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合肥工业大学化学与化工学院导师教师师资介绍简介-杨庆春

本站小编 Free考研考试/2021-04-24

姓 名:杨庆春

职 称:讲师硕士生导师


职 务:

所属系:化工工艺系

邮 箱:ceqcyang@hfut.edu.cn

电 话:

个人简历2017.07 - 至 今 合肥工业大学化学与化工学院 化学工艺系 讲师
2012.09-2017.06 华南理工大学化学与化工学院 化学工程 硕博连读 导师:钱宇教授
2008.09-2012.06 兰州理工大学石油化工学院 化学工程与工艺 本科

主要研究领域、方向
1.过程系统工程:资源/能源化工过程多尺度建模与模拟、集成设计与多目标优化;
2.智能化工技术与应用:智慧型多能互补分布式能源系统理论及技术。
研究成果(代表性成果)
1.建立煤制乙二醇,煤制烯烃, IGCC, 煤制气,油页岩热解等工艺多尺度数学模型;
2.提出基于先进?经济分析的多目标优化方法,寻求工业技术-经济-环境总体效益最优方案;
3.提出若干种煤化工和油页岩提质增效新工艺,实现过程节能减排增效与资源最优配置;
4.探索不同工艺在生产成本、生命周期成本等层次上的可持续性, 为工艺改进提供决策支撑。
目前承担科研项目1. 安徽省自然科学基金委员会,青年科学基金项目,JZ2019AKZR0236,低碳高效的煤制乙二醇过程开发与多目标优化,2019-07至2021-06,10万元,主持;
2.安徽昊源化工集团有限公司,企业横向项目,HY202007-555,合成气经草酸二甲酯加氢合成乙二醇新工艺开发,2020-06至2022-05,12万元,主持;
3.合肥工业大学,学术新人提升A计划项目,JZ2018HGTA0278,煤制乙二醇过程基础模型、过程开发与优化,2018-05至2019-12,5万元,主持;
4.合肥工业大学,人才引进计划项目,45,煤/油页岩制油过程全生命周期分析,2017-07至2018-06,4万元,主持;
5.国家自然科学基金委员会,面上项目,**,油页岩炼制过程油气提质增效技术创新与系统集成,2017-01至2020-12,99万元,参与;
6.国家科学技术部,973项目子课题,2014CB744306,热解油气提质技术评价与高效炼制过程集成及多目标优化,2014-01至2018-12,420万元,参与;
7.国家自然科学基金委员会,重点项目,**,资源/能源化工过程的全生命周期模型、系统分析与优化,2012-01至2016-12,300万元,参与;
8.国家科学技术部,973项目子课题,2012CB720504,能量/质量耦合梯级利用的多目标优化综合,2012-01至2016-12,150万元,骨干参与。
获奖及专利情况
代表性发明专利:
[1]杨庆春,张大伟,刘星.一种集成化学链和二氧化碳利用技术的煤制甲醇系统及方法,申请号: 6.7, 2018-03-19.(实质审查)
[2]杨庆春,张大伟,刘星.一种低碳高效的煤和焦炉气联供制乙二醇系统及方法,申请号: 5.X, 2018-01-12.(实质审查)
[3]杨思宇(老师),杨庆春,钱宇.一种固体热载体油页岩炼制集成干馏气制氢的系统及工艺,授权号: 3.9, 2017-02-02.(已授权)
[4] 杨思宇(老师),杨庆春,钱宇.一种油页岩干馏气化学循环制氢联合发电系统及工艺,授权号: ZL 2.2, 2016-01-20.(已授权)
著作论文(代表作)
1.Yang QC, Liu X, Yang Q, Huang W, Yu P, Zhang D.Opportunities for CO2utilization in coal to green fuel process: optimal design and performance evaluation. ACS Sustainable Chemistry & Engineering2020, 8, 1329-1342.
2.Yang QC, Xu S, Yang Q, Zhang D, Li Z, Zhou H, Zhu S. Optimal design and exergy analysis of biomass-to-ethylene glycol process. Bioresource Technology 2020, 275, 123972.
3.Yang QC, Yang Q, ManY, Zhang D, Zhou H. Technoeconomic and environmental evaluation of oil shale to liquid fuels process in comparison with conventional oil refining process. Journal of Cleaner Production2020, 255, 120198.
4.Yang Q, Yang QC(*), Xu S, Zhu S, Zhang D. Technoeconomic and environmental analysis of ethylene glycol production from coal and natural gas compared with oil-based production.Journal of Cleaner Production2020, 273, 123120.
5.Zhou H, Li H, Duan R, Yang QC*. An integrated scheme of coal-assisted oil shale efficient pyrolysis and high-value conversion of pyrolysis oil. Energy2020, 196, 117106.
6.Yang QC, Zhu S, Yang Q, Huang W, Yu P, Zhang D, Wang Z. Comparative techno-economic analysis of oil-based and coal-based ethylene glycol processes.Energy Conversion and Management2019, 198, 111814.
7.Yang QC, Zhu S, Yu P, Yang Q, Zhang D. Thermodynamic and techno-economic analysis of coal to ethylene glycol process (CtEG) with different coal gasifiers. Energy Conversion and Management2019, 191, 80-92.
8.Yang QC, Liu X, Zhu S, Huang W, Zhang D. Efficient utilization of CO2in a coal to ethylene glycol process integrated with dry/steam-mixed reforming: conceptual design and techno-economic analysis. ACS Sustainable Chemistry & Engineering2019; 7 (3): 3496-3510.
9.Zhou, H., Yang QC(*),etal. Life cycle comparison of greenhouse gas emissions and water consumption for coal and oil shale to liquid fuels. Resources, Conservation and Recycling2019; 144: 74-81.
10.Yang QC, Zhang D, Zhou H, Zhang C. Process simulation, analysis and optimization of a coal to ethylene glycol process. Energy2018; 155: 521-534.
11.Yang QC, Kraslawski A, Zhang DW, Zhou HR. Composite Metric for Simultaneous Technical and Economic Analysis and Optimization of Energy Conversion Processes. Journal of Cleaner Production2018; 179: 266-277.
12.Yang QC, Zhang C, Zhang D, Zhou H. Development of a coke oven gas assisted coal to ethylene glycol process for high techno-economic performance and low emission. Industrial & Engineering Chemistry Research2018;57: 7600-7612.
13.Luo X, Guo Q, Yang QC*. Simulation, exergy analysis and optimization of a shale oil hydrogenation process for clean fuels production. Applied Thermal Engineering2018; 140: 102-111.
14.Yang QC, Qian Y, Kraslawski A, Zhou HR, Yang SY. Advanced exergy analysis of an oil shale retorting process. Applied Energy 2016; 165: 405-415.
15.Yang QC, Qian Y, Kraslawski A, Yang SY. Framework for Advanced Exergoeconomic Performance Analysis and Optimization of an Oil Shale Retorting Process. Energy 2016; 109: 62-76.
16.Yang QC,Qian Y, Zhou HR, Yang SY. Conceptual design and techno-economic evaluation of efficient oil shale refinery process with oil and gas products upgradation.Energy Conversion and Management2016; 126: 898-908.
17.Yang QC, Yang SY, Qian Y. Application of House of Quality in evaluation of low rank coal pyrolysis polygeneration technologies. Energy Conversion and Management2015; 99: 231-241.
18.Yang QC, Qian Y, Wang YJ, Zhou HR, Yang SY. Development of an Oil Shale Retorting Process Integrated with Chemical Looping for Hydrogen Production. Industrial & Engineering Chemistry Research 2015; 54: 6156-6164.
19.Yang QC,Qian Y, Zhou HR, Yang SY. Development of a coupling oil shale retorting process of gas and solid heat carrier technologies. Energy & Fuels2015; 29 (9): 6155-6163.
20.杨庆/杨庆春*.石油与煤路线制乙二醇过程的技术经济分析.化工学报2020; 71(5): 2164-2172.
21.朱顺/ 杨庆春*. 集成CO2高效利用的煤制乙二醇过程设计与系统分析. 化工学报2019; 70(2): 772-779.
22.杨庆春/钱宇. 油页岩开发利用技术及系统集成的研究进展. 化工学报2016; 67(1): 109-118.



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