副研究员 邵佳佳

邵佳佳

副研究员
单位: 北京雁栖湖应用数学研究院
研究方向: 曲面电磁计算, 共形结构, 多物理场建模与动态仿真
办公室: A3-3-210
邮箱: shaojiajia@bimsa.cn

个人简介

邵佳佳,北京雁栖湖应用数学研究院副教授; 2019年获中国科学院大学理学博士学位, 凝聚态物理专业, 期间2018年9月至2019年3月在瑞典访学; 2019年6月至2021年7月在中科院北京纳米能源所进行博士后研究; 2021年-2026年, 任中科院北京纳米能源所/中国科学院大学副研究员/副教授、青年研究员 。主要研究方向:曲面电磁计算、共形结构、多物理场建模与仿真。近年来在Nat. Rev. Methods Primers.、Sci. Adv.、Appl. Phys. Rev.等期刊上发表SCI论文80余篇, 多篇Featured/Tutorials/ESI高被引论文, 中英文合著10章, 谷歌引用7200余次、H-index 43 (截止05. 2026)。主持或参与国自然、科技部、中科院、国科大等项目12项,并担任多个国际期刊青年编委与组织负责人。

研究兴趣

  • 曲面电磁计算
  • 共形结构
  • 多物理场建模与动态仿真

教育经历

  • 2016 - 2019 | 中国科学院大学 | 凝聚态物理 | Ph.D

工作经历

  • 2026 - -- | 北京雁栖湖应用数学研究院 | 副教授
  • 2021 - 2026 | 中科院北京纳米能源与系统研究所/中国科学院大学 | 副研究员/青年研究员/副教授
  • 2019 - 2021 | 中科院北京纳米能源与系统研究所 | 博士后

荣誉与奖项

  • 2024 | 国科大青年教师教学奖
  • 2023 | 国科大领雁奖
  • 2022 | 中科院青促会会员
  • 2021 | 中国科学杂志社高影响力论文奖 (中科院建院70周年)
  • 2021 | 国科大优秀个人

出版物

  • [1] D Liu, J Zhu, S Wang, C Jia, T Jiang, G Zhou, J Shao, Modeling and Output Optimization of Triboelectric Microphone for Acoustic Energy Harvesting, Energy & Environmental Materials, e70441 (2026)
  • [2] H Qian, J Liu, N Wu, S Li, X Song, F Yang, M Willatzen, J Shao, V Shankar, ..., A triboelectric radical generation route to chlorine disinfectants from brine, Nature Communications (2026)
  • [3] X Guo, S Wang, D Wei, C Zhang, S Dai, L Ding, ZL Wang, J Shao, Figure-of-merit for tribovoltaic nanogenerators, Matter, 9(3), 102580 (2026)
  • [4] J Zhu, X Pan, Y Shi, B Sun, ZB Zhang, L Ding, ZL Wang, J Shao, Electromagnetic radiation from a magnet-based mechanical antenna, Nano Energy, 111837 (2026)
  • [5] Y Wei, X Li, B Sun, L Yang, J Shao, ZL Wang, D Wei, Triboelectric-induced polarization directing molecular self-assembly without chemical functionalization, Nano Energy, 111991 (2026)
  • [6] X Pan, J Gravesen, M Willatzen, X Guo, ZL Wang, J Shao, Triboelectric-enabled self-powering mechanical antenna, Cell Reports Physical Science, 6(6) (2025)
  • [7] J You, J Shao, Y He, B Sun, KW See, ZL Wang, X Wang, Interface triboelectricity, EcoEnergy, 3(1), 105-130 (2025)
  • [8] C Su, J Shao, Z Yu, AM Hasan, C Bao, CR Bowen, C Li, ZL Wang, Y Yang, Miniature and cost‐effective self‐powered triboelectric sensing system toward rapid detection of puerarin concentration, InfoMat, 7(2), e12624 (2025)
  • [9] H Monluc, D He, X Pan, J Zhang, L Ding, J Shao, ZL Wang, J Bai, Dynamic modelling of charge transport in solid–liquid systems, Nano Energy, 111536 (2025)
  • [10] T An, X Pan, Z Wang, K Jin, Y Xie, X Meng, G Nie, Z Wang, X Sun, R Chen, ..., Designing Nonplanar Electron Acceptors for High-Performance Organic Photodetectors: Mechanism Analysis and Application in Gesture Recognition, ACS nano, 19(31), 28268-28279 (2025)
  • [11] J Zhang, J Shao, H Monluc, D Wei, J You, L Ma, L Ding, ZL Wang, S Dai, Dynamic Modeling of a Stream-Current-Based Microfluidic Nanogenerator, ACS nano, 19(48), 41330-41341 (2025)
  • [12] Y Zhao, J Shao, J Zhang, X Guo, B Sun, ZL Wang, S Dai, The universal model for metal–semiconductor tribovoltaic nanogenerators, Applied Physics Reviews, 12(4) (2025)
  • [13] H Zhao, H Wang, H Yu, Q Xu, X Li, J Guo, J Shao, ZL Wang, M Xu, W Ding, Theoretical modeling of contact-separation mode triboelectric nanogenerators from initial charge distribution, Energy & Environmental Science, 17(6), 2228-2247 (2024)
  • [14] X Guo, J You, D Wei, J Shao, ZL Wang, A generalized model for tribovoltaic nanogenerator, Applied Physics Reviews, 11(2) (2024)
  • [15] B Sun, X Guo, Y Zhang, ZL Wang, J Shao, A generalized model for a triboelectric nanogenerator energy harvesting system, Nano Energy, 126, 109637 (2024)
  • [16] Y Wei, X Li, Z Yang, J Shao, ZL Wang, D Wei, Contact electrification at the solid–liquid transition interface, Materials Today, 74, 2-11 (2024)
  • [17] J Liu, Z Yang, S Li, Y Du, Z Zhang, J Shao, M Willatzen, ZL Wang, D Wei, Nonaqueous contact-electro-chemistry via triboelectric charge, Journal of the American Chemical Society, 146(46), 31574-31584 (2024)
  • [18] C Li, Y Bai, J Shao, H Meng, Z Li, Strategies to improve the output performance of triboelectric nanogenerators, Small Methods, 8(10), 2301682 (2024)
  • [19] Z Yu, Y Zhang, M Willatzen, J Shao, ZL Wang, Momentum transfer in triboelectric nanogenerators, Advanced Physics Research, 3(4), 2300115 (2024)
  • [20] C Li, R Luo, Y Bai, J Shao, J Ji, E Wang, Z Li, H Meng, Z Li, Molecular doped biodegradable triboelectric nanogenerator with optimal output performance, Advanced Functional Materials, 34(29), 2400277 (2024)
  • [21] J Shao, ZL Wang, Displacement current theory of triboelectric nanogenerators, Handbook of Triboelectric Nanogenerators, 1-64 (2023)
  • [22] J Gravesen, M Willatzen, J Shao, ZL Wang, Modeling and optimization of a spherical triboelectric generator, Nano Research, 16(9), 11925-11931 (2023)
  • [23] Y Nan, J Shao, D Li, X Guo, M Willatzen, Z Wang, Physical mechanisms of contact-electrification induced photon emission spectroscopy from interfaces, Nano research, 16(9), 11545-11555 (2023)
  • [24] T Cheng, J Shao, ZL Wang, Triboelectric nanogenerators, Nature Reviews Methods Primers, 3(1), 39 (2023)
  • [25] J Gravesen, M Willatzen, J Shao, ZL Wang, Quantitative Calculation of Output Power and Spherical Triboelectric Nanogenerators, Handbook of Triboelectric Nanogenerators, 203-241 (2023)
  • [26] X Guo, J Shao, M Willatzen, X Wang, ZL Wang, Quantifying output power and dynamic charge distribution in sliding mode freestanding triboelectric nanogenerator, Advanced Physics Research, 2(2), 2200039 (2023)
  • [27] J You, J Shao, Y He, X Guo, KW See, ZL Wang, X Wang, Simulation model of a non‐contact triboelectric nanogenerator based on electrostatic induction, EcoMat, 5(10), e12392 (2023)
  • [28] C Fan, J Shao, X Guo, M Willatzen, ZL Wang, Field-circuit coupling model of triboelectric nanogenerators, Materials Today Physics, 35, 101124 (2023)
  • [29] Z Zhang, J Shao, Y Nan, M Willatzen, ZL Wang, Theory and shape optimization of acoustic driven triboelectric nanogenerators, Materials Today Physics, 27, 100784 (2022)
  • [30] J Gravesen, M Willatzen, J Shao, ZL Wang, Modeling and optimization of a rotational symmetric spherical triboelectric generator, Nano Energy, 100, 107491 (2022)
  • [31] X Guo, J Shao, M Willatzen, Y Yang, ZL Wang, Three-dimensional mathematical modelling and dynamic analysis of freestanding triboelectric nanogenerators, Journal of Physics D: Applied Physics, 55(34), 345501 (2022)
  • [32] J Gravesen, M Willatzen, J Shao, ZL Wang, Energy optimization of a mirror‐symmetric spherical triboelectric nanogenerator, Advanced Functional Materials, 32(18), 2110516 (2022)
  • [33] X Guo, J Shao, M Willatzen, Y Yang, ZL Wang, Theoretical model and optimal output of a cylindrical triboelectric nanogenerator, Nano Energy, 92, 106762 (2022)
  • [34] Y Nan, J Shao, M Willatzen, ZL Wang, Understanding contact electrification at water/polymer interface, Research (2022)
  • [35] ZH Guo, HL Wang, J Shao, Y Shao, L Jia, L Li, X Pu, ZL Wang, Bioinspired soft electroreceptors for artificial precontact somatosensation, Science Advances, 8(21), eabo5201 (2022)
  • [36] J Shao, Y Yang, O Yang, J Wang, M Willatzen, ZL Wang, Designing rules and optimization of triboelectric nanogenerator arrays, Advanced Energy Materials, 11(16), 2100065 (2021)
  • [37] J You, J Shao, Y He, FF Yun, KW See, ZL Wang, X Wang, High-electrification performance and mechanism of a water–solid mode triboelectric nanogenerator, ACS nano, 15(5), 8706-8714 (2021)
  • [38] J Shao, M Willatzen, ZL Wang, Theoretical modeling of triboelectric nanogenerators (TENGs), Journal of Applied Physics, 128(11) (2020)
  • [39] JJ Shao, T Jiang, ZL Wang, Theoretical foundations of triboelectric nanogenerators (TENGs), Science China Technological Sciences, 63(7), 1087-1109 (2020)
  • [40] J Shao, D Liu, M Willatzen, ZL Wang, Three-dimensional modeling of alternating current triboelectric nanogenerator in the linear sliding mode, Applied Physics Reviews, 7(1) (2020)
  • [41] J Shao, M Willatzen, T Jiang, W Tang, X Chen, J Wang, ZL Wang, Quantifying the power output and structural figure-of-merits of triboelectric nanogenerators in a charging system starting from the Maxwell's displacement current, Nano Energy, 59, 380-389 (2019)
  • [42] J Shao, M Willatzen, Y Shi, ZL Wang, 3D mathematical model of contact-separation and single-electrode mode triboelectric nanogenerators, Nano Energy, 60, 630-640 (2019)
  • [43] J Shao, T Jiang, W Tang, L Xu, TW Kim, C Wu, X Chen, B Chen, T Xiao, ..., Studying about applied force and the output performance of sliding-mode triboelectric nanogenerators, Nano Energy, 48, 292-300 (2018)
  • [44] J Shao, T Jiang, W Tang, X Chen, L Xu, ZL Wang, Structural figure-of-merits of triboelectric nanogenerators at powering loads, Nano Energy, 51, 688-697 (2018)
  • [45] JJ Shao, W Tang, T Jiang, XY Chen, L Xu, BD Chen, T Zhou, CR Deng, ..., A multi-dielectric-layered triboelectric nanogenerator as energized by corona discharge, Nanoscale, 9(27), 9668-9675 (2017)
  • [46] W Li, J Shao, Q Liu, X Liu, X Zhou, J Hu, Facile synthesis of porous Mn2O3 nanocubics for high-rate supercapacitors, Electrochimica Acta, 157, 108-114 (2015)
  • [47] J Shao, X Zhou, Q Liu, R Zou, W Li, J Yang, J Hu, Mechanism analysis of the capacitance contributions and ultralong cycling-stability of the isomorphous MnO 2@ MnO 2 core/shell nanostructures for supercapacitors, Journal of Materials Chemistry A, 3(11), 6168-6176 (2015)
  • [48] J Shao, W Li, X Zhou, J Hu, Magnetic-field-assisted hydrothermal synthesis of 2× 2 tunnels of MnO 2 nanostructures with enhanced supercapacitor performance, CrystEngComm, 16(43), 9987-9991 (2014)
更新时间: 2026-09-23 16:00:08