| |
2. Industrial Transformation Focus Leaders
Energy and Material Flows
| Preety Bhandari |
Tata Energy Research Institute (India) |
| Cutler J. Cleveland |
Boston University (USA) |
| Thomasz Zylicz |
Warsaw Ecological Economics Centre (Poland) |
Food
| Ken Green |
Manchester School of Management (UK) |
| Luis Vieira |
EMBRAPA (Brazil) |
Cities
| Hidefumi Imura |
Kyushu University (Japan) |
| Richard Rockwell |
University of Michigan (USA) |
Information and Communication
| Sukehiro Gotoh |
National Institute for Environmental Studies (Japan) |
| Nigel Roome |
Erasmus University (The Netherlands) |
Governance and Transformation Processes
| David P. Angel |
Clark University (USA) |
| Ulrik Jörgensen |
Technical University of Denmark (Denmark) |
| Raúl O'Ryan |
Universidad de Chile (Chile) |
| Amara Pongsapich |
Chulalongkorn University (Thailand) |
3. Others with significant input to the development of the Science
Plan
Yinka Adebayo, Harry Aiking, Stefan Anderberg, Xuemei Bai, Richard Berk,
Pieter van Beukering, Joop de Boer, Jariya Boonjawat, Sander de Bruyn,
William Clark, Pradeep Dadhich, John Ehrenfeld, Aldo Femia, Marina Fischer
Kowalski, Peter Groenewegen, Joyeeta Gupta, Roebyem Heintz, Edgar Hertwich,
Friedrich Hinterberger, Marjan Hofkes, Frank den Hond, Peter de Janosi,
Somporn Kamolsiripichaiporn, Marleen van de Kerkhof, Onno Kuik, Haasje
van de Mandele, Bert Metz, Laurie Michaelis, William Moomaw, Steve Morgan,
Masaru Moriya, Peter Mulder, Vicki Norberg-Bohm, Eric Odada, Marcella
Ohira, Tongroj Onchan, Hans Opschoor, Armando Rabuffetti, Lucia Reisch,
Ramine Shaw, Andrew Sors, Leena Srivastava, Karl Steininger, Paul Stern,
Richard Tol, Mauricio Tomalsquim, Harmen Verbruggen, Ans Vollering, Helga
Weisz, Eric Welch, Monika Winn, Ernst Worrell, Nese Yavuz, and Oran Young
|
Timeline of Activities
|
| 1996, March |
Scoping Report drafted |
| 1996, May |
Approval of Scoping Report by the IHDP Scientific Committee
|
| 1997, June |
Presentation of Tentative Framework of the Research
Agenda (Human Dimensions Open Meeting - IIASA, Austria) |
| 1998, February |
Establishment of the Industrial Transformation Scientific
Planning Committee |
| 1998 |
Organisation of 8 Regional Workshops |
| 1999, February |
Open Science Meeting/Review of (Draft) Science Plan
|
| 1999, June |
Presentation of the Second Draft Science Plan (Human
Dimensions Open Meeting - IGES, Japan) |
| 1999, December |
Approval of Science Plan by IHDP Scientific Committee,
publication and distribution |
| 2000 |
Establishment of a Scientific Steering Committee to
guide the implementation of the Science Plan |
| 2000 |
Establishment of an International Project Office |
| 2000 - 2005 |
Implementation of the Industrial Transformation Science
Plan |
Contents
List of Tables, Figures
and Boxes
Preface
Acknowledgements
Executive Summary
1. Global Environmental Change and Industrial
Transformation Research
1.1 Global Environmental Change and the Human Dimensions
1.2 Characteristics of Industrial Transformation Research
1.2.1 Overarching Goal
1.2.2 Operational Goal of the
Science Plan
1.2.3 Industrial Transformation
Research Characteristics
1.2.4 Related Policy Initiatives
1.3 Systems Change and the Global Environment
2. A Multi-Disciplinary Approach to Transformation
Research
2.1 Introduction
2.2 Multi-Disciplinary Co-operation in a Systems Approach
3. International and Geographic Aspects of Transformation
Research
3.1 Geographic Perceptions and Priorities
3.1.1 OECD Countries; from
End-of-Pipe to Industrial Transformation
3.1.2 Countries with Economies
in Transition (CEITs) and Newly
Independent States (NIS); Industrial Transformation in Parallel with
Political Transformation
3.1.3 Newly Industrialised
Countries (NICs); the Challenge of Leapfrogging
3.1.4 Giant Developing Countries;
Managing Multiple Transformations
3.1.5 Least Developed Countries
(LDCs); Industrial Transformation in the
Context of Meeting Basic Needs
3.1.6 Industrial Transformation
in Differing Geographies of the World
3.2 Focus on Systems
3.3 Systems Change, Time Frame, and Global Interdependencies
4. Research Foci
4.1 Introduction
4.2 Energy and Material Flows
4.2.1 Rationale
4.2.2 Research Questions
4.3 Food
4.3.1 Rationale
4.3.2 Research Questions
4.4 Cities
4.4.1 Rationale
4.4.2 Research Questions
4.5 Information and Communication
4.5.1 Rationale
4.5.2 Research Questions
4.6 Governance and Transformation
Processes
4.6.1 Rationale
4.6.2 Research Questions
5. Programmatic Links
5.1 Interactions between the Industrial Transformation
Project and other
Global Environmental
Change Projects
6. Next Steps
7. References
8. World Wide Web References
9. Abbreviations and Acronyms
Appendix I.
International Activities on Production and Consumption Patterns and Industrial
Transformation
Appendix II.
International Consultative Process to Identify Research Priorities
- Industrial Transformation Meetings and Workshops
Appendix III.
Research Ideas/Proposals Submitted to the Industrial Transformation Secretariat
in 1998-1999
Appendix IV.
Research Approaches to Support the Industrial Transformation Science Plan
Appendix V.
Candidates for Inclusion in Comparative Research on Cities
IHDP Report Series
List of Figures, Tables
and Boxes
Figures
Figure 1 Tentative
Framework for Industrial Transformation Research
Figure 2 Development
Stages in Corporate and Societal Response
Figure 3 Societal
Responses to the Issue of Environment
Figure 4 Industrial
Transformation Research Foci
Figure 2.1 Tentative
Framework for Industrial Transformation Research
Figure 3.1 Development
Stages in Corporate and Societal Response
Figure 3.2 Societal
Responses to the Issue of Environment
Figure 4.1 Industrial
Transformation Research Foci
Figure 4.2 The
Food Consumption and Production System
Figure 4.3 Industrial
Transformation and Sustainable Development of Cities
Figure 4.4 Cities
and the Hydrological Cycle
Tables
Table 1 Key
Research Questions for Industrial Transformation Research
Table 4.1 Key Research
Questions for Industrial Transformation Research
Table 4.2 Framework
and Potential Research Topics of the Cities Focus
Boxes
Box 4.1 Technology
Innovation for Global Change: Role of Assessment,
R&D,
and Regulation
Box 4.2 Dynamics
of Technology and Long-Term Energy Scenarios
Box 4.3 The
Asian Dilemma Project
Box 4.4 Private
Sector Initiatives
Box 4.5 European
Eco-Efficiency Initiative
Box 4.6 The
Household Metabolism Effectively Sustainable (HOMES)
Box 4.7 PROFETAS
Box 4.8 FCPS
in Latin America and Global Environmental Change
Box 4.9 Shopping,
Cooking, and Eating: Strategies for Sustainable
Household Consumption in Europe
Box 4.10 IGES
Urban Study Project: Challenges and Opportunities for
Rapidly
Growing Cities in Asia
Box 4.11 Industrial
Transformation, Urbanisation, and the Environment in the
Asia-Pacific Region
Box 4.12 Information
and Communication Systems Organisers
Box 4.13 Toward
Clean Shared Growth in Asia
Box 4.14 Co-Evolution
of Society-Nature Interactions in the Course of
Industrial
Modernisation
Preface
Industrial Transformation research has the challenging goal of understanding
the ways in which society could combine economic and social development
with the reduction of pressure on the environment. Thus it is a topic
of high political and societal relevance. The need for an interdisciplinary,
international framework for this research stimulated the selection of
Industrial Transformation as a core science project of the International
Human Dimensions Programme (IHDP) on Global Environmental Change.
In 1996 the IHDP Scientific Committee requested Pier Vellinga, Director
of the Institute for Environmental Studies (IVM) of the Vrije Universiteit
in Amsterdam to initiate and co-ordinate preparations for the development
of a Science Plan on Industrial Transformation. A Scoping Report and a
Tentative Framework of the Research Agenda on Industrial Transformation
were prepared and provided the basis for the establishment of a Scientific
Planning Committee (SPC) in February 1998. Throughout 1998, the Industrial
Transformation SPC organised eight regional workshops for researchers
interested in Industrial Transformation. The results of the eight workshops,
the background documents and additional discussions by the SPC contributed
to the development of a Draft Science Plan that was discussed in depth
at the Open Science Meeting, held in Amsterdam at the end of February
1999.
Subsequently, that draft has been significantly adjusted on the basis
of input and comments received. This final Science Plan is the result.
On behalf of the IHDP, we would like to thank all those who have collaborated
in the design, development, drafting and reviewing of this Science Plan.
In particular, we wish to acknowledge the commitment of Pier Vellinga
to the long and challenging process of producing this plan. His vision
and determination have been essential throughout. We would also like to
thank Nadia Herb, Els Hunfeld, and the other staff of IVM, who provided
support as this plan was developed and discussed. Furthermore, the hard
work of the members of the Scientific Planning Committee and Focus Leaders
is gratefully acknowledged, as well as the input from many researchers
at meetings held throughout the development of the plan and through reviews
of various documents.
We look forward to the implementation of this important and challenging
research. The IHDP will continue to provide its full support in the further
development of the project.
Eckart Ehlers
Jill Jäger
Chair, IHDP-SC
Executive Director, IHDP
Acknowledgements
This Industrial Transformation Science Plan is the product of a major
co-operative effort over the last two years. Most notably, I would like
to express my gratitude to the continuous support and assistance of the
Scientific Planning Committee and the Focus Leaders. This dedicated group
has demonstrated vision and energy in developing this dynamic research
agenda.
Many others made significant contributions to past drafts of this Science
Plan and other supporting documents and deserve recognition for their
hard work: Yinka Adebayo, Harry Aiking, Stefan Anderberg, Xuemei Bai,
Richard Berk, Pieter van Beukering, Joop de Boer, Jariya Boonjawat, Sander
de Bruyn, William Clark, Pradeep Dadhich, John Ehrenfeld, Aldo Femia,
Marina Fischer Kowalski, Peter Groenewegen, Joyeeta Gupta, Roebyem Heintz,
Edgar Hertwich, Friedrich Hinterberger, Marjan Hofkes, Frank den Hond,
Peter de Janosi, Somporn Kamolsiripichaiporn, Marleen van de Kerkhof,
Onno Kuik, Haasje van de Mandele, Bert Metz, Laurie Michaelis, William
Moomaw, Steve Morgan, Masaru Moriya, Peter Mulder, Vicki Norberg-Bohm,
Eric Odada, Marcella Ohira, Tongroj Onchan, Hans Opschoor, Armando Rabuffetti,
Lucia Reisch, Ramine Shaw, Andrew Sors, Leena Srivastava, Karl Steininger,
Paul Stern, Richard Tol, Mauricio Tomalsquim, Harmen Verbruggen, Ans Vollering,
Helga Weisz, Eric Welch, Monika Winn, Ernst Worrell, Nese Yavuz, and Oran
Young.
I would like to express my thanks to all those who attended the regional
workshops and the Open Science Meeting, the many researchers who submitted
research ideas and proposals, and the numerous other colleagues who have
reviewed this research agenda and provided input along the way.
The IHDP Secretariat and its Scientific Committee has been tremendously
supportive throughout the process. I would like to extend special thanks
to Jill Jäger and Larry Kohler, without whose leadership this Science
Plan and the Industrial Transformation Project would not be possible.
The development of this Science Plan, through the workshops and Open Science
Meeting, has been possible through generous funding provided by the IHDP,
EU-ENRICH, START, APN, the City of Kita-Kyushu, IGES, UNEP, US-NSF, Boston
University, IAI, Brazilian National Academy of Sciences, Brazilian Human
Dimensions Programme, TERI, IIASA, EU-DG XII, the Institute for Environmental
Studies (IVM) at the Vrije Universiteit in Amsterdam, the Royal Netherlands
Academy of Arts and Sciences, the Netherlands Ministry of Economic Affairs,
the Netherlands Ministry of Education, Culture and Science, and the Netherlands
Organisation for Scientific Research (NWO). I thank all these organisations
for their continued support of this project.
Finally, I would like to thank the Institute for Environmental Studies
and the Industrial Transformation Secretariat staff, in particular Nadia
Herb and others, for their help in the finalisation and production of
this Science Plan.
Pier Vellinga
Chair, Industrial Transformation Scientific Planning Committee
Executive Summary
Characteristics of Industrial Transformation Research
This Science Plan on Industrial Transformation research is one of the
four international science projects co-ordinated by the International
Human Dimensions Programme (IHDP) on Global Environmental Change (The
other IHDP science projects are: Land-Use and Land-Cover Change (LUCC),
co-sponsored by IGBP; Global Environmental Change and Human Security (GECHS);
and Institutional Dimensions of Global Environmental Change (IDGEC) (see
IGBP and HDP 1995; IHDP, 1999a; and IHDP, 1999b).) IHDP is initiated and
co-ordinated by the international research community and provides a unique
forum and institutional setting for its science projects.
Industrial Transformation research seeks to understand complex society-environment
interactions, identify driving forces for change, and explore development
trajectories that have a significantly smaller burden on the environment.
It is based on the assumption that important changes in production and
consumption systems will be required in order to meet the needs and aspirations
of a growing world population while using environmental resources in a
sustainable manner. Appendix I outlines some of the activities and priorities
of production and consumption research in other organisations worldwide.
The focus on systems and systems change research makes this project unique
and different from the present mainstream of environmental research.
To set certain limitations as to what would qualify as Industrial Transformation
research, four general characteristics are defined:
1. Industrial Transformation research deals with the relationship between
societal, technological, and environmental change;
2. Industrial Transformation focuses on systems and system changes that
are relevant in view of the global environment (such as the energy system,
the food system, and the urban system);
3. Industrial Transformation research relates producer and consumer perspectives,
including the incentives and institutions that help in shaping these perspectives;
and
4. Industrial Transformation research is international in scope.
Multi-Disciplinary Co-operation in a Systems Approach
The definitions and approaches described above imply that Industrial Transformation
research is multi-disciplinary in character. It builds on the foundations
of a range of social science disciplines including economics, sociology,
psychology, human ecology, anthropology, political science, geography,
and history, as well as on the foundations of natural sciences such as
physics, chemistry, biology, and technological sciences.
To provide a framework for the co-operation required between various
disciplines, a matrix was developed (Figure 1). The rows reflect the disciplinary
research fields that each have a certain tradition (outlined in Research
Approaches to Support the Industrial Transformation Science Plan 1999),
while the columns describe a set of human activities aimed at meeting
specific human needs. Through this multi-disciplinary approach, the Industrial
Transformation Project strives to build on existing pillars of research
and draw from expert communities while developing new research topics
and radical approaches.
Figure 1: Tentative Framework for Industrial Transformation Research
with research fields/disciplinary approaches in the rows and human
needs/ activities in the columns.
Systems in the framework of Industrial Transformation research are defined
as a chain of interrelated economic activities aimed at providing a specific
need for society (e.g., energy, food, water, shelter, and transport).
Such a system includes the actors (government, producers, and consumers),
the flow of goods and/or services they deal with (including the metabolism
along the chain), and the overall physical and institutional setting in
which they operate.
Industrial Transformation goes beyond the notion of process efficiency
and "green" products, and beyond the domain of single sectors. It is about
system innovation, both technological and institutional. Industrial Transformation
cannot be planned by a single actor or a single sector. Moreover, transformation
involves geographic scales that transcend a single country or a single
continent.
Systems change research builds on ongoing research and policy analysis.
To demonstrate this, the stage model shown in Figure 2 illustrates the
four stages in the evolution of societal response to environmental issues
since the 1960s. This stage model must not be seen as a static approach;
it is dynamic and the phases illustrated have no strict borders.
Figure 2: Development Stages in Corporate and Societal Response.
In some cases system changes in the past have occurred as a result of
scientific and technological developments that through their progressive
adoption replace existing systems (for example, the steam engine and,
at a later stage, information technology). System changes have also occurred
as a result of technical and institutional innovation inspired by societal
problems (for example, the green revolution was driven by concern about
food shortages). In many cases system changes are driven by a combination
of societal concerns, economic/technological opportunities, and societal
ambitions. System change comes about relatively quickly when such factors
are mutually reinforcing.
Changes in the way human needs and preferences are met imply a reconsideration
of sectors and inter-sectoral co-operation. Different sectors are likely
to get involved simultaneously. The food, energy, and information systems,
for example, are global and are deeply embedded in local cultures and
institutions. They are also intertwined and have important global interdependencies.
Consequently, transformation will take time, on the order of decades,
and requires the engagement of society as a whole. It is arbitrarily estimated
that systems change, as compared to end-of-pipe measures, takes place
along time scales on the order of 10 to 25 years, and geographic scales
that go beyond continents. Figure 3 tentatively illustrates the relation
between various response modes, the time scale, and the geographic scale
involved.
Figure 3: Societal Responses to the Issue of Environment.
International Consultative Process to Identify Research Priorities
The systems that qualify for Industrial Transformation research range
from the provision of basic human needs such as water, food, energy, and
materials to different categories of needs such as shelter, communication,
recreation, and financial services. As the priorities for research on
any of these systems in the framework of the international Science Plan
depend on the impact on the global environment and the added value of
international co-operation, an international, bottom-up participatory
process was followed to identify priority research fields. (Appendix II
lists all workshop and meeting participants involved in this process).
To discuss the overall framework and the priorities for research, eight
regional workshops were held respectively in:
- Eastern Europe (Laxenburg, Austria, March 26-27, 1998);
- South Asia (New Delhi, India, April 4-5, 1998);
- East Asia (Kita Kyushu, Japan, June 24-25, 1998);
- Southeast Asia (Bangkok, Thailand, July 28-30, 1998);
- North America (Boston MA, USA, September 24-25, 1998);
- Western Europe (Brussels, Belgium, October 13, 1998);
- Latin America (Sao Paulo, Brazil, November 12-13,1998); and
- Africa (Nairobi, Kenya, November 16-17, 1998).
It was clear from these regional workshops that
different parts of the world have different priorities with respect to Industrial
Transformation research. For example, in the Organisation for Economic Co-operation
and Development (OECD) countries one of the major transformation challenges
is to de-link economic growth from its traditional growth in environmental
impacts. The Central and Eastern European countries face the combined challenge
of political, economic, and Industrial Transformation, including environmental
restoration. The developing countries are too diverse to be illustrated
by a single example. For the rapidly developing countries, one of the challenges
is to ensure that high economic growth rates are not at the expense of the
degradation of renewable and exhaustion of non-renewable resources. For
some of the giant developing countries the challenge is to manage multiple
transformations with major geographical diversity. The related process of
urbanisation adds to these transformation challenges. In the least developed
countries, ongoing transformations are often driven by the need to survive
in environmentally constrained and politically vulnerable situations. Poverty
alleviation is the most pressing goal and governance is a major issue here.
At the regional workshops the overall framework was reviewed and specific
transformation research fields were prioritised (see Regional Workshops
1998 Summary Report). During and after the regional workshops many research
ideas and proposals were also submitted to the Scientific Planning Committee
(Appendix III). These proposals helped to shape the Science Plan and identify
the specific research questions.
The regional workshops were followed by an Open Science Meeting held
in Amsterdam (see Industrial Transformation Open Science Meeting Report).
At that international meeting, the overall research framework, the foci
for research, and the submitted research ideas/proposals were extensively
discussed. The Science Plan was finalised on the basis of the discussions
at the Amsterdam meeting and extensive correspondence within the various
working groups thereafter. The research agenda for the Industrial Transformation
Project must set certain limitations, so priority research questions were
identified for the foci, as summarised below. The Industrial Transformation
Science Plan will remain an evolving and dynamic framework for developing
research.
Research Foci
It was clear that the energy system, in view of its environmental implications
at global and local levels should be a major focus for research. During
the elaboration of this focus it was decided to include the flow of materials
because of the major links between Energy and Material Flows.
Food production and consumption were prioritised due to their relation
to biodiversity issues and the major impact on the environment throughout
the food production, processing, transport, consumption, and waste cycle.
International interdependencies were another argument for including a
focus on Food. Moreover, the potential connections between climate
change and food production made this a priority topic.
Water and transport were two other topics raised in nearly all workshops.
In view of the important spatial aspects of water and transport, it was
ultimately decided to include these issues in the more generic focus of
Cities.
A special focus added to the priorities of the Science Plan is Information
and Communication. Developments in this field are considered to be
one of the major driving forces in societal transformation and have important
implications for the global environment. Since Information and Communication
is a major driver for transformation, it can also be seen as a cross-cutting
theme embedded in each of the research foci.
Finally, two research topics were raised in many of the workshops and
the Open Science Meeting: transformation processes and governance. Both
are cross-cutting themes that focus on generic aspects of Industrial Transformation.
It was ultimately decided to combine the two in a single focus, Governance
and Transformation Processes, with emphasis on analysing and understanding
the driving forces that are changing the way society relates to the environment.
It is not by accident that these foci directly reflect the natural sciences
issues and concerns regarding the major global biogeochemical cycles such
as the carbon - climate change - energy connection, and the nitrogen -
biodiversity - food connection. Water and transport have been selected
in the context of urban development (Cities) as these systems have
geographically specific components. The research foci ultimately selected
through the process as described above are illustrated in Figure 4 below.
Figure 4: Industrial Transformation Research Foci, as selected through
an international consultative process, including eight regional
workshops and an Open Science Meeting.
For each of these foci, a small number of research questions have been
identified as relevant for transformation research (see Table 1). Not
all research questions will simultaneously be addressed in the implementation
phase; the Industrial Transformation Project will actively pursue a small
number of research projects and will endorse other research projects in
line with the goals of the project. Some of the questions will receive
priority attention while others will be developed at a later stage. The
organisation of comprehensive international research projects will also
depend on the initiatives taken in the field and the funding opportunities
available. The list of research questions for each focus (Table 1) should
thus be seen as a priority list of research opportunities and a starting
point for the implementation of concrete research projects. Moreover,
the Science Plan will remain an evolving and dynamic framework for developing
research.
Table 1: Key Research Questions for Industrial
Transformation Research.
| Research Focus |
Key Research Questions |
Energy and
Material Flows |
- From geographical, sectoral, and company levels, what are the
strengths, and the nature, of the relations between energy and
material use, technological change, and economic performance?
- How will international trade in energy, investments in energy
infrastructure (production and distribution), and the related
flows of energy and materials be affected by international treaty
regimes, for example the Framework Convention on Climate Change
and related protocols, and the WTO?
- What are the technical, economic, and social driving forces
for the private energy sector towards the development of low carbon
technologies and markets?
- What is driving and/or pulling consumer needs and preferences
in the field of energy and material use, and what institutional,
socio-psychological, and technical arrangements would influence
purchasing, investment, and lifestyle towards a significantly
lower level of environmental effects?
|
| Food |
- What is the feasibility of "de-linking": is it possible to
meet growing needs and changing preferences while simultaneously
reducing environmental impacts?
- What are the regional differences in sustainability of different
FCPSs (food consumption and production systems), and what role
do FCPSs play in regional development?
- What are the global trends and what solutions can be envisaged?
- Which measurement tools can be used/developed to measure progress
in the sustainability of the FCPS?
- How do regional policies affect the contribution of FCPSs to
global environmental change and how could they be redesigned?
|
Cities
(focus on Transport
and Water) |
- What are the opportunities and constraints to de-couple transport
from the carbon cycle?
- Why is the transport/carbon budget different from one city
to another?
- How can systems be redesigned to minimise negative effects
both locally and remotely, seen from technological, spatial, and
institutional perspectives?
- How can the need for water be de-coupled from effects on the
hydrological cycle?
- Why do these effects differ from city to city?
- How can technological, spatial, and institutional redesign
help to reduce the negative effects of water use?
|
Information and
Communication |
- What is the role of global environmental change in the strategic
decisions of leading companies in the electronics, information,
and communication technology sector?
- In what ways can the new technologies alter the overall system
of production and consumption to raise standards of living while
contributing to materials efficiency and reducing burdens on the
global environment?
- How will information and communications technology influence
society and lifestyle and through this alter the way environmental
resources are used?
- To what extent do changes in information and communication
enable the development of an international civil society supporting
international and local discourses about global environmental
change among and in society, the scientific community, and policy
and decision-makers?
|
Governance and
Transformation Processes |
- How does systemic change in society-environment relations occur
and what processes shape the relation between socio-economic activity
and the natural environment, both historically and in the contemporary
period?
- What contemporary transformation processes might be harnessed
to the goal of systemic change in society-environment relations?
- What are the most powerful supra-national and non-state driving
agents for global environmental change?
- What is the role of the state in a globalised context in promoting
global environmental change?
- What are successful models of policy intervention, with special
attention paid to the societal context?
|
Programmatic Links
The Industrial Transformation Project is linked to, and should be viewed
in the context of, the four international programmes addressing global
environmental change issues (IHDP, the World Climate Research Programme
(WCRP), the International Geosphere-Biosphere Programme (IGBP), and the
International Programme of Biodiversity Science (DIVERSITAS)). There are
several links between the issues addressed in the IHDP science projects:
the Land-Use and Land-Cover Change (LUCC) Project has direct links with
the Food focus, the Institutional Dimensions of Global Environmental Change
(IDGEC) Project provides insight for all of the Industrial Transformation
research foci, and the Cities focus is related to the Global Environmental
Change and Human Security (GECHS) Project. The four IHDP science projects
are interacting with the more natural sciences focussed programmes such
as WCRP, IGBP, and DIVERSITAS. Through combined international conferences,
and where possible, local research co-operation, the links between the
primarily social sciences programme (IHDP) and the primarily natural sciences
programmes on global environmental change will be maintained.
Next Steps
Developing this Science Plan is a major step in the creation of a large,
collaborative effort on Industrial Transformation under the umbrella of
IHDP. The next step is the implementation phase, including the set up
of an International Project Office that will facilitate communication,
promotion, and the implementation of concrete research projects.
With the endorsement of this Science Plan, a Scientific Steering Committee
will be established to guide the implementation of this research agenda.
This committee and its members will help to develop the research initiatives
while endorsing and co-ordinating the research efforts carried out by
research groups located in different parts of the world through workshops
and regular assessments of the state of the art. The Industrial Transformation
Project will actively pursue a small number of research projects and will
endorse other research projects in line with the goals of the project.
IHDP itself does not have funds for research. It does, however, have the
capacity to open doors and assist researchers in shaping their projects
and identify promising research funding opportunities. In fact, the call
by the research community, including funding agencies, for international
research co-operation in the field of human dimensions of global environmental
change is one of the major driving forces behind the establishment of
IHDP.
|
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