薄拯 教授 博士 浙江省 研究领域: 储能 研究方向: · 电化学储能界面理论与调控方法 · 高功率储能理论与技术 · 储能调频技术 · 储能电站安全智慧运维技术 所在单位: 浙江大学

基本信息

所在单位:
浙江大学
机构细分:
能源工程学院
单位类型:
高等院校
职务:
教授
职称:
教授
最高学历:
博士
专家介绍:
薄拯,浙江大学求是特聘教授,教育部长江学者特聘教授,博士生导师,“储能与智能电网”专项国家重点研发计划首席科学家。英国物理学会会士(IOP Fellow),英国皇家学会牛顿高级学者基金获得者,国际电工委员会IEC/SC21A标准工作组专家。
获国家科技进步奖(创新团队)、首届中国动力工程学会青年科技奖、浙江省青年科技英才奖、浙江省青年五四奖章、日内瓦国际发明展金奖、全国百篇优秀博士学位论文奖,入选国家高层次人才特殊支持计划、浙江省有突出贡献青年科技人才。
长期从事功率型储能技术与储能安全领域研究工作,主要包括:电化学储能界面理论与调控方法,超级电容/金属离子电容高功率储能技术,储能调频技术,储能电站安全智慧运维技术。主持国家重点研发计划项目、国家优秀青年科学基金、浙江省“尖兵计划”重大科技攻关项目、内蒙古自治区“科技突围工程”重大科技攻关项目、浙江省杰出青年科学基金等项目30余项。
作为第一或通讯作者,在Nature Energy,Energy Environ. Sci.,Adv. Mater.,Nature Commun.,Int. J. Heat Mass Transfer,Energy,Matter等期刊发表论文140余篇,SCI他引9000余次(Web of Science核心合集检索),H指数49。研究成果被国家自然科学基金委资助成果报道。出版中英文专著2部,主编中国科协《碳中和目标下储能技术路线图:超级电容储能技术部分》,参编国家自然科学基金委《工程热物理与能源利用学科发展战略研究报告》。
授权中国发明专利30余项,美国专利3项,日本专利1项。受邀作学术会议报告50余次,在工程热力学与能源利用学科年会作大会特邀报告,受邀担任科技部第二届金砖国家青年科学家会议大会主席。

科研能力

研究领域:
储能
研究方向:
· 电化学储能界面理论与调控方法
· 高功率储能理论与技术
· 储能调频技术
· 储能电站安全智慧运维技术
论文著作:
Generalizable dynamic-rigid solvation chemistry enables temperature-dependent SEIs for ultralow-temperature sodium-ion batteries, Energy & Environmental Science, 2026
Bio-inspired site-specific atomic repari for energy-efficient regeneration of spent LiFePO4 batteries, Advanced Materials, 2026
Interfacial-electronegativity-induced near-surface tetrahedral reconstruction enables one-step upcycling of spent LiFePO4 for high-rate and long-life pouch cells, Advanced Materials, 2026
Zinc-ion-assisted catalytic synthesis of hard carbon with superior plateau capacity and ICE for sodium-ion batteries, Advanced Functional Materials, 2026
Engineering interfacial built-in electric fields for accelerated and stable sodium-ion storage, Energy & Environmental Sciece, 2026
Copper-stabilized bismuth subcarbonate electrocatalysis for durable large-scale formate production at kilowatt power, Nature Communications, 2025
Ordered zinc electrodeposition from single-crystal units to polycrystalline stacking within solid-electrolyte interphase in battery anodes, Nature Communications, 2025
Ion desolvation for boosting the charge storage performance in Ti3C2 MXene electrode, Nature Communications, 2025
Deployment strategies for Li-rich cathode materials in batteries, Nature Energy, 2025
Controlling interfacial structural evolution in aqueous electrolyte via anti-electrolytic zwitterionic waterproofing, Advanced Functional Materials, 2022
Entropy generation analysis in supercapacitor modules based on a three-dimensional coupled thermal model, Energy, 2022
Nanotexturing-enhanced heat transfer and interfacial evaporation for energy-efficient solar-thermal water desalination, International Journal of Heat and Mass Transfer, 2022
Ultrathick MoS2 Films with exceptionally high volumetric capacitance, Advanced Energy Materials, 2022
Two-birds-one-stone: multifunctional supercapacitors beyond traditional energy storage, Energy & Environmental Science, 2021
Combinatorial atomistic-to-AI prediction and experimental validation of heating effects in 350 F supercapacitor modules, International Journal of Heat and Mass Transfer, 2021
High-mass-loading porous Ti3C2Tx films for ultrahigh-rate pseudocapacitors, ACS Energy Letters, 2020
Influence of wettability on the electrolyte electrosorption within graphene-like nonconfined and confined space, International Journal of Heat and Mass Transfer, 2019
Scalable production of integrated graphene nanoarchitectures for ultrafast solar-thermal conversion and vapor generation, Matter, 2019
Towards understanding the effects of van der Waals strengths on the electric double-layer structures and capacitive behaviors, Journal of Power Sources, 2017
Molecular origin of electric double-layer capacitance at multilayer graphene edges, Journal of Physical Chemistry Letters, 2016
Emerging energy and environmental applications of vertically-oriented graphenes, Chemical Society Reviews, 2015
Vertically oriented graphene bridging active-layer/current-collector interface for ultrahigh rate supercapacitors, Advanced Materials, 2013
Vertically oriented graphene sheets grown on metallic wires for greener corona discharges: lower power consumption and minimized ozone emission, Energy & Environmental Science, 2011
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