Developing a behind-the-ear EEG wearable that quantifies cognitive signals such as readiness and focus for real-world monitoring and performance contexts.
Developing a skull-embedded, pump-driven intracranial drug delivery platform designed for repeatable, targeted convection-enhanced infusion beyond the blood-brain barrier.
Developing soft, stretchable implantable electrodes that improve safety and performance of neuromodulation leads in neuromonitoring and neurostimulation.
Developing minimally invasive CMOS-based cortical implants (SiNAPS) that record from thousands of neurons for high-resolution brain-computer interfaces.
Developing an implantable peripheral nerve stimulation system (SENSY) that provides sensory feedback to amputees, allowing them to feel their prosthetic limbs.
Developing high-resolution microelectrode array (MEA) platforms that capture brain cell electrophysiology in vitro for neuroscience research and drug discovery.
Developing a retinal prosthesis in the form of a photoacoustic contact lens and laser glasses system to non-invasively restore vision in degenerative blindness.
Developing an FDA-cleared wearable functional electrical stimulation sleeve that uses sensors and adaptive stimulation to improve gait in neurological mobility impairment.
eveloping an implantable cortical visual prosthesis that converts camera input into patterned stimulation of the visual cortex to restore functional vision.
Developing a non-invasive neuromodulation system using peripheral nerve stimulation to modulate supraspinal circuits for overactive bladder and related chronic indications.
Developing an implantable, closed-loop seizure suppression system that detects epileptic activity and delivers transcranial electrical stimulation to terminate episodes.
Developing an injectable, wireless implantable neurostimulation platform for peripheral nerve modulation, designed to move neuromodulation procedures into outpatient settings.
Developing non-invasive neuromodulation systems that combine transcranial electrical stimulation with immersive VR/XR software to support neurorehabilitation workflows.
Developing a personalized, non-invasive transcranial electrical stimulation system for home-based treatment support in cognitive and neurological disorders.
Developing a non-invasive ultrasound neuromodulation platform designed to engage the body’s anti-inflammatory neural pathways for treatment of chronic inflammatory disorders.
Developing bioelectronic neuromodulation technologies to enhance cerebral waste clearance by modulating cerebrovascular dynamics and glymphatic system function.
Developing minimally invasive implantable bioelectronic fiber systems for targeted neuromodulation therapies and integrated neural interfacing in clinical and research contexts.
Developing biological foundation models and clinical research platforms to understand, detect, and prevent neurological disease through AI-driven neuroscience.
Developing thin-film implantable electrodes to enable high-precision neural recording, stimulation, and ablation in neurosurgical and neurological care.
Developing a minimally invasive, needle-delivered neuromodulation electrode platform to expand access to peripheral nerve stimulation for chronic pain treatment.
Developing functional ultrasound neuroimaging systems to enable high-resolution, real-time imaging of brain activity in research and clinical settings.
Developing a wearable EEG and digital biomarker platform to enable remote, objective measurement of brain function in clinical trials and neuroscience research.
Developing a non-invasive focused ultrasound platform to precisely open the blood–brain barrier and enable targeted drug delivery and brain diagnostics.
Developing assistive communication technologies that enable individuals with severe physical disabilities to interact with computers and speech-generating devices.
Developing a non-invasive infrared-based brain monitoring system to provide real-time cerebral perfusion, autoregulation, and intracranial pressure insights in critical care.