Stanford Neurosurgery Research
The Department of Neurosurgery is a world leader in the fast-paced environment of innovative research translation. The rich intellectual environment at Stanford, paired with our accessibility to the most advanced technology, is unmatched and ensures the rapid translation of pioneering laboratory research into life-saving clinical therapies for our patients.
From anti-cancer therapies and stem cell transplantation therapies for spinal cord injury to the elucidation of retinal neural circuitry and gene-environment interactions in fetal development, our research scientists are making quick progress tackling some of the most complex neurological disease questions in the neurodegenerative and neuroregenerative fields today.
Our Department supports over 30 active labs investigating everything from brain injury, deep brain stimulation, brain tumors, epilepsy, pathophysiology and treatment of acute stroke, to the effects of stress and aging on the nervous system. And, although our research themes vary from lab to lab, they are all focused on aspects of disease and injury that can be investigated at the bench – and they all have clear implications for practices in the clinic and operating room.
The fragile X mutation impairs homeostatic plasticity in human neurons by blocking synaptic retinoic acid signaling
A team of Stanford researchers, including Lu Chen, PhD, Professor of Neurosurgery, published a new study suggesting that reactivation of retinoic acid signaling might be a beneficial therapeutic strategy for fragile X syndrome.
Novel application of virtual reality in patient engagement for deep brain stimulation: A pilot study
A study conducted by the Stanford Neurosurgical Simulation & Virtual Reality Center, obtained direct patient feedback on the impact of three-dimensional, 360-degree virtual reality (3D 360VR) on satisfaction and understanding during new and preoperative DBS clinic consultations.
Computationally Developed Sham Stimulation Protocol for Multichannel Desynchronizing Stimulation
This computational study compares acute effects and long-lasting effects of six different spatio-temporally patterned stimulation protocols, including three variants of CR, using a no-stimulation condition as additional control.
Single-Cell RNA-Seq Analysis of Infiltrating Neoplastic Cells at the Migrating Front of Human Glioblastoma
Using single-cell RNA sequencing, researchers in Dr. Melanie Hayden-Gephart's lab have isolated glioblastoma cells migrating within otherwise normal-appearing brain, and determined the genetic mechanisms used for migration.
Closing the loop on impulsivity via nucleus accumbens delta-band activity in mice and man
Stanford Neurosurgeons have identified a signature pattern of electrical activity in a small, deep-brain region just a second or two before a burst of impulsive behavior. The findings could lead to less invasive methods of countering obesity, substance-abuse disorders, pathological gambling, sexual addiction or intermittent explosive disorder.
New Research Center
Our new Stanford Surgical Neuroanatomy, Fiber Tractography, and Virtual Reality Research Center's goal is to improve surgical techniques and outcomes through mastery of surgical neuroanatomy, focusing on enhancing understanding of endoscopic skull base anatomy, microsurgical neuroanatomy, white matter dissection and imaging, and virtual reality for surgical planning.
Research In The News
People with Paralysis Equipped with Brain Implant Operate Computer Just by Thinking
In a new clinical trial, Stanford Neurosurgeons Dr. Jaimie Henderson and Paul Nuyujukian, PhD, demonstrate that people with paralysis who have been equiped with a brain implant can now write emails, watch videos, or shop online, just by thinking.
Defects in Mitochondria Further Linked to Parkinson’s in Stanford Study
New research by Assistant Professor of Neurosurgery, Xinnan Wang, PhD, finds that mitochondrial malfunctions in certain nerve cells may contribute to certain Parkinson's disease symptoms.
Stanford Study Finds Specific Set of Nerve Cells Controls Seizures’ Spread through Brain
The results of a new study identifying a specific set of cells that control temporal lobe epileptic seizures, could lead to more effective therapies for people with this common type of epilepsy.