Brain Damage Concept

AI-Based Therapies for Chronic Brain Disorders

Artificial intelligence is rapidly transforming the landscape of neurological research, and the Reddy Lab is at the forefront of applying these tools to the treatment of epilepsy and chronic brain disorders. Through an interdisciplinary approach that bridges pharmacology, biomedical engineering, and machine learning, the lab is developing AI-driven smart therapies capable of identifying patterns in brain activity, predicting seizure onset, and informing more precise and personalized treatment strategies. This work, conducted in collaboration with the Texas A&M Department of Biomedical Engineering, represents a significant step toward a future where therapy is not simply reactive but anticipatory, adapting in real time to the needs of each individual patient.

epilepsy brain

Post-Traumatic Epilepsy

Post-traumatic epilepsy (PTE) is a devastating and often medically uncontrollable condition that develops in a significant portion of people following traumatic brain injury. Unlike other forms of epilepsy, PTE presents a unique clinical challenge because the physical trauma to the brain renders many standard antiseizure medications ineffective. Research from the Reddy Lab has focused on identifying the molecular and epigenetic mechanisms that drive the development of PTE, with particular attention to the latent period between initial injury and the onset of seizures — a critical window in which therapeutic intervention may be able to prevent epilepsy from developing altogether. Supported by the U.S. Department of Defense and the NIH, this work carries profound implications for veterans, soldiers, and civilians living with the long-term consequences of brain injury.

brain mri

Neurosteroid Therapy for Epilepsy

Neurosteroids are naturally occurring compounds synthesized within the brain that play a critical role in regulating neural excitability. The Reddy Lab has spent decades conducting pioneering investigations into how these compounds interact with GABA-A receptors, the brain’s primary inhibitory signaling pathway, to control seizure activity. This foundational work gave rise to the concept of neurosteroid replacement therapy (NRT), a strategy of administering natural or synthetic neurosteroids during periods of deficiency to suppress seizures and stabilize brain activity. The lab’s contributions in this area directly informed the development of ganaxolone (Ztalmy), the first neurosteroid approved by the FDA for the treatment of epilepsy, and have established neurosteroids as one of the most promising frontiers in modern anticonvulsant research.

sleeping brain waves

Sleep and Sex Differences in Brain Injury

Traumatic brain injury does not affect all patients equally, and emerging research from the Reddy Lab has shed important light on two underexplored variables: sleep and biological sex. Disruptions in sleep, particularly in non-REM sleep patterns, have been identified as potential early indicators of epilepsy development following brain injury, opening a new avenue for monitoring at-risk patients before seizures ever occur. Additionally, research has pointed to meaningful differences in how men and women respond to traumatic brain injury, with hormonal factors appearing to offer women a degree of neurological protection. Understanding how sex hormones and sleep interact with brain injury at the molecular level could unlock entirely new therapeutic strategies for one of neurology’s most complex and persistent challenges.

Green Colored Cannabidiol + the brain

CBD and Epilepsy Prevention

Cannabidiol (CBD) has gained widespread public attention, but its clinical potential in epilepsy is grounded in rigorous science. Research from the Reddy Lab has been instrumental in uncovering the antiseizure and disease-modifying properties of CBD, contributing to a growing body of evidence that cannabinoids may do more than manage symptoms. This work helped pave the way for the 2018 FDA approval of Epidiolex, the first CBD-based medication approved for pediatric epilepsies, marking a landmark moment in both cannabinoid research and epilepsy treatment. The lab’s continued investigation into CBD’s mechanisms of action positions it as a meaningful tool not just for controlling seizures, but for potentially altering the course of epilepsy itself.Relative power-Control vs CBD vs CBD-GX

solder technical computer background

Military Medicine and Chemical Neurotoxicity

Exposure to chemical warfare nerve agents and organophosphate compounds poses severe and lasting neurological risks to both military personnel and civilians. The Reddy Lab has conducted extensive research into the mechanisms of chemical neurotoxicity, with the goal of developing effective medical countermeasures for those exposed to these life-threatening substances. This work led to the development of a novel antidote that was selected by the Biomedical Advanced Research and Development Authority (BARDA) for phase-3 clinical trials, a significant milestone in translating laboratory findings into real-world emergency medicine. The lab has also investigated Gulf War Illness, a complex and chronic condition affecting thousands of veterans, exploring neurosteroid-based therapies as a potential treatment strategy. Funded by the NIH and the U.S. Department of Defense, this research reflects a sustained commitment to protecting and treating the men and women who serve.

women's brain

Postpartum Depression and Women’s Brain Health

Postpartum depression affects nearly one in eight women in the United States, yet effective, targeted treatments have historically been limited. The Reddy Lab has conducted pioneering research into the neurobiological mechanisms underlying postpartum depression, with a particular focus on neurosteroids as key modulators of mood and neural excitability during and after pregnancy. This work has had a direct and measurable impact on clinical care, contributing to the development of brexanolone (Zulresso), the first FDA-approved treatment specifically indicated for postpartum depression, and laying the scientific foundation for zuranolone, the first oral neurosteroid approved for the condition. Both therapies are now used worldwide, representing a significant advance in the understanding and treatment of women’s neurological and mental health.

brain with brainwaves

From Mechanism to Disease: Translational Epilepsy Biology

Epilepsy and seizure disorders affect nearly 3 million people in the United States, including civilians and veterans, highlighting the need for improved therapies. The Reddy Lab focuses on developing novel, mechanism-based treatments for epilepsy and related brain disorders, addressing conditions such as catamenial and pediatric epilepsy, status epilepticus, post-traumatic epilepsy (PTE), and chemical and organophosphate neurotoxicity. Through a multidisciplinary approach that combines pharmacology, electrophysiology, histology, mass spectrometry, and transgenic models, the lab has built leading expertise in neurosteroids as innovative anticonvulsants. Their pioneering work has helped establish neurosteroids as key endogenous modulators of neuronal excitability and promising targets for new therapeutic strategies.