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Integration of Technology in Construction Projects
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Northwestern University
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Prof. John A. ROGERS from Northwestern University, United States, delivered the 35th PAIR Distinguished Lecture titled “Bioelectronics – Frontiers in the Integration of Technology with Biology” on 19 February 2025 on the PolyU campus. The lecture attracted over 130 participants to join in person and captivated an online audience of over 12,800 from different countries and regions who watched the live broadcast on multiple social media platforms, including Bilibili, WeChat, Weibo and YouTube.
The lecture began with a warm welcome and introduction of the speaker by Prof. CHEN Qingyan, Director of PAIR. Prof. Rogers kickstarted his presentation by providing an overview of the advanced electronic technologies designed for stable, intimate integration with living organisms. These technologies serve as the foundations for patient monitoring and disease treatment. Specifically, the ability to inject miniaturised, biocompatible electronic systems into soft tissues or laminate them onto vital organs opens unique opportunities in tracking and manipulating biological activity, with significant implications in human healthcare.
Prof. Rogers also discussed the core concepts in materials science, circuit design, and manufacturing that underpin these technologies, including bioresorbable or “transient” devices engineered to dissolve in the body in sync with natural processes. He also presented several joint interdisciplinary projects with long-time collaborator Prof. HUANG Yonggang, including skin-like wireless devices for tracking vital signs and bioelectronic “medicines” for neuroregeneration and temporary cardiac pacing.
Following the presentation was a question-and-answer session moderated by Prof. ZHENG Zijian, Associate Director of the Research Institute for Intelligent Wearable Systems (RI-IWEAR) and Chair Professor of Soft Materials and Devices in the Department of Applied Biology and Chemical Technology. The audience engaged in a productive discussion with Prof. Rogers.
Event date: 19/02/2025
Speaker: Prof. John A. ROGERS
Hosted by: PolyU Academy for Interdisciplinary Research
- Subjects:
- Biology
- Keywords:
- Drug delivery systems Biomedical engineering Bioelectronics Patient monitoring
- Resource Type:
- Video
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Video
A rapidly expanding research area involves the development of routes to shape programmable three-dimensional (3D) structures with feature sizes in the mesoscopic range (that is, between tens of nanometres and hundreds of micrometres). A goal is to establish methods to control the properties of materials systems and the function of devices, through not only static architectures, but also morphable structures and shape-shifting processes. Soft matter equipped with responsive components can switch between designed shapes, but cannot support the types of dynamic morphing capabilities needed to reproduce continuous shape-shifting processes of interest for many applications. Challenges lie in the establishment of 3D assembly/fabrication techniques compatible with wide classes of materials and 3D geometries, and schemes to program target shapes after fabrication.
In this talk, Prof. HUANG Yonggang will introduce a mechanics-guided assembly approach that exploits controlled buckling for constructing complex 3D micro/nanostructures from patterned two-dimensional (2D) micro/nanoscale precursors that can be easily formed using established semiconductor technologies. This approach applies to a very broad set of materials (e.g., semiconductors, polymers, metals, and ceramics) and even their heterogeneous integration, over a wide range of length scales (e.g., from 100 nm to 10 cm). To allow realisation of 3D mesostructures that are capable of qualitative shape reconfiguration, Prof. HUANG devises a loading-path controlled strategy that relies on elastomer platforms deformed in different time sequences to elastically alter the 3D geometries of supported mesostructures via nonlinear buckling. Prof. HUANG will also introduce a recent work on shape programmable soft surface, constructed from a matrix of filamentary metal traces, driven by programmable, distributed electromagnetic forces that follow from the passage of electrical currents in the presence of a static magnetic field. Under the guidance of a mechanics model-based strategy to solve the inverse problem, the surface can morph into a wide range of 3D target shapes and shape-shifting processes. The compatibility of these approaches with the state-of-the-art fabrication/processing techniques, along with the versatile capabilities, allow transformation of diverse existing 2D microsystems into complex configurations, providing unusual design options in the development of novel functional devices.
Event date: 08/08/2024
Speaker: Prof. HUANG Yonggang (Northwestern University)
Hosted by: PolyU Academy for Interdisciplinary Research
- Keywords:
- Buckling (Mechanics) Materials science Elastomers Microstructure
- Resource Type:
- Video