Research in the Athir Morad Lab primarily focuses on perioperative pain management for neurosurgery patients. Our team has conducted two randomized controlled trials to assess the efficacy of patient-controlled analgesia (PCA) following craniotomy. Our current research includes studies on the safety of opioid administration following craniotomy through the use of end-tidal CO2 detection, as well as research into the use of transcortical magnetic stimulation (TMS) for managing pain after spine surgery.

Research in the Allan Gottschalk Lab focuses on the mechanisms behind neuropathic pain, chronic pain related to nerve injury. We are investigating biophysical models of the impact of general anesthesia on the central nervous system; informational aspects of sensory perception and the representation of sensory input; nonlinear dynamics of respiratory pattern generation; and acute perioperative pain.

The Jamie Murphy Lab conducts research on post-cesarean section pain management and post-partum hemorrhage. We also explore topics around post-partum analgesia.

The Joanne Shay Lab primarily conducts research on pediatric pain management techniques. Our studies have explored pain management in special-needs children and patients, and we have studied non-traditional pain management methods, such as regional anesthesia and peripheral nerve blocks in children, medical acupuncture, and remote anesthesia services. We also have an ongoing interest in the business of medicine.

The Constance Monitto Lab conducts clinical research on pediatric pain management as well as basic science studies on chemotherapy resistance. In our pediatric pain management research, we work to assess the impact of low-dose opioid antagonism on opioid-related side effects, such as nausea and vomiting. We also analyze data on current methods of pediatric pain management in the United States. In addition, our team uses basic science studies to assess the success of epigenetic gene regulation on the development of resistance to chemotherapeutic agents in cancer.

The Dong Laboratory has identified many genes specifically expressed in primary sensory neurons in dorsal root ganglia (DRG). Our lab uses multiple approaches, including molecular biology, mouse genetics, mouse behavior and electrophysiology, to study the function of these genes in pain and itch sensation. Other research in the lab examines the molecular mechanism of how skin mast cells sensitize sensory nerves under inflammatory states.

Research is the Yun Guan Lab explores the peripheral, spinal and supraspinal mechanisms of chronic pain. Our long-term goal is to develop better strategies and novel targets for treatment of pathological pain conditions. Our team’s multidisciplinary research uses electrophysiological, molecular biological, immunocytochemical and behavioral pharmacological approaches to study neurobiological mechanisms of pain and hyperalgesia that occur following tissue or nerve injury.

The Kayode Williams Lab conducts translational research on neuromodulation. We primarily examine the mechanisms and efficacy of spinal cord stimulation in treating neuropathic pain, peripheral neuropathies and peripheral vascular disease. Our clinical trials explore spinal cord stimulation in the treatment of painful diabetic neuropathy and the treatment of critical non-reconstructible critical leg ischemia. We also have a longstanding interest in the business of medicine and seek to enhance value propositions for hospitals and physician groups through more effective management of resources.

The studies of the Functional Neurosurgery Lab currently test whether neural activity related to the experimental vigilance and conditioned expectation toward pain can be described by interrelated networks in the brain. These two psychological dimensions play an important role in chronic pain syndromes, but their neuroscience is poorly understood. Our studies of spike trains and LFPs utilize an anatomically focused platform with high temporal resolution, which complements fMRI studies surveying the whole brain at lower resolution. This platform to analyze the oscillatory power of structures in the brain, and functional connections (interactions and synchrony and causal interactions) between these structures based upon signals recorded directly from the waking human brain during surgery for epilepsy and movement disorders, e.g. tremor. Our studies have demonstrated that behaviors related to vigilance and expectation are related to electrical signals from the cortex and subcortical structures. These projects are based upon the combined expertise of Dr. Nathan Crone in recordings and clinical management of the patients studied; Dr. Anna Korzeniewska in the analyses of signals recorded from the brain; Drs. Claudia Campbell, Luana Colloca and Rick Gracely in the clinical psychology and cognitive neurology of the expectation of pain and chronic pain; Dr. Joel Greenspan in quantitative sensory testing; and Dr. Martin Lindquist in the statistical techniques. Dr. Lenz has conducted studies of this type for more than thirty years with continuous NIH funding.

Research in the M-Irfan Suleman Lab focuses on better understanding and controlling pediatric pain. We've played a key role in the discovery of novel techniques for post-surgical pain management in children.