集成电路学院副院长 山东省集成电路产业链——首席专家、山东省海外优青、山东省高层次人才、山东省海外科技人才、齐鲁青年学者
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李虎，无党派人士，教授、博士生导师，山东大学集成电路学院副院长，山东省集成电路产业链首席专家，山东省新一代半导体系统与技术重点实验室副主任，山东大学党外知识分子联谊会理事，教育部集成电路领域“101计划”建设委员会委员，兼任校企“集成电路封装载板研究中心”主任、“集成电路可靠性封测研究中心”主任、“高端晶圆级封装和系统级封装联合实验室”主任。本科及硕士毕业于山东大学，博士毕业于瑞典乌普萨拉大学（软科世界大学排名第67位），之后在英国曼彻斯特大学（软科世界大学排名第33位）电子工程学院与国家石墨烯研究院（石墨烯发源地）继续博士后研究工作。2019年荣获“瑞典国家研究理事会（VR-Formas）青年学者”称号，同时被瑞典乌普萨拉大学Ångström国家实验室（Ångström为原子半径标准单位Å（埃）命名人）聘为终身职位研究员、副教授（Docent）、课题组长（PI）、博士生导师，由于领域内突出贡献，荣获2020年瑞典"I. Bergh奖"。2020年全职加入山东大学集成电路学院任教授、博士生导师，先后荣获山东省海外优青、“齐鲁青年学者”、山东省高层次人才、山东省海外科技人才等荣誉，2024年荣获“Wiley中国卓越青年学者”，担任教育部重大专项专家库专家、英国皇家化学协会（RSC）评审委员会委员、中国电子信息材料与器件专家委员会委员、EI期刊《工程科学学报》编委等职位。目前已在Applied Physics Reviews、Nature Communications、Nano Letters等期刊发表学术论文100余篇，H因子26，其中单篇论文最高引用次数超过650次，总引用次数超过3000次，授权发明专利16项，主持科技部、瑞典国家研究理事会、科技厅等国家级和省部级项目二十余项。所带领团队主要研究方向如下：
研究方向一：高性能光电探测芯片及先进封装技术
高性能光电探测芯片方向：团队研发了新一代高性能异质结型光电探测芯片，包含硅基近红外探测芯片、硅基短波红外探测芯片、锗基热稳定性短波红外探测芯片、宽光谱光电探测芯片等。新一代红外探测芯片的响应度、比探测率、外量子效率等核心指标达到国际最高水平，实现了对于传统红外芯片的全面超越，相关成果发表在Appl.Phys.Rev.、Nat.Commun.、Nano Lett.等国际电子领域顶级期刊。
先进封装工艺及材料方向：团队与企业联合开发了光电隔离器封装、超薄IC芯片封装等多种先进芯片封装技术和高热导率石墨烯散热薄膜、高热导率芯片TIM等封装材料，以及具备完全自主知识产权智能AOI检测以及高可靠性芯片测试系列设备，目前已授权专利和软著二十余项，技术水平达到国际领先水平并创造了显著的经济效益。
研究方向二：模拟集成电路设计
团队核心方向包括 SAR ADC、Pipeline ADC、Delta-Sigma ADC、运算放大器（Op-Amp）及温度传感器设计，同时深耕高速/低噪声CMOS 图像传感器等相关领域。团队拥有十余年电路设计经验，成功完成 55nm/65nm/130nm/180nm 多节点流片项目。目前研究包括高精度和高速ADC，如基于 EF-CIFF 结构的14位高精度三阶噪声整形SAR ADC（55nm工艺下SNDR达84dB以上）、噪声整形流水线Pipeline SAR ADC（55nm工艺下SNDR达72dB以上），研发的世界首款像素级MOS温度传感器在0-100℃范围内测量精度优于±0.3℃，填补行业空白，相关低噪声图像传感器关键参数达同期行业领先水平。
研究方向三：高性能基带IP和AI芯片架构设计
通信基带方向：完成PLC（G.hn/HomePlug AV）与Wi‑Fi（IEEE 802.11a/g/n/ac/ax/be）数字基带IP工程化，覆盖同步、信道估计/均衡、调制/解调、交织/解交织、信道编解码、帧装配/解析；基于FPGA/SoC构建802.11物理层平台，打通RF前端（ADC/DAC、DDC/DUC、AGC）—PHY—MAC/控制全链路以及RTL实现，形成可复用参数化PHY IP与参考平台。
AI与基带融合方向：研发Turbo/LDPC信道编解码IP（支持SISO、软输入软输出、可配置迭代、早期终止、速率适配），并以深度学习进行神经译码器与TurboAE等方案优化，面向AWGN衰落/PLC等信道提升BLER/FER与能效；同步推进Conv2D、MatMul、GEMM等核心算子的模型优化（Winograd/FFT/Im2col、分块/重排、结构化稀疏）与RTL实现，提供INT8/INT4/混合精度与算子融合支持，完成编译器/调度。
FPGA硬件加速器与系统工程方向：算子内核：面向CNN/RNN/Transformer的Conv2D（Winograd/FFT/Im2col）、MatMul/GEMM（脉动阵列/分块/重排）、LayerNorm/Softmax/GELU等高性能内核，支持INT8/INT4/混合精度与动态形状。面向Transformer/LLM的数据流加速器，以脉动阵列为核心，结合多PE阵列、分布式BRAM/URAM、Shift‑Register/Line Buffer、注意力/FFN共享阵列、GEMM‑Norm/注意力融合与稀疏加速实现高利用率与低延迟。
教授、博士生导师、山东大学集成电路学院
研究员（终身职位）、副教授、博士生导师、瑞典乌普萨拉大学
博士后、英国曼彻斯特大学
博士后、瑞典乌普萨拉大学
博士、瑞典乌普萨拉大学
硕士、山东大学
学士、山东大学
| Category | Major | Introduction | Number of People | Year |
|---|---|---|---|---|
|
Doctoral Admissions |
集成电路设计、微电子、物理、材料 |
3 |
2025 |
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|
Master Students Admissions |
集成电路设计、微电子、物理、材料 |
6 |
2025 |
| Name | Introduction |
|---|---|
|
高性能光电探测芯片及先进封装技术 |
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模拟集成电路设计 |
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|
高性能基带IP和AI芯片架构设计 |
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| Project Name | Project Cycle |
|---|---|
|
科技部GJWGZJ项目（G2022150007L、H20240901）连续资助，主持 |
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科技部GJWGZJ项目（DL2021150001L；DL2023150002L）连续资助，主持 |
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山东省海外优青项目（2022HWYQ-060），主持 |
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山东省海外科技人才项目（******），主持 |
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山东省自然科学基金青年项目（ZR2021QE148），主持 |
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广东省科技厅国际科技合作项目（2023A0505050087），主持 |
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广东省自然科学基金面上项目（2022A1515011473），主持 |
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国家青年骨干教师项目（202106225039），主持 |
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深圳市科创委面上项目（JCYJ20230807094119040），主持 |
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“齐鲁青年学者”项目（11500082063141 ），主持 |
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“集成电路封装载板”研究中心项目 |
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“集成电路可靠性封测”研究中心项目 |
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“高端晶圆级封装和系统级封装”联合实验室项目 |
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企业横向项目一（1500022012），主持 |
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企业横向项目二（1500022006），主持 |
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企业横向项目三（1500023003），主持 |
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企业横向项目四（1500023013 ），主持 |
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瑞典国家研究理事会（VR-Formas）青年学者项目（2019-01538），主持 |
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瑞典Åforsk基金委员会青年科学家项目（20-280），主持 |
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瑞典Olle Engkvist基金委员会科研探索项目（211-0068），主持 |
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瑞典科研与教育国际合作基金会（STINT）国际合作项目（IB2020-8594），主持 |
【1】SABEEN FATIMA.Nitrogen doped graphene quantum dots (NGQD) pillared Ta4C3Tx MXene as high-performance electrochemical supercapacitors. JOURNAL OF POWER SOURCES, 645,2025.
【2】SABEEN FATIMA.Enhanced thermal stability and switching performance of transition and alkali metal functionalized MXene films for high-temperature memristor applications. Applied Surface Science, 687,2025.
【3】刘江伟.Investigations on the wear and thermal characteristics of SiC reinforced AlSi10Mg composites fabricated by laser powder bed fusion. MATERIALS TODAY COMMUNICATIONS, 48,2025.
【4】刘江伟.Investigations on the Correlation of Mechanical Properties and Microstructures with Thermal Behavior of AlSi10Mg Alloy during Laser Powder Bed FusionJournal of Materials Engineering and Performance,2025.
【5】赵康康.Application of nitrogen-doped graphene-like cobalt nanoparticle composite catalysts in zinc-air batteries. Journal of Electroanalytical Chemistry, 986,2025.
【6】Zhang, Zihao.Toward high-current-density and high-frequency graphene resonant tunneling transistors. 自然通讯, 16,2025.
【7】张文恺.Doping Characteristics and Band Engineering of InSe for Advanced Photodetectors: A DFT StudyNanomaterials ,2025.
【8】张文恺.Doping Characteristics and Band Engineering of InSe for Advanced Photodetectors: A DFT StudyNanomaterials,2025.
【9】宁亚飞.A Federated Weighted Learning Algorithm Against Poisoning AttacksInternational Journal of Computational Intelligence Systems,2025.
【10】李虎.集成电路芯片封装课程产教融合教学模式研究. 教育理论与研究, 2,2024.
【11】刘江伟.Effect of Initial Surface Morphology and Laser Parameters on the Laser Polishing of Stainless Steel Manufactured by Laser Powder Bed Fusion. Materials, 17,2024.
【12】郑晓晓.Graphene-Oxide-Based Fluoro-and Chromo-Genic Materials and Their Applications. Molecules, 27,2022.
【13】SAFIA KHAN.Promotional impact of RuO2 on CuO/Al2O3 bifunctional catalyst towards electro-oxidation of hydrazine and waterInternational journal of hydrogen energy,2024.
【14】叶晓玲.High performance self-powered photodetectors based on graphene nanoribbons/Al2O3/InGaZnO heterojunctionsIEEE Photonics Journal,2024.
【15】Ahmad, Awais.Synergic impact of renewable resources and advanced technologies for green hydrogen production: Trends and perspectivesInternational journal of hydrogen energy,2024.
【16】刘文成.Nitrogen-Doped Graphene Oxide Nanoribbon Supported Cobalt Oxide Nanoparticles as High-Performance Bifunctional Catalysts for Zinc–Air BatteryADVANCED ENERGY AND SUSTAINABILITY RESEARCH,2024.
【17】叶晓玲.Graphene nanoribbons/Ru as efficient cathodic catalysts for high-performance rechargeable Li–CO2 batteriesJournal of Materials Chemistry A,2024.
【18】王名扬.Tunable photoresponse properties of CuI/Si self-powered photodetectors through Zn doping engineeringApplied Surface Science,2024.
【19】J. Josphin Mini.Investigation of antimicrobial and anti-cancer activity of thermally sensitive SnO2 nanostructures with green-synthesized cauliflower morphology at ambient weather conditionsENVIRONMENTAL RESEARCH,2024.
【20】High-Performance Photodetectors Based on Semiconducting Graphene NanoribbonsNano Letters,2023.
【21】A Universal Approach to Determine the Atomic Layer Numbers in Two-Dimensional Materials Using Dark-Field Optical Contrast. Nano Letters, 23:9170,2023.
【22】Performance enhancement of solution-processed p-type CuI TFTs by self-assembled monolayer treatment. Applied Surface Science, 638,2023.
【23】Toward High-Peak-to-Valley-Ratio Graphene Resonant Tunneling Diodes. Nano Letters, 23:8132,2023.
【24】Kinetic and thermodynamic analysis of ammonia electro-oxidation over alumina supported copper oxide (CuO/Al2O3) catalysts for direct ammonia fuel cellsInternational Journal of Hydrogen Energy,2023.
【25】High-Performance Flexible Zinc-Air Batteries Enabled by a Sodium Polyacrylate-Based Gel Electrolyte Containing Graphene Oxide and Cellulose NanofibersEnergy & Fules,2023.
【26】Synergistic Electrochemical Properties of Graphene Incorporated LCZ-Oxide Cathode for Low Temperature Solid Oxide Fuel CellCrystals,2023.
【27】Observation of defect density dependent elastic modulus of grapheneAPPLIED PHYSICS LETTERS:53102,2023.
【28】Advances in the Field of Graphene-Based Composites for Energy–Storage ApplicationsCrystals,2023.
【29】Compressive behavior and vibration-damping properties of porous Ti-6Al-4V alloy manufactured by laser powder bed fusionJournal of Manufacturing Processes:1,2021.
【30】A graphene-nanoribbon-based thermoelectric generatorCARBON,2023.
【31】Advances in the Field of Two-Dimensional Crystal-Based PhotodetectorsNanomaterials,2023.
【32】Synergistic Electrochemical Properties of Graphene Incorporated LCZ-Oxide Cathode for Low Temperature Solid Oxide Fuel CellCrystals,2023.
【33】Ni-intercalated Mo2TiC2Tx free-standing MXene for excellent gravimetric capacitance prepared via electrostatic self-assembly. JOURNAL OF ENERGY STORAGE, 61,2023.
【34】Ag Nanoparticle-Decorated V2CTx MXene Nanosheets as Catalysts for Water SplittingACS Applied Nano Materials,2023.
【35】Multiferroic and ferroelectric phases revealed in 2D Ti3C2Tx MXene film for high performance resistive data storage devicesnpj 2D Materials and Applications,2023.
【36】Understanding the effect of scanning strategies on the microstructure and crystallographic texture of Ti-6Al-4V alloy manufactured by laser powder bed fusion. Journal of Materials Processing Technology, 299:117366,2021.
【37】Natural fibers and zinc hydroxystannate 3D microspheres based composite paper sheets for modern bendable energy storage applicationJOURNAL OF APPLIED POLYMER SCIENCE Journal,2022.
【38】Making monolayer graphene photoluminescent by electron-beam-assisted fluorination approachApplied Surface Science,2022.
【39】Towards ballistic transport CVD graphene by controlled removal of polymer residuesNanotechnology:495704,2022.
【40】Enhanced ammona gas adsorption through site-selective fluorintion of grapheneCrystals:1117,2022.
【41】Advances in Two-Dimensional Materials for Optoelectronics ApplicationsCrystals:1087,2022.
【42】Sputtered Electrolyte-Gated Transistor with Modulated Metaplasticity BehaviorsAdvanced Electronic Materials,2022.
【43】Sputtered Electrolyte-Gated Transistor with Temperature Modulated Synaptic Plasticity BehaviorsACS Applied Electronic Materials,2022.
【44】Graphene-Oxide-Based Fluoro- and Chromo-Genic Materials and Their ApplicationsMolecules,2022.
【45】Analysis of molecular ligand functionalization process in nano-molecular electronic devices containing densely packed nano-particle functionalization shellsNanotechnology,2022.
【46】Electron-Beam-Induced Fluorination Cycle for Long-Term Preservation of Graphene under Ambient ConditionsNanomaterials,2022.
【47】Review on Graphene-, Graphene Oxide-, Reduced Graphene Oxide-Based Flexible Composites: From Fabrication to ApplicationsMaterials,2022.
【48】Fabrication of BP2T functionalized graphene via non-covalent pi-pi stacking interactions for enhanced ammonia detectionRSC ADVANCES:35982,2021.
【49】Photoluminescent Semiconducting Graphene Nanoribbons via Longitudinally Unzipping Single-Walled Carbon NanotubesACS Applied Materials & Interfaces,2021.
【50】Understanding the effect of scanning strategies on the microstructure and crystallographic texture of Ti-6Al-4V alloy manufactured by laser powder bed fusionJOURNAL OF MATERIALS PROCESSING TECHNOLOGY:117366,2022.
【51】Compressive behavior and vibration-damping properties of porous Ti-6Al-4V alloy manufactured by laser powder bed fusion. Journal of Manufacturing Processes, 66:1,2021.
【52】Compressive behavior and vibration-damping properties of porous Ti-6Al-4V alloy manufactured by laser powder bed fusionJournal of Manufacturing Processes:1,2021.
【53】Click Chemistry Enabling Covalent and Non-Covalent Modifications of Graphene with (Poly)saccharidesPOLYMERS,2021.
【54】Moire patterns arising from bilayer graphone/graphene superlattice. NANO RESEARCH, 13:1060,2020.
【55】Influence of the Rear Interface on Composition and Photoluminescence Yield of CZTSSe Absorbers: A Case for an Al2O3 Intermediate Layer. ACS Applied Materials & Interfaces, 13:19487,2021.
| Title of Work | Introduction | Date |
|---|---|---|
|
Fluorescence Imaging Enhanced by Members of the Graphene Family: A Review |
2023-10 |
|
|
染料剂作为识别标签在生物传感中的应用 |
2021-02 |
