Materials Today · 2021 · 30 citations · 102 references
EngineeringBioengineeringBiomedical EngineeringBiocompatibilityBiomaterialsSensorsBioelectronic MedicineBiomedical InstrumentationBiomedical SensorsImplantable Biomedical DevicesImplantable MicrodevicesImplantable MicrosystemsActuator NetworksBiomedical ImplantsClosed-loop Implantable SystemsClosed-loop SystemsClosed-loop Therapeutic SystemsImplantable Bioelectronic DevicesImplantable SensorsSensor-actuator Networks
Designing implantable bioelectronic systems that continuously monitor physiological functions and simultaneously provide personalized therapeutic solutions for patients remains a persistent challenge across many applications ranging from neural systems to bioelectronic organs. Closed-loop systems typically consist of three functional blocks, namely, sensors, signal processors and actuators. An effective system, that can provide the necessary therapeutics, tailored to individual physiological factors requires a distributed network of sensors and actuators. While significant progress has been made, closed-loop systems still face many challenges before they can truly be considered as long-term solutions for many diseases. In this review, we consider three important criteria where materials play a critical role to enable implantable closed-loop systems: Specificity, Biocompatibility and Connectivity. We look at the progress made in each of these fields with respect to a specific application and outline the challenges in creating bioelectronic technologies for the future.
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