Minimally invasive technologies operating in the gastrointestinal (GI) tract - first conceived in the '50s - have now grown into a multi-billion-dollar market. Nonetheless, recent advances in flexible electronics, materials science, and biomedical engineering are paving the way for next-generation technologies that can further enhance the capabilities of current devices.
Neuromorphic devices mimic the brain's structure and functions, using hardware like memristors to replicate neurons and synapses. They offer energy-efficient solutions for AI, cognitive computing, and real-time learning applications. Flexible and mechanically deformable neuromorphic devices are emerging as a key focus in IoT applications, enabling sensor fusion and AI integration. This focused session will highlight the latest research on Neuromorphic Devices and Systems.
This focused session will explore advancements in multifunctional bioelectronics designed for sensing, stimulation, and seamless biological interfacing/integration. Topics include innovative materials, device architectures, and system-level approaches that enable enhanced functionality and biocompatibility. Applications span health monitoring, rehabilitation, neural interfaces, and human-machine interaction. By addressing the challenges of combining multiple functionalities in bioelectronics, this session aims to highlight cutting-edge research shaping the future of biointegrated technologies.
Explore the cutting-edge field of Plant Electronics at FLEPS 2025! This session delves into the development of wearable plant sensors and non-invasive electronic systems designed to monitor plant health and uncover fundamental biological processes in plants. Join us to discover innovative technologies that bridge the gap between electronics and botany, paving the way for sustainable agriculture and a deeper understanding of plant physiology. Don’t miss this opportunity to engage with pioneering research in an emerging interdisciplinary field!
