The Hernandez Lab explores structural, cellular, and mechanobiological aspects of sexual dimorphism and sex hormones in cartilage health and osteoarthritis. 

The Advanced Integrative Molecular Probe Collaboration's mission is to develop new imaging agents in a multidisciplinary approach to monitor, understand and cure disease at an early stage.

The Sharma Lab advances cardiovascular and transplant medicine through three integrated research areas:

1. Advanced metabolic imaging using hyperpolarized carbon-13 MRI and stable-isotope carbon-13 tracer methods to visualize cardiac metabolism in living tissue and patients.
2. Advanced multi-omics integrating transcriptomics and stable isotope-resolved metabolomics to map heart failure, ischemic heart disease, and donor organ biology while optimizing perfusion strategies for hearts and lungs.
3. Artificial intelligence and machine learning to develop explainable AI tools that support clinical decision-making in cardiothoracic surgery and transplantation.

Welcome to the PARK Lab.

Our lab focuses on:

1. Development of novel noninvasive imaging methods for in vivo metabolism and function
2. Identification of characteristics in metabolic diseases in vivo and ex vivo
3. Clinical translations of the metabolic imaging methods

We utilize computational modeling and physical experiments at multiple biological scales to perform translational biomechanics and mechanobiology research with a particular focus on women's health and skeletal muscle.

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.

The Davenport Lab focuses on quantitative methods for human brain imaging, primarily using MRI and Magnetoencephalography (MEG).

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

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.