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51. Climate change : The necessary, the possible and the desirable Earth League climate statement on the implications for climate policy from the 5th IPCC Assessment

Author

Rockström, Johan, Brasseur, Guy, Hoskins, Brian, Lucht, Wolfgang, Schellnhuber, John, Kabat, Pavel, Nakicenovic, Nebojsa, Gong, Peng, Schlosser, Peter, Manez Costa, Maria, Humble, April, Eyre, Nick, Gleick, Peter, James, Rachel, Lucena, Andre, Masera, Omar, Moench, Marcus, Schaeffer, Roberto, Seitzinger, Sybil, van der Leeuw, Sander, Ward, Bob, Stern, Nicholas, Hurrell, James, Srivastava, Leena, Morgan, Jennifer, Nobre, Carlos, Sokona, Youba, Cremades, Roger, Roth, Ellinor, Liverman, Diana, Arnott, James, Rockström, Johan, Brasseur, Guy, Hoskins, Brian, Lucht, Wolfgang, Schellnhuber, John, Kabat, Pavel, Nakicenovic, Nebojsa, Gong, Peng, Schlosser, Peter, Manez Costa, Maria, Humble, April, Eyre, Nick, Gleick, Peter, James, Rachel, Lucena, Andre, Masera, Omar, Moench, Marcus, Schaeffer, Roberto, Seitzinger, Sybil, van der Leeuw, Sander, Ward, Bob, Stern, Nicholas, Hurrell, James, Srivastava, Leena, Morgan, Jennifer, Nobre, Carlos, Sokona, Youba, Cremades, Roger, Roth, Ellinor, Liverman, Diana, and Arnott, James

Abstract

The development of human civilisations has occurred at a time of stable climate. This climate stability is now threatened by human activity. The rising global climate risk occurs at a decisive moment for world development. World nations are currently discussing a global development agenda consequent to the Millennium Development Goals (MDGs), which ends in 2015. It is increasingly possible to envisage a world where absolute poverty is largely eradicated within one generation and where ambitious goals on universal access and equal opportunities for dignified lives are adopted. These grand aspirations for a world population approaching or even exceeding nine billion in 2050 is threatened by substantial global environmental risks and by rising inequality. Research shows that development gains, in both rich and poor nations, can be undermined by social, economic and ecological problems caused by human-induced global environmental change. Climate risks, and associated changes in marine and terrestrial ecosystems that regulate the resilience of the climate system, are at the forefront of these global risks. We, as citizens with a strong engagement in Earth system science and socio-ecological dynamics, share the vision of a more equitable and prosperous future for the world, yet we also see threats to this future from shifts in climate and environmental processes. Without collaborative action now, our shared Earth system may not be able to sustainably support a large proportion of humanity in the decades ahead.

Published
2014
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52. Drivers, Trends and Mitigation

Author

Edenhofer, Ottmar, Pichs-Madruga, Ramon, Sokona, Youba, Blanco, Gabriel, Gerlagh, Reyer, Suh, Sangwon, Ahenkorah, Alfred K. Ofosu, Barrett, John, De Coninck, Heleen, Diaz Morejon, Cristobal Felix, Mathur, Ritu, Nakicenovic, Nebojsa, Pan, Jiahua, Pathak, Himanshu, Rice, Jake, Richels, Richard, Smith, Steven, Stern, David, Zhou, Peter P., Toth, Ferenc L., Edenhofer, Ottmar, Pichs-Madruga, Ramon, Sokona, Youba, Blanco, Gabriel, Gerlagh, Reyer, Suh, Sangwon, Ahenkorah, Alfred K. Ofosu, Barrett, John, De Coninck, Heleen, Diaz Morejon, Cristobal Felix, Mathur, Ritu, Nakicenovic, Nebojsa, Pan, Jiahua, Pathak, Himanshu, Rice, Jake, Richels, Richard, Smith, Steven, Stern, David, Zhou, Peter P., and Toth, Ferenc L.

Abstract

Chapter 5 analyzes the anthropogenic greenhouse gas (GHG) emission trends until the present and the main drivers that explain those trends. The chapter uses different perspectives to analyze past GHG-emissions trends, including aggregate emissions flows and per capita emissions, cumulative emissions, sectoral emissions, and territory-based vs. consumption-based emissions. In all cases, global and regional trends are analyzed. Where appropriate, the emission trends are contextualized with long-term historic developments in GHG emissions extending back to 1750.

Published
2014

55. Policies for Capacity Development

Author

Mytelka, Lynn, primary, Aguayo, Francisco, additional, Boyle, Grant, additional, Breukers, Sylvia, additional, de Scheemaker, Gabriel, additional, Gelil, Ibrahim Abdel, additional, Kemp, René, additional, Monkelbaan, Joachim, additional, Rossini, Carolina, additional, Watson, Jim, additional, Wolson, Rosemary, additional, Jacobsson, Staffan, additional, Tripathy, Upendra, additional, Wilbanks, John T., additional, and Sokona, Youba, additional

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56. Preface

Author

Edenhofer, Ottmar, primary, Pichs-Madruga, Ramon, additional, Sokona, Youba, additional, Matshoss, Patrick, additional, and Seyboth, Kristin, additional

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57. Climate change: The necessary, the possible and the desirable Earth League climate statement on the implications for climate policy from the 5th IPCC Assessment

Author

Rockström, Johan, primary, Brasseur, Guy, additional, Hoskins, Brian, additional, Lucht, Wolfgang, additional, Schellnhuber, John, additional, Kabat, Pavel, additional, Nakicenovic, Nebojsa, additional, Gong, Peng, additional, Schlosser, Peter, additional, Máñez Costa, Maria, additional, Humble, April, additional, Eyre, Nick, additional, Gleick, Peter, additional, James, Rachel, additional, Lucena, Andre, additional, Masera, Omar, additional, Moench, Marcus, additional, Schaeffer, Roberto, additional, Seitzinger, Sybil, additional, van der Leeuw, Sander, additional, Ward, Bob, additional, Stern, Nicholas, additional, Hurrell, James, additional, Srivastava, Leena, additional, Morgan, Jennifer, additional, Nobre, Carlos, additional, Sokona, Youba, additional, Cremades, Roger, additional, Roth, Ellinor, additional, Liverman, Diana, additional, and Arnott, James, additional

Published
2014
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58. Technical summary

Author

Arvizu, Dan, Bruckner, Thomas, Chum, Helena, Edenhofer, Ottmar, Estefen, Segen, Faaij, Andre, Fischedick, Manfred, Hansen, Gerrit, Hiriart, Gerardo, Hohmeyer, Olav, Hollands, K. G. Terry, Huckerby, John, Kadner, Susanne, Killingtveit, Anund, Kumar, Arun, Lewis, Anthony, Lucon, Oswaldo, Matschoss, Patrick, Maurice, Lourdes, Mirza, Monirul, Mitchell, Catherine, Moomaw, William, Moreira, José, Nilsson, Lars J., Nyboer, John, Pichs-Madruga, Ramon, Sathaye, Jayant, Sawin, Janet L., Schaeffer, Roberto, Schei, Tormod A., Schlömer, Steffen, Seyboth, Kristin, Sims, Ralph, Sinden, Graham, Sokona, Youba, Stechow, Christoph von, Steckel, Jan, Verbruggen, Aviel, Wiser, Ryan, Yamba, Francis, Zwickel, Timm, Arvizu, Dan, Bruckner, Thomas, Chum, Helena, Edenhofer, Ottmar, Estefen, Segen, Faaij, Andre, Fischedick, Manfred, Hansen, Gerrit, Hiriart, Gerardo, Hohmeyer, Olav, Hollands, K. G. Terry, Huckerby, John, Kadner, Susanne, Killingtveit, Anund, Kumar, Arun, Lewis, Anthony, Lucon, Oswaldo, Matschoss, Patrick, Maurice, Lourdes, Mirza, Monirul, Mitchell, Catherine, Moomaw, William, Moreira, José, Nilsson, Lars J., Nyboer, John, Pichs-Madruga, Ramon, Sathaye, Jayant, Sawin, Janet L., Schaeffer, Roberto, Schei, Tormod A., Schlömer, Steffen, Seyboth, Kristin, Sims, Ralph, Sinden, Graham, Sokona, Youba, Stechow, Christoph von, Steckel, Jan, Verbruggen, Aviel, Wiser, Ryan, Yamba, Francis, and Zwickel, Timm

Published
2012

61. South-North dialogue on equity in the greenhouse : a proposal for an adequate and equitable global climate agreement

Author

Ott, Hermann E., Winkler, Harald, Brouns, Bernd, Kartha, Sivan, Mace, M. J., Huq, Saleemul, Kameyama, Yasuko, Sari, Agus P., Pan, Jiahua, Sokona, Youba, Bhandari, Preety M., Kassenberg, Andrzej, Lèbre La Rovere, Emilio, Rahman, A. Atiq, Ott, Hermann E., Winkler, Harald, Brouns, Bernd, Kartha, Sivan, Mace, M. J., Huq, Saleemul, Kameyama, Yasuko, Sari, Agus P., Pan, Jiahua, Sokona, Youba, Bhandari, Preety M., Kassenberg, Andrzej, Lèbre La Rovere, Emilio, and Rahman, A. Atiq

Published
2004

64. Linkages between climate change and sustainable development

Author

Beg, Noreen, primary, Morlot, Jan Corfee, additional, Davidson, Ogunlade, additional, Afrane-Okesse, Yaw, additional, Tyani, Lwazikazi, additional, Denton, Fatma, additional, Sokona, Youba, additional, Thomas, Jean Philippe, additional, La Rovere, Emilio Lèbre, additional, Parikh, Jyoti K., additional, Parikh, Kirit, additional, and Rahman, A. Atiq, additional

Published
2002
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66. Climatic changes and groundwater resources in Africa.

Author

Al-Gamal, Samir Anwar, Sokona, Youba, and Dodo, Abdel-Kader

Abstract

Purpose – This paper aims to understand the impacts of climate changes on groundwater resources in the African continent in which groundwater components constitute one of the most indispensable resources for development. Design/methodology/approach – Observed data are used for the first time to illustrate the manifested impacts of climate changes on the groundwater resources either directly or indirectly, this includes the comparison between isoheytal maps as well as water level data versus time. Findings – The results of the analysis suggest that climate change is likely to impact groundwater resources, either directly, e.g. via changing precipitation patterns, or indirectly, e.g. through the interaction of changing precipitation patterns via changing land-use practices and water demand. These changes may concern both groundwater quantity and quality. Climate change will affect groundwater recharge rates, i.e. the renewable groundwater resource, and groundwater levels. Any decrease in groundwater recharge will exacerbate the effect of sea-level rise. In inland aquifers, a decrease in groundwater recharge can lead to saltwater intrusion of neighbouring saline aquifers, and increased evapotranspiration in semi-arid and arid regions may lead to the salinisation of shallow aquifers. Originality/value – In Africa, climate change and variability have the potential to impose additional pressures on water availability, water accessibility and water demands which will directly be impacted on eradicating poverty as a direct consequence of climate changes on sustainable development in Africa. A more refined understanding from specialists should be addressed to raise public and stakeholder awareness in this respect. [ABSTRACT FROM AUTHOR]

Published
2009
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67. Techno-Economic Analysis of Solar e-Cooking Systems for Rural Communities in Nigeria

Author

Diemuodeke, Ogheneruona E., Orji, Michael, Ikechukwu, Clinton, Mulugetta, Yacob, Sokona, Youba, and Njoku, Ifeanyi Henry

Abstract

This paper presents solar PV electric cooking systems to fill the gap of clean energy stove demand in Africa and in particular in rural communities. The design analyses of four different solar PV electric cooking configurations, based on resistive burner and induction burner, are presented. The levelised cost of energy (LCOE) of the solar PV induction e-cooking, with battery storage, is 0.39 $/kWh. Sensitivity analysis was done to ascertain the affordability range of solar PV e-cooking. It was shown that the combination of the reduced cost of investment and good sunshine would most likely make the solar PV induction e-cooking competitive. However, the acceptability of the solar PV induction cooking will require addressing some important technical, economic, policy and socio-cultural related barriers.

Published
2006
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68. Development transitions for fossil fuel-producing low and lower–middle income countries in a carbon-constrained world

Author

Foster, Vivien, Trotter, Philipp A., Werner, Sven, Niedermayer, Melin, Mulugetta, Yacob, Achakulwisut, Ploy, Brophy, Aoife, Dubash, Navroz K., Fankhauser, Sam, Hawkes, Adam, Hirmer, Stephanie, Jenkins, Stuart, Loni, Sam, Mcgivern, Alexis, Nanthavong, Khamphone, Probst, Benedict, Pye, Steve, Russo, Vladimir, Semieniuk, Gregor, Shenga, Carlos, Sridharan, Vignesh, Srivastav, Sugandha, Sokona, Youba, Croxatto, Lucas Somavilla, Yang, Pu, Foster, Vivien, Trotter, Philipp A., Werner, Sven, Niedermayer, Melin, Mulugetta, Yacob, Achakulwisut, Ploy, Brophy, Aoife, Dubash, Navroz K., Fankhauser, Sam, Hawkes, Adam, Hirmer, Stephanie, Jenkins, Stuart, Loni, Sam, Mcgivern, Alexis, Nanthavong, Khamphone, Probst, Benedict, Pye, Steve, Russo, Vladimir, Semieniuk, Gregor, Shenga, Carlos, Sridharan, Vignesh, Srivastav, Sugandha, Sokona, Youba, Croxatto, Lucas Somavilla, and Yang, Pu

Abstract

The production and use of fossil fuels need to decline rapidly to limit global warming. Although global net-zero scenarios abound, the associated development ramifications for fossil fuel-producing low and lower–middle income countries (LLMICs), as well as adequate international responses, have been underexplored. Here we conceptualize that, depending on country context, three types of development transition follow from declining fossil fuel production and use for LLMIC producers, namely an energy transition, an economic transition and an equitable fossil fuel production transition. We propose a classification of these transitions, arguing that heterogeneity in LLMICs’ fossil fuel production and usage substantially impacts their pathways towards low-carbon development. We illustrate this by discussing different cases of fossil fuel-producing LLMICs, focusing on Mozambique, India, Lao PDR and Angola. We conclude by detailing context-specific international support portfolios to foster low-carbon development in fossil fuel-producing LLMICs, and call for a re-orientation of international support along principles of global solidarity.

69. Climate change: the necessary, the possible and the desirable Earth League climate statement on the implications for climate policy from the 5th IPCC Assessment

Author

Rockström, Johan, Brasseur, Guy, Hoskins, Brian, Lucht, Wolfgang, Schellnhuber, John, Kabat, Pavel, Nakicenovic, Nebojsa, Gong, Peng, Schlosser, Peter, Máñez Costa, Maria, Humble, April, Eyre, Nick, Gleick, Peter, James, Rachel, Lucena, Andre, Masera, Omar, Moench, Marcus, Schaeffer, Roberto, Seitzinger, Sybil, van der Leeuw, Sander, Ward, Bob, Stern, Nicholas, Hurrell, James, Srivastava, Leena, Morgan, Jennifer, Nobre, Carlos, Sokona, Youba, Cremades, Roger, Roth, Ellinor, Liverman, Diana, Arnott, James, Rockström, Johan, Brasseur, Guy, Hoskins, Brian, Lucht, Wolfgang, Schellnhuber, John, Kabat, Pavel, Nakicenovic, Nebojsa, Gong, Peng, Schlosser, Peter, Máñez Costa, Maria, Humble, April, Eyre, Nick, Gleick, Peter, James, Rachel, Lucena, Andre, Masera, Omar, Moench, Marcus, Schaeffer, Roberto, Seitzinger, Sybil, van der Leeuw, Sander, Ward, Bob, Stern, Nicholas, Hurrell, James, Srivastava, Leena, Morgan, Jennifer, Nobre, Carlos, Sokona, Youba, Cremades, Roger, Roth, Ellinor, Liverman, Diana, and Arnott, James

Abstract

The development of human civilisations has occurred at a time of stable climate. This climate stability is now threatened by human activity. The rising global climate risk occurs at a decisive moment for world development. World nations are currently discussing a global development agenda consequent to the Millennium Development Goals (MDGs), which ends in 2015. It is increasingly possible to envisage a world where absolute poverty is largely eradicated within one generation and where ambitious goals on universal access and equal opportunities for dignified lives are adopted. These grand aspirations for a world population approaching or even exceeding nine billion in 2050 is threatened by substantial global environmental risks and by rising inequality. Research shows that development gains, in both rich and poor nations, can be undermined by social, economic and ecological problems caused by human-induced global environmental change. Climate risks, and associated changes in marine and terrestrial ecosystems that regulate the resilience of the climate system, are at the forefront of these global risks. We, as citizens with a strong engagement in Earth system science and socio-ecological dynamics, share the vision of a more equitable and prosperous future for the world, yet we also see threats to this future from shifts in climate and environmental processes. Without collaborative action now, our shared Earth system may not be able to sustainably support a large proportion of humanity in the decades ahead.

70. Worth Quoting.

Author

Eliesen, Marc and Sokona, Youba

Subjects
*GAS pipeline design & construction, *OIL sands industry, *CLIMATE change mitigation
Published
2014

72. Prospects for developing renewable energy in Africa

Author

Sokona, Youba

Abstract

Development of renewable energy technologies can help improve livingconditions in Africa's arid, semi-arid and sub-humid regions. Renewable energy would increase these regions' energy autonomy and more effectively address desertification. As Africa looks at ways to carry out needed technology changes, it is likely to find some Asian countries' efforts to meet growing energy requirements especially useful. Possibilities for cooperation between Africa and Asia in this area have not been adequately explored. [ABSTRACT FROM AUTHOR]

Published
2000

75. Mitigation Potential and Costs

Author

Gunnar Luderer, Erin Baker, Ilkka Savolainen, Leon Clarke, Diana Ürge-Vorsatz, Makoto Akai, Roberto Schaeffer, Raymond Wright, Akintayo Adedoyin, Sven Teske, Thomas Bruckner, Manfred Fischedick, Keywan Riahi, Volker Krey, Edenhofer, Ottomar, Madruga, Ramón Pichs, Sokona, Youba, Seyboth, Kirstin, Matschoss, Patrick, Kadner, Susanne, Zwickel, Timm, Eickemeier, Patrick, Hansen, Gerrit, Schlömer, Steffen, and von Stechow, Christoph

Subjects
Cost–benefit analysis, Environmental economics, Nameplate capacity, SDG 13 - Climate Action, Economics, SDG 7 - Affordable and Clean Energy, Cost curve, Social discount rate, Baseline (configuration management), Cost of electricity by source, Externality, Average cost
Abstract

Renewable energy (RE) has the potential to play an important and increasing role in achieving ambitious climate mitigation targets. Many RE technologies are increasingly becoming market competitive, although some innovative RE technologies are not yet mature, economic alternatives to non-RE technologies. However, assessing the future role of RE requires not only consideration of the cost and performance of RE technologies, but also an integrative perspective that takes into account the interactions between various forces and the overall systems behaviours.An increasing number of integrated scenario analyses are available in the published literature. They are able to provide relevant insights into the potential contribution of RE to future energy supplies and climate change mitigation. A review of 164 scenarios from 16 different large-scale integrated models was conducted through an open call. Although a collection of scenarios from the literature does not represent a truly random sample suitable for rigorous statistical analysis, a scenario overview can provide some critical and strategic insights about the role of RE in climate mitigation, in spite of the uncertainties involved.Although it is not possible to precisely link long-term climate goals and global RE deployment levels, RE deployment significantly increases in the scenarios with ambitious greenhouse gas (GHG) concentration stabilization levels. Ambitious GHG concentration stabilization levels lead on average to higher RE deployment compared to the baseline. However, for any given long-term GHG concentration goal, the scenarios exhibit a wide range of RE deployment levels.

Published
2011
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76. Bioenergy

Author

Maxwell Mapako, Tomoaki Minowa, David Dawe, Martin Kumar Patel, Ranyee Chiang, Benoit Gabrielle, Göran Berndes, Martin Junginger, José Roberto Moreira, Alison Goss Eng, Garvin Heath, Hongmin Dong, Omar Masera Cerutti, David Paré, Richard Bain, André Faaij, Joyce Yang, Terry McIntyre, Suzana Kahn Ribeiro, Helena L. Chum, Kim Pingoud, Wolfgang Lucht, Parveen Dhamija, Ethan Warner, Edenhofer, Ottomar, Madruga, Ramón Pichs, Sokona, Youba, Seyboth, Kristin, Kadner, Susanne, Zwickel, Timm, Eickemeier, Patrick, Hansen, Gerrit, Schlömer, Steffen, von Stechow, Christoph, and Matschoss, Patrick

Subjects
010504 meteorology & atmospheric sciences, Political economy of climate change, 010501 environmental sciences, 7. Clean energy, 01 natural sciences, 12. Responsible consumption, Bioenergy, 11. Sustainability, SDG 13 - Climate Action, Environmental policy, SDG 7 - Affordable and Clean Energy, Environmental planning, 0105 earth and related environmental sciences, SDG 15 - Life on Land, 2. Zero hunger, business.industry, Environmental impact of the energy industry, 15. Life on land, Renewable energy, Climate change mitigation, 13. Climate action, Environmental science, business
Abstract

Bioenergy has a significant greenhouse gas (GHG) mitigation potential, provided that the resources are developed sustainably and that efficient bioenergy systems are used. Certain current systems and key future options including perennial cropping systems, use of biomass residues and wastes and advanced conversion systems are able to deliver 80 to 90% emission reductions compared to the fossil energy baseline. However, land use conversion and forest management that lead to a loss of carbon stocks (direct) in addition to indirect land use change (d+iLUC) effects can lessen, and in some cases more than neutralize, the net positive GHG mitigation impacts. Impacts of climate change through temperature increases, rainfall pattern changes and increased frequency of extreme events will influence and interact with biomass resource potential. This interaction is still poorly understood, but it is likely to exhibit strong regional differences. Climate change impacts on biomass feedstock production exist but if global temperature rise is limited to less than 2°C compared with the pre-industrial record, it may pose few constraints. Combining adaptation measures with biomass resource production can offer more sustainable opportunities for bioenergy and perennial cropping systems.Biomass is a primary source of food, fodder and fibre and as a renewable energy (RE) source provided about 10.2% (50.3 EJ) of global total primary energy supply (TPES) in 2008. Traditional use of wood, straws, charcoal, dung and other manures for cooking, space heating and lighting by generally poorer populations in developing countries accounts for about 30.7 EJ, and another 20 to 40% occurs in unaccounted informal sectors including charcoal production and distribution.

Published
2011
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77. Integration of Renewable Energy into Present and Future Energy Systems

Author

Ralph Sims, Pedro Mercado, Wolfram Krewitt, Gouri Bhuyan, Damian Flynn, Hannele Holttinen, Gilberto Jannuzzi, Smail Khennas, Yongqian Liu, Lars J. Nilsson, Joan Ogden, Kazuhiko Ogimoto, Mark O'Malley, Hugh Outhred, Øystein Ulleberg, Frans van Hulle, Morgan Bazilian, Milou Beerepoot, Trevor Demayo, Eleanor Denny, David Infield, Andrew Keane, Arthur Lee, Michael Milligan, Andrew Mills, Michael Power, Paul Smith, Lennart Söder, Aidan Tuohy, Falko Ueckerdt, Jingjing Zhang, Jim Skea, Kai Strunz, Edenhofer, Ottmar, Pichs-Madruga, Ramon, Sokona, Youba, Seyboth, Kristin, Matschoss, Patrick, Kadner, Susanne, Zwickel, Timm, Eickemeier, Patrick, Hansen, Gerrit, Schlomer, Steffen, and von Stechow, Christoph

Subjects
Engineering, Wind power, business.industry, Environmental economics, Solar energy, Civil engineering, Energy engineering, Renewable energy, Electricity generation, Marine energy, Energy supply, SDG 7 - Affordable and Clean Energy, business, Hydropower
Abstract

To achieve higher renewable energy (RE) shares than the low levels typically found in present energy supply systems will require additional integration efforts starting now and continuing over the longer term. These include improved understanding of the RE resource characteristics and availability, investments in enabling infrastructure and research, development and demonstrations (RD&D), modifications to institutional and governance frameworks, innovative thinking, attention to social aspects, markets and planning, and capacity building in anticipation of RE growth.

Published
2011
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78. Sustainable Development and Equity

Author

Fleurbaey, M., Kartha, S., Bolwig, S., Chee, Y. L., Esteve Corbera, Lecocq, F., Lutz, W., Muylaert, S., Norgaard, R., Okereke, C., Sagar, A., Edenhofer, O., Edenhofer, Ottmar, Pichs-Madruga, Ramón, Sokona, Youba, Minx, Jan C., Farahani, Ellie, Kadner, Susanne, Seyboth, Kristin, Adler, Anna, Baum, Ina, Brunner, Steffen, Eickemeier, Patrick, Kriemann, Benjamin, Savolainen, Jussi, Schlömer, Steffen, von Stechow, Christoph, Zwickel, Timm, centre international de recherche sur l'environnement et le développement (CIRED), and Centre National de la Recherche Scientifique (CNRS)-École des Ponts ParisTech (ENPC)-École des hautes études en sciences sociales (EHESS)-AgroParisTech-Centre de Coopération Internationale en Recherche Agronomique pour le Développement (Cirad)

Subjects
[SDE]Environmental Sciences, ComputingMilieux_MISCELLANEOUS
Abstract

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