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Biodegradable Silicon-Based Electromagnetic Energy Harvester toward Wireless Power Supply
Haonan Zhao1, Xiaozhong Wu1, Junjie Zhou1
1School of Integrated Circuits, Shandong University, Jinan 250100, P. R. China.
Abstract:
Transient electronics that can degrade after fulfilling their designed functionalities offer transformative potentials in biomedical implants (eliminating secondary surgeries), ecofriendly consumer electronics (reducing e-waste), and secure systems. However, the development of reliable transient energy supplies remains a critical challenge, thus limiting their widespread implementation. Among various solutions, wireless power supplies via near-field inductive coupling stand out as particularly promising candidates. Nevertheless, currently available demonstrations mainly involve metal-based coils for harvesting electromagnetic energy, and the rapid dissolution rate will significantly restrict their operational lifetime and practical applications. To overcome this critical challenge, we pioneer a biodegradable electromagnetic energy harvester based on heavily doped silicon membranes. Dissolution studies reveal a remarkable increase in the functional lifetime compared to that of conventional magnesium-based counterparts, while they completely disappear under accelerated degradation evaluation. This work establishes a reliable platform for wireless power supplies with potential applications in chronic disease management, long-term electronic implants, and sustainable green electronics.
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