●2010.09－2014.06       金沙娱场城app7979，自动化，学士

●2014.09－2017.06       金沙娱场城app7979，油气田开发工程，硕士

●2017.09－2020.12       金沙娱场城app7979，油气田开发工程，博士

●2019.10－2020.10       俄罗斯喀山联邦大学石油工程系，联培博士

●2021.01－至今             金沙娱场城app7979石油与天然气工程学院，讲师、博士后

●中国博士后科学基金面上项目，2021M692696，页岩油藏注空气燃烧前缘稳定性及燃烧动力学研究，2021-2022，主持

●中央引导地方科技发展专项1项，油气原位制氢及关键影响因素，2021-2022，第二负责人

●国家重大科技专项，2016ZX05053-09，缝洞型油藏注气方式和技术政策研究，2016-2021，主研

●俄罗斯青年科学家基金，19-73-10189，Investigation on the catalytic oxidation of aliphatic and aromatic hydrocarbons using oil-soluble catalyst and its catalytic mechanism to determine effective catalytic methods for crude oil oxidation in in-situ combustion enhanced oil recovery technologies for hard-to-recover hydrocarbon reserves，2019-2021，排名第三

●中石油重大开发实验项目，XJYT-gcjsyjy-2017-JS-581，原油氧化行为表征研究，2017-2019，第二负责人

●中石油重大开发实验项目，2017-C4058，稠油注空气低温氧化放热规律实验研究，2017-2018，第二负责人

●中石油重大开发实验项目，XJYT-2020-FW-51857，页岩油注空气氧化热力驱油实验技术服务。2020-2021，第二负责人

●辽河油田开发实验项目，LHYT-KTKFYJY-2020-JS-435，低渗油藏火驱技术界限与驱替特征研究，2020-2021，第二负责人

●中石油重大开发实验项目，2021-C4024，吉木萨尔页岩油注空气热效应实验研究，2021-2022，第二负责人

（1）学术论文

●Zhao S，Pu W F，Mikhail A V，et al. Influence of water on thermo-oxidative behavior and kinetic triplets of shale oil during combustion[J]. Fuel，2022，318：123690.

●Zhao S，Pu W F，Pan J J，et al. Thermo-oxidative characteristics and kinetics of light，heavy，and extra-heavy crude oils using accelerating rate calorimetry[J]. Fuel，2022，312：123001.

●Zhao S，Pu W F，Peng X Q，et al. Low-temperature oxidation of heavy crude oil characterized by TG，DSC，GC-MS，and negative ion ESI FT-ICR MS[J]. Energy，2021，214：119004.

●Zhao S，Gao H M，Pu W F，et al. Isothermal oxidation behavior of heavy crude oil and its low-temperature oxidized oils：implications for in-situ upgrading of heavy oil[J]. Fuel，2022，313：122704.

●Zhao S，Pu W，Su L，et al. Properties，combustion behavior，and kinetic triplets of coke produced by low-temperature oxidation and pyrolysis：Implications for heavy oil in-situ combustion[J]. Petroleum Science，2021，18：1483-1491.

●Zhao S，Pu W F，Sun B S，et al. Comparative evaluation on the thermal behaviors and kinetics of combustion of heavy crude oil and its SARA fractions[J]. Fuel，2019，239：117-125.

●Zhao S，Pu W F，Wei B，et al. A comprehensive investigation of polymer microspheres （PMs） migration in porous media：EOR implication[J]. Fuel，2019，235：249-258.

●Zhao S，Xu C Y，Pu W F，et al. Oxidation characteristics and kinetics of shale oil using high-pressure differential scanning calorimetry[J]. Energy & Fuels，2021，35，18726-18732.

●Zhao S，Pu W F，Mikhail A V，et al. Integrative investigation of low temperature oxidation characteristics and mechanisms of heavy crude oil[J]. Industrial & Engineering Chemistry Research，2019，58：14595-14602.

●Zhao S，Pu W F，Mikhail A V，et al. Low-temperature oxidation of light and heavy oils via thermal analysis：Kinetic analysis and temperature zone division[J]. Journal of Petroleum Science and Engineering，2018，168：246-255.

●Zhao S，Pu W F，Mikhail A V，et al. Comprehensive investigations into low temperature oxidation of heavy crude oil[J]. Journal of Petroleum Science and Engineering，2018，171：835-842.

●Zhao S，Pu W F，Mikhail A V，et al. Thermal behavior and kinetics of heavy crude oil during combustion by high pressure differential scanning calorimetry and accelerating rate calorimetry[J]. Journal of Petroleum Science and Engineering，2019，181：106225.

●Zhao S，Pu W F，Mikhail A V，et al. Oxidation characteristics of heavy oil and its SARA fractions during combustion using TG-FTIR[J]. Journal of Petroleum Science and Engineering，2020，192：107331.

●Zhao S，Pu W F，Mikhail A V，et al. Low-temperature combustion characteristics of heavy oils by a self-designed porous medium thermo-effect cell[J]. Journal of Petroleum Science and Engineering，2020：107863.

●Zhao S，Pu W F. Migration and plugging of polymer microspheres （PMs） in porous media for enhanced oil recovery：Experimental studies and empirical correlations[J]. Colloids and Surfaces A：Physicochemical and Engineering Aspects，2020，597：124774.

●Zhao S，Pu W F，Yuan C D，et al. Thermal behavior and kinetic triplets of heavy crude oil and Its SARA fractions during combustion by high-pressure differential scanning calorimetry [J]. Energy & Fuels，2019，33：3176-3186.

●Zhao S，Pu W F，Mikhail A V，et al. Evaluation of heat release caused by low-temperature oxidation of heavy oil and its SARA fractions under isothermal conditions[J]. Thermochimica Acta，2020，690：178690.

●Zhao S，Pu W F. Investigation into the effect of polymer microspheres （PMs） on oil-water relative permeability and oil-in-water emulsion stability for enhanced oil recovery[J]. Journal of Dispersion Science and Technology，2020，https://doi.org/10.1080/01932691.2020.1785308.

●Zhao S，Pu W F，Hou J F，et al. Low-temperature oxidation and thermal kinetics analysis of light and medium crude oils[J]. Petroleum Science & Technology，2018，36：540-546.

●Zhao S，Pu W F，Huo J，et al. Effect of interactions between saturates-aromatics-resins-asphaltenes components on the oxidation behavior and kinetics of heavy crude oil[J]. Petroleum Chemistry，2020，60：1226-1231.

●Zhao S，Wang R L，Jiang F，et al. Preparation and structural analysis of a comb-like polymer through functional monomer design[J]. Polymer Engineering and Science，2021，61（11）：2882-2893.

●Zhao S，Pu W F，Huo J，et al. ВЗАИМНОЕ ВЛИЯНИЕ SARA-КОМПОНЕНТОВ НА ОКИСЛЕНИЕ ТЯЖЕЛОЙ НЕФТИ[J]. НЕФТЕХИМИЯ，2020，60：765-772.

●Huo J，Zhao S，Pan J，et al. Evolution of mass losses and evolved gases of crude oil and its SARA components during low-temperature oxidation by isothermal TG–FTIR analyses [J]. Journal of Thermal Analysis and Calorimetry，2021，https：//doi.org/10.1007/s10973-021-10841-z. 

●Pu W F，Zhao S，Wang S，et al. Investigation into the migration of polymer microspheres （PMs） in porous media：implications for profile control and oil displacement[J]. Colloids and Surfaces A：Physicochemical and Engineering Aspects，2018，540：265-275.

●Pu W F，Zhao S，Hu L Z，et al. Thermal effect caused by low temperature oxidation of heavy crude oil and its in-situ combustion behavior[J]. Journal of Petroleum Science and Engineering，2020，184：106521.

●Pu W F，Zhao S，Pan J J，et al. Comparative analysis of quartz sand and detritus effects on thermal behavior and kinetics of heavy crude oil[J]. Thermochimica Acta，2018，667：153-159.

●Pu W F，Zhao S，Pan J J，et al. Effect of low-temperature oxidation of light oil on oil recovery during high pressure air injection[J]. Petroleum Science & Technology，2018，36：937-943.

●Pu W F，Zhao S，Lu X B，et al. The effect of oil properties on oil recovery in dilute surfactant flooding[J]. Petroleum Science & Technology，2016，34（8）：759-764. DOI：10.1080/10916466.2016.1163398.

●Pu W F，Gao H M，Zhao S，et al. Microscopic Oil Displacement Mechanism of CO2 in Low-Permeability Heterogeneous Glutenite Reservoirs in the Junggar Basin[J]. ACS Omega，2022. DOI：10.1021/acsomega.1c06265.

●Yue L，Pu W，Zhao S，et al. A high performance magnetically responsive Janus nano-emulsifier：Preparation，emulsification characteristics，interfacial rheology，and application in emulsion flooding [J]. Journal of Petroleum Science and Engineering，2022，208：109478.

●赵帅，蒲万芬，李科星，等.聚合物微球非均质调控能力研究[J].油气藏评价与开发，2019，9：51-56.

●赵帅，蒲万芬，袁成东，等.分散胶粒径与岩心孔喉尺寸匹配关系研究[C].辽宁 大连：中国石油第七届化学驱提高采收率年会，2017.

●蒲万芬，赵帅，王亮亮，等.聚合物微球粒径与喉道匹配性研究[J].油气地质与采收率，2018，25：100-105.

●蒲万芬，赵帅，梅子来，等.非均质条件下聚合物微球/聚合物深部调驱实验研究[J].油气藏评价与开发，2018，8：61-65.

●蒲万芬，赵帅，袁成东，等.耐温抗盐聚合物微球/表面活性剂交替段塞调驱实验研究[J].油气藏评价与开发，2016，6（4）：69-73.

●蒲万芬，赵帅.原油低温氧化区间划分[C].北京：第二届全国油气藏提高采收率技术研讨会，2018.

●潘竟军，蒲万芬，赵帅，等.近绝热条件下稠油低温氧化热效应研究[J].油气藏评价与开发，2020，1210（6）：124-128.

（2）专著

●Wei B，Wei P，Zhao S，et al. Lessons Learned from Our Recent Research in Chemical Enhanced Oil Recovery （C-EOR） Methods[M]. America：Recent Insights in Petroleum Science and Engineering. 2018.

（3）学术会议

●提高采收率工程联合实验室2021年度学术研讨会，大会报告，2021-12

●第四届国际热采大会，大会报告，2021-12

●俄罗斯科学家论坛，大会报告，2021-11

●第三届国际热采大会，大会报告，2018-10

●空气驱/空气火驱开发新进展研讨会，大会报告，2018-09

●原油与空气氧化机理研讨会，大会报告，2018-03

●第二届油气藏提高采收率技术研讨会，宣读论文，2018-01

●第七届化学驱提高采收率技术年会，宣读论文，2017-07

（4）发明专利

●赵帅，蒲万芬.一种基于四族组分的原油氧化反应动力学模型建立方法：202110208844.5[P]. 2022-02-11.

（5）软件著作权

●赵帅，蒲万芬.基于燃烧管实验结果计算火驱基础参数的软件V1.0 [CP/CD]. 2020SR1250174，2020-01-10.

●赵帅，蒲万芬.运用热分析实验数据获得原油氧化动力学三因子的软件V1.0 [CP/CD]. 2020SR1250175，2020-06-15.