Modulating neural electrophysiology with high precision is essential for understanding
neural communication and for the diagnosis and treatment of neural disorders. Photothermal …

Advances in materials chemistry and engineering serve as the basis for multifunctional
neural interfaces that span length scales from individual neurons to neural networks, neural …

Graphene with its unique electrical properties is a promising candidate for carbon-based
biosensors such as microelectrodes and field effect transistors. Recently, graphene …

Heart rhythm disorders, known as arrhythmias, cause significant morbidity and are one of
the leading causes of mortality. Cardiac arrhythmias are frequently treated by implantable …

Neural electrodes are primary functional elements of neuroelectronic devices designed to
record neural activity based on electrochemical signals. These electrodes may also be …

In vitro models are essential to a broad range of biomedical research, such as pathological
studies, drug development, and personalized medicine. As a potentially transformative …

The ability to modulate cellular electrophysiology is fundamental to the investigation of
development, function, and disease. Currently, there is a need for remote, nongenetic, light …

Detection and monitoring of neural signals is a fast-advancing area of research expected to
impact a broad range of advanced applications, from healthcare to brain–machine and even …

The development of a high sensitivity real-time sensor for multi-site detection of dopamine
(DA) with high spatial and temporal resolution is of fundamental importance to study the …

Cardiac tissue engineering requires materials that can faithfully recapitulate and support the
native in vivo microenvironment while providing a seamless bioelectronic interface. Current …