Printed Bioelectronics for Multimodal Physiochemical Sensing

Advancements in 2D and 3D printing technologies have paved the way for the development of flexible, high-performance biosensors with immense potential in healthcare and environmental monitoring. In this talk, I will present our work on printed bioelectronics that leverage functional nanomaterials for real-time sensing and decision-making. We utilize scalable techniques, such as inkjet printing and direct-ink-writing 3D printing, to fabricate multimodal physical and chemical sensors, as well as microfluidics and energy storage devices. These systems are designed to seamlessly integrate with biological environments, enabling in situ monitoring of a wide range of physical and chemical parameters. Our applications include stress response and behavioral impairment monitoring using multimodal sensing capabilities, alongside autonomous robotic platforms for environmental hazard detection. I will also highlight the role of machine learning algorithms in enhancing sensor performance, further advancing personalized healthcare. The intersection of advanced materials, device functionality, and system integration presents exciting opportunities for the future of wearable electronics, smart healthcare, and autonomous systems.