Sungchil Yang

Abstract Advanced monitoring of neural responses has deepened our understanding of brain functions. However, balancing sampling fidelity and spatial resolution of electrocorticography mapping remains a major challenge in neuroscience and neuroelectronics. Here we describe a flexible, two-dimensional molybdenum disulfide (MoS2)-based active array for electrocorticography sensing that uses a dual-transistor multiplexed source follower array architecture.

Abstract Various electrophysiological and imaging techniques have been studied for the diagnosis and treatment of epilepsy. In particular, electrocorticography (ECoG) provides valuable information that can guide clinical treatment of patients with epilepsy. Currently, it is necessary to define the clinical benefits of ECoG in free-moving animals for the treatment of epilepsy.

Introduction The inner ear houses the auditory and the balance organs. In mammals, the primary sensory cells are the inner hair cells (IHCs) of the cochlea, and the type I and type II hair cells of the vestibular system.