The neuroscience research community at Washington University, spanning multiple schools across two campuses, is large, diverse and collegial. Importantly, the scope of work performed by our Training Faculty matches the breadth of modern neuroscientific studies. It spans fundamental mechanisms of brain function and development, to neurological diseases and clinical interventions.
A selection of topics Neuroprep faculty mentors study:
- Pain
- Sleep
- Addiction
- Stroke
- Neuroimmunology
- Behavior
- Brain circuitry
- Parkinson’s disease
- Development
- Nerve repair
- Alzheimer’s disease
- Vision
- Language
- Movement
- Psychological disorders
- Neurogenetics
Faculty investigate these subjects using a range of approaches, including computational biology, device engineering, model organisms, neuroimaging, and clinical trials. They examine questions at all scales, from the microscopic to the whole organism.
Each faculty member maintains active, well-funded research programs and engages in meaningful training and education of students. Neuroprep scholars will briefly rotate through three labs at the beginning of their program and select the best fit for continued research.
Neuroprep faculty mentors are affiliated with 15 Departments:
Anesthesiology | Biology | Biomedical Engineering |
Cell Biology & Physiology | Developmental Biology | Electrical & Systems Engineering |
Genetics | Neurology | Neuroscience |
Neurosurgery | Ophthalmology | Pathology & Immunology |
Psychiatry | Psychology & Brain Sciences | Radiology |
While doing research, Neuroprep participants will benefit from the synergistic activities of 35 Research Centers, more than 50 Core Facilities that provide services and expertise including:
- imaging of single molecules, cells, circuits and brains
- behavioral phenotyping in small animals and in humans
- genome editing
- biomedical informatics
- tissue culture and stem cell production
- proteomics
- mass spectrometry
Research in Neuroprep labs
Written by Neuroprep Scholars
Synthetically derived cannabis drug relieves pain in mice
Breaking the ice on the role of opioids in cold hypersensitivity
Decoding mental health in the UK Biobank
The neuroscience of rewards: How the brain calculates pleasure
This fish recognizes its own electrical signals, even during hormonal “voice” changes
Other highlights from neuroscience labs at WashU
Rejuvenated immune cells can improve clearance of toxic waste from brain (Links to an external site)
Understanding, treating pain, reducing opioid use, aim of $11.7 million grant (Links to an external site)
New strategy shows potential to block nerve loss in neurodegenerative diseases (Links to an external site)
Simple blood test predicts neurotoxic complications of CAR-T cell therapy (Links to an external site)
Study points to new approach to clearing toxic waste from brain (Links to an external site)
New Neuroscience Research Building
A new dedicated Neuroscience Research Building at the School of Medicine is slated to open in 2023. It will be one of the largest of its kind in the country and feature 11 floors and 100+ laboratories from more than five Departments. Although NeuroPrep participants may join labs housed in other buildings, this new facility will be a center for neuroscience activity at WashU. NeuroPrep scholars will derive substantial benefit from immersion in a culture whereby they easily access and interact with numerous neuroscience groups.
The images on this page were part of the 2021 Sci-Art Competition held by the Department of Neuroscience at the School of Medicine.
Starry Hippocampus, by Yifan Wu, graduate student, Papouin Lab [header image at the top of page]. This is a confocal tile image of mouse hippocampus. There are four different labels: blue labels the excitatory neurons, cyan labels the neuronal nuclei, red labels the astrocytes and green labels all the cell nuclei.
Nautilus Universe, by Rui Feng, PhD, postdoctoral researcher, Cavalli Lab. Immunofluorescence of whole mount adult mouse cochlea was performed to stain for neurons (TUJ1 in red) and satellite glial cells (FABP7 in grey).