龚鹏剑博士，教授，博士生导师，国家高层次青年人才，四川省科技创新人才，成都市蓉城英才，先进高分子材料全国重点实验室固定成员。2007年获上海交通大学学士学位，2010年获华东理工大学硕士学位，2013年获京都大学博士学位，2014至2016年在多伦多大学从事博士后研究，2016年入职四川大学高分子科学与工程学院，主要研究超临界流体加工高性能多功能新型高分子微孔材料。教学方面主讲《高分子物理》和《材料表征方法》，2021年获评全国石油和化工教育优秀教学团队，2022年获评“互联网+”大学生创新创业大赛优秀指导教师。
作为项目负责人主持国家自然科学基金（面上、青年、重点项目课题等）、省科技厅项目（聚源兴川、国际合作、成果转化等）、校企合作等 20 余项纵/横向项目，作为骨干研发人员参研多项国家自然科学基金重点/重大、国防军工等项目；在Adv Mater,Nano-Micro Lett,Chem Eng J等材料和工程领域杂志发表论文70 余篇，作为第一发明人申请发明专利40 余项（其中授权20 余项）。
2016年回国后一直致力于多孔材料结构性能研究与通信透波材料产业化应用开发，采用绿色环保的超临界发泡新方法，结合数值模拟设计材料结构，发展了新型高性能化和多功能化发泡新材料，尤其在信息通信方面有效提升新一代毫米波/太赫兹通讯效率。基于现有研发成果，与行业龙头企业联合开展了多项信息通讯和绿色制造的工程放大/产业化开发项目。
为贯彻国家在“加快壮大新一代信息技术等产业”的战略部署和制造业绿色改造升级，我们以高分子材料为基材利用超临界发泡加工新技术创制满足新一代信息技术的新型高通量透波材料，主要研究内容有：
（1）新一代通讯用空气材料（结构设计和信号传输）。在材料中引入大量空气，推动超临界发泡制备毫米波高通量透波新材料的加工制备，助力新型通讯基础设施开发，在新一代信息通讯建设方向发挥空气材料的低损耗、高透波性能优势；
（2）基础理论（实验和数值模拟）。高性能多孔功能材料的工程应用（透波、隔热、电磁屏蔽、导电、轻量化）、多孔介质能量传导的理论研究（热能、电磁能）、聚合物纳米复合材料的加工（石墨烯、碳纳米管）、微孔发泡的技术与理论（泡孔成核、泡孔生长）。
近五年主要研究成果（https://www.researchgate.net/profile/Pengjian-Gong-2/publications）：
1.J He（贺杰）, CB Park, P Gong, C Liang, G Li. Coupled Ionic Conduction Loss and Dipole Polarization Loss in Atmospheric Water Harvesting Foams for Electromagnetic Wave Absorption.Adv Mater, 2026, 38(49): e74174.
2.R Zhu（朱容丽）, Y Liu, K Gu, H Ren, Q Liu, Y Lei, G Li, P Gong. Kinked Conformation and Dynamic Hydrogen Bonding in Polymer Chains for Near-Zero Thermal Expansion, High Toughness, Ultra-Efficient Energy Absorption and Long-Distance Signal Transmission. Chem Eng J, 2026, 547: 180904.
3.K Gu（顾坤鹏）,S He, B Jin, D Chen, J Huang, Z Wang, G Li, P Gong. Design of Low-Loss Air Material Achieving High-Throughput Signal TransmittingAntennas. Mater Design, 2026, 265: 116046.
4.G Zhou（周刚）, Y Lei, Y Li, G Li, P Gong. Molecular Design and Synthesis of Low Melting Point Aromatic-Aliphatic Copolymer Liquid Crystal Polyarylates, Polymer. 2026, 365: 130771.
5.J Huang（黄静怡）, P Li, X Zhang, Q Yang, P Gong, CB Park, G Li. Light-Driven Shape-Programmable Vitrimer Nanocomposites with Infrared Stealth Functionality: A Catalyst-Free Strategy via Carboxylated CNT-Embedded Covalent Adaptable Networks. Ind Eng Chem Res, 2026, 65: 7503.
6.H Ma（马昊宇）, J Wu, L Xi, Z Wang, J He, P Gong, G Li, CB Park. IonicLiquids Boosted Rigid Polyimide Foaming: Heterogeneous Porous Structure and Efficient Microwave Absorption. Chem Eng J, 2025, 15, 170869.
7.S He（何思林）, D Chen, B Jin, B Zhang, Z Wang, Q Shi, G Li, P Gong. Supercritical Carbon Dioxide Foaming to Fabricate Low Loss Air Material for High Performance Antenna. J CO2 Util, 2025, 96: 103095.
8.D Chen（陈登阳）, L Zhang, C Gao, Q Shi, S He, Z Wang, G Li, P Gong. Low Terahertz Transmission Loss of Polyphenylene Sulfide/Polyhedral Oligomeric Silsesquioxane Nanocomposite Foam for High-Performance Terahertz Antenna.Compos Commun, 2025, 58: 102513.
9.X Zhang（张绪涛）, G Zhang, Q Liu, P Gong, G Li. High-Performance FEP Terpolymer Molecular Structure – Macroscopic Properties Relationship via Systematic and Multiscale Analysis. Polymer, 2025, 336: 128895.
10.H Ma（马昊宇）, M Fashandi, ZB Rejeb, X Ming, Y Liu, P Gong, G Li, CB Park.Efficient Electromagnetic Wave Absorption and Thermal Infrared Stealth in PVTMS@MWCNT Nano-Aerogel via Abundant Nano-Sized Cavities and Attenuation Interfaces. Nano-Micro Lett, 2024, 16: 20.
11.H Ma（马昊宇）, J Wu, C Gao, S He, P Gong, Q Shi, Z Wang, G Li, CB Park. Molecular Interface Anchoring in PI-b-PDMS/SiO2@BN Block Copolymer Foams for Flexible, Ultra-Low Dielectric, and Enhanced Terahertz Communication Performance. Chem Eng J, 2024, 485: 149883.
12.J He（贺杰）, J Wu, CB Park, P Gong, C Liang,G Li. Multifunctional Phase Change Composites for Green Electromagnetic Interference Shielding and Thermal Response Prepared under the Guidance of an Impedance Matching Strategy. Nanoscale, 2024, 16: 16622.
13.B Wu（吴冰洁，本科）, Z Xie, Q Shi, J Yang, CB Park, P Gong, G Li. Two-Dimensional MXene Nanosheets on Nano-Scale Fibrils in Hierarchical Porous Structure to Achieve Ultra-High Sensitivity.Nanoscale, 2024, 16, 6961.
14.Z Xie（谢正惠）, F Meng, J Yang, Y Wang, CB Park, P Gong, G Li. High Sensing Performance Hybrid Nanostructure Constructed via Nanoscale Confined Motion of Nanofiber and Nanoplatelet in Flexible Nanocomposite Sensor. Nanoscale, 2024, 16: 20288.
15.J Huang（黄静怡）, B Jin, X Zhang, S Wang, B Wu, P Gong, CB Park, G Li.High Energy Absorption Efficiency and Biodegradable Polymer based Microcellular Materials via Environmental-Friendly CO2Foaming for Disposable Cushioning Packaging. Polymer, 2024, 292: 126612.
16.P Li（李鹏支）, X Zhang, Q Yang, P Gong, CB Park, G Li. Sustainable Polyester Vitrimer Capable of Fast Self-Healing and Multiple Shape-Programming via Efficient Synthesis and Configuration Processing. J Mater Chem A, 2023, 11: 10912.
17.H Ma（马昊宇）, X Zhang, L Yang, L Ma, P Gong, CB Park, G Li. Electromagnetic Wave Absorption in Graphene Nanoribbon Nanocomposite Foam by Multiscale Electron Dissipation of Atomic Defects, Interfacial Polarization and Impedance Match. Carbon, 2023, 205: 159.
18.Y Liu（刘云杰）, B Wu, Q Zhang, Y Li, P Gong, J Yang, CB Park, G Li. Micro-Nano Structure Skeleton Assembled with Graphene for Highly Sensitive and Flexible Wearable Sensor.Compos Part A-ApplS, 2023, 165: 107357.
19.H Ma（马昊宇）, Z Xie, Y Liu, Q Zhang, P Gong, F Meng, Y Niu, CB Park, G Li. Improved Dielectric and Electromagnetic Interference Shielding Performance of Materials by Hybrid Filler Network Design in Three-Dimensional Nanocomposite Films. MaterDesign, 2023, 226, 111666.
20.H Ma（马昊宇）,P Gong, G Li, CB Park. Highly Efficient Electromagnetic Wave Absorption Nanocomposite Foam Fabricated via Low-Dimension Cell Wall Stretching and Designed via Nanoparticle Monte Carlo Modeling. Compos Sci Technol, 2023, 244: 110274.
21.D Chen（陈登阳）, L Zhang, C Gao, Q Shi, S He, Z Wang, Y Lei, G Li, P Gong. Ultrahigh Terahertz Signal Transmittance of PTFE@PPS Nanocomposite Foam Designed for Terahertz Antennas. Ind Eng Chem Res, 2023, 62: 15511.
22.L Zhang（张利沙）, D Chen, B Jin, B Zhang, P Gong, B Zhang, CB Park, G Li. Ultrahigh Electromagnetic Wave Transmitting Polyphenylene Sulfide Microcellular Foams Based on Molecular Structure Design for 5G Communication.Ind Eng Chem Res, 2023, 62: 5850.
23.P Li（李鹏支）, B Lan, X Zhang, S Lei, Q Yang, P Gong, CB Park, G Li. Facilein-situ Construction of Covalent Adaptable Network in Polyester Vitrimer for Advanced Performance in Repairability, Foamability and Recyclability. Green Chem, 2022, 24: 5490.
24.X Zhang（张绪涛）, P Li, Z Xie, B Jin, P Gong, CB Park, G Li. Ultra-Low Dielectric Loss, Environment Resistant and Flame Retardant PTFE in-situ Nanofibril Modified FEP Foam Using Supercritical CO2Foaming. JCO2 Util, 2022, 65: 102226.
25.H Ma（马昊宇）, B Jin, P Gong, B Lan, C Qin, Y Huang, CB Park, G Li. Using a Supercritical Fluid-Assisted Thin Cell Wall Stretching-Defoaming Method to Enhance the Nanofiller Dispersion, EMI Shielding, and Thermal Conduction Property of CNF/PVDF Nanocomposites. Ind Eng Chem Res, 2022, 61: 3647.
26.P Li（李鹏支）, B Lan, Q Zhang, Q Yang, P Gong, CB Park, G Li. Microcellular Foams Simultaneous Reinforcing and Toughening Strategy of Combining Nano-Fibrillation Network and Supercritical Solid-State Foaming. Polymer, 2022, 252: 124928.
27.Y Liu（刘云杰）, Y Li, P Gong, Y Niu, CB Park, G Li, Three-Dimension Polymer Nanofiber Structures for Liquid Contamination Adsorption. ACS Appl Nano Mater, 2022, 5: 5640.
28.Y Li（李艳婷）, Y Liu, P Gong, Y Niu, CB Park, G Li. Graphene Embedded Hybrid Network Structure to Render Olefin Block Copolymer Foams with High Compression Performance. Ind Eng Chem Res, 2022, 61: 9735.
29.Y Li（李艳婷）, Z Zhang, W Wang, P Gong, Q Yang, CB Park, G Li. Ultra-Fast Degradable PBAT/PBS Foams of High Performance in Compression and Thermal Insulation made from Environment-Friendly Supercritical Foaming. J Supercrit Fluids, 2022, 181: 105512.
30.Q Zhang（张强）, H Ma, P Gong, Y Huang, CB Park, G Li. Fluorescence Assisted Visualization and Destruction of Particles Embedded Thin Cell Walls in Polymeric Foams via Supercritical Foaming. J Supercrit Fluids, 2022, 181: 105511.
31.Q Zhang（张强）, F Meng, Y Li, H Ma, P Gong, J Yang, CB Park, G Li. Construction of Two-Dimension Response Network in Three-Dimension Composite to Dramatically Enhance Sensor Sensitivity: A Simple, Feasible and Green Regulating Strategy. Ind Eng Chem Res, 2022, 61: 8069.
32.B Jin（金碧辉）, B Zhang, H Ma, X Zhang, P Gong, Y Niu, CB Park, G Li. Optimization of Electrical, Dielectric and Electromagnetic Response in Nanocomposite Foam by Balancing Carbon Nanotube Restricted Orientation and Selective Distribution. Ind Eng Chem Res, 2022, 61: 17499.
欢迎对通讯材料、信号传输、绿色环保方向感兴趣的有志青年加入！
联系方式：
地址：四川大学高分子科学与工程学院先进材料大楼304室，邮编610065
电话：028-8540 1841
研究生招生：
1.每年计划招收博士研究生 ~2 名，招生专业：080503 材料加工工程
2.每年计划招收硕士研究生 ~3 名，招生专业：080503 材料加工工程 或085600 材料与化工[02塑料工程]
研究生招生专业及代码 |
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学位 |
专业名称 |
专业代码 |
研究方向 |
博士 |
材料加工工程 |
080503 |
01 高分子材料加工新理论、新方法与新技术 |
02 高分子共混及复合材料的高性能化与功能化 |
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03 高分子材料先进加工装备与模具 |
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04 环境友好资源节约的高分子材料及其加工方法与技术 |
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05 天然高分子与高分子生物材料的加工及其结构与性能 |
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材料与化工 |
085600 |
02（全日制）塑料工程 |
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04（非全日制）塑料工程 |
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硕士 |
材料加工工程 |
080503 |
01 高分子材料加工新理论、新方法与新技术 |
02 高分子共混及复合材料的高性能化与功能化 |
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03 高分子材料先进加工装备与模具 |
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04 环境友好资源节约的高分子材料及其加工方法与技术 |
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05 天然高分子与高分子生物材料的加工及其结构与性能 |
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材料与化工 |
085600 |
02（全日制）塑料工程 |
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04（非全日制）塑料工程 |
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