Talk Biography
14 June 2024 at 11:00 - 12:00 | Hybrid - Webex plus in-person attendance in Copper (2R04)

Soft Materials and Electronics: Novel Designs and Applications

Thumb ticker xxl unbenannt

Soft materials assemblies offer a diverse range of sophisticated functions, including sensing and actuation, particularly relevant in intimate interactions with the human body. While hard materials dominate current machine and robot construction, there is a growing recognition of the advantages of soft materials in biomedical devices and human-machine interfaces. Soft systems offer comfort, safety, adaptability, and cost-effectiveness. However, the development of soft devices, encompassing sensors, actuators, and power sources, is in its early stages, requiring further research in materials, fabrication, design, and mechanism. In this talk, I will first introduce soft electronic fibers and textiles with state-of-the-art architectures and functionalities. I will discuss how combining a fundamental understanding of rheology with mechanical and electrical engineering of elastic materials has led to these advances. Examples will include high-performance, stretchable energy harvesters and highly integrated soft actuators. Following this, I will present our recent breakthroughs in minimally invasive nerve interfaces, achieved through the innovative integration of soft actuators with thin film-based bioelectronics.

Speaker Biography

Dr. Chaoqun Dong (Department of Engineering, University of Cambridge)

Marie Curie Postdoc Fellow and SNSF Postdoc Fellow

Dr. Chaoqun Dong is a Marie Curie Postdoc Fellow and SNSF Postdoc Fellow at the Department of Engineering, University of Cambridge. She received her Ph.D. in Materials Science and Engineering from EPFL, Switzerland, in 2021. Dr. Dong has authored 28 peer-reviewed papers published in top-tier journals, accumulating over 2000 citations. Her research interests lie in multidisciplinary engineering programs, with a primary focus on the fundamental understanding, design and fabrication of soft functional materials and bioelectronic devices for minimally invasive neural interfaces.