master's programme within
this scope. The text revolves around a generic, structured model for planning and
decision-making in any complex system, recognizing that the key focus for sustainability,
human society within the biosphere, is inherently a complex system. As such, the text
describes five essential system levels including: (i) the system; (ii) success; (iii) strategy;
(iv) actions and (v) tools. Within this 5-level model, the approach “backcasting from
principles of socio-ecological sustainability” provides a solid basis for strategic sustainable
With respect to the second theme, the textbook emphasises that the basic constraints
required by the structured approach (the 5-level model, backcasting, and scientific
principles of sustainability) actually serve to promote creativity in ways that are
productive and complementary to the goal of sustainability. Chapters 6-13, in particular,
explore how this approach spurs innovation toward sustainable development in a
number of selected disciplines (e.g. organisational learning, strategic business planning,
industrial ecology, product development).
Course Book Chapter Layout
The introduction chapter presents all the core elements of the planning methodology
named Backcasting from Basic Socio-Ecological Principles of Sustainability. Part 1, of
the book, containing the first four chapters, covers the next circle and goes deeper into
the core elements without losing the overall structure. Part 2, containing the following
nine chapters, takes a third, yet deeper, look at some related disciplines like basic science,
social sustainability, organisational learning and change, industrial ecology, etc. (Circle 3).
The whole idea of Backcasting from Principles is to create a meaningful structure of the
overview, and only then tackle the details on a higher and higher degree of detail.
Relationship with Other Programme Materials
This course book is part of a set of written materials for the Strategic Leadership Towards
Sustainability Masters Programme that include:
Course Book
with the core learning materials most closely related to the core
curriculum for the Masters Programme, Strategic Leadership Towards Sustainability.
This book covers circles 1, 2 and 3 of this programme.
Supplementary Materials,
some of which will be provided to the students as
an overall set, include programme explanation and course outlines, class
schedules, select articles, guidelines on oral presentations, written reports,
facilitation techniques, natural cycles and global trends, aspects of human needs
and satisfiers, organisational and personal learning supplements, etc. Materials
will be added throughout the programme (these documents will relate to
primarily to circles 3 and 4).
General Publications List.
A publications list will be made available to help
students with more detailed exploration into specific topics of study and
research (these documents will relate also relate primarily to circles 3 and 4).
Introduction to Strategic Leadership Towards Sustainability
I think that there are good reasons to suggest that the modern age, the industrial era has ended.
Today many things indicate that we are going through a transitional period, when something is on
the way out and something else is painfully being born. It is as if something is crumbling, decaying
and exhausting itself while something else still indistinct, is arising from the rubble.
Vaclav Havel
Havel’s wise observations are synonymous with the current search by many scientists,
policy makers and society-at-large for some emerging, post-industrial age. However, it is
not yet clear how this something else will painfully be born. In particular, pursuing an
attractive and ecologically and socially sustainable society is a highly complex
undertaking. What will be required? We will need a clear understanding of social,
ecological and institutional reality – both now and over the very long term. Because we
are dealing with complex systems, this demands a broad, systems view. We will also
need an inspired, energetic approach to change – one that arises out of purpose, learning
and meaning. On both fronts, an intellectual framework anchored in science and
empirical evidence has much to offer.
A Challenge for Scientists and Policy Makers
In order to move towards sustainability, society needs a constructive dialogue on
sustainability issues between scientists on the one hand, and decision-makers in politics
and business on the other. This opinion may seem simple to justify, yet applying it in
practice is controversial. The scientific community has many reasons to retain a detached
and specialised attitude as regards engaging in public political discourse. Because
scientific progress is exploratory in nature, there is often a sense that the scientific
community does not, or cannot, agree on anything. Additionally, in many cases the
science behind sustainability is nascent. Combined, these factors can create a challenging
context for constructive dialogue.
Political arguments often utilise scientific data to underpin various points of view. All
too often, this occurs in biased ways, aimed at ‘proving’ pre-set objectives, value systems
and ideologies. Contemporary proponents of nuclear energy for instance tend to focus
on its carbon neutrality only, implying that this technology constitutes an appealing,
long-tem solution that will reduce global CO2 emissions. However, this fails to
acknowledge the fact that nuclear energy is derived from a finite resource (i.e. uranium
ore) and its use includes severe radiation-related risks and side-effects that span
geological time scales. Knowledge supporting the respective ideologies in such instances
is selected and highlighted, and contradictory knowledge is disregarded or given relatively
lower weight. This is contradictory to the goals of scientific exploration. In this way
science is often taken hostage in the marketing of ideologies or contrasting viewpoints
rather than actually serving rational decision-making. This creates additional tension
between the scientific community and policy makers.
For the scientist, scientific data – particularly in natural sciences – are often not
researched and collected for normative reasons, but with a goal of a neutral search for
knowledge. Furthermore, increasingly specialised fields of natural science have evolved
over time – from a few natural sciences such as chemistry, physics and biology, to a great
number of subdivisions of those sciences, including many more applied fields of science.
At the same time, there have been a growing number of social sciences due to increasing
subdivisions or new combinations within fields such as sociology, anthropology and
economics. This has created an increasingly complex landscape for both scientists and
other decision makers in society.
Decision-making must build on information from these many specialised fields.
However, trans-disciplinary science has not kept pace with the development within the
specialist sciences. As a consequence, the ability to assess, synthesize and communicate
conclusions from the ever increasing sets of trans-disciplinary data has not kept pace
with the needs of decision making. Current attempts to study trans-disciplinary areas to
inform policy decisions are often less robust when compared with today’s level of rigor
obtained by more specialized studies. Thus, although critical for policy making today,
the attempts often appear to be inadequate or insubstantial. As a result, policy-making
has suffered – often resulting in debates about short-term trade-offs between various
sub-optimal choices – rather than articulating a comprehensive and strategic way
Knowledge for Scientists and Decision-Makers
Scientists Decision-Makers
Focus Specialized fields of study
pharmacology, bioethics,
plant chemistry, etc.)
Policy issues that
encompass multiple fields
of study (genetic
Reason for information
Search for knowledge and
understanding (e.g. how
can we modify wheat to
carry vaccines?)
Support for political
ideology (should we allow
modified plants to carry
medicine—in our nation?)
Result Need for more rigorous transdisciplinary studies and
better communication with policy-makers!
Table i.1. Summary of approaches to knowledge of scientists and decision-makers, respectively
One key concept that scientists and decision-makers must understand is that relevant
societal decisions and policy-making cannot be directly arrived at from scientific knowledge alone
such attempts are called ‘the naturalistic fallacy'.1 Quite the opposite, all decisions, even
with scientific data taken into account, are filtered through our social value system.
Science cannot tell us that we should plan for sustainability; that is, after all, a value-based
judgement. However, once an agreement is made that we want to plan for sustainability
then science has a lot to say about the conditions for sustainability. For example, science
can provide insight into sustainable and non-sustainable flows of matter between
societies and ecosystems, help evaluate various technologies to solve such problems
within the constraints given by the conditions, and offer descriptions of the efficiency of
various measures to induce social change and acceptance of new technologies and
cultural mindsets.
1 The naturalistic fallacy is committed by those who mistakenly think that the term "good" and
the property "goodness" can be analysed in terms of some other property. The naturalistic fallacy
tries to draw a conclusion about how things ought to be based solely on information about how
things are in fact. The conclusion may be about moral duties or about ideal states of affairs; but the
unstated (and false) premise is that we must always accept things as they are. An example might
be: "According to the Darwinian theory of evolution, the most adapted and powerful creatures
will survive. Therefore we shouldn't make special efforts to feed the poor. If they can't survive on
their own, that just means they aren't as capable or well adapted as we are."
The Role of Systems Science in Informing Sustainability and Public Policy
The fact that science cannot unilaterally inform policy-making is in no way an excuse for
the scientific community to abrogate its responsibilities as regards informing the nature
of societal policies. A more helpful approach would be to seek knowledge to support
decision making by applying two qualitative guidelines, phrased here as questions:
What kind of knowledge do decision-makers need?
How should it be structured to best serve decision-making?
Without a good understanding of how to structure knowledge, we often seek wisdom
but, instead, drown in information. One solution to this problem is to identify
underlying principles upon which existing data can be structured for the sake of
comprehension. We need such principles:
to evaluate what type of information we need to come to a decision
to evaluate what type of information we do not need for a decision
to discover when available data is not sufficient for making decisions
Through structuring of information, the scientific community can support informed
decisions and policy-making without compromising either the integrity of individual
fields of science or the scientist’s own individual values.
Context of this Book
Starting in the 1940’s, scientists developed "systems theory", a transdisciplinary study of
the abstract organisation of phenomena, independent of their substance, type, spatial or
temporal scale of existence. Systems theory investigates both the principles common to
all complex entities, and the (usually mathematical) models which can be used to
describe them. The theory emphasises that real systems are open to, and interact with,
their environments, and that they must be studied in a holistic manner, rather than in
through reductionist methods. In summary, systems theory promotes the view that "the
whole is greater than the sum of its parts".
This textbook focuses on a subset of systems theory—the study of complex systems. In
general, the more complex a system is, the less accurate predictions of behaviour can be.
In the case of the system called "society in the biosphere", the complexity is so great as
to be virtually impossible to predict with any certainty. To confront this challenge, we
present, "Planning and Decision-Making in Complex Systems through Backcasting from
Basic Principles," a methodology developed via scientific consensus and pioneered by
the international non-governmental organisation, The Natural Step, and its network of
scientists. By learning and applying this structured approach to decision-making, students
are equipped to strategically approach the challenges of an unsustainable world.
Society continues to repeat the same mistakes. The problematic industrial history of
many materials, products and services reveals two points that should be kept in mind for
Sometimes impacts occur through complex interactions in the biosphere that
cannot be determined beforehand. At best, a certain impact can be clearly
related to a certain activity or process only after it has occurred. Additionally,
determining a specific impact is sometimes scientifically difficult, and the delay
from the discovery of impacts to policy change may be too long to avoid severe
This speaks in favour of discovering first-order principles by which practices can be evaluated
and strategies determined upfront and upstream, rather than after damage has already
occurred downstream as second-order effects. Because many second-order
impacts are not easily reversed, a strictly reactive approach is insufficient for
sustainable development.
The Natural Step, an international non-governmental organisation (NGO), in
collaboration with scientists internationally, has promoted and supported the
development of a framework for sustainable development that takes these points into
consideration and incorporates (i) backcasting2 from (ii) basic principles for
(i) Backcasting is a planning procedure by which a successful planning outcome is
imagined in the future, followed by the question: "what do we need to do today to reach
the successful outcome?"
2 Holmberg, J and Robèrt, K-H. 2000. “Backcasting from non-overlapping sustainability
principles – a framework for strategic planning”, International .Journal of Sustainable Development and
World Ecology, 7:1-18.
3 The first version of these sustainability principles were published in Robèrt, K-H. 1991. Det
nödvändiga steget (The Necessary Step). Stockholm: Ekerlids Förlag.
(ii) The term Basic Principles for Sustainability denotes principles that are designed for
backcasting from sustainability. They are:
a) ... based on a scientifically agreed upon view of the world;
b) ... necessary to achieve sustainability;
c) ... sufficient to achieve sustainability;
d) ... general to structure all societal activities relevant to sustainability;
e) ... concrete to guide action and serve as directional aids in problem analysis
and solutions, and
f) ... non-overlapping, or mutually exclusive in order to enable comprehension
and structured analysis of the issues.
Backcasting from Scenarios
The Backcasting from Basic Principles methodology has been elaborated from
Backcasting from Scenarios – a planning methodology built on the envisioning of a
simplified picture of success4.
"Backcasting from Scenarios"
is a method for planning where a more or less specific picture
guides the game and helps the player deal with its complexity—similar to a jigsaw puzzle. It is most
useful when a relatively static picture of the future can be arrived at.
Backcasting from scenarios is helpful when dealing with emotionally-charged decisions.
By asking decision-makers (and associated stakeholders) to envision a specific picture of
the future, bias and value judgements are exposed and can be dealt with in an open
manner. This method is also useful for helping business, especially financial institutions,
ensure that they do not take on too much risk.
Although backcasting from scenarios is a methodology that may encourage people to be
more strategic, creative and cooperative toward shared visions, it can also have
associated disadvantages for sustainable development. For example:
It can be difficult for large groups to agree on detailed descriptions of a
successful sustainable outcome due to differences in values, backgrounds, etc.
4 Robinson, J.B. 1990. “Futures Under Glass – A Recipe for People Who Hate to Predict.”,
Futures, 22(8): 820-843.
Technical development may change the conditions for planning, making the
scenario irrelevant.
Detailed scenarios of a sustainable enterprise may in fact prove unsustainable.
For example: "Are photo-voltaics really sustainable – what do they contain and
what is the ultimate resource potential for this technology?" If the answer is no
then any detailed scenario relying on photo-voltaics is inherently flawed.
In this light, it is clear that more adaptive and open ended methods are needed to
scrutinize any scenario with regard to its ecological resource potential and the complexity
of its social and economic system dynamics.
Backcasting from Basic Principles
On the other hand, backcasting directly from basic principles of sustainability resembles
chess, where the principles of success guide the game (i.e. the principles of checkmate in
chess, or basic principles for sustainability in sustainable development). This is a dynamic
planning method whereby each move takes the current situation of the game into
account while at the same time optimizing the possibility of winning. In the case of
chess, a large number of winning combinations (i.e., moves towards checkmate) exist.
The end result of the method is that the number of potential ways to win remains large
while the probability of selecting winning moves increases dramatically with each
strategic move.
Rather than agreeing on detailed descriptions of a desirable distant future, it is easier to (i) agree on basic
principles for success, (ii) agree on initial concrete steps that can serve as flexible stepping-stones in the
right direction, and (iii) continuously re-evaluate transitions along the way.
If wanted, backcasting from principles can be combined with backcasting from
scenarios. The scenarios are then scrutinized by the basic principles before being used
for backcasting.
For comprehensive planning in any complex system, it is valuable to delineate five
hierarchically different system levels and to maintain the distinction between the levels in
planning. These levels include: (i) the Systems level, (ii) the Success level, (iii) the
Strategic level, (iv) the Action level and (v) the Tools level.
Watch Out!
Renewable energy, for example, is often regarded as a principle for sustainability,
belonging to the (ii) Success level, whereas it actually belongs to (iv) the Action level. Switching to
renewable energy in the form of bio-fuels, for example, could lead to deforestation and is therefore not in
itself a principle for sustainability. However, if sustainably managed, such renewable energy may comply
with basic principles for sustainability.
The structured approach of this programme is based on these five levels as they relate to
the complex system of "individual within organisation within society within the
1. Systems Level
2. Success Level
3. Strategy Level
4. Action Level
5. Tools Level
Figure i.1. The five level hierarchy provides a structured understanding for planning and decision-
making for success in any complex system.
At the heart of planning and cooperation is Level 2 – Success. It should inform
strategies, actions and the design of our tools. Strategy (Level 3) is guided by backcasting
from principles for success, i.e. by imagining that the conditions for success are complied
with, and then proceeding by asking: "what shall we do now to optimize our chances of
getting there?" and "then what?" (until conditions for success are met).
Level 1. The system – individuals, organisations, communities, nations, in society
in the biosphere.
At the systems level, fundamental characteristics of society and its constituent
organisations existing within the biosphere need to be understood. To assist our efforts,
we explore the dynamic interrelationship within and between the ecological and social
systems. These can be understood with the careful use of science including;
thermodynamics and conservation laws, biogeochemical cycles, basic ecology, the
primary production of photosynthesis. In the social realm, we can better understand the
system by looking at social institutions, networks, characteristics of society's
interdependent pursuit of human needs and the importance of diversity.
The systems view reveals an important reality of today's unsustainable society. The
problem of unsustainability is not only that we have emitted a lot of pollutants causing
some impacts. The problem is that industrial society is designed so that pollutants are
bound to increase in concentrations globally. For example, emission of greenhouse gases
has resulted in a certain amount of climate change but it follows from the laws of nature
that as long as energy systems are organized as they are, atmospheric concentrations of
greenhouse gases will continue to increase. At the same time, natural systems are
systematically declining from destruction by physical means such as over-harvesting and
growth of infrastructure. In short, waste is steadily accumulating and resources are
steadily declining. Therefore, the resource-potential for society and the economy is
systematically decreasing. At the same time, the Earth's population is increasing and the
gaps between the haves and the have-nots are growing.
Unsustainable development can be visualized as society entering deeper and deeper into
a funnel, in which the space for deciding on options is becoming narrower and narrower
per capita. This reality contrasts sharply with a widely held illusion that we are in a
‘cylinder' where isolated social and ecological impacts come and go in an ad hoc series of
events, without creating large-scale or cumulative impacts.
Marine production
Figure i.2. The funnel metaphor shows the systematic decline in options for society and organisations
within society.
To avoid "hitting the walls of the funnel" (i.e. avoiding increasing risks), organisations
must stay on the cutting edge of solutions towards sustainability.5 Hitting the walls may
appear as:
i) increasing costs for resources, waste management, taxes, and insurance
ii) increasingly strict legislation;
iii) loss of good reputation;
iv) over-corrections when concrete negative impacts surface;
v) lost investments due to sub-optimized measures and blind alleys and
vi) loss of market share to those who develop cutting-edge solutions.
A common argument against a proactive approach is that the timing for reacting to
unsustainability is difficult to determine. The logic, however, should apply in reverse. If
you knew that you were driving towards a cliff but you didn't know where the road
ended, you would get off the road sooner rather than later! What we do today influences
our chances tomorrow, and the sooner that society aligns its priorities with sustainability
constraints, the better the chances for a successful future. The funnel is a metaphor that
5 Throughout this text book the term "organisation" refers not only to businesses and non-
profits, but also to communities, governments, and individuals.
is applied to sensitise the businesses, communities and society-at-large to the larger
picture and bring about enlightened self-interest.
Level 2. Success in the system – basic principles ("system conditions") for social
and ecological sustainability.
At the success level, it is important to incorporate the basic element of strategic thinking
– beginning with the "end in mind" and understanding successful principles (e.g. chess)
rather than successful scenarios (e.g. jigsaw puzzle).
In order to arrive at a principle definition of success – in this case sustainability – we
must know enough about the system (level 1) – in this case the biosphere, human societies
and the interactions and flows of materials between the two. Since the concept of
sustainability (level 2) becomes relevant only as we understand the un-sustainability
inherent in the current activities of society, it is logical to design principles for
sustainability as restrictions, i.e., principles that determine what human activities must not
do in order to avoid destroying the system (level 1). CFCs were "harmless" yesterday, but
which compounds are "harmless" today? Tomorrow? In what principle ways could we
destroy the biosphere/society's ability to sustain us? These questions are answered by
looking upstream in cause-effect chains, where basic errors of societal design trigger the
thousands of negative impacts occurring downstream.
Re-design within basic constraints of sustainability is the only way of tackling our current
problems sufficiently upstream, and thereby avoiding new problems looming in the
future. At the principle level, complexity is at its lowest. The comprehension that follows
from understanding this level makes it possible to ask the right questions and to
structure all the details in a way that makes sense from a decision making point of view.
With an added "not", such basic principles for destroying the system would be
conditions for sustainability within the whole system (Biosphere and Society) – or
"system conditions".
Basic Principles for Sustainability
The negative impacts related to unsustainability encountered today can – on the basic
principle level – be divided into three separate mechanisms by which humans can
destroy the biosphere and its ability to sustain society:
1. A systematic increase in concentration of matter that is net-introduced into the
biosphere from outside sources (the lithosphere, or Earth's crust – i.e. mined materials);
2. A systematic increase in concentration of matter that is produced within the
biosphere; and
3. A systematic degradation by physical means.
Sustainability of society, however, also depends on the maintenance and robust
functioning of social systems – formal institutions as well as the informal structuring of
civic society-at-large (the "social fabric"). Or, in other words, sustainability also requires
that we not systematically undermine the social fabric. This requirement is not only
necessary to sustain society itself, but also to comply with the first three ecological
constraints in that if basic needs are not met, people do not have a short term option to
adjust for the long term goals of sustainability. This requires a fourth basic constraint
that takes social sustainability into account.
Figure i.3. Sustainable Society within the Biosphere. Society (inner circle) exists within the living system
or biosphere (outer circle). Both of these systems interact with the earth’s crust, or lithosphere
(bottom of figure). Flows from the lithosphere to the biosphere include inorganic (e.g. minerals
involved in photosynthesis) and directly to society (e.g. mined metals and fossil fuels). Physical
resources also flow from the biosphere to society. Society distributes, uses and discharges these
In a sustainable society, nature is not subject to systematically increasing…
I …concentrations of substances extracted from the Earth's crust,
II …concentrations of substances produced by society,
III …degradation by physical means
and, in that society. . .
IV…people are not subject to conditions that systematically undermine
their capacity to meet their needs.
various resources. Lithospheric, human-produced, and nature-based substances flow back to the
biosphere as what is commonly called waste. The numbers in the figure refer to the part of the
system governed by the basic principles for sustainability listed in the box below.
The four constraints constitute the four basic principles for sustainability6 and state;
Implications of the Basic Sustainability Principles for Planning and Decision-
1. The societal influence on the biosphere due to accumulation of lithospheric material is covered by the
first principle. The balance of flows between the biosphere and the lithosphere must be
such that concentrations of substances from the lithosphere (e.g. carbon as CO2 from fossil
fuels or metals such as Mercury and Cadmium) do not systematically increase in the
whole biosphere, or in parts of it. Besides the upstream influence on this balance
through the amounts of mining and choices of mined minerals – including the respective
mineral's or metal's relative scarcity in normal ecosystems – the balance can be
influenced by the quality of final deposits, and the societal competence to safeguard the
flows through recycling and other measures. What concentration can be accepted in the
long run depends on properties such as ecotoxicity, here taken in a broad sense to
include effects on geophysical systems, and bioaccumulation.
Due to the complexity and delay mechanisms in the biosphere, it is often very difficult to
foresee what concentration will lead to negative impacts. A general rule is not to allow
6 These are the basic principles for a sustainable society in the biosphere (or “basic sustainability
principles”). They are widely known in the business community as The Natural Step “System
Conditions”, named after the non-governmental organisation of the same name. In this book, we
will widely use the phrase: “basic sustainability principles” or “sustainability principles.
deviations from the natural state that are large in comparison to natural fluctuations. In
particular, such deviations should not be allowed to increase systematically. Therefore, what
must at least be achieved is a halt to systematic increases in concentration of matter that
is net-introduced to the biosphere from the Earth's crust. Depending on the
characteristics of the respective substances and the recipient, the critical concentrations
differ (e.g. Aluminium and Iron are naturally plentiful in nature whereas Mercury and
Cadmium are relatively scarce). This must be taken into account when we consider flows
and develop monitoring schemes.
2. The societal influence on the biosphere due to accumulation of substances produced in society is covered
by the second principle. This mechanism differs functionally from the first, since production
refers to the combination of elements into compounds, whereas basic sustainability
principle 1 reflects net-inputs of elements either as elements such as in metals, or
embedded in compounds such as various kinds of minerals.
The flows of molecules and nuclides that leak out from societal activities must not be so
large that they can neither be integrated into the natural cycles within the biosphere, nor
be deposited safely into the lithosphere. The balance of flows must be such that
concentrations of substances produced in society do not systematically increase in the
whole biosphere or in parts of it. Besides the upstream influence on this balance through
production volumes and characteristics of what is produced, such as degradability of the
produced substances, the balance can also be influenced by the quality of final deposits,
and competence to safeguard the flows through measures such as recycling and thermal
treatment. As with metals, the complexity of qualitative differences amongst various
compounds creates high demand for a subtle guidance as regards the respective flows
and practices.
3. The societal influence on the biosphere by physical means is covered by the third principle. This
mechanism covers the destructive manipulation, displacement and harvesting of natural
capital7 and natural flows within the biosphere. This condition implies that the resource
basis for (i) the productivity in the biosphere (such as fertile areas, thickness and quality
of soils, and availability of fresh water) and (ii) biodiversity in the biosphere, is not
systematically degraded by, for example, over-harvesting, mismanagement through
monocultures or invasive species introductions, disruption of groundwater flows, or
displacement such as asphalting productive ecosystems. Again, the complexity is high,
and we need a way of addressing this complexity that is simple enough yet still
scientifically valid.
7 We will return to the concept of ‘natural capital’ in Chapters 4, 5 and 9 in particular.
4. Social dynamics and the production of services for humans are covered by the fourth principle. This
mechanism addresses the challenge that conditions faced by society do not inhibit
people's ability to meet their needs, over and above all the substitution and
dematerialisation8 measures taken in meeting the first three objectives. The term "needs"
is here not only defined as basic physical needs, such as food and fresh water, but all
constitutional needs that that must be satisfied for humans to stay mentally and socially
healthy as well – e.g., protection, affection, understanding and identity9.
Taken together, the first three basic sustainability principles define an ecological
framework for any sustainable society. The fourth principle is the basic social condition,
interacting with the other three in a dynamic way. If the purpose of society is to meet
human needs worldwide now and in the future while conforming to the ecological
constraints given by the first three principles, then the use of resources must be efficient
enough to succeed. However, it will not be sufficient solely to strive for the
dematerializations and substitutions needed to comply with the first three basic
sustainability principles. Social sustainability implies that we also need improved means
of dealing with issues of equity and fairness from the perspective of human needs and
population growth. It is, for instance, an inefficient use of resources, from the
perspective of humanity, if one billion people starve and lack access to safe drinking
water, while at the same time another billion use valuable resources for low-value
activities such as sitting in traffic jams. These issues could begin to be addressed by
keeping the current and future basic needs of humanity in mind when decisions are
made, and understanding the factors that contribute to people's ability to meet these
Level 3. Strategy for success – guiding principles for the process to arrive at
Logical and generic guidelines, built on backcasting, are available and inform a step-by-
step approach to selecting flexible platforms, or logical stepping-stones, within an overall
strategy. This needs to occur at the individual (e.g. dialogue, diplomacy and coaching),
organisational (e.g. community building and institutional culture) and societal levels (e.g.
incentives such as taxes, regulations, etc.).
8 Dematerialisations refer to using less of the same substances (i.e. mined resources, manufactured
products, energy, nature-based resources, etc.). Substitutions refer to changing to new types of
materials, flows and management routines etc.
9 Human needs and their relationship to social sustainability are addressed in more detail in
Chapter 6.
Given that basic sustainability principles are for the whole biosphere, an organisation
that wants make strategic progress towards sustainability can start its planning by
translating the basic sustainability principles into objectives or its own organisational
sustainability principles that are relevant to it. Backcasting from these principles for
success is like playing chess, where a strategic approach to winning (and every move, or
action) is informed by understanding the principles for success, or in the case of chess,
the principles for "checkmate").
For an organisation that does not want to be a problem in the system, a way to translate
basic principles for a sustainable society in the biosphere would be to add "our
contribution" to the phrasing of the basic principles:
The sustainability principles translated for an organisation are to:
1. …eliminate our contribution to systematic increases in concentrations of
substances from the Earth's crust.
2. …eliminate our contribution to systematic increases in concentrations of
substances produced by society.
3. …eliminate our contribution to systematic physical degradation of nature.
4. …eliminate our contribution to the systematic undermining of human's
ability to meet their needs worldwide.
We will return to how this can be interpreted as specifics in practical life, but already we
can see that this will mean for instance, to:
…substitute certain minerals that are scarce in nature with others that are more
abundant, using all mined materials efficiently, and systematically reducing
dependence on fossil fuels.
…substitute certain persistent and unnatural compounds with ones that are normally
abundant or break down more easily in nature, and/or use all substances produced
by society more efficiently through dematerialisation.
…draw resources only from well-managed eco-systems, systematically pursuing the
most productive and efficient use both of those resources and land, and exercising
caution in all kinds of modification of nature e.g. avoiding over-harvesting and
introductions of exotic species.
…check whether our behaviour has consequences for people, now or in the future,
which restrict their opportunities to lead a fulfilling life by asking whether we would
like to be subjected to the conditions we create.
Backcasting Using The ABCD Strategic Process
Each individual organisation must draw its own conclusions from these basic principles
as regards problems, solutions, goals and sub-goals. The four-step "ABCD" process
below provides a systematic way of guiding this intellectual process:
Figure i.4. The ABCD Process. A Strategic Tool for Backcasting from Basic Principles for
The ABCD Steps:
(A) Awareness: The framework – including the system conditions, the step-by-step
approach to comply with them, and an organisation’s motivation for doing so in
a strategic manner – is shared as a mental model for community building
amongst the planning participants (i.e., playing the game of Sustainable
Development by the same rules);
(B) Baseline: An assessment of "today" is conducted by listing all current flows and
practices that are problematic from a sustainability perspective, as well as
considering all the assets that are in place to deal with the problems; To assess
‘now' from an imagined point of principle ‘winning' in the future is an essential
element of backcasting. This is how the chess player assesses and reassesses the
situation after each move – in relation to the principles of check-mate.
(C) Visioning. Solutions and visions for "tomorrow" (i.e., the opening of the funnel)
are created and listed by applying the implied “constraints” of the sustainability
principles to trigger creativity; and,
(D) Setting and Managing Priorities. Priorities from the C-list are made, and action plans
are created.
Priority Setting in D:
Suggestions from the C-list are prioritized (similar to when moves in chess are
scrutinized for their potential as stepping stones to eventually reach checkmate) by
searching for measures that respond "yes" to the following three questions:
i. Does this measure proceed in the right direction with respect to all principles of sustainability?
Sometimes a measure represents a trade-off that proceeds in the right direction
with respect to one of the principles while working against others. Asking this
question helps illuminate the full picture, and lead to complementary measures
that may be needed to take all sustainability principles into account.
ii. Does this measure provide a stepping-stone (i.e. ‘flexible platform') for future improvements? It is
important that investments, particularly when they are large and tie-up resources
for relatively long time periods, can be further elaborated or completed in line with
the sustainability principles in order to avoid dead ends. An example would be
investing heavily in a technology that will cause fewer impacts in nature today, but
without the potential for adapting to contributing to complete compliance with
the system conditions in the long run.
iii. Is this measure likely to produce a sufficient return on investment to further catalyze the process?
It is important that the process does not end due to lack of resources or bad
investments along the way. Note that "investments" do not just refer to financial
resources, but also to political, social, and cultural resources.
Measures that answer "yes" to all three questions provide the strategic element of the
methodology. Each suggested idea or action (e.g. investment) is scrutinized for its
potential to (i) move towards sustainability, (ii) serve as a flexible platform, and (iii) bring
resources (e.g. financial, social, intellectual, etc) to further development.
Level 4. Concrete actions that fit strategic guidelines
Level 4 includes all concrete actions taken in the system. To better understand this level
and importantly, how it relates to the other levels, it is helpful to look at a rich sampling
of actual case studies from businesses and municipalities as well as examples from the
transport, agriculture, forestry, and fishery sectors. For example, actions related to energy
systems are useful to review in the areas of photo-voltaic, wind, wave, fossil fuels, and
nuclear power. All actions are examined in the context of overall strategies (Level 3) to
reach sustainability (Level 2) in the system (Level 1).
Level 5. Toolbox – various tools and concepts for sustainable development.
Various tools and concepts are available and should be examined for possible use,
including a formalized and strict way of applying the TNS framework in itself – the
"ABCD Strategic Tool" (see above). In addition, management systems (e.g.
Environmental Management Systems such as ISO 14,001 and EMAS), assessment and
monitoring programs for the current situation as well as on-going progress can be useful.
A new approach to Life Cycle Assessment, based on a comprehensive sustainability
view, holds particular promise10. Finally, complementary approaches for sustainable
development, such as Factor 10, Zero Emission, Ecological Footprinting, Natural
Capitalism and others can be examined in relation to the ultimate goal of sustainability.
The five level model represents a structured comprehension for understanding
sustainable development, not a sequential process leading from one level to the next.
Instead, it is important to understand all levels and the connections between them
simultaneously. One cannot say that one level (e.g. 2 – "success") is more important than
the other (e.g. 4 – "actions"). To say this would be like suggesting that principles for
10 Ny H., Broman G., MacDonald JP., Yamamoto, R. and Robèrt, K.H. 2004, “Sustainability
Constraints as System Boundaries: An approach to make Life Cycle Assessment Strategic”,
submitted to the Journal of Industrial Ecology.
successful flight (level 2) are more important than construction of a structurally sound
airplane (level 4). Developing one's own structured comprehension takes practice
applying the five level model – playing the sustainability game.
The structured comprehension provided by the five-level model is designed to be a
shared mental model for cooperation around sustainable development that is generic
enough to be applied for any activity at any scale. To make that possible, we have utilized
scientific thinking, methodologies and scrutiny to the best of our knowledge. Applying the
framework, on the other hand, is where the art begins. It's about community building,
genuine creativity, ethics, aesthetics, group dynamics, common sense and psychology.
After all, it's only when musicians or chess players have mastered the basics that they can
successfully improvise.
... In Cluster 3, the purple cluster includes Robèrt [49,86], Holmberg [87], Broman [61,86], Ny [61] and Wackernagel [87]. The biggest node represents the most influential scholar is Robèrt [49,86]. ...
... In Cluster 3, the purple cluster includes Robèrt [49,86], Holmberg [87], Broman [61,86], Ny [61] and Wackernagel [87]. The biggest node represents the most influential scholar is Robèrt [49,86]. ...
... In Cluster 3, the purple cluster includes Robèrt [49,86], Holmberg [87], Broman [61,86], Ny [61] and Wackernagel [87]. The biggest node represents the most influential scholar is Robèrt [49,86]. The studies of the scholars in this cluster mainly center on defining sustainability in the strategic, macrolevel views as systems and frameworks. ...
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Over the past 30 years, scholars have been calling for modern management theory and research to consider how strategic management tools could be applied to enhance corporate sustainability. While strategic management for sustainability has emerged as a multidisciplinary field, the existing knowledge base has yet to be systematic reviewed. This paper responded to the literature gap by conducting a bibliometric review of strategic management for sustainability. The paper aimed to document the landscape and composition of this literature through the analysis of 988 relevant Scopus-indexed documents. Data analyses found that the strategic management for sustainability knowledge base remained an emergent field with increasing interests from diverse groups of international scholars in various fields, particularly in environmental science, engineering, and strategic business management. Over the past three decades, the literatures have been continuously grown from a few publications in the early 1990s to almost 1000 documents to date. The review found that the most influential journals and authors of this knowledge base were international in scope but predominately from Western developed countries. Five Schools of Thought from author co-citation analysis revealed the intellectual clustering composition of the knowledge base on strategic management for sustainability: corporate sustainability strategy, sustainable waste management, strategic sustainability systems, strategic sustainability management and entrepreneurship, and sustainability assessment strategy. Key topics addressed in this research include the distribution of documents across the most highly cited journals, reflecting the breadth, quality and influential scholars in the strategic management for sustainability knowledge domain, naming of the influential scholars in the field and identification of contemporary foci and research front in the existing literature through the keyword co-occurrence analysis and co-word map. The strategic management for sustainability field has evolved from the key topics related to the green movement at the policy-driven macro level (i.e., ecological or environmental protection/impact, water/waste management and natural resource conservation) to the practicality in organizations with the topics related to social strategic responsibility and business management issues (i.e., corporate strategy, project management, supply chain management, information management, adaptive management, corporate sustainability). In addition to a retrospective, insightful prospective interpretation, practical implication, limitations and future research direction are discussed.
... Ecosystems store information in the structures (Jørgensen & Mitsch, 2004). • Matter is never truly consumed: What is consumed comprises the qualities-the concentration, the purity and the structure-of matter and the ability of energy to perform work (Robèrt et al., 2010). ...
... Energy and matter are neither created nor destroyed, and therefore, they are never truly consumed. What are consumed are the qualities of matter-the concentration, the purity and the structure of the matter-and the ability of energy-matter to perform work (Robèrt et al., 2010). Through the integration and practice of the three principle design strategies and hybrids and their corresponding forms of production, we should aim at maintaining or even increasing nutrient qualities. ...
... The points below list some criteria for creating principles, specifically for sustainability (Robèrt et al., 2010). The use of the term 'sustainability' has been replaced with 'regeneration' to fit this paper's goal. ...
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Different branches of design are shifting from a primary focus on artefacts as ends to concentrating on means (e.g. forms of production), with ends encompassing larger societal goals. Concurrently, humanity is facing an increasingly carbon-and-freshwater-constrained world, combined with escalating realities of climate change and ecosystem degradation; thus, our means of production must evolve. An integrative framework and model has been developed to support designers (and other stakeholders) working on regenerative systems of production. The model integrates synergistic, circular, cascading and aggregate efficiency design systems based on ecosystem concepts, as well as regenerative agriculture, the bioeconomy and the (technical) circular economy. With this integrative approach, stakeholders may develop more productive, regenerative synergies and hybrid activities that produce zero waste. The model can be applied at the micro-, meso- and macro-scales. Keywords: Systemic design, ecological design, biomimetics, circular economy, regenerative agriculture.
... The importance of the evaluation of the results and progress of integrated models for sustainable urban development, e.g., sustainable urban district, is justified by the resources involved in the associated endeavors. It makes it impossible, without any assessment, to ensure that investments are directed in the best possible manner and resources are allocated appropriately, to confirm that practical endeavors are heading in the desired direction, and to avoid future mistakes and lock-ins (Davidson and Venning, 2011;Robèrt et al., 2010;Sharifi, 2013). Accounting for sustainable urban development requires the incorporation of considerable additional aspects and parameters (Brandon and Lombardi, 2005). ...
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In recent years, the world has witnessed significant progress in implementing numerous eco-district and eco-city projects, which are under the banner of experimentation or seen as sites of innovation. Indeed, the rise of such initiatives serves as a sign of renewed attempts to experiment or innovate in designing urban futures in an increasingly urbanized and datafied society. In light of this, a number of alternative models of eco-urbanism have been proposed by scholars and promoted by policy makers. The prominent among these models are sustainable urban districts and data-driven smart eco-cities. At the core of these models is a range of compact and ecological design strategies and static and dynamic conceptions of spatial scaling. These are intended to produce and boost the benefits of sustainability on the basis of a set of integrated approaches—increasingly supported by big data technologies—as a way to overcome new challenges and introduce new solutions. Based on three case studies conducted on four of the ecologically and technologically leading cities in Europe—Stockholm, Malmö and Barcelona, this paper analyses and discusses the role and relevance of integrating density, mixed land use, greening, and low-energy buildings to the sustainability of emerging eco-districts; the new conceptions of cities and their spatial scales in the context of data-driven smart eco-cities; and the opportunities and challenges of smart urban metabolism with respect to the evaluation of eco-districts. This study shows that combining compact and ecological design strategies improves the performance of eco-districts with respect to the three dimensions of sustainability, as well as paves the way for their balanced integration for producing synergistic effects. Also, this study highlights the innovative potential and enabling role of urban computing and intelligence in transforming the spatial scaling of data-driven smart eco-cities through generating the kind of designs that increase the effects of sustainability as outcomes of processes. Moreover, this study reveals the advantages of the data-driven approach to the analysis of the flows of resources in urban environments in relation to the evaluation of sustainable urban district development. This paper concludes that data-driven smart planning and evaluation holds great potential for facilitating progress towards achieving the goals of sustainability thanks to the proven role and untapped potential of big data technologies in monitoring, understanding, and analyzing urban processes and systems in real-time.
... Evaluation of sustainable urban districts The importance of the assessment of the results and progress of integrated models for sustainable urban development is justified by the resources involved in the associated endeavors. Generally, it makes it impossible, without any assessment, to ensure that investments are directed in the best possible manner and resources are allocated appropriately, to confirm that the practical endeavors are heading in the desired direction, and to avoid future mistakes and lock-ins [14,96,97]. Accounting for sustainable urban development will require incorporation of considerable additional aspects and parameters (Brandon and Lombardi 2005). ...
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As materializations of trends towards developing and implementing urban socio-technical and enviro-economic experiments for transition, eco-cities have recently received strong government and institutional support in many countries around the world due to their ability to function as an innovative strategic niche where to test and introduce various reforms. There are many models of the eco-city based mainly on either following the principles of urban ecology or combining the strategies of sustainable cities and the solutions of smart cities. The most prominent among these models are sustainable integrated districts and data-driven smart eco-cities. The latter model represents the unprecedented transformative changes the eco-city is currently undergoing in light of the recent paradigm shift in science and technology brought on by big data science and analytics. This is motivated by the growing need to tackle the problematicity surrounding eco-cities in terms of their planning, development, and governance approaches and practices. Employing a combination of both best-evidence synthesis and narrative approaches, this paper provides a comprehensive state-of-the-art and thematic literature review on sustainable integrated districts and data-driven smart eco-cities. The latter new area is a significant gap in and of itself that this paper seeks to fill together with to what extent the integration of eco-urbanism and smart urbanism is addressed in the literature, what driving factors are behind it, and what forms and directions it takes. This study reveals that eco-city district developments are increasingly embracing compact city strategies and becoming a common expansion route for growing cities to achieve urban ecology or urban sustainability. It also shows that new eco-city projects are increasingly capitalizing on data-driven smart technologies to implement environmental, economic, and social reforms. This is being accomplished by combining the strengths of eco-cities and smart cities and harnessing the synergies of their strategies and solutions in ways that enable eco-cities to improve their performance with respect to sustainability as to its tripartite composition. This in turn means that big data technologies will change eco-urbanism in fundamental and irreversible ways in terms of how eco-cities will be monitored, understood, analyzed, planned, designed, and governed. However, smart urbanism poses significant risks and drawbacks that need to be addressed and overcome in order to achieve the desired outcomes of ecological sustainability in its broader sense. One of the key critical questions raised in this regard pertains to the very potentiality of the technocratic governance of data-driven smart eco-cities and the associated negative implications and hidden pitfalls. In addition, by shedding light on the increasing adoption and uptake of big data technologies in eco-urbanism, this study seeks to assist policymakers and planners in assessing the pros and cons of smart urbanism when effectuating ecologically sustainable urban transformations in the era of big data, as well as to stimulate prospective research and further critical debates on this topic.
... Ecosystems store information in the structures (Jørgensen & Mitsch, 2004). • Matter is never truly consumed: What is consumed comprises the qualities-the concentration, the purity and the structure-of matter and the ability of energy to perform work (Robèrt et al., 2010). ...
Full-text available
The framework and model describe ecosystem functions. Working within and towards systems of production that intend to be truly circular and regenerative necessitates that designers (and other stakeholders) have an increased understanding and intuition of how ecosystems function—an eco-literacy. To this end, the framework is based on foundational metabolisms (producers, consumers and decomposers), and their interactions with each other and ‘nutrient pools’ within their collective environment. The model proposes that ecosystems are fractals of plants and are one collective metabolism. Some ‘ecosystem concepts’ are also developed that can be worked with as they are or used as a base for analogies for those working directly with, or developing frameworks for, integrative systems of production. Keywords: Systemic design, ecological design, biomimetics, circular economy, systems ecology.
... Kaine and Cowan (2011) defined a system as a collection of interconnected elements that form a relationship comprising the entirety of the components interacting in a nonlinear manner. Systems can vary in complexity, and each system is characterized by circumstances, purpose, association, inputs, throughputs, outputs, and evaluation, feedback, and control processes (Robèrt et al., 2004). System components interact in a manner that results in an outcome greater than the sum of the individual components . ...
... However, with increasing time, effort and resources being devoted to sustainable urban development and sustainable urban district development, assessment of results and progress become vital. Without, it becomes impossible to ensure that investments are used and directed in the best possible manner, to confirm that urban developments are heading in the desired direction and to avoid future mistakes and lock-ins (Robèrt et al., 2010;Davidson & Venning, 2011;Sharifi, 2013). Evaluation of the built environment has largely been a matter of assessing construction features and building performance parameters (Leaman et al., 2010). ...
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Urban sustainable development is now seen as one of the keys in the quest for a sustainable world and increased interest in developing sustainable urban districts has become an important feature of urban sustainability. However, if cities and their districts are to be part of this transition, it will be necessary to determine the state and progress of urban developments. Evaluation and follow-up activities must therefore be an integral part of modern sustainability work. This thesis investigated evaluation methods and strategies for determining progress towards sustainable urban district development. The Stockholm Royal Seaport district in Sweden was used as the research arena in studies based on urban metabolism theories, including a single case study approach, focus group interviews, the Framework for Strategic Sustainable Development and quantitative data analysis. The thesis main results can be summarised as follows. A structured frame for use in theory and practice can strengthen programme development and minimise the risk of built-in problems in environmental and sustainability plans for new urban districts. The proposed evaluation model for Stockholm Royal Seaport displayed strengths regarding core evaluation activities, such as communicating a strong vision and recognising continuity in the evaluation process. It displayed weaknesses as regards organisational structure and system boundaries. The proof-of-concept implementation of a Smart Urban Metabolism framework enabled real-time evaluation data on district scale to be generated and processed. The implementation process also led to identification of limitations in the framework, such as access to business sensitive data, failed integration of data streams and privacy concerns. Dynamic, high-resolution meter data can provide a higher degree of transparency in evaluation results and permit inclusion of all stakeholder groups in urban districts. The frequently used energy performance indicator kWh/m2 (Atemp) was shown to be an insufficient communication tool to mediate knowledge, due to conflation of consumption and construction parameters and the need for prior knowledge for full understanding.
This chapter investigates how the combination of savings and investments affects economic development and sustainability. This discussion aims to help to understand the role of savings as a support to growth, and how biasing individual decisions on consumption and debt via monetary policies can be a source of economic growth un-sustainability. Information technology helps to optimise the use of resources, but it even makes dangerous policies easier to implement. Section 1 shows theoretical insights into the contribution of savings to growth, and the concept of sustainability; section 2 focuses on the theories that better deal with the sustainability concern and investigates the role of information technology in monetary policy; section 3 shows the growing, positive contribution of e-money to growth and sustainability, and it suggests a new role for the government as advisor within an information-enhanced economy where information technology can play a prominent role; section 4 concludes.
Our research paper looks at the sustainability challenge as an example of complexity in interrelated nested systems (or meta-problem) and we further explore the consequences of disruptive events induced by climate change (ie. Extreme Climate Events). Due to their potential effects on adaptive capacities of systems at all levels (macro, meso and micro) and the need for Strategic Sustainable Development (SSD) to develop meta-solutions (non-isolated, non-reinforcing) we focus on community-based interventions and participatory facilitation processes. Therefore, we enquire what might a process look like that supports a community’s psychological resilience and strategic sustainable development following a disruptive event. A way to reinforce a community’s adaptive capacities is through making meaning collaboratively and such a process can be supported by the use of stories and narrative. To this intent, we focus on the use of Collective Narrative Practices (CNP) within the implementation process (ABCD process) of the Framework for Strategic Sustainable Development (FSSD). CNP promote desired narratives and strengthen communities’ psychological resilience while the FSSD ensures the development of meta-solutions and their practical application (through the ABCD). Throughout a five-step exploration, we test their theoretical compatibility, interview FSSD and CNP practitioners, design an initial Process Prototype, test its validity by interviewing practitioners with expertise in both fields, and develop a final Process Prototype which embeds recommendations, guidelines and tools. Finally, our paper initiates the academic study of the linkage between FSSD and CNP and is aimed to guide practitioners of both fields to discern an effective way to facilitate the emergence of appropriate responses in a community, while maintaining or rebuilding its resilience and complying with SSD core principles.
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The circular economy has become a topic of intense interest for policymakers, scholars and business managers because it has proven to be a new paradigm to achieve the sustainability of our society. However, the main efforts made in the circular economy cannot be limited to the actions of professional or experts. We believe that if we intend to meet current needs without compromising the ability of future generations to meet their own needs, we must teach present generations the principles for achieving economic, social and environmental sustainability in the short, medium and long-term. This paper highlights the use of participatory guided activities instead of traditional courses to teach and engage engineering students with circular economy practices. Resumen.-La Economía Circular se ha convertido en un tema de gran interés para los legisladores, académicos y empresarios, ya que se muestra como un nuevo paradigma para lograr la sostenibilidad de nuestra sociedad. Sin embargo, los principales esfuerzos en la Economía Circular no pueden reducirse a actos de profesionales o de expertos. Consideramos que, si pretendemos satisfacer las necesidades actuales sin comprometer la capacidad de las generaciones futuras para satisfacer sus propias necesidades, tenemos que enseñar a las generaciones actuales los principios para lograr la sostenibilidad económica, social y ambiental a corto, medio y largo plazo. Este artículo destaca el uso de actividades participativas en lugar de cursos tradicionales para enseñar e involucrar a estudiantes de ingeniería con las prácticas de economía circular. Palabras clave: Economía circular, estudiantes de ingeniería, caso de estudio exploratorio, sostenibilidad, innovación educativa. Summary.
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