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In a world that is becoming more and more exposed and vulnerable to the effects of global climate change, combining integrated risk assessment tools with effective strategies for both mitigation and adaptation is a key prerogative for policy-making. With the focus of both researchers and decision-makers gradually shifting from observing and assessing the bio-physical aspects of climate change to a more human and society centered understanding of the nature of the problem, the social, behavioral, economic and technological aspects have entered center stage of the public discourse. Responses to the climate change challenge have to establish an optimal interplay between mitigation, adaptation and socio-economic instruments. Yet, given the band-width and scale of the climate problematique and its projected impacts, very ambitious mitigation measures have to be undertaken without delays, a fact that is particularly true for emerging economies with their very rapid and unprecedented growth rates, both in GDP and GHG emissions terms.
The challenge for the next years is to harmonize poverty eradication and attaining the Millenium Development Goals through stable economic growth with mitigating the effects of climate change. Therefore, “inclusive green growth” has become the motto of the day. But how can this goal be achieved? Obviously, quite fundamental changes have to be introduced that affect both the production and the consumption sectors and allow for real innovation in technologies and energy, in urban mobility, infrastructure and transportation grids. This paper illustrates the deep social and societal nature of climate change response strategies, especially in the area of mitigation, and shows that transitions to green and low-carbon economies will have to embed policies, incentive schemes and economic instruments in a larger societal context of social learning and behavioral change.

About the Author

Andreas Rechkemmer

Professor, Chief Science and Policy Advisor, Global Risk Forum, Davos, Switzerland; University of Cologne and Beijing Normal University


1. Asian Development Bank (ADB) (2008): Strategy 2020. – The Long-Term Strategic

2. Framework of the Asian Development Bank 2008–2020. Manila.

3. Asian Development Bank (ADB) (2010): Climate Change in Asia and the Pacific: Implications

4. for Food, Fuel, and People. Manila.

5. Asian Transitions and Globalisation: Towards an Analytical Framework. Workshop report

6. (6–7 July 2006, Chiang Mai, Thailand), ed. by Anna J. Wieczorek.

7. Berkhout, F., Angel, D. and Wieczorek, A. (2008): Asian development pathways and

8. sustainable socio-technical regimes (IVM Working Paper I. 08/01). Amsterdam.

9. Boelie, E., Geels, F. W. and Green, K. (eds.) (2004): System innovation and the transition to

10. sustainability: Theory, evidence and policy. Cheltenham, UK.

11. Centre for European Policy Studies (CEPS) (2009): Reaching the 2 °C Target:

12. Technological Requirements, Economic Costs and Policies (CEPS Policy Brief No. 188 / May 2009).

13. Gardner, H. (2006): Changing Minds. Cambridge, Mass.

14. Geels, F. W. (2002): Technological transitions as evolutionary reconfiguration processes: A

15. multi level perspective and a case study. Research Policy 31, pp. 1257–1274.

16. Geels, F.W. (2004): From sectoral systems of innovation to sociotechnical systems: Insights about

17. dynamics and change from sociology and institutional theory. Research Policy 33, pp. 897–920.

18. Industrial Transformtion (IT) (1999): Science Plan. IHDP Reprt No. 12 (cited as: Vellinga and

19. Herb, 1999).

20. Intergovernmental Panel on Climate Change (IPCC) (2001): Third Assessment Report

21. (TAR). Geneva.

22. Intergovernmental Panel on Climate Change (IPCC) (2007): Climate Change 2007. Geneva.

23. Jacobsson, S. and Johnson, A. (2000): The diffusion of renewable energy technology: An

24. analytical framework and key areas for research. Energy Policy 28, pp. 625–640.

25. Kemp, R., Schot J. and Hoogma R. (1998): Regime shifts to sustainability through processes

26. of niche formation: The approach of strategic niche management. Technology Analysis

27. and Strategic Management, 10 (3): pp. 175–195.

28. Martens, P. and Chang, C.T. (2010): The social and behavioural aspects of climate change:

29. Linking vulnerability, adaptation and mitigation. Sheffield, UK.

30. Olsthoorn, X., and Wieczorek, A., (eds.) 2006: Understanding Industrial Transformation:

31. Views from Different Disciplines. Dordrecht.

32. Ormrod, J.E. (1999): Human learning (3rd ed.). Sydney.

33. Rosenstock, I.M., Strecher, V.J. and Becker, M.H. (1994): The health belief model and HIV risk

34. behavior change. In R.J. DiClemente & J.L. Peterson (eds.), Preventing AIDS: Theories and

35. Methods of Behavioral Interventions (pp. 5–24). New York.

36. Sachs, J. (2007): Lecture 2, Survival in the Anthropocene. Reith Lecture, Peking University:


38. Smith, A., Stirling A., Berkhout F. (2005): The governance of socio-technical transitions.

39. Research Policy, 34: pp. 1491–1510.

40. Stamboulis Y. and Papachristos G. (2008): Investigation and modelling framework of

41. biofuels as a new socio-technical regime. The 2008 Conference of the System Dynamics

42. Society (conference paper).

43. Sterk, W. (2009): Towards an effective and equitable climate change agreement:

44. A Wuppertal proposal for Copenhagen – Wuppertal Inst. for Climate, Environment and

45. Energy (Wuppertal Spezial no. 40).

46. The Social Learning Group (2001): Learning to Manage Global Environmental Risks: A Functional

47. Analysis of Social Responses to Climate Change, Ozone Depletion, and Acid Rain. Cambridge, Mass.

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