Bruce A Bowerman — Dr. Bruce Bowerman’s lab at the University of Oregon focuses on studying how cells divide, particularly in the early embryos of a small worm called C. elegans. By using advanced techniques like live cell imaging and CRISPR technology, the lab investigates the role of the cytoskeleton during cell division, which has implications for understanding fertility and cancer. This research helps to uncover general principles of how cells function in all animals.
Karen J Guillemin — Dr. Karen Guillemin's lab at the University of Oregon studies how our gut microbiomes influence our metabolic and immune health, particularly through interactions with exercise and social behavior. The lab focuses on engineered probiotics that can mimic the health benefits of exercise, as well as understanding the role of specific bacterial proteins in promoting insulin-producing pancreatic cells. By using models like zebrafish and examining how social interactions shape microbiomes, they aim to uncover new treatments for diabetes and other health issues.
Cristopher M Niell — Dr. Cristopher Niell's lab at the University of Oregon studies how different parts of the brain work together to process sensory information from our environment. By focusing on how mice capture prey, the lab explores how the brain integrates visual and auditory cues to guide behavior. This research helps us understand the underlying mechanisms of sensory processing and could inform potential treatments for sensory impairments like deafness and blindness.
Sheila E. Crowell — Dr. Sheila E. Crowell's lab at the University of Oregon focuses on understanding how prenatal experiences and early life factors influence child behavior and development. The research investigates the links between maternal emotional health, infant sleep patterns, and the emergence of attention and behavioral regulation issues in toddlers. By exploring these connections, the lab aims to identify early risk factors for psychological disorders in children and develop interventions to improve both infant and caregiver well-being.
Brice Alan Kuhl — Dr. Brice Alan Kuhl's lab at the University of Oregon studies how our brains transform perceptions into memories. By using advanced neuroimaging techniques, they explore the differences between how we perceive events and how we remember them. The lab aims to deepen our understanding of memory processes and their significance for human cognition and health.
Laura Lee Mcintyre — Dr. Laura McIntyre's research focuses on understanding the long-term effects of COVID-19 school closures on children, particularly those with disabilities and their families. She investigates how these closures have impacted emotional and behavioral development and parenting stress. The lab uses data from several studies to assess these effects over time, aiming to inform public health policies and interventions for children at risk.
Michael Wehr — Michael Wehr's lab at the University of Oregon focuses on understanding how neural circuit disruptions lead to cognitive declines in Alzheimer's disease. By examining the relationship between auditory gap detection deficits and large-scale network dysfunctions in the brain, the lab aims to uncover the mechanisms behind specific behavioral impairments. Their research combines advanced imaging and electrophysiology techniques in mouse models to explore potential biomarkers for early Alzheimer's diagnosis and to inform therapeutic interventions.
Bradley J Nolen — Dr. Bradley J. Nolen's lab at the University of Oregon studies actin filaments, which are essential components of cells. They focus on how certain proteins regulate the assembly and architecture of actin networks, which play important roles in processes like bacterial infections and cancer metastasis. By exploring the mechanisms of these proteins, the lab aims to uncover insights that could lead to new treatments for diseases that manipulate these cellular processes.
Adam C Miller — Dr. Adam C. Miller's research lab at the University of Oregon investigates how electrical synapses are formed and function in the brain using zebrafish as a model organism. These connections between neurons are essential for proper communication in neural circuits and are linked to various neurodevelopmental disorders like autism and epilepsy. The lab aims to uncover the molecular pathways that regulate these synapses, which could help identify potential therapeutic targets for treating certain brain disorders.