Neuroscience and Neural Engineering

The paper validates ephaptic coupling in human neuronal circuits using a reproducible in vitro method, showing reduced action potential velocity and increased synchronization.

This study examines how sustained and bursting electrical microstimulation affects excitatory and inhibitory neuron activation in the visual cortex of transgenic mice over 30 seconds.

The paper uses graphene micro-transistor arrays and imaging to study how blood flow and electrical activity change during brain injuries in mice.

This paper describes a new neural implant that enables long-term, aseptic recording of both neurochemical and electrophysiological activity in nonhuman primates.

This paper introduces FlexiSoft, a flexible and robust electronic platform for brain-computer interfaces that enables long-term neural recording and curved implantation.

This study develops a cost-effective, printed graphene-based platform for in vitro cardiac electrophysiology, demonstrating its ability to record electrophysiological activity and respond to chemical stimulation.

This paper discusses the correction of electric field amplitudes and conductivity values to bridge macroscopic and microscopic brain stimulation models, improving modeling accuracy.

This paper introduces flexible 3D kirigami microelectrode arrays for in vitro and in vivo neural applications, showing spatially dependent electrophysiological activity patterns.

This study demonstrates high-density single-unit recordings in human cortex using uFINE arrays during surgery, achieving stable recordings of up to 135 units from 10 patients.

The paper develops a mouse behavioral task to study integration of visual and artificial proprioceptive feedback using intracortical microstimulation, showing improved performance with multimodal feedback.

This paper develops an in vitro platform to measure electrophysiological responses of individual human iPSC-derived nociceptors and identifies distinct response profiles and effects of capsaicin.

This study introduces a transparent, flexible electrode for brain stimulation compatible with optical imaging, demonstrating its ability to generate up to 300 V/m electric field in a mouse brain.

This paper demonstrates that 3D neural probes with triangulation localization improve cell yield and enable real-time spike sorting compared to 2D electrodes.

UnitRefine automates spike sorting curation using machine learning models trained on expert annotations, achieving human-level performance across species and datasets.

This paper develops scalable platinum-silicon microneedles for EEG biosensing, showing they match traditional electrodes in signal quality while improving comfort and ease of use.

This paper presents a nanophotonic neural probe with dual-color photostimulation and electrophysiological recording capabilities, demonstrating dense emitter integration for targeted circuit manipulation.

This paper demonstrates that using UMAP improves spike sorting performance, efficiency, and robustness in both synthetic and experimental data.

NeuroNella is an automated algorithm for identifying neuronal activity from multielectrode arrays, achieving less than 1% error rate in rodent and primate recordings.

This paper demonstrates bi-modal microwave neuromodulation through thermal and non-thermal mechanisms using a microwave rod antenna, enabling wireless treatment of seizures and chronic pain.

This paper examines damage to implanted multielectrode arrays after electrolytic lesioning and finds no significant difference in damage compared to normal arrays.

This study evaluates flexible graphene-based microelectrodes for deep brain stimulation and recording in Parkinsonian rats, showing high signal quality and potential for adaptive neuromodulation.

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.

This paper introduces MAIS, a scalable neural interface system that enables adaptive neuromodulation through brain organoid-MEA integration and plasticity-driven dynamic decoding.

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

The paper describes a chronic electrophysiological implant kit for rats that allows precise probe adjustment and modular customization.

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.