Steps to China's Carbon Peak
Regional targets and improved market mechanisms could enable China's carbon dioxide emissions to peak by 2030, say ETIP/SSP Giorgio Ruffolo Postdoctoral Research Fellow Zhu Liu, ETIP Co-PI Henry Lee, and colleagues in a new Nature article.
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The promise, prospects, and public policy trade-offs related to second-generation biofuels in road transport were addressed in an executive session convened at The Henry Ford Museum in Dearborn, Michigan, on April 7 and 8, 2015. The workshop brought together twenty-eight of the world's leading experts from the fields of policy, science, and business for an intensive two-day session. This report is a summary of the main points and issues raised over the two days. It has been reviewed by all the participants. The summary is intended to reflect the breadth of the discussion, rather than to suggest any form of overall consensus among the participants.
By Zhu Liu, Giorgio Ruffolo Postdoctoral Research Fellow, Sustainability Science Program/Energy Technology Innovation Policy research group
The magnitude and growing annual rate of growth of China's carbon emissions make this country the major driver of global carbon emissions and thus a key focus for efforts in emissions mitigations. This report presents independent data on China's carbon emissions from 1950–2012, and provides a basis to support mitigation efforts and China's low-carbon development plan.
By Zhu Liu, Giorgio Ruffolo Postdoctoral Research Fellow, Sustainability Science Program/Energy Technology Innovation Policy research group, Kuishuang Feng, Klaus Hubacek, Sai Liang, Laura Diaz Anadon, Assistant Professor of Public Policy; Associate Director, Science, Technology, and Public Policy Program; Co-PI, Energy Technology Innovation Policy research group, Chao Zhang, Former Giorgio Ruffolo Fellow, Sustainability Science Program/Energy Technology Innovation Policy research group, 2012–July 2013 and Dabo Guan
Knowing the carbon emission baseline of a region is a precondition for any mitigation effort, but the baselines are highly dependent on the system boundaries for which they are calculated. On the basis of sectoral energy statistics and a nested provincial and global multi-regional input–output model, the authors calculate and compare four different system boundaries for China's 30 provinces and major cities.
Energy, volume 82
By Yue Guo, Former Research Fellow, Energy Technology Innovation Policy research group, September 1, 2012–September 30, 2013, Peng Ru, Former Research Fellow, Energy Technology Policy Innovation Research Group/Science, Technology, and Public Policy Program, 2007–2008, Jun Su, Former Research Fellow, Science, Technology, and Public Policy Program, 2001–2002 and Laura Diaz Anadon, Assistant Professor of Public Policy; Associate Director, Science, Technology, and Public Policy Program; Co-PI, Energy Technology Innovation Policy research group
Local acceptance of wind energy technology has become an important factor to consider when designing local and national wind energy technological innovation policies. Previous studies have investigated the factors that shape the local acceptance of wind power in high-income countries. However, to the best of the authors' knowledge, these factors had not been investigated in China. Utilizing a survey and quantitative analysis, the authors have identified the factors that are correlated with local acceptance of wind power in China.
March 18, 2015
The atmosphere is an example of a non-equilibrium system. This study explores the relationship among temperature, energy and entropy of the atmosphere, introducing two variables that serve to quantify the thermodynamic disequilibrium of the atmosphere.
Forthcoming May 2015
Renewable Energy, volume 77
Based on assimilated meteorological data for the period January 1979 to December 2010, the authors investigate the origin of wind energy from both mechanical and thermodynamic perspectives, with special focus on the spatial distribution of sources, historical long-term variations, and the efficiency for kinetic energy production.