The Peter O’Donnell Jr. Brain Institute tackles the most complex problems in the brain. From neurologic diseases, spanning autism to Alzheimer’s, to psychiatric diseases, including addictions and depression, to brain repair strategies for injuries as diverse as stroke and spinal cord trauma, we are embracing the biggest challenges of our time.
A Mission that Spans Research, Education, & Clinical Care
We work to improve the lives of people with neurologic and psychiatric illnesses through:
- Exceptional clinical care that translates research to the bedside quickly. U.S. News and World Report ranks us among the top neurology and neurosurgery hospitals in the country.
- Pioneering research in areas from Duchenne muscular dystrophy to Alzheimer’s disease to depression, and much more, that leads directly to improved patient care.
- High-quality education for tomorrow’s leaders, in a wide variety of areas. Our programs feature mentoring from our expert faculty and access to the latest technologies in brain research and care.
To accomplish our mission, we empower exceptional faculty, trainees, and clinical specialists – including diverse researchers Marc Diamond, M.D., Eric Olson, Ph.D., Joseph Takahashi, Ph.D., and Carol Tamminga, M.D. – to pursue their passions.
Molecular Pathways Important for Human Brain Evolution
Genevieve Konopka, Ph.D., focuses on understanding the molecular pathways important for human brain evolution that are also at risk in cognitive disorders such as autism and Alzheimer’s disease. Her lab uses a combination of human neurons, animal models, and primate comparative genomics to uncover human-specific, disease-relevant patterns of gene expression. Dr. Konopka is particularly interested in the molecular mechanisms underlying language, and part of her research has focused on the FOXP family of transcription factors.
Electrophysiology of Human Memory
Bradley Lega, M.D., is co-director of UT Southwestern’s comprehensive epilepsy program and a national expert in using stereo EEG to locate the origin of epileptic seizures in the brain. His work examines direct recordings from patients implanted with seizure-localization tools to develop strategies that can improve memory function and restore memory for patients with brain injuries or brain tumors.
Joseph Takahashi, Ph.D., has pioneered the use of forward genetics and positional cloning in the mouse as a tool for discovery of genes underlying neurobiology and behavior. His discovery of the mouse and human clock genes led to a description of a conserved circadian clock mechanism in animals.
The Biology of Psychoses
Carol Tamminga, M.D., leads the Division of Translational Neuroscience in Schizophrenia with the goal of understanding the pathophysiology of schizophrenia and related disorders. The group’s research explores how the brain makes a hallucination or a delusion, and is providing insight at the cellular and synaptic levels.
Taking the Guesswork Out of Depression Treatment
Madhukar Trivedi, M.D., and his team focus on pharmacological, psychosocial, and nonpharmacological treatments for depression. Dr. Trivedi leads a national trial that has produced what scientists are calling the project’s flagship finding: a computer that can accurately predict whether an antidepressant will work based on a patient’s brain activity.
Meet Some of Our Learners
Research: Identification of the physiological mechanisms that underlie a newly discovered chemosensory role for bile acids, a critical class of digestive steroids
“I chose UT Southwestern due to my overwhelmingly positive experience in the Summer Undergraduate Research Fellowship (SURF). What really stood out to me was the outstanding collaborative environment – there was always a sense of passion for science and discovery in my interactions with both faculty and students.”
Research: I’m fascinated about how parasites and hosts interact throughout the day and how our circadian rhythms regulate this interaction. My research focuses on parasitic diseases such as malaria and sleeping sickness and I’m studying how the parasites that cause these diseases tell time in order to coordinate their infection.
“Being in such a collaborative environment as UTSW has helped me flourish as a scientist. My research merges parasitology and neuroscience fields – usually distant research topics – but the easy interactions between experts at UTSW made it possible for me to tie these areas together.”
Research: Understand the role of sleep in the acquisition of communicative behaviors. I take advantage of the songbird’s well-defined neural circuitry underlying a robust and stereotyped learned behavior along with evidence pointing to changes in song structure during sleep, to examine sleep-based learning mechanisms.
“I joined the Neuroscience Department at UT Southwestern Medical Center due to the world-class research and the outstanding collaborative environment. UT Southwestern has produced and attracted brilliant independent researchers and has thus played an integral part in my professional development.”