郭君诚
副教授
福州大学物理与信息工程学院副教授,硕士生导师,福建省高层次人才(C类)。毕业于厦门大学物理系,获理学博士学位。
主要研究方向为非平衡态热力学、受限量子微循环、碳捕捉系统、高中低温燃料电池、低品质热能利用系统。
本课题组承担多项科研项目,发表SCI论文40余篇,其中本人以第一作者或唯一通讯作者发表的jcr和中科院双1区论文11篇,总被引用近1000次,H因子18。
欢迎有志于科研的优秀研究生加入团队。近年是本人科研成果高产期。本人所开展研究方向易于上手,进组研究生研一下学期通常就可以完成第一篇SCI论文初稿,研二上学期即可投稿,没有毕业压力;只要认真完成的论文,学生都为文章的第一作者;各种奖项(如国家奖学金,研究生论坛,优秀毕业生等)拿到手软;毕业后无论读博深造,还是就业都前途光明。(详见下方学生培养)

Email:junchengguo@qq.com
Juncheng Guo
College of Physics and Information Engineering
Fuzhou University
2 Xueyuan Rd, University Town
Fuzhou, Fujian 350116, P. R. China

Research fields:
Nonequilibrium Thermodynamics, Renewable energy technologies, Energy storage technologies, Low-grade thermal energy utilization, Carbon capture technologies.

学生培养:
目前课题组已毕业3位硕士生,并有3名硕士生在读。
在本人指导下,取得如下成果:
19级硕士生李喆旭以第一作者发表两篇SCI论文,获得2021年国家奖学金,2021年“高意杯”研究生学术论坛二等奖,校优秀硕士毕业生,校优秀硕士毕业论文,研究生结业奖学金一等奖等荣誉。毕业后进入华南理工大学读博深造;
20级硕士生曹海波以第一作者发表中科院1区SCI论文一篇;
21级硕士生陈博以第一作者发表中科院1区SCI论文2篇,获得2023年国家奖学金,2023年“高意杯”研究生学术论坛一等奖,校优秀硕士毕业生;毕业后进入天津大学读博深造;
22级硕士生谭朝欢以第一作者发表中科院1区SCI论文1篇,此外还以第二作者发表中科1区SCI论文1篇,获得2023年“高意杯”研究生学术论坛三等奖;
23级硕士生陈阳凤以共同一作发表中科院1区SCI论文1篇,此外有一篇文章在投,获得2024年“高意杯”研究生学术论坛2等奖;
23级硕士生程菻豪以共同一作发表中科院1区SCI论文1篇,此外有一篇文章在投,获得2024年“高意杯”研究生学术论坛3等奖;
......
欢迎有志于科研的优秀研究生加入团队,为这份成果清单续写新篇章!
 
 
学术及社会兼职(Academic and social work)  
1担任 Applied energy, Energy, Energy conversion and management, Journal of energy storage等多个国际学术期刊评审
 
科研项目(Research project)  
12022J01547基于弱耗散假设的多源系统模型构建与热 力学特性研究7万元福建省自然科学面上项目2022-20251 
211404061复杂生物开放系统中的量子相干控制23万元国家自然科学基金2015.01.01-2017.12.313 
311405032弱耗散热力学循环的性能特性与优化理论研究23万元 国家自然科学基金项目2015.01.01-2017.12.31独立撰编写 
461773121网络演化博弈中结合收益与舆论的策略选择研究53万国家自然科学基金委2018.1-2021.12其它 
 
科技论著(Scientific treatise)  
1An electrochemical energy converter integrating multiple energy conversion and transport modesEnergy conversion and management 2025 (中科院1区、JCR1区)卓越期刊通讯
2Negative carbon emission power generator: A combination of high temperature proton exchange membrane fuel cell and absorption carbon capture systemJournal of cleaner production 2025 (中科院1区、JCR1区)卓越期刊通讯
3New insights into energy conversion mechanism, optimal absorbent selection criteria, and operation strategies of absorption carbon capture systemsEnergy 2024 (中科院1区、JCR1区)卓越期刊1
4A novel electrochemical system with adiabatic pre-charging and pre-discharging processes for efficient refrigerationEnergy conversion and management 2023 (中科院1区、JCR1区)卓越期刊通讯
5Optimal analyses and performance bounds of the low-dissipation three-terminal heat transformer: The roles of the parameter constraints and optimization criteriaEnergy 2023 (中科院1区、JCR1区)卓越期刊通讯
6Low-dissipation model of three-terminal refrigerator: performance bounds and comparative analysesJournal of Physics A 2022SCI期刊通讯
7Comparative Assessment of Various Low-Dissipation Combined Models for Three-Terminal Heat Pump SystemsEntropy 2021SCI期刊通讯
8The equivalent low-dissipation combined cycle system and optimal analyses of a class of thermally driven heat pumpsEnergy conversion and management 2020 (中科院1区、JCR1区)卓越期刊1
9Energetic Self-Optimization Induced by Stability in Low-Dissipation Heat EnginesPhysical Review Letters 2020顶级期刊2
10Continuous power output criteria and optimum operation strategies of an upgraded thermally regenerative electrochemical cycles systemEnergy conversion and management 2019 (中科院1区、JCR1区)卓越期刊1
11Thermally driven refrigerators: Equivalent low-dissipation three-heat-source model and comparison with experimental and simulated resultsEnergy conversion and management 2019 (中科院1区、JCR1区)卓越期刊1
12Performance characteristics and parametric optimizations of a weak dissipative pumped thermal electricity storage systemEnergy conversion and management 2018 (中科院1区、JCR1区)卓越期刊1
13Performance evaluation and parametric choice criteria of a Brayton pumped thermal electricity storage systemEnergy 2016 (中科院1区、JCR1区)卓越期刊1
14Performance optimization and comparison of pumped thermal and pumped cryogenic electricity storage systemsEnergy 2016 (中科院1区、JCR1区)卓越期刊1
15Comment on “thermodynamic efficiency of pumped heatPhysical Review Letters 2016顶级期刊2
16Universal efficiency bounds of weak-dissipative thermodynamic cycles at the maximum power outputPhysical Review E 2013卓越期刊1
17Efficiencies of two-level weak dissipation quantum Carnot engines at the maximum power outputJAP,2013SCI1
18General performance characteristics and parametric optimum bounds of irreversible chemical engines.JAP,2012SCI1
19The performance analysis of a micro-/nanoscaled quantum heat engine2012,PHYSICA ASCI1
20The performance evaluation of a micro/nano-scaled cooler working with an ideal Bose gas.Phys. Lett. A,2012SCI1