Neuroscience and Neural Engineering

This paper develops a graphene-based electrode with hybrid encapsulation for chronic nerve stimulation and recording, showing improved stability and performance in vivo.

The paper determines optimal electrode spacing for maximizing single unit yield in neural recordings across species and brain regions.

This paper introduces tools to optimize electrode placement and maximize information capacity for local field potentials in the cortex using subject-specific modeling.

This paper develops a biohybrid scaffold using functionalized silk fibroin to enhance charge-transfer efficiency, promoting neurite outgrowth in dorsal root ganglion neurons under electrical stimulation.

This paper introduces a microfluidic axialtrode for multimodal neural interfacing, enabling spatially distributed optogenetics, electrophysiological recording, and drug delivery across brain layers.

This paper introduces LARI-1.0 and LARI-mini implants for chronic, high-quality neural recordings in mice during naturalistic behaviors, showing long-term stability and minimal artifacts.

This paper introduces a chronically implantable μLED array for optogenetic cortical stimulation in mice, demonstrating long-term stability and effective neuronal responses.

This paper demonstrates the multimodal capabilities of Smart Dura in non-human primates, enabling high-density electrophysiological recordings and optical imaging with applications in vascular and neural dynamics.

This paper develops ultrasound-transparent neural interfaces that enable compatibility with functional ultrasound imaging and therapy, validated through simulations and experiments.

This paper develops a three-compartment microfluidic platform to study signal transmission in the human sensory pathway and finds keratinocytes modulate neuronal activity and exhibit low-pass filtering properties.

This paper introduces a hermetically sealed carbon-based microelectrode array for neural recording, demonstrating long-term stability and scalability in animal models.

The paper demonstrates neuromodulation in neural organoids using 3D shell MEAs, showing increased neuron firing rates with specific stimulation ranges.

This paper introduces Opto-Myomatrix, a device for optogenetic muscle activation and EMG recording, achieving high optical output and low electrode impedance.

The paper introduces inkube, an open-source system for culturing neurons, electrophysiology, and fluidic exchange, showing that environmental factors like temperature and medium evaporation significantly affect neuronal spiking behavior.

This paper demonstrates a method for implanting wireless neural dust motes with subcellular-diameter electrodes into rat cortex with high success rates and minimal invasiveness.

This paper presents a neurorecording toolkit to longitudinally assess transplanted human cortical organoids in vivo, showing increased neuronal activity and synchronicity over time.

This paper presents a photoacoustic retinal prosthesis that stimulates retinal cells with high precision and safety, showing neural modulation in rat models.

This paper introduces nanoporous microelectrodes for in situ electrophysiological recordings in organotypic brain slices, demonstrating their viability for three weeks of culture.

The paper introduces a wireless neurostimulation device that decodes brain states and delivers closed-loop stimulation in sheep, showing reliable classification of movement and modulation of spectral activity.

This paper develops protocols for neuronal recordings in mole-rats, identifies a low-frequency hippocampal theta rhythm, and creates a stereotaxic brain atlas for implantation and histological alignment.

The paper presents a bioresorbable microelectrode array for transient electrophysiological recordings, validated in cardiac models and applicable to neurological disorders.

This paper presents a high-bandwidth, wireless brain-computer interface device capable of chronic recordings in animals, demonstrating reliable performance over weeks.

This paper develops a wireless transcranial optogenetic system to generate artificial perceptions in mice through controlled cortical stimulation and demonstrates its effectiveness in operant learning tasks.

The paper introduces Living Neurosheets, modular neural systems that enable scalable, bio-inspired neural architectures with spatial control and multimodal integration.

This paper introduces a high-density, flexible ECoG device (NeuroCam) with 4096 channels and 44 sites/mm2 density, validated in a rabbit epilepsy model for high-resolution spatial mapping of neural activity.

This paper introduces a bioelectronic implant for recording neural activity in the distal colon of freely-moving rats, demonstrating its ability to capture electrophysiological responses and colonic activity related to food intake and stress.

CUSP is a deep learning framework for automated detection of complex spikes in neural recordings, achieving expert-level performance and robustness to recording artifacts.

This paper quantifies interfascicular electrode placement in porcine nerves using micro-CT and histology, showing 84% of placements were interfascicular and demonstrating the potential of MiiNS as a selective peripheral nerve interface.

This paper introduces MindSight, a deep learning algorithm for cortical electrical stimulation to improve visual restoration, showing better performance in visual perception tasks with macaque monkeys.

NeuroSort improves spike sorting by modeling neural dynamics, enabling efficient isolation of thousands of neurons across various recording conditions.