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Sung Jin Park — Dr. Sung Jin Park's lab at Emory University is focused on creating advanced models of the sinoatrial node, which is crucial for heart rhythm control. By developing three-dimensional multicellular organoids that mimic the natural structure and function of the sinoatrial node, the lab aims to address heart rhythm disorders and improve therapies for patients. This research is significant as it seeks to design biological pacemakers that could lead to better treatment options for those suffering from sinoatrial node dysfunction.
Todd E Golde — Dr. Todd E Golde's lab at Emory University studies Alzheimer's Disease (AD) to understand how amyloid proteins impact brain health and function. They investigate the interactions between amyloid and other proteins to figure out new ways to treat AD by potentially harnessing the immune system. The lab aims to discover optimal immune treatments that could benefit patients while minimizing harm, contributing valuable insights to our understanding of dementia and broader neurodegenerative diseases.
Max Dale Cooper — Dr. Max Dale Cooper's lab at Emory University studies a unique group of jawless fish called lampreys to better understand how our immune system evolved. The lab focuses on characterizing special immune cells and antibodies found in lampreys that might help us learn more about human diseases, including various cancers. By using advanced techniques like CRISPR and sequencing, they aim to uncover the complexities of adaptive immunity and develop novel diagnostic tools from lamprey antibodies.
Sunil S. Badve — Dr. Sunil S. Badve's lab at Emory University focuses on innovative approaches to improve the prediction and treatment of triple negative breast cancer (TNBC). By utilizing advanced technologies like artificial intelligence and deep learning, the lab aims to develop a comprehensive risk assessment tool known as the CaPRI score, which will help identify patients at high risk of lethal outcomes and optimize their therapy accordingly.
Anant Madabhushi — The research lab led by Dr. Anant Madabhushi at Emory University focuses on using advanced imaging and computational techniques to improve cancer treatment outcomes. The lab's projects aim to develop innovative tools that predict patient responses to immunotherapy, identify risks associated with prostate cancer, and assess treatment needs for oral cavity cancers. By analyzing tissue images and using machine learning, they strive to enhance precision medicine in oncology.
Rafick Pierre Sekaly — Dr. Rafick Pierre Sekaly's lab focuses on understanding and overcoming HIV infection. They study the immune system's role in maintaining the virus and explore therapeutic strategies, such as the use of IL-10 inhibitors, to restore immune function aiming for an HIV cure. By combining advanced techniques from different research fields, the lab aims to identify mechanisms that contribute to the HIV reservoir and develop innovative interventions for lasting solutions.
Lian Li — Dr. Lian Li's lab at Emory University focuses on understanding Alzheimer's disease (AD) through groundbreaking research aimed at identifying new biomarkers and therapeutic targets. The lab investigates the role of glycosylation, particularly sialylation, in AD pathology by analyzing human brain specimens to uncover critical molecular changes. Their work aims to improve diagnosis and develop potential new interventions for this complex disease.
Stephen F Traynelis — Dr. Stephen Traynelis's lab at Emory University focuses on understanding how glutamate receptors function in the brain and their role in neurological diseases. The team employs advanced techniques like electrophysiology and cryo-electron microscopy to explore how genetic variations in these receptors can affect synaptic function and contribute to disorders like Alzheimer's and Parkinson's disease. By developing new therapeutic compounds, they aim to improve treatments and identify precision medicine strategies for brain-related conditions.
Peng Jin — Dr. Peng Jin's lab focuses on understanding how certain elements of our DNA, particularly transposable elements (TEs) and dynamic DNA modifications, influence brain health and diseases like Alzheimer's. They investigate how a protein called TDP-43 affects these DNA elements and contributes to neurodegeneration, aiming to uncover new targets for potential treatments. The research combines genetics and epigenetics to shed light on complex brain processes and their implications for neurological disorders.