Neuroscience and Neural Engineering

This study upgrades a subretinal photovoltaic implant in rats, improving visual acuity from 100m to 28m pixels.

This paper develops a high-density epidural stimulation paddle with integrated electronics and evaluates its long-term performance in sheep.

DREDge improves motion correction in high-density extracellular recordings across species, enhancing reliability and reducing errors in electrophysiological data.

The paper introduces a new mesoscopic electrophysiology method for non-human primates, demonstrating its ability to record large-scale brain activity and show functional disconnection under ketamine.

This paper develops MXene/PEDOT-PSS electrode fibers with high conductivity and low impedance for use in neural recording and stimulation applications.

This study introduces a minimally invasive ECoG method in common marmosets using circumscribed trepanations and high-density electrode arrays for long-term cortical monitoring.

This study evaluates biodegradable PDLLA optical fibers as neural interfaces in mice, showing degradation and efficient SW-NIR light transmission with potential for optogenetics and therapy.

The paper introduces an adaptable implant for chronic Neuropixels recordings in mice, enabling stable, reusable, and lightweight neural recordings across multiple experimental conditions.

This paper introduces a biodegradable neural interface that monitors nerve injury recovery using machine learning, enabling early detection of neuroma formation and improved therapeutic outcomes.

This paper accelerates multi-electrode array simulations using sparse and low-rank matrix techniques, achieving up to 133x speedup with minimal error.

MEDiCINe improves motion correction in neural electrophysiology recordings, leading to more accurate spike sorting.

This paper develops an implantable biohybrid nerve model for synaptic deep brain stimulation, demonstrating in vitro and in vivo functionality for over 22 days.

This paper introduces a sapphire-based optrode that combines high-intensity LED optogenetic stimulation with low-noise neural recording, demonstrating its effectiveness in vivo.

The paper tests asymmetric microchannel designs to promote unidirectional connectivity in cultured neuronal circuits and finds that the 'Rams' design achieves ~76% unidirectional connections and ~94% directional spiking activity.

This study develops graphene-based micro-electrodes with tunable porous structures to improve neural recordings by reducing impedance and increasing charge injection capacity.

This paper develops a graphene-based sensor integrated into a microfluidic chip for real-time monitoring of cell growth and viability through impedance spectroscopy.

This paper develops an automatic method to optimize electrode placement for visual prostheses by matching phosphene distributions using retinotopic predictions and individual anatomy data.

This paper develops flexible microelectrode arrays (MEAs) for recording neuronal activity in 3D cultures, showing improved performance and scalability.

This study evaluates nanoporous platinum microelectrode morphologies for neural cell cultures, finding that uniform nanoporous electrodes balance biocompatibility and electrophysiological performance.

This paper develops a reversible and reusable microfluidic chip for culturing dorsal root ganglion neurons, enabling PNS modeling with improved accessibility and sustainability.

The paper develops a biophysical model to study retinal ganglion cell responses to multi-electrode stimulation and validates it with experimental data from macaque retinas.

This paper demonstrates that graphene-polymer nanofibers can be optically stimulated to enhance electrical activity in stem cell-derived cardiomyocytes and brain organoids.

This study evaluates biomimetic multi-channel microstimulation for restoring high-resolution force feedback in bionic hands through somatosensory cortex stimulation.

RT-Sort detects and sorts action potentials in real time with millisecond latencies using propagation patterns and a convolutional neural network.

This study examines how induced P301L tau mutation alters structural and functional connectivity in engineered neural networks over time.

This study evaluates long-term biocompatibility and performance of 3D honeycomb-shaped subretinal implants in rats, showing improved stimulation thresholds compared to flat designs.

This paper develops polymer optical fiber tapers for implantable neural devices, demonstrating their potential for homogeneous light delivery in vitro.

This paper introduces a wireless network of implantable microstimulators for patterned electrical brain stimulation in rats, demonstrating chronic implantation and behavioral effects.

This study observes dynamic structural and functional changes in brain pericytes and immune cells around chronically implanted microelectrodes over four weeks.

The paper demonstrates that millisecond heat pulses can induce reversible changes in membrane potential and elicit ionic displacement currents in cells, with significant effects observed at temperatures near 50°C.