Neuroscience and Neural Engineering

This paper develops a dual-color micro-LED neural interface for optogenetic electrophysiology, enabling bidirectional control and recording in vivo.

The paper introduces a cost-effective, modular implant system for chronic electrophysiology in mice, improving ease of use, recovery, and experimental versatility.

This study explores photoelectric stimulation using ultrasmall carbon electrodes to modulate neural tissue, showing improved voltage generation and potential for precise chemical delivery.

This paper demonstrates a silicon diode device that bidirectionally modulates neural activity in vitro and in vivo through photothermal and photovoltaic effects.

This paper presents a low-cost protocol to recondition neural microelectrodes with material failure, demonstrating its effectiveness through experimental results on tungsten electrodes.

The paper introduces an open-source framework for in silico evaluation of peripheral nerve electrical stimulation strategies, enabling simulation and optimization of stimulation parameters.

SHIELD enables large-scale electrophysiological recordings in mice by providing a skull-shaped implant for repeated multi-probe insertions across brain regions.

The paper introduces a flexible microelectrode array with integrated electronics to increase EMG channel density while reducing device size.

This study compares photoacoustic and photothermal neuromodulation, finding that photoacoustic stimulation requires significantly less energy and involves mechano-sensitive channels.

The paper develops a method to simultaneously measure dopamine and neuronal spikes in monkeys using carbon fiber electrodes and validates it for cell-type specific activity related to behavior.

This paper introduces an electrolytic lesioning technique compatible with neuroelectrophysiology recordings, enabling precise brain lesioning without disrupting electrophysiological measurements.

The paper introduces BioemuS, a real-time biomimetic spiking neural network system for biohybrid experiments and emulation, aiming to advance neuroprosthetic development.

This paper introduces multifunctional fiber-based probes capable of recording and modulating neuronal activity, chemical signaling, and delivering drugs in vivo, demonstrating their utility in studying brain function.

This paper presents a wireless EEG telemeter with integrated optogenetic stimulation for long-term recording in freely-moving rats, enabling manipulation of cortical oscillations.

The paper introduces the COMBO window, a chronic cranial implant for multimodal brain recordings in mice, combining imaging and behavioral observation.

This paper develops a Random Forest model to predict neurostimulation-induced tissue damage using multiple stimulation parameters, achieving 88.3% accuracy compared to 63.9% for the Shannon equation.

This study develops a 3D biocompatible interface for neural networks, showing that 3D growth supports complex network structures but planar networks exhibit stronger functional interconnections and higher activity.

The paper uses two-photon calcium imaging to study how infrared neural stimulation affects excitatory and inhibitory neurons in mouse somatosensory cortex.

This study develops an in vitro retinothalamic nerve model using microfluidic channels to investigate signal transmission and network integrity.

This paper introduces a microfluidic and fluorescence platform for in vivo neuropharmacology, enabling drug delivery and neural activity monitoring in rodent brains.

The paper introduces an open-source, 3D-printable implant for simultaneous bilateral electrophysiological recordings in rats across multiple brain areas.

Repix enables reliable, reusable, and versatile chronic Neuropixels recordings in unrestrained animals over months, with minimal user training and high stability.

This paper introduces self-assembled origami neural probes that enable scalable, multifunctional, and 3D neural interfaces with integrated sensors and optogenetic capabilities.

This paper describes a method for acute Neuropixels recordings in marmoset monkeys, enabling long-term, high-density neural recordings with minimal infection risk.

This paper develops and tests an optimized Utah Optrode Array for in vivo optogenetics in non-human primates, showing improved light delivery and spatial selectivity.

The paper records high-frequency extracellular spikes in breast cancer cells using microelectrode matrices, suggesting cancer cells may exhibit excitable properties.

kCSD-python provides a Python package for reliable current source density estimation with quality control techniques and diagnostic tools.

The paper introduces an optrode array for precise optogenetic stimulation of deep cortical layers in non-human primates, demonstrating its ability to activate neurons in specific or widespread regions.

The paper evaluates the long-term stability of implantable silicon-ICs, showing that PDMS coating prevents degradation while bare die ICs remain electrically stable for at least a year.

This paper develops a transparent microcoil array for spatially selective neuronal activation in cortical and retinal tissues using magnetic stimulation.