Personal Homepage
Personal Homepage
泰山学者青年专家，山东省海外优青
E-Mail: lingyunwang@sdu.edu.cn
Dr. Lingyun Wang received her PhD degree from City University of Hong Kong in July 2019. Then, she worked as a Postdoc Fellow at the Chinese University of Hong Kong and City University of Hong Kong. Afterward, she joined Shandong University as a professor in Nov. 2022. Currently, her research interests mainly focus on functional (bio)materials and their applications in flexible/wearable smart devices, including epidermal bioelectronics for human health monitoring, flexible sensors for IoT applications, and flexible energy harvesters for wearable electronics. Dr. Wang’s research has been published in top-notch journals, including Advanced Energy Materials, Advanced Functional Materials, ACS Nano, Nano Energy, etc. She serves as an Associate Editor of Frontiers in Electronics: Wearable Electronics and Guest Editor of Nanomaterials.
山东大学 , 研究员
香港城市大学 , 博士后
香港中文大学 , 博士后
香港城市大学 , 博士
| Category | Major | Introduction | Number of People | Year |
|---|---|---|---|---|
|
Master students recruit students |
微电子、材料、物理、化学、信息 |
课题组研究经费充足，配有完备的材料制备、器件性能测试表征平台，每年计划招收硕士研究生2-3名，非常欢迎具有微电子、材料、物理、化学、信息等相关专业背景的同学加入！可推荐优秀学生到香港城市大学、香港中文大学、香港科技大学、香港大学、香港理工大学等著名高校学习交流或进一步深造。非常欢迎优秀本科生加入课题组。 |
3 |
2025 |
| Undergraduate Course Name | Semester | Credit | Course Number |
|---|---|---|---|
|
传感器技术 |
Autumn Term |
2.0 |
sd04031200 |
| Name | Introduction |
|---|---|
|
表皮生物电子技术 |
生物-电子界面作为电子设备与人体生命活动之间的关键桥梁，在健康监测、医疗诊断、疾病治疗以及人机交互等多个领域扮演着至关重要的角色。生物电极作为这一界面的核心组件，负责将生物组织的离子信号转换为电子信号，从而实现生物信息的有效读取。在本研究中，我们致力于开发新型生物电极，这些电极将具备生物相容性、自粘附性、高导电性、良好的拉伸性和优异的皮肤顺应性。我们将利用纳米材料和功能高分子材料的独特优势，研制出适用于表皮或可植入的生物电极，以及与之配套的柔性电路系统，用于人体生物电信号（如心电、肌电、脑电）的实时监测或电刺激治疗，进而在健康监测、个性化医疗、人/脑机接口等前沿领域发挥重要作用。 |
|
柔性智能传感器及系统 |
在数字化和大数据时代，人类对传感器的依赖日益增强，以应对各种挑战并提升生活质量。柔性传感器的兴起是为了解决传统刚性传感器存在的限制。未来的柔性传感器将朝着智能化、集成化、小型化和多功能化的方向发展，这需要开发新型材料、新工艺和新型传感器技术。在本研究中，我们专注于探索基于柔性功能材料的柔性智能传感器及其系统。我们的目标是通过整合多种传感/转导机制，实现对单一或多种物理量（如温度、触觉、应变等）以及生化量（如汗液、气体、湿度等）的高效传感。 |
|
柔性能量采集技术 |
随着物联网（IoT）技术的迅猛发展，传统的能源供应方式已难以满足日益增长的传感网络需求。基于摩擦起电效应和静电感应的摩擦纳米发电机（TENG）技术，已经在能量收集和传感领域展现出巨大的应用潜力。本研究旨在通过材料介电性能的调控、界面工程的优化以及复合能源采集策略，有效捕获人体动能和环境中的微能量。我们的目标是提升柔性能量采集器的电性能输出，以实现自供电的可穿戴电子系统，进而推动人体物联网的发展。 |
| Project Name | Project Cycle |
|---|---|
|
广东省自然科学基金面上项目 |
2024/01/01,2026/12/31 |
|
山东省泰山学者青年专家项目 |
2023/01/01,2025/12/31 |
|
（包干项目）高性能柔性离子电子器件及其应用研究 |
2023/01/01,2025/12/31 |
|
（包干项目）高性能共轭微孔聚合物薄膜基自供能化学传感器的设计构筑及传感机理 |
2024/01/01,2026/12/31 |
1. Triboelectric generator, biomechanical energy harvester, and method of making triboelectric material. US 11,942,877 B2, 2024.
2. Functional cashmere fiber and fabrication method thereof. US 2022/0325466 A1, 2022.
3. 一种双网络深共晶凝胶及其制备方法、应用，202410087216.X, 2024.
4. 一种光致变色聚乙烯醇/支化聚乙烯亚胺/磷钨酸复合膜及其制备方法与应用，202311146408.5, 2023.
5. 一种无铅钙钛矿纳米复合纤维膜、制备方法及在摩擦纳米发电机中的应用，202311529746.7, 2023.
6. 可拉伸固态离子电极、摩擦纳米发电机及其应用，CN 117240128 A, 2023.
2024
1. Zhengyan He, Tianxiang Luan, Shufang Zhang, Qilin Wei, Dan Huang, Lingyun Wang, Yu Wang*, Peizhou Li*, William W. Yu*. Robust imidazole-linked covalent organic framework enabling crystallization regulation and bulk defect passivation for highly efficient and stable perovskite solar cells. Advanced Materials, 2024, 2410363.
2. Zhengyan He, Shufang Zhang, Qilin Wei, Dan Huang, Lingyun Wang*, William W. Yu*. Making a benign buried bottom interface for high-performance perovskite photovoltaics with a chelating molecule. Nano Energy, 2024, 110166. (中科院1区，IF: 16.8)
3. Fuchun Nan, Qilin Wei, Tongtong Kou, Yuxuan Zhao, Lanbo Shen, Dawei Li, Tong Chang, Lingyun Wang*, Fangfang Lang*, William W. Yu*. Accurate regulation of carbon skeletons bonded to Fe-N4 single atom nanozymes for efficient generation of reactive oxygen species. Science China Chemistry, 2024. (中科院1区，IF: 10.4)
4. Anni Su, Fuchun Nan, Qilin Wei, Lingyun Wang*, William W. Yu*. Color-tunable, multifunctional photochromic composites for wearable UV monitoring and biomechanical energy harvesting. Nano Energy, 2024, 126, 109679. (中科院1区，IF: 16.8)
Before join SDU:
5. Lingyun Wang, Walid A. Daoud*. Highly flexible and transparent polyionic-skin triboelectric nanogenerator for biomechanical motion harvesting. Advanced Energy Materials, 2019, 9, 1803183. (中科院1区，IF: 24.4)
6. Lingyun Wang, Yu Wang, Xiangkun Bo, Haoyu Wang, Su Yang, Xiaoming Tao, Yunlong Zi, William W. Yu*, Wen Jung Li*, Walid A. Daoud*. High-performance biomechanical energy harvester enabled by switching interfacial adhesion via hydrogen bonding and phase separation. Advanced Functional Materials, 2022, 32, 2204304. (封面，中科院1区，IF: 18.5)
7. Lingyun Wang, Yu Wang*, Su Yang, Xiaoming Tao, Yunlong Zi, Walid A. Daoud*. Solvent-free adhesive ionic elastomer for multifunctional stretchable electronics. Nano Energy, 2022, 91, 106611. (中科院1区，IF: 16.8)
8. Lingyun Wang, Ye Bian, Chee Kent Lim, Zhuolun Niu, Patrick K.H. Lee, Chun Chen*, Li Zhang*, Walid A. Daoud*, Yunlong Zi*. Tribo-charge enhanced hybrid air filter masks for efficient particulate matter capture with greatly extended service life. Nano Energy, 2021, 85, 106015. (中科院1区，IF: 16.8，被国际杂志Physics World报道)
9. Lingyun Wang, Yu Wang, Han Wang, Guoqiang Xu, Aaron Döring, Walid A. Daoud, Jianbin Xu, Andrey L. Rogach, Yi Xi, Yunlong Zi*. Carbon dot-based composite films for simultaneously harvesting raindrop energy and boosting solar energy conversion efficiency in hybrid cells. ACS Nano, 2020, 14, 10359-10369. (中科院1区，IF: 15.8)
10. Lingyun Wang, Walid A. Daoud*. Hybrid conductive hydrogels for washable human motion energy harvester and self-powered temperature-stress dual sensor. Nano Energy, 2019, 66, 104080. (中科院1区，IF: 16.8)
11. Lingyun Wang, Xiya Yang, Walid A. Daoud*. High power-output mechanical energy harvester based on flexible and transparent Au nanoparticle-embedded polymer matrix. Nano Energy, 2019, 55, 433-440. (中科院1区，IF: 16.8)
12. Lingyun Wang, Xiya Yang, Walid A. Daoud*. Mechanical energy harvester based on cashmere fibers. Journal of Materials Chemistry A, 2018, 6, 11198-11204. (封底，中科院2区，IF: 10.7)
13. Lingyun Wang, Yiming Liu, Qing Liu, Yuyan Zhu, Haoyu Wang, Zhaoqian Xie, Xinge Yu*, Yunlong Zi*. A metal-electrode-free, fully-integrated, soft triboelectric sensor array for self-powered tactile sensing. Microsystems & Nanoengineering, 2020, 6, 59. (中科院1区，IF: 7.3)
Full publication list: Google Scholar, ResearchGate
