李俊杰

博士 、副教授 、校团委副书记

基本信息

办公电话：15810540237 电子邮件： jjli1@bjtu.edu.cn
通讯地址： 邮编：100044

个人简介

北京交通大学团委副书记、青年教师联谊会秘书长、ac米兰中国官方网站副教授、博士生导师，获国家级青年人才项目资助，获评北京市优秀博士学位论文，任Resources, Environment and Sustainability、气候变化研究进展客座编辑，中国环境科学学会大气分会、碳足迹专业委员会、减污降碳协同治理专业委员会委员，Resources, Environment and Sustainability、Green Carbon、Carbon Neutrality、Green Energy and Resources、cScience、Energy and Environment Nexus、Environment Nexus青年编委。主要从事能源开发利用的碳污足迹及协同减排研究，近年来主持国家自然科学基金、中国博士后科学基金、国家重点研发计划子课题等项目10余项，以第一/通讯作者在Cell子刊及能源环境领域知名SCI期刊上发表论文40余篇。欢迎具有能源、环境、经管、人工智能等专业背景的同学攻读硕士、博士学位，从事博士后研究工作。

招生专业

  • 交通能源与环境工程博士
  • 材料工程博士
  • 交通能源与环境工程硕士
  • 环境科学与工程硕士
  • 环境工程硕士

论文/期刊


第一/通讯作者论文：

2026：

  1. Green finance curbs direct carbon emissions but exacerbates lifecycle carbon emissions in China's electricity sector. Cell Reports Sustainability, 2026, 3(10), 100818.
  2. Bureau-specific spatiotemporal carbon footprints and decarbonization pathways of China's railways. iScience, 2026, 29(8), 116807.
  3. 考虑环境影响外部成本的不同煤制液体燃料经济性对比研究. 环境污染与防治, 2026, 48(06): 143-150.
  4. 铁路电气化背景下的电力碳排放时空演变与驱动机理研究. 铁道技术标准（中英文）, 2026, 8(6): 1-11.
  5. 基于技术精细化比较的我国煤制乙二醇工业能源、碳、水足迹研究. 环境工程技术学报，2026，16(3): 1292-1301.
  6. Substantial heterogeneity of pollutant and GHG emissions from China's coking industry based on life cycle analysis. Cleaner Environmental Systems, 2026, 21, 100430.
  7. Significant reduction of life cycle carbon-energy-water footprint in the coal-to-methanol industry driven by technological advancements and scale expansion. Sustainable Energy Technologies and Assessments, 2026, 87, 104924.
  8. Increased giga-cubic meters of the water footprint of China's coal caused by washing. ACS Sustainable Chemistry & Engineering, 2026, 14(5), 2370-2384.
  9. 科技园区碳足迹及减排路径分析. 环境科学, 2026, 47(1), 148-161.
  10. Spatiotemporal air pollutant and carbon footprints of China's coal sector and their synergetic mitigation pathway towards 2035. Resources, Conservation and Recycling, 2026, 224, 108563.

2025：

  1. Highly efficient amino-functionalized ionic liquid membrane contactor coupled system for low-concentration carbon dioxide absorption and desorption. Bioresource Technology, 2025, 437, 133121.
  2. Technological advancements in coal-to-liquid systems for enhanced environmental and economic benefits. Energy, 2025, 338, 138836.
  3. Water footprint of China's coal mining sector substantially underestimated. Ecological Indicators, 2025, 180, 114310.
  4. Decarbonizing photovoltaic glass manufacturing in China: A factory-specific carbon footprint analysis. Environmental Technology & Innovation, 2025, 40, 104669.
  5. Spatiotemporal carbon footprints of electricity production and consumption in China. Cell Reports Sustainability, 2025, 2(11), 100466.
  6. Low-carbon transition of China's monocrystalline module and its global contributions. iScience, 2025, 28(8), 113079.
  7. 基于全生命周期分析的中国煤制天然气工业能耗、水足迹与碳排放研究. 环境污染与防治, 2025, 47(08), 105-114.
  8. Quotas in flux, security at risk: China's energy quota trading and the DML-estimated energy security degradation. International Review of Financial Analysis, 2025, 105, 104451.
  9. China's energy trilemma: Spatial patterns, evolutionary trends at the city level. Energy, 2025, 330, 136985.
  10. Synergetic mitigation of air pollution and carbon emissions of coal-based energy: A review and recommendations for technology assessment, scenario analysis, and pathway planning. Energy Strategy Reviews, 2025, 59, 101698.
  11. Unveiling the heterogeneity of environmental impacts of China's coal washing plants by a configuration-specific life cycle assessment. Environmental Impact Assessment Review, 2025, 110, 107725.

2024：

  1. Footprint family of China's coal-based synthetic natural gas industry. Energy, 2024, 312, 133560.
  2. Empowering more balanced energy futures: The role of the digital economy in alleviating China's energy trilemma at the city-level. Energy, 2024, 303, 131938.
  3. Technological progress and coupling renewables enable substantial environmental and economic benefits from coal-to-olefins. Journal of Environmental Management, 2024, 353, 120225.
  4. Spatial-successive transfer of virtual scarcity water along China's coal-based electric chain. Energy, 2024, 288, 129678.
  5. Multifactor configurations of coal power technology in China substantially differ in life-cycle environmental impacts. Science of the Total Environment, 2024, 907, 168132.
  6. Spatialized carbon-energy-water footprint of emerging coal chemical industry in China. Renewable and Sustainable Energy Reviews, 2024, 189, 113919.

2023：

  1. Coupling big data and life cycle assessment: A review, recommendations, and prospects. Ecological Indicators, 2023, 153, 110455.
  2. Identifying an over tenfold variation in carbon intensities of coal mines in China by multi-scale multi-benchmark accounting. Journal of Cleaner Production, 2023, 384, 135621.

2022：

  1. Life cycle assessment of emerging coal conversion technologies in China: An industrial-scale comparison. Energy Conversion and Management, 2022, 271, 116293.
  2. Comparative resource-environment-economy assessment of coal- and oil-based aromatics production. Resources Policy, 2022, 77, 102629.
  3. Life cycle assessment and techno-economic analysis of ethanol production via coal and its competitors: A comparative study. Applied Energy, 2022, 312, 118791.
  4. Assessing spatially multistage carbon transfer in the life cycle of energy with a novel multi-flow and multi-node model: A case of China's coal-to-electricity chain. Journal of Cleaner Production, 2022, 339, 130699.
  5. Life cycle assessment of ammonia synthesis in China. International Journal of Life Cycle Assessment, 2022, 27, 50–61.

2021：

  1. Comprehensive competitiveness assessment of four coal-to-liquid routes and conventional oil refining route in China. Energy, 2021, 235, 121442.
  2. Spatializing environmental footprint by integrating geographic information system into life cycle assessment: A review and practice recommendations. Journal of Cleaner Production, 2021, 323, 129113.
  3. Water consumption and conservation assessment of the coal power industry in China. Sustainable Energy Technologies and Assessments, 2021, 47, 101464.
  4. Improving the estimation of greenhouse gas emissions from the Chinese coal-to-electricity chain by a bottom-up approach. Resources, Conservation and Recycling, 2021, 167, 105237.
  5. Virtual water flow associated with interprovincial coal transfer in China: Impacts and suggestions for mitigation. Journal of Cleaner Production, 2021, 289, 125800.
  6. Life cycle cost of conventional, battery electric, and fuel cell electric vehicles considering traffic and environmental policies in China. International Journal of Hydrogen Energy, 2021, 46(14), 9553–9566.

2020：

  1. Comparison of life-cycle energy consumption, carbon emissions and economic costs of coal to ethanol and bioethanol. Applied Energy, 2020, 277, 115574.
  2. Comparative life cycle energy consumption, carbon emissions and economic costs of hydrogen production from coke oven gas and coal gasification. International Journal of Hydrogen Energy, 2020, 45(51), 27979–27993.
  3. High-resolution analysis of life-cycle carbon emissions from China's coal-fired power industry: A provincial perspective. International Journal of Greenhouse Gas Control, 2020, 100, 103110.
  4. Approach and potential of replacing oil and natural gas with coal in China. Engineering Energy, 2020, 14, 419–431.
  5. 基于熵权-层次分析法的中国现代煤化工行业可持续发展综合评价. 化工进展, 2020, 39(4), 1329–1338.
  6. Reduction of carbon emissions from China's coal-fired power industry: Insights from the province-level data. Journal of Cleaner Production, 2020, 242, 118518.


合作作者论文：

  1. Disentangling Nitrate Formation and Sources over East Asia and North America via Computational Quantum Chemistry-Guided Isotope Tracing Method. Environmental Science & Technology, 2026, 60, 21, 15020–15032.
  2. Mitigating inequity risks in China's net-zero energy transition via an enhanced renewable-guided industrial spatial reconfiguration. The Innovation, 2026, 7(6), 101308.
  3. An observation-based methodology and application for future atmosphere secondary pollution control via an atmospheric oxidation capacity path tracing approach. Atmospheric Chemistry and Physics, 2026, 26(4), 3195-3210.
  4. Atmospheric CO2 dynamics in a coastal megacity: spatiotemporal patterns, sea–land breeze impacts, and anthropogenic–biogenic emission partitioning. Atmospheric Chemistry and Physics, 2026, 26(4), 3253-3276.
  5. Identifying hundredfold carbon emission gaps in multiple resource recycling routes of construction waste via process and hybrid life cycle assessment. Waste Management, 2025, 207, 115107.
  6. Assessing local government responses to green credit policies and their impact on urban carbon emissions in China. Energy Strategy Reviews, 2025, 62, 101936.
  7. Development of a multi-module data-driven integrated framework for identifying drivers of atmospheric particulate nitrate and reduction emissions: An application in an industrial city, China. Environment International, 2025, 198, 109394.
  8. Volatile organic compounds emission characteristics and factors from stage-dependent combustion in typical biomass stoves in northern China: Field measurements and environmental implications. Environmental Pollution, 2025, 372, 126008.
  9. Insight into carbonyl source based on improved source apportionment method: Alkene regulate secondary formation. Journal of Hazardous Materials, 2025, 489, 137649.
  10. Comparative life cycle assessment of PBAT from fossil-based and second-generation generation bio-based feedstocks. Science of The Total Environment, 2024, 954, 176421.
  11. Evidence for sustainably reducing secondary pollutants in a typical industrial city in China Co-benefit from controlling sources with high reduction potential beyond industrial process. Journal of Hazardous Materials, 2024, 478, 135556.
  12. 工业园区碳排放多因素分解及其与经济发展的脱钩关系. 应用化工, 2024, 53(01), 146-149+155.
  13. 硬木类生物质直燃发电厂环境足迹研究. 动力工程学报, 2023, 43(08), 1060-1067.
  14. 天然气/煤制乙二醇路线碳排放与经济分析. 现代化工, 2022, 42(8), 209-214.
  15. 基于层次分析法的现代煤化工综合利用效能评估方法研究与建议. 中国煤炭, 2022, 48(07), 137-143.
  16. 两条不同技术路线的煤制聚丙烯生命周期评价. 煤炭转化, 2022, 45(4), 1-9.
  17. 生育政策调整是否会影响我国“碳达峰”目标的实现—基于 STIRPAT 和 Leslie 模型的实证研究. 生态经济, 2022, 28(3), 22-29.
  18. 两条煤制油路线与石油路线的技术环境和经济分析. 煤炭转化, 2022, 45(1), 1-10.
  19. Environmental, social, and economic assessment of energy utilization of crop residue in China. Engineering Energy, 2021, 15, 308–319.
  20. 中国新能源行业高质量发展内涵解析及综合评价指标体系构建. 能源科技, 2020, 18(8), 69-77.
  21. 两种技术路线的煤制氢产业链生命周期成本分析. 煤炭经济研究, 2020, 40(3), 8-15.
  22. 多目标约束下中国煤化工产业区位指数构建与分析. 国际石油经济, 2018, 26(10), 84-92.