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Development, Stem Cells, and Regeneration

About

The formation of an entire organism from a single cell is one of the most remarkable processes in biology. It requires coordinated regulation of cell division, differentiation, polarity and migration. Ultimately, individual cells, often from disparate lineages with unique properties, assemble into tissues with specialized functions. Delineating the molecular regulation of these fascinating processes is not only fundamental to understanding the rules that govern tissue and organ formation, but also mechanisms of homeostasis which, when disrupted, lead to the progression of many disease states.  Remarkable advances in optical microscopy and live cell imaging now make it possible to visualize complex processes from the sub-cellular level to single cells and from tissues to whole embryos. Combined with traditional genetics, powerful gene-editing technologies and genome-level analyses, developmental biologists now have an unprecedented set of tools available to probe mechanistic underpinnings of complex biological processes. Research at UVA features rich and diverse training in modern Developmental Biology from a creative and internationally-recognized faculty. Our research in developmental biology employs the latest cellular, molecular, biophysical and microscopic technologies to perform studies in engineered mutant mice, Drosophila, Xenopus, C. elegans, and Zebrafish to define mechanisms that coordinately regulate tissue morphogenesis.

Insights into these fundamental developmental mechanisms will enable scientists to modulate the commitment of pluripotent human stem cells toward specific cell types and organoids. Breakthrough discoveries in fundamental developmental mechanisms are thus a prerequisite for tissue engineering and regenerative medicine applications. Understanding the mechanisms that govern tissue development is also needed to promote tissue regeneration, and for defining processes that are dysregulated in the progression of prevalent diseases, including cancer, atherosclerosis and neurodegeneration. New efforts are under way to bridge developmental biologists with genomic and translational scientists to create a Developmental Genomics Center at UVA. A major goal of these collaborative efforts will be to interrogate developmentally related databases, identify gene mutations that may cause pediatric disorders, and test them in our in vivo and stem cell models. This will provide an avenue for disease gene discovery and the development of patient-specific therapeutic strategies.

Faculty

Systems biology approaches to study gene dosage in neurodevelopment and neurodevelopmental disorders

Matrix Biology and Engineering

Genome instability syndromes in cancer and immune deficiencies

1. Molecular and cellular therapy for tissue injury and repair, mainly focusing on heart and lung injury and repair. 2. Cancer biology, mainly focusing on identifying the molecular target that can inhibit the tumorigenesis during aging.

Adult-born neurons, perineuronal nets, and microglia in hippocampal plasticity and behavior in health and disease

Neuron-glia and glial-glial interactions

Elucidating and Understanding the Mechanisms Underlying Nervous System Development

Cell Adhesion and Adhesion-Dependent Cell Signaling in Vertebrate Morphogenesis

Neural Development; Cell Division in Neural Stem Cells; Axon Outgrowth and Guidance

Cytoskeletal architecture, dynamics and roles in cellular physiology and disease; High-resolution live cell and tissue imaging

Novel Therapies for Treating and Preventing Ischemic Heart Disease

Regeneration and Systemic Responses to Tissue Damage

Understanding Cellular and Molecular Mechanisms Leading to Blood Vessel Formation

The Pathophysiology of neurodegenerative diseases, including Alzheimer’s disease (AD), Parkinson’s disease (PD) and other dementia-related disorders.

Neuronal circuits underlying infant behaviors, including sleep and social behavior

Cellular and molecular mechanisms of morphogenesis

The role of glia in the development, maintenance and regeneration of the nervous system

Precision medicine, translational science, regeneration, organoids, high resolution imaging, computational modeling

RNA regulatory networks and RNA binding proteins during cardiovascular development and in cardiovascular disease

Neural tissue engineering, biomaterials, drug delivery, redox regulation of stem cell fate, engineering cell-interactive microenvironments

Wnt/PCP signaling in inner ear development Mouse models for human deafness Wnt/PCP signaling in neural tube closure

Physiology & Biophysics

Investigating the cell-biological foundations of development

Developmental Genetics, Evolution and Regeneration

Mechanisms of tissue/organ homeostasis and tumorigeensis

Regulation of neural stem cell proliferation during development and adulthood

Cell behavior and morphogenesis during early mouse development.

Molecular and bioelectric devices; tissue regeneration.

Understanding Protein and RNA regulations of gene expression via chromatin structure in myeloid cell development and diseases

Endosomal function and dysfunction in neurons. Development of the nervous system: cytoskeleton and membrane traffic in axon and dendrite growth.

Investigating regeneration through genetics and single-cell analysis

Regulation of Gene Expression, Development and Tumor Progression by TGF beta Signaling

Cardiovascular Development and Cerebrovascular Pathologies

Genetics, Functional Genomics, Epigenetics, Lung repair/regeneration, Metabolic regulation, Alveolar stem cells, Chromatin interaction, Innate immune response, Live-cell imaging