Graduate Students
Current Ph.D. Students

Email: vdrummond@kumc.edu
Heather Wilkins and John Thyfault labs
I investigate how exercise can modulate brain health in the aspect of mitochondrial quality control in Alzheimer's disease. My study also aims to explore how the nutritional state influences the effectiveness of exercise and how different exercise modalities, like resistance and aerobic training, can potentially alleviate symptoms or delay the progression of Alzheimer's disease.

Email: mewald@kumc.edu
Olivia Veatch and Erin Young labs
I am interested in using bioinformatics to look at pharmacogenomic targets for chronic pain and sleep disorders.

Email: a228g039@kumc.edu
Russell Swerdlow lab
My research focuses on the interplay between mitochondrial dysfunction and apolipoprotein E (APOE) biology in human neuronal models. Understanding this relationship could yield potential therapeutic targets for neurodegenerative diseases, such as Alzheimer's disease, in which mitochondrial dysfunction and APOE exert critical, intersecting roles in pathogenesis.

Email: zgreen@kumc.edu
Jill Morris and Jeff Burns labs
Within Dr. Morris' lab, we pursue the exploration of complex relationships between neurodegeneration, energy metabolism, and insulin resistance. My research focus is on linking these types of systemic metabolic states and changes with structural and functional measures of brain activity, in hopes of providing biomarkers and furthering our mechanistic understandings of Alzheimer's progression.

Email: ggriese@kumc.edu
Doug Wright lab
Understanding the impact of methylglyoxal (MGO) on axon degeneration and metabolism dysregulation, and utilizing ketones as a potential therapeutic to combat MGO toxicity.

Email: whauser2@kumc.edu
Doug Wright lab
Understanding the connection between neurodegenerative disease in the CNS and peripheral axon loss. Studying the role of both the Central and Peripheral immune systems in neurodegenerative diseases, as well as mechanisms of neuroinflammation with specific focus on the TLR4 signaling pathway.

Email: lheslop2@kumc.edu
Doug Wright lab
Understanding the mechanisms that cause intraepidermal nerve fiber (IENF) loss seen in peripheral neuropathy and focusing on regenerating these fibers as a therapeutic mechanism.

Email: lkader@kumc.edu
Erin Young lab
I am a Ph.D. Candidate at University of Kansas Medical Center, where I use multi-omics approaches to investigate host-genome and host-microbiome interactions in patients with disorders of gut-brain interactions [(DGBIs; specifically irritable bowel syndrome (IBS)]. For my project, I am trying to identify underlying mechanisms of visceral hypersensitivity, which is a predominant peripheral factor that drives chronic abdominal pain in these patients.

Email: rkemna@kumc.edu
Jill Morris lab
My research is focused on the role of mitochondrial metabolism in Alzheimer’s Disease, and how mitochondrial function affects expression of hallmark AD biomarkers. Using cytoplasmic hybrid cell lines generated from clinical research participants in the KU Alzheimer’s Disease Research Center, I am interested in understanding how mitochondrial function differs between individuals with and without AD.

Email: clysaker@kumc.edu
Heather Wilkins lab
My research focuses on apolipoprotein E (APOE), a significant genetic risk determinate for sporadic Alzheimer's disease. I'm specifically interested in how it influences metabolic and mitochondrial function across the liver and brain, which serve as the primary sources of APOE in the body.

Email: cmansel@kumc.edu
Olivia Veatch lab
One possible reason for the failure of clinical trials in Alzheimer’s Disease (AD) is that they generally treat all AD patients the same. My project uses unsupervised machine learning to describe sub-types of AD using clinical databases and the electronic health record (EHR). Because family history is known to confer increased risk for AD, my project also seeks to use data-driven approaches to uncover possible AD sub-types that are associated with specific genetic risk measures.

Email: tmcquillan2@kumc.edu
Julie Christianson lab
The Christianson lab is interested in understanding how early life stress contributes to the development of disease across the lifespan. My dissertation work investigates both the role of the hippocampus in early life stress-induced chronic pain and cognitive impairment and the ability of exercise to attenuate these outcomes.

Email: bmenta@kumc.edu
Russell Swerdlow lab
My research focuses on how mitochondria influence the pathology of Alzheimer’s Disease. I use a cellular model of chronic mitochondrial dysfunction to elucidate the biochemical alterations in the Alzheimer disease brain.

Email: rstair2@kumc.edu
Kyle Baumbauer lab
Rena Stair is a 5th year graduate student in Dr. Kyle Baumbauer's Lab. Rena's dissertation research focuses on understanding the protein tissue inhibitor of metalloproteinase-1 (TIMP-1) in inflammatory models of pain. Rena focuses on the ability of this protein to enact molecular signaling cascades as well as alter peripheral neuronal firing characteristics.

Email: sthomas23@kumc.edu
Doug Wright lab
I am currently a Ph.D. student in Dr. Doug Wright’s sensory nerve disorder lab. My project is focused on the effects of inflammation on the development of peripheral nerve fiber loss and pain, especially in diabetes. I am interested in the connection between chronic inflammation, pain, the gut microbiome, and mental health outcomes such as anxiety and depression.

Email: svarghese3@kumc.edu
Kyle Baumbauer lab
At the GAPP laboratory, our research explores the intricate relationship between genetics, physiology, and pain. Within this context, my project delves into neuroinflammation in Spinal Cord Injury and investigates the underlying mechanisms responsible for the development of chronic pain.

Email: awillits@kumc.edu
Erin Young lab
My dissertation research focuses on chronic abdominal pain and gastrointestinal dysfunction as secondary effects to spinal cord injury. Using a translational mouse model of spinal contusion injury, I aim to identify the mechanisms that initiate and maintain these symptoms in order to develop novel, clinically relevant therapeutics