Dr. Davis’ research centers around utilizing both the advancing fields of invasive neurophysiology and neuroimaging to better localize epileptic networks in medication refractory epilepsy patients. She hopes that improving localization will enable epileptologists to better localize epileptic networks and assign individual patients to the most efficacious therapy, for example, seizure control devices, resective surgery, or continued medical management.
View Davis Lab website here.
The Litt laboratory translates NeuroEngineering research directly into patient care. We collaborate broadly across disciplines to invent, develop and test new technologies and apply them to basic and clinical research.
While epilepsy is the lab’s core focus, our multidisciplinary efforts span a variety of scientific and clinical areas, including brain-machine interfaces, functional neurosurgery, network and computational neuroscience, movement disorders, intra-operative and ICU monitoring, and a broad array of “brain network” disorders.
View Litt Lab website here.
The Lucas lab, known as the Translational Neuromodulation Lab, develops neuroprosthetic devices to restore movement and sensation to paralyzed limbs following neurological injury. In addition, the TNL develops cognitive prosthetics to augment memory for those suffering traumatic brain injury or dementia.
Our interdisciplinary team unites electrical engineers, mechanical engineers, biomedical engineers, neuroscientists and neurosurgeons behind a common vision. We have approved protocols ranging from numerical analysis, animal work and approved human trials.
View Lucas Lab website here.
The goal of our lab is to create novel technologies to study, monitor and treat neurological and neuromuscular disorders such as epilepsy, Parkinson's, nerve injury, and chronic pain.
Our research focuses on engineering the electrochemical, mechanical and optical properties of nanostructured materials and integrating them in soft, multimodal bioelectronic interfaces that can seamlessly monitor and modulate the nervous system at high spatio-temporal resolution and at multiple scales, from individual cells to large-scale circuits.
We are a multidisciplinary group bringing together engineers, physicists, materials scientists, neuroscientists, and clinicians with the ultimate goal of translating our research findings into clinical care.
View Vitale Lab website here.