ְƣ
䣺ZhangQi56@tsinghua.org.cn
һ
2005.102008.09: ѧԴỷԴ÷ʿѧλ
2002.07-2005.01: 廪ѧ˿ѧ뼼 ˶ʿѧλ
1998.092002.07: 廪ѧ̣ܶ ѧʿѧλ
2018.11йʯʹѧùѧԺ//Ժ
2017.11йʯʹѧ Դýо
2014.10йʯʹѧйԴսоԺԺԺ
2014.10йʯʹѧ ԴϵͳȫӢѧ˶ʿĿ
2014.102019.03йʯʹѧ ר˶Ŀ
2013.06йʯʹѧйԴսоԺ/
2009.012013.05ձѧԴѧоԺ
2008.102008.12ձѧ˵繤ϵ
2005.012005.09֪ʶȨ˾רʦ
Դ ԴýߣݷɫڣƼ
˶ʿָרҵѧ빤̣ҵѧѧר˶
ʿָרҵѧ빤
ֿΣԴýǰ
ȫӢ˶ʿγ̣Energy System ModelOperations Research
ʿγ̣Դսר
1. ѧί˲ŹʺĿзԴӦ˲Ŀڶڣ2019-2021
2. ȻѧĿڳģʽ¹ƶЧģģߴо2018.1-2021.12
3. ҷίش⣬ƽȻϵشо2018.8-2018.12
4. ѧĿԴػģʽѡߴо2018.8-2020.6
5. ѧί˲ŹʺĿзԴӦ˲Ŀһڣ2016-2018
6. Դַչ滮Ŀ2030ԴѸսʵʩ2016.9-2017.9
7. йʯȻŹ˾Ŀ2030ǰʯȻҵչ, 2015.3-2016.3
8. йԺԺصĿӿ⣬߹ҵԵκһ·һսо2015.3-2015.12
9. ѧί˲ŹʺĿŷԴսԴ˲ŹʺĿ2015-2017
10. йʯʹѧ˲ĿԴչսۺģо뿪2013-2016
11. ѧоƻԴתлʯĵλо2014-2015
12. ձIJʡGlobal-COEĿůʱԴѧ-̼Դϵͳ滮սԷ, 2008-2013
13. ձĿ˵δ̼ܵϵͳĹ滮սо2011-2012
14. ձIJʡʿڿγоѧԴϵͳɳչսԷ۷۵о2005-2008
15. й㶫ţйȽ˵վӦѼר۾֧ϵͳ2002-2005
һ/ͨѶ ģ
1. Efficient and Equitable Allocation of Renewable Portfolio Standards Targets Among China's Provinces, Energy Policy, 2019 125: 170-180
2. Promotion Policies for Third Party Financing in Photovoltaic Poverty Alleviation Projects Considering Social Reputation, Journal of Cleaner Production, 2019 211: 350-359
3. Investment strategy of hydrothermal geothermal heating in China under policy, technology and geology uncertainties, Journal of Cleaner Production, 2019 207: 17-29
4. Substitution effect of New-Energy Vehicle Credit Program and Corporate Average Fuel Consumption Regulation for Green-car Subsidy, Energy 2018 152: 223-236
5. Factors influencing the economics of public charging infrastructures for EV CA review, Renewable and Sustainable Energy Reviews, 2018 94: 500-509
6. Policy simulation for promoting residential PV considering anecdotal information exchanges based on social network modelling, Applied Energy, 2018 223: 1C10
7. Study on the impacts of sharing business models on economic performance of distributed PV-Battery systems, Energy,2018 161:544-558
8. A review of photovoltaic poverty alleviation projects in China: Current status, challenge, and policy recommendations. Renewable and Sustainable Energy Reviews, 2018 94:214-223.
9. RecyclingMechanisms and Policy Suggestions for Spent Electric Vehicles Power Battery -A Case of Beijing, Journal of Cleaner Production, 2018 186: 388-406
10. Investment strategy for underground gas storage facilities based on real option model considering gas market reform in China, Energy Economics, 2018 70:132-142
11. Substitution effect of renewable portfolio standards and renewable energy certificate trading for feed-in tariff, Applied Energy, 2018 227: 426-435
12. Study on crowdfundings promoting effect on the expansion of electric vehicle charging piles based on game theory analysis. Applied Energy, 2017 196: 238-248
13. The impacts of market reform on the market penetration of natural gas-fired electricity and renewable energy in China. Petroleum Science, 2017 14(4): 831-841
14. Study on the promotion impact of demand response on distributed PV penetration by using non-cooperative game theoretical analysis. Applied Energy, 2017 185(2): 1869-1878.
15. Study on the promotion of natural gas-fired electricity with energy market reform in China using a dynamic game-theoretic model. Applied Energy, 2017 185[2]: 1832-1839
16. Multi-region optimal deployment of renewable energy considering different interregional transmission scenarios, Energy, 2016 108: 108-118
17. Study on the Impacts of Natural Gas Supply Cost on Gas Flow and Infrastructure Deployment in China, Applied Energy, 2016 162: 1385-1398
18. A scenario analysis of oil and gas consumption in China to 2030 considering the peak CO2 emission constraint, Pet. Sci. 2016 13:370C383
19. An integrated scenario analysis for future zero-carbon energy system, International Journal of Energy Research, 2015 39[ 7]: 993C1010
20. Review of Japan's Power Generation Scenarios in light of the Fukushima Nuclear Accident, International Journal of Energy Research, 2014 38 [5]: 539C550
21. An Integrated Model for Long-Term Power Generation Planning Toward Future Smart Electricity Systems, Applied Energy, 2013 112: 1424-1437
22. A Methodology for Economic and Environmental Analysis of Electric Vehicles with Different Operational Conditions, Energy, 2013 61: 118-127
23. Integration of PV Power into Future Low-Carbon Smart Electricity Systems with EV and HP in Kansai Area, Japan, Renewable Energy, 2012 44: 99C108
24. Scenario Analysis on Future Electricity Supply And Demand In Japan, Energy, 2012 38: 376-385
25. An Analysis Methodology for Integrating Renewable and Nuclear Energy Into Future Smart Electricity Systems, International Journal of Energy Research, 2012 36: 1416-1431
26. Economic And Environmental Analysis Of Power Generation Expansion in Japan Considering Fukushima Nuclear Accident Using a Multi-Objective Optimization Model, Energy, 2012 44: 986-995
27. Long-term Planning for Nuclear Powers Development in Japan for a Zero-Carbon Electricity Generation System by 2100, Fusion Science and Technology, 2012 61: 423-427
28. Cost-benefit Analysis of A Green Electricity System In Japan Considering the Indirect Economic Impacts Of Tropical Cyclones, Energy Policy, 2012 43: 49C57
29. Estimation of the Energy Storage Requirement of a Future 100% Renewable Energy System in Japan, Energy Policy, 2012 47: 22-31
30. Methodology to Estimate the Output of a Dual SolarCWind Renewable Energy System in Japan, Energy Policy, 2010 38: 7793C7802
31. ˫֡߶Գó̲ḣӰо.ϵͳʵ201810¼.
32. ڸĵ綯ڳг÷սģ.йѧ20185¼
33. ҹԴѸսչ.,2018(33):3-12.Լ
34. йȻս:֡ĸδ. ̳ѧǰ, 2016(22):63-69.Լ
35.йԭڻʻչսԲߣйʯͺͻ÷2019Լ
36. ڲķҹȻԼӪģʽо[J]. ʯͿѧͨ, 2016, 1(1): 175-182 ţ
ר
1. Qi Zhang Integrated Analyses and Evaluation Support System of Global Energy Systems for Sustainable Development: System Development with a Case Study for Chinese Energy Policy Toward Sustainable Urban Infrastructure in East Asia, pp. 107-129, Kyoto University Press, 2014
2. Qi Zhang, et al. Multi-Objective Optimization Analysis of Post-Fukushima Power Generation Planning in Japan with Considering Nuclear Powers Risk Cost, Green Energy and Technology 2013, Springer, 2013 (ISBN: 978-4-431-54264-6)
3. Qi Zhang, et al. Long-Term Scenario Analysis of a Future Zero-Carbon Electricity Generation System in Japan, Green Energy and Technology 2011, pp.17-24, Springer, 2011 (ISBN 978-4-431-53910-4)
4. 桢ɡΰVisual C#ݿĿ廪ѧ棬2005
Ȩ
1. Դϵͳɳչۺ۷ƽ̨ IEASSDǼǺţ2014SR162371һɵλһ
2. ܵԴϵͳƷƽ̨ SEEDSPǼǺţ2014SR158649һɵλһ
3. ѸսԷƽ̨(OGSAS)2018SR484559һɵλһ
ְ
1. SCI ڿPetroleum Science
2. ڿInternational Journal of Nuclear Safety and Simulation,ʯͿѧͨʯͿƼ̳йί
3. ձԴѧ(Symbio Community Forum)
4. ȻѧͨѶר
5. ȻѧͨѶר
6. йѧίԱר
7. йѡͳ뾭ѧоͳ᳣ֻ
8. йϵͳѧԴԴϵͳ̷᳣ֻ
9. йҵѧɫչרҵίԱרίԱ
10. йԴоԴϵͳרҵίԱίԱ
1. 2030ǰйʯȻҵչоԴ2016ԴѧоɹһȽһ2018
2. ʱջԵĸ߱ԴϵͳӪŻоԴ2016ԴѧоɹȽڰˣ2018
3. ԴҵչսԷ۷оӦáйʯͺͻѧҵϻƼȽһ2018
4. йǿⴴ˲ŽйѧоԺ2018
5. ҵָʦ2018
6. ȵ뾩ůֵۼойҵϻҵƼ½йҵƼ½һȽڰˣ2017
7. TIMESģҹҵչƴойԴоԴ½½Ƚһ2017
8. ȫѧԴѧȽ ָʦ2017
9. й2030ǰ̼ŷźԴ龰ڶйʯ;ĶȽڶ2015
10. йȻȵľԷͶԲойʯ;һȽһ2014
11. Best Reviewer Award of Applied Energy (SCI 1 TOPڿ)2014
12. ˲żƻйʯʹѧ2013
13. Best Poster& Best PresentationָʦѧGCOEᣬ2011-2013
14. ձԭоѧ˽2011-2012
15. ձIJʡѧ2005-2008
16. ˶ʿѧλĽ廪ѧ2005