Dr. Antonis Rokas' lab at Vanderbilt University focuses on understanding why some species of the Aspergillus fungus cause disease while closely related species do not. They explore the genetic traits that contribute to the pathogenicity of Aspergillus fumigatus, a major human pathogen, by examining both the environmental and biological factors that influence fungal virulence. This research aims to shed light on the evolution of fungal pathogens and improve strategies for combating infections.

Dr. Chin Chiang's research lab at Vanderbilt University focuses on understanding how granule cells in the cerebellum develop and how their improper formation can lead to conditions like cerebellar hypoplasia, which is particularly common in premature infants. The lab investigates the genetic and epigenetic factors that control the progression and differentiation of granule cell precursors, linking basic developmental biology to potential health implications in neurological disorders.

Dr. Ken S. Lau's lab at Vanderbilt University focuses on understanding colorectal cancer (CRC) through innovative 3D mapping techniques. They work to explore how age affects the development of CRC, particularly looking into why more young people are being diagnosed. The lab combines advanced imaging and molecular analysis to create a comprehensive atlas that visualizes the progression of tumors from early-stage precancerous conditions to cancer. Their goal is to uncover crucial biological differences between CRC cases that arise at different ages to improve diagnosis and treatment outcomes.

Dr. Brandt F. Eichman’s lab at Vanderbilt University focuses on understanding how our cells replicate DNA and repair any damage that might occur during this process. Their research is crucial because mistakes in DNA replication can lead to cancer and other diseases. The team investigates the complex interactions between various proteins involved in DNA replication, aiming to uncover how these proteins work together to maintain genomic stability and prevent disease.

Dr. Guoqiang Gu's lab at Vanderbilt University focuses on understanding how maternal influences, particularly nutrition and obesity, affect the development and functioning of insulin-producing beta cells in offspring. They investigate the genetic and environmental factors that shape beta-cell populations, which are critical for maintaining healthy glucose levels and preventing diseases such as type 2 diabetes. The lab employs advanced genetic techniques to trace cellular lineages and analyze gene expression patterns in order to reveal relationships between maternal health, cellular identity, and diabetes risk in offspring.

Dr. Douglas McMahon's lab at Vanderbilt University focuses on how changes in natural light exposure affect brain circuits and behavior, particularly in relation to mood disorders. The research emphasizes the role of circadian rhythms and specific brain regions that are linked to anxiety and depression. By investigating these connections, the lab aims to understand the neurobiological mechanisms that govern mood regulation and motivation.

Dr. David M. Miller's research lab at Vanderbilt University focuses on the molecular genetics of synaptic remodeling using the model organism C. elegans. The lab investigates how specific proteins, such as Neural Cell Adhesion Molecule (NCAM) and associated proteins like RIG-3, play essential roles in the formation and modification of neural connections. Ultimately, this work aims to uncover fundamental mechanisms that may also apply to synaptic plasticity in the human brain, shedding light on the genetic factors involved in learning and memory.

Dr. Irina Kaverina's lab focuses on understanding how the structural components of cells, specifically microtubules and their associated motor proteins, influence the function of insulin-producing beta cells. Through their research, the lab aims to uncover mechanisms that regulate insulin secretion, which is critical in managing blood sugar levels and preventing conditions like diabetes. By using advanced microscopy and modeling techniques, the lab investigates how these cellular components can be manipulated to improve beta cell function and glucose homeostasis.

Dr. Jeffrey M. Spraggins' lab at Vanderbilt University focuses on understanding the molecular basis of kidney diseases and Alzheimer's disease through advanced imaging techniques. By utilizing cutting-edge multimodal imaging and spatially resolved molecular technologies, the lab aims to identify key pathways in these diseases, helping to uncover potential biomarkers and therapeutic targets. The research combines expertise in nephrology, analytical chemistry, and cell biology, making it a hub for innovative biomedical discovery.

Dr. Qiangjun Zhou's lab at Vanderbilt University focuses on understanding the tiny structures in the brain that help neurons communicate efficiently. By studying the molecular building blocks of synapses, particularly in relation to neurodevelopmental disorders like autism and schizophrenia, the lab aims to uncover how genetic mutations disrupt brain function. This research is not only crucial for gaining insight into these disorders but also for developing potential new treatments.

Dr. Andrea Page-Mccaw's lab at Vanderbilt University studies how tissues repair themselves after injury. The team uses fruit fly models to investigate the repair mechanisms of epithelial tissues and basement membranes, which are crucial for organ structure. Their research aims to uncover the fundamental processes of tissue repair to inform clinical therapies for wounds and injuries when normal healing fails.