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The Connected Aging Lab is committed to advancing brain health and emotional well-being in older adults by developing inclusive, relationship-centered interventions that bridge science, clinical care, and community.

The Florian-Rodriguez Lab investigates the cellular and molecular mechanisms of pelvic organ prolapse.

The Mosley Lab develops and applies innovative genomic and informatics approaches to identify opportunities to use genetic background to inform clinical and public health decision-making, to identify risk factors and biomarkers of disease, and to identify and reduce heath inequities in vulnerable populations. 

Castrillion Lab's work is aimed at understanding why endometrial or uterine cancers arise and spread, with an eye on prevention, earlier and more accurate diagnosis, improved treatments, and better overall patient outcomes.

We leverage our knowledge of fundamental neuroscience to create wearable bidirectional brain-machine interfaces for the restoration and assistance of upper limb sensation and movement in people with paralysis.

The Singal & Rich research group focuses on generating critical insights to improve the entire spectrum of liver cancer care. Our studies involve assessing and promoting novel practices, imaging, and blood-based biomarkers to improve risk stratification, screening, early detection and outcomes for patients with hepatocellular carcinoma and other primary liver cancers.  

The Mondal Lab employs computational genomics to characterize early molecular markers of retinal neurodegenerative diseases. We investigate gene networks' underlying retinal response to dietary risk factors linked to age-related disorders. We aim to understand retinal disease mechanisms and identify therapeutic targets and lifestyle interventions that support healthy vision.

Drapkin Lab investigates the molecular drivers of oncogenesis, metastasis, and chemoresistance in small cell lung cancer (SCLC) to discover new therapeutic targets. 

The Bann Laboratory focuses on discovering novel mechanistic targets to treat heart failure. We aim to identify regulators of cardiac cell fate reprogramming and regeneration as a molecular strategy to repair and heal the heart following injury.

Using patient-specific stem cells, tissue engineering, and omics technologies to develop precision medicine for cardiovascular disease.

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The Ortiz Lab develops advanced mathematical models and AI-driven approaches to understanding mood disorders as dynamic biological systems, works on nonlinear analysis of mood regulation, and integrates wearable technology with personalized treatment frameworks.

The Liu Lab studies the seasonal clock and its roles in human health. We use a new seasonal primate model, the mouse lemur, and an interdisciplinary approach of molecular biology, genetics, omics, machine learning, and computational modeling. We also apply the mouse lemur primate model to study pathophysiology that is poorly represented in mice, with a focus on neurodegeneration, immunology, and metabolism.

The overarching goal of the Liu Lab is to redefine membrane enzymology.

Ying Lab focuses on the development and clinical translation of soft medical devices, leveraging advanced design and fabrication techniques to tackle critical, unresolved challenges in human health. Current efforts in my lab center on hydrogel bioadhesives, soft medical robots, and ingestible bioelectronics aimed at enabling tissue-interfacing diagnostics and therapeutics in extreme body environments.

Our research focuses on genetic epilepsy and will help us understand the roles of genes such as ASH1L and SLC13A5 through clinical patient studies and mouse models, advancing treatment options for these disorders and deepening the understanding of epilepsy.

The Sibley lab focuses on developing and validating emerging imaging technologies to understand the lymphatic system and guide clinical management for patients with lymphatic diseases such as lymphedema.

The Zechner Lab applies molecular and cell biology techniques to investigate how mammalian cells regulate their phosphate homeostasis and sensing using the ubiquitous phosphate transporter PiT1/SLC20A1 as a model.

Our lab studies how cells organize metabolic pathways to meet changing metabolic demands. We explore how higher-order enzyme assemblies and organelle dynamics create compartmentalized metabolic environments. By uncovering the spatiotemporal regulation of metabolism, we aim to reveal fundamental principles of metabolic control relevant to health and disease.

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