We are an interactive group, with a strong emphasis on collaboration and cooperation. Faculty are deeply engaged in student mentoring; they provide both oversight and support as students work toward their doctoral degree. The intent is to train students
as future academic peers, and provide a rigorous and engaging intellectual environment for all program members.
Members of the CSD Program currently include 36 full time PhD students and 60 faculty from 10 basic science and clinical
departments. Our faculty members and their labs further
align themselves with, but are not restricted to, 1 or more of 6 research sub-areas under the umbrella of our CSD Program:
Display Name | Research Interest |
---|---|
Richard Benninger | Cellular heterogeneity and electrical synapse plasticity in pancreatic islet function, and dysfunction in diabetes, ageing and therapeutic treatments |
Jim Bridges | Epithelial cell specification during lung development, epithelial cell renewal in distal lung injury and repair, pulmonary surfactant-related interstitial lung diseases |
John Caldwell | Functional regulation of ion channels in plasma membranes and Golgi membranes using electrophysiology and molecular biology |
James DeGregori | Cancer Evolution and Cancer Signaling Pathways |
Tobias Eckle | The role of circadian rhythm proteins in cellular adaptation to hypoxia and ischemia |
Thomas Evans | Molecular and cellular mechanisms of early embryonic development in C. elegans using genetic and biochemical approaches |
Katherine Fantauzzo | Receptor tyrosine kinase signaling in mammalian craniofacial development |
Lydia Heasley | Investigating the molecular causes and cellular/developmental consequences of the fascinating genetic elements known as structural genomic variations (e.g., copy number alterations, chromosome rearrangements, loss of heterozygosity, etc.) |
Joan Hooper | Cell interactions and gene regulatory networks driving mammalian craniofacial development |
Ethan Hughes | Oligodendrocytes and their Precursors in the Adult Central Nervous System |
Sujatha Jagannathan | mRNA surveillance in health and disease |
Igor Kogut | My laboratory is investigating the mechanisms leading to cellular reprogramming and aging, as well as induced Pluripotent Stem Cell (iPSC)-associated cellular rejuvenation. My group’s expertise in producing mRNA and manipulating RNA transfections was crucial for identifying and optimization of a cocktail of factors that can “rejuvenate” human somatic cells, which we can now deliver into cells via non-integrating clinically relevant RNA molecules. My group is currently exploring the applicability of this somatic cell rejuvenation approach in improving outcomes of skin transplantation. In addition, my laboratory works extensively with genetically corrected patient iPSCs and skin cells derived from these iPSCs as a potential therapeutic tool for the treatment of Epidermolysis Bullosa (EB), a group of severe inherited skin blistering diseases. |
Edward Lau | Protein synthesis and proteome dynamics in induced pluripotent stem cell models of cellular differentiation and senescence |
Amanda Law | Molecular, cellular and genetic basis of neurodevelopmental mechanisms involved in risk for schizophrenia and other psychiatric disorders |
Shi-Long Lu | Molecular mechanisms and targeted therapies for squamous cell carcinomas |
Wendy Macklin | Oligodendrocyte development and disease |
Susan Majka | Define how pulmonary mesenchymal vascular progenitor cells (MVPC) regulate microvascular function and adaptive angiogenesis underlying the pathogenesis of chronic lung diseases (CLDs), including emphysema, fibrosis and TSC/LAM |
Jim McManaman | Mammary gland development and function |
Michael McMurray | Mechanisms of assembly and inheritance of dynamic macromolecular structures: Higher-order septin assemblies in budding yeast |
Jeffrey Moore | Molecular regulation of the microtubule network in cell division and disease |
Christian Mosimann | How cells acquire their fates during development and how these processes go wrong in congenital disease |
Jessica Nelson | Molecular, cellular, and circuit mechanisms of behavioral plasticity |
Chad Pearson | Cell biology of the cytoskeleton: Centriole and cilia assembly and function |
Eric Pietras | How inflammation reprograms hematopoietic stem cell (HSC) fate choices |
Rytis Prekeris | Regulation of cell division, cell polarity and cell migration during development and cancer |
Tânia Reis | The Genetic Basis of Obesity and Neuronal Control of Energy Balance in Drosophila melanogaster |
Diego Restrepo | Olfactory signal transduction and olfactory sensory coding using electrophysiological, morphological and molecular techniques |
Olivia Rissland | The role of protein and mRNA decay during early Drosophila embryogenesis |
Brian Russo | 1. My laboratory defines molecular mechanisms that enable bacterial infection and inflammatory processes. We are interested in defining the molecular mechanisms of Shigella flexneri infection and the host and bacterial interactions that enable bacteria to polymerize actin and to move between cells. We are also interested in understanding how cytoskeletal proteins known as intermediate filaments contribute to bacterial infection and inflammatory processes. |
Charles Sagerstrom | Epigenetic and Transcriptional Control of Embryonic Cell Fate Decisions |
Stephen Santoro | Development and adaptation of the mammalian olfactory system |
David Schwartz | Investigating the genetic and biological determinants of diseases that are influenced by the environment |
Kunhua Song | Mechanisms governing cardiomyocyte lineage commitment and pathogenesis of cardiomyopathies |
Emily Su | Molecular mechanisms of impaired placental angiogenesis and function in human fetal growth restriction |
Kelly Sullivan | Deciphering the role of interferon signaling in Down syndrome using a combination of cell-based and in vivo models |
Matthew Taliaferro | Gene expression; subcellular RNA localization; localized translation in neurons; high-throughput screening; RNA-seq |
Arianne Theiss | Mitochondrial dysfunction in intestinal disease |
Ronald Vagnozzi | Cellular mechanisms of cardiac wound healing, fibrosis, and inflammation. Macrophage-fibroblast crosstalk in the heart |
Rajeev Vibhakar | Pediatric Oncology & Neuro-Oncology with an emphasis on medulloblastoma |
Eszter Vladar | How multiciliated cells adopt their cell fate, build cilia and orient the cilia for directional clearance during normal development, regeneration and human disease |
Michael Zuscik | Osteoarthritis pathogenesis & treatment; Connections between the gut microbiome and skeletal homeostasis & disease |
Display Name | Research Interest |
---|---|
Linda Barlow | We use in vivo molecular genetic mouse models, and in vitro taste organoids derived from adult lingual stem cells to understand how taste buds renew during normal homeostasis, and how this regenerative process is impacted by cancer therapies that cause taste dysfunction in patients |
Peter Dempsey | Extracellular Signals in Intestinal Stem Cell Niche |
Patricia Ernst | Our lab studies global and unique functions of H3K4 methyltransferases in hematopoiesis and leukemia. The mechanisms controlling the balance between self-renewing and differentiating hematopoietic stem cell (HSC) divisions are a particular interest of our group. Since these processes are often deregulated in leukemia, we study molecular pathways in both normal and leukemic cells to better understand how proliferation, self-renewal and differentiation are disrupted by leukemia-associated fusion oncogenes. Specifically, the MLL1/KMT2A gene is altered by chromosomal translocation in infant acute lymphocytic leukemia (ALL) and therapy-induced acute leukemia and adult myeloid leukemia (AML). We study the emergence of HSCs in the aorta-gonad-mesonephros (AGM) region and how their properties change during fetal development. In this context we are defining MLL1-dependent transcriptional networks, how they support hematopoietic development, how they differ from leukemogenic programs and whether these mechanisms can be exploited to enhance stem cell functions. |
Igor Kogut | My laboratory is investigating the mechanisms leading to cellular reprogramming and aging, as well as induced Pluripotent Stem Cell (iPSC)-associated cellular rejuvenation. My group’s expertise in producing mRNA and manipulating RNA transfections was crucial for identifying and optimization of a cocktail of factors that can “rejuvenate” human somatic cells, which we can now deliver into cells via non-integrating clinically relevant RNA molecules. My group is currently exploring the applicability of this somatic cell rejuvenation approach in improving outcomes of skin transplantation. In addition, my laboratory works extensively with genetically corrected patient iPSCs and skin cells derived from these iPSCs as a potential therapeutic tool for the treatment of Epidermolysis Bullosa (EB), a group of severe inherited skin blistering diseases. |
Susan Majka | Define how pulmonary mesenchymal vascular progenitor cells (MVPC) regulate microvascular function and adaptive angiogenesis underlying the pathogenesis of chronic lung diseases (CLDs), including emphysema, fibrosis and TSC/LAM. |
Eric Pietras | How inflammation reprograms hematopoietic stem cell (HSC) fate choices |
Dennis Roop | Skin development and disease |
Stephen Santoro | Development and adaptation of the mammalian olfactory system |
Michael Zuscik | Osteoarthritis pathogenesis & treatment; Connections between the gut microbiome and skeletal homeostasis & disease |
Display Name | Research Interest |
---|---|
Bruce Appel | Development and repair of the vertebrate nervous system |
Linda Barlow | We use in vivo molecular genetic mouse models, and in vitro taste organoids derived from adult lingual stem cells to understand how taste buds renew during normal homeostasis, and how this regenerative process is impacted by cancer therapies that cause taste dysfunction in patients |
Emily Bates | Mechanisms underlying developmental signaling in mice and in fruit flies and genetic modeling of human disorders |
Kristen Boyle | Mechanisms underlying developmental predisposition for obesity and metabolic disease using human cell culture models |
Martin Breuss | The Breuss laboratory is interested in genomic and cellular mosaicism. We assess its impact on human disease and utilize it as a tool to unravel brain and germline development. |
Jim Bridges | Epithelial cell specification during lung development, epithelial cell renewal in distal lung injury and repair, pulmonary surfactant-related interstitial lung diseases |
Joseph Brzezinski | Development of the mammalian retina |
David Clouthier | Signaling pathways regulating craniofacial and cardiovascular development |
Patricia Ernst | Our lab studies global and unique functions of H3K4 methyltransferases in hematopoiesis and leukemia. The mechanisms controlling the balance between self-renewing and differentiating hematopoietic stem cell (HSC) divisions are a particular interest of our group. Since these processes are often deregulated in leukemia, we study molecular pathways in both normal and leukemic cells to better understand how proliferation, self-renewal and differentiation are disrupted by leukemia-associated fusion oncogenes. Specifically, the MLL1/KMT2A gene is altered by chromosomal translocation in infant acute lymphocytic leukemia (ALL) and therapy-induced acute leukemia and adult myeloid leukemia (AML). We study the emergence of HSCs in the aorta-gonad-mesonephros (AGM) region and how their properties change during fetal development. In this context we are defining MLL1-dependent transcriptional networks, how they support hematopoietic development, how they differ from leukemogenic programs and whether these mechanisms can be exploited to enhance stem cell functions. |
Thomas Evans | Molecular and cellular mechanisms of early embryonic development in C. elegans using genetic and biochemical approaches |
Katherine Fantauzzo | Receptor tyrosine kinase signaling in mammalian craniofacial development |
Santos Franco | Neural stem cell fate-specification, neurogenesis, cell migration and circuit formation in the developing CNS |
Lydia Heasley | Investigating the molecular causes and cellular/developmental consequences of the fascinating genetic elements known as structural genomic variations (e.g., copy number alterations, chromosome rearrangements, loss of heterozygosity, etc.) |
Joan Hooper | Cell interactions and gene regulatory networks driving mammalian craniofacial development |
Amanda Law | Molecular, cellular and genetic basis of neurodevelopmental mechanisms involved in risk for schizophrenia and other psychiatric disorders |
Traci Lyons | Mechanisms of lymphatic mediated metastasis of breast cancer |
Wendy Macklin | Oligodendrocyte development and disease |
Christian Mosimann | How cells acquire their fates during development and how these processes go wrong in congenital disease |
Jessica Nelson | Molecular, cellular, and circuit mechanisms of behavioral plasticity |
Jamie Nichols | Skeletal development and variability |
Eric Pietras | How inflammation reprograms hematopoietic stem cell (HSC) fate choices |
Rytis Prekeris | Regulation of cell division, cell polarity and cell migration during development and cancer |
Tânia Reis | The Genetic Basis of Obesity and Neuronal Control of Energy Balance in Drosophila melanogaster |
Diego Restrepo | Olfactory signal transduction and olfactory sensory coding using electrophysiological, morphological and molecular techniques |
Dennis Roop | Skin development and disease |
Charles Sagerstrom | Epigenetic and Transcriptional Control of Embryonic Cell Fate Decisions |
Stephen Santoro | Development and adaptation of the mammalian olfactory system |
Julie Siegenthaler | CNS vasculature and meninges development and function |
Kunhua Song | Mechanisms governing cardiomyocyte lineage commitment and pathogenesis of cardiomyopathies |
Emily Su | Molecular mechanisms of impaired placental angiogenesis and function in human fetal growth restriction |
Kelly Sullivan | Deciphering the role of interferon signaling in Down syndrome using a combination of cell-based and in vivo models |
Lori Sussel | The main focus of our research is to understand the complex transcriptional networks that regulate development, differentiation and function of the pancreas |
Trevor Williams | Transcriptional regulation of mouse embryonic development and the role of transcription factors in mammary gland development and breast cancer |
Display Name | Research Interest |
---|---|
Bruce Appel | Development and repair of the vertebrate nervous system |
Linda Barlow | We use in vivo molecular genetic mouse models, and in vitro taste organoids derived from adult lingual stem cells to understand how taste buds renew during normal homeostasis, and how this regenerative process is impacted by cancer therapies that cause taste dysfunction in patients |
Emily Bates | Mechanisms underlying developmental signaling in mice and in fruit flies and genetic modeling of human disorders |
Martin Breuss | The Breuss laboratory is interested in genomic and cellular mosaicism. We assess its impact on human disease and utilize it as a tool to unravel brain and germline development. |
Joseph Brzezinski | Development of the mammalian retina |
James DeGregori | Cancer Evolution and Cancer Signaling Pathways |
Peter Dempsey | Extracellular Signals in Intestinal Stem Cell Niche |
Patricia Ernst | Our lab studies global and unique functions of H3K4 methyltransferases in hematopoiesis and leukemia. The mechanisms controlling the balance between self-renewing and differentiating hematopoietic stem cell (HSC) divisions are a particular interest of our group. Since these processes are often deregulated in leukemia, we study molecular pathways in both normal and leukemic cells to better understand how proliferation, self-renewal and differentiation are disrupted by leukemia-associated fusion oncogenes. Specifically, the MLL1/KMT2A gene is altered by chromosomal translocation in infant acute lymphocytic leukemia (ALL) and therapy-induced acute leukemia and adult myeloid leukemia (AML). We study the emergence of HSCs in the aorta-gonad-mesonephros (AGM) region and how their properties change during fetal development. In this context we are defining MLL1-dependent transcriptional networks, how they support hematopoietic development, how they differ from leukemogenic programs and whether these mechanisms can be exploited to enhance stem cell functions. |
Katherine Fantauzzo | Receptor tyrosine kinase signaling in mammalian craniofacial development |
Lydia Heasley | Investigating the molecular causes and cellular/developmental consequences of the fascinating genetic elements known as structural genomic variations (e.g., copy number alterations, chromosome rearrangements, loss of heterozygosity, etc.) |
Ethan Hughes | Oligodendrocytes and their Precursors in the Adult Central Nervous System |
Sujatha Jagannathan | mRNA surveillance in health and disease |
Igor Kogut | My laboratory is investigating the mechanisms leading to cellular reprogramming and aging, as well as induced Pluripotent Stem Cell (iPSC)-associated cellular rejuvenation. My group’s expertise in producing mRNA and manipulating
RNA transfections was crucial for identifying and optimization of a cocktail of factors that can “rejuvenate” human somatic cells, which we can now deliver into cells via non-integrating clinically relevant RNA molecules.
My group is currently exploring the applicability of this somatic cell rejuvenation approach in improving outcomes of skin transplantation. In addition, my laboratory works extensively with genetically corrected patient iPSCs and skin cells derived from these iPSCs as a potential therapeutic tool for the treatment of Epidermolysis Bullosa (EB), a group of severe inherited skin blistering diseases |
Edward Lau | Protein synthesis and proteome dynamics in induced pluripotent stem cell models of cellular differentiation and senescence |
Sue Majka | Define how pulmonary mesenchymal vascular progenitor cells (MVPC) regulate microvascular function and adaptive angiogenesis underlying the pathogenesis of chronic lung diseases (CLDs), including emphysema, fibrosis and TSC/LAM |
Michael McMurray | Mechanisms of assembly and inheritance of dynamic macromolecular structures: Higher-order septin assemblies in budding yeast |
Jeffrey Moore | Molecular regulation of the microtubule network in cell division and disease |
Christian Mosimann | How cells acquire their fates during development and how these processes go wrong in congenital disease |
Jessica Nelson | Molecular, cellular, and circuit mechanisms of behavioral plasticity |
Rytis Prekeris | Regulation of cell division, cell polarity and cell migration during development and cancer |
Tânia Reis | The Genetic Basis of Obesity and Neuronal Control of Energy Balance in Drosophila melanogaster |
Brian Russo | 1. My laboratory defines molecular mechanisms that enable bacterial infection and inflammatory processes. We are interested in defining the molecular mechanisms of Shigella flexneri infection and the host and bacterial interactions that enable bacteria to polymerize actin and to move between cells. We are also interested in understanding how cytoskeletal proteins known as intermediate filaments contribute to bacterial infection and inflammatory processes |
Charles Sagerstrom | Epigenetic and Transcriptional Control of Embryonic Cell Fate Decisions |
Stephen Santoro | Development and adaptation of the mammalian olfactory system |
Julie Siegenthaler | CNS vasculature and meninges development and function |
Lori Sussel | The main focus of our research is to understand the complex transcriptional networks that regulate development, differentiation and function of the pancreas |
Matthew Taliaferro | Gene expression; subcellular RNA localization; localized translation in neurons; high-throughput screening; RNA-seq |
Arianne Theiss | Mitochondrial dysfunction in intestinal disease |
Display Name | Research Interest |
---|---|
Bruce Appel | Development and repair of the vertebrate nervous system |
Linda Barlow | We use in vivo molecular genetic mouse models, and in vitro taste organoids derived from adult lingual stem cells to understand how taste buds renew during normal homeostasis, and how this regenerative process is impacted by cancer therapies that cause taste dysfunction in patients |
Emily Bates | Mechanisms underlying developmental signaling in mice and in fruit flies and genetic modeling of human disorders |
Richard Benninger | Cellular heterogeneity and electrical synapse plasticity in pancreatic islet function, and dysfunction in diabetes, ageing and therapeutic treatments |
Kristen Boyle | Mechanisms underlying developmental predisposition for obesity and metabolic disease using human cell culture models |
Martin Breuss | The Breuss laboratory is interested in genomic and cellular mosaicism. We assess its impact on human disease and utilize it as a tool to unravel brain and germline development |
Jim Bridges | Epithelial cell specification during lung development, epithelial cell renewal in distal lung injury and repair, pulmonary surfactant-related interstitial lung diseases |
Joseph Brzezinski | Development of the mammalian retina |
John Caldwell | Functional regulation of ion channels in plasma membranes and Golgi membranes using electrophysiology and molecular biology |
David Clouthier | Signaling pathways regulating craniofacial and cardiovascular development |
James DeGregori | Cancer Evolution and Cancer Signaling Pathways |
Peter Dempsey | Extracellular Signals in Intestinal Stem Cell Niche |
Tobias Eckle | The role of circadian rhythm proteins in cellular adaptation to hypoxia and ischemia |
Patricia Ernst | Our lab studies global and unique functions of H3K4 methyltransferases in hematopoiesis and leukemia. The mechanisms controlling the balance between self-renewing and differentiating hematopoietic stem cell (HSC) divisions are a particular interest of our group. Since these processes are often deregulated in leukemia, we study molecular pathways in both normal and leukemic cells to better understand how proliferation, self-renewal and differentiation are disrupted by leukemia-associated fusion oncogenes. Specifically, the MLL1/KMT2A gene is altered by chromosomal translocation in infant acute lymphocytic leukemia (ALL) and therapy-induced acute leukemia and adult myeloid leukemia (AML). We study the emergence of HSCs in the aorta-gonad-mesonephros (AGM) region and how their properties change during fetal development. In this context we are defining MLL1-dependent transcriptional networks, how they support hematopoietic development, how they differ from leukemogenic programs and whether these mechanisms can be exploited to enhance stem cell functions. |
Thomas Evans | Molecular and cellular mechanisms of early embryonic development in C. elegans using genetic and biochemical approaches |
Katherine Fantauzzo | Receptor tyrosine kinase signaling in mammalian craniofacial development |
Santos Franco | Neural stem cell fate-specification, neurogenesis, cell migration and circuit formation in the developing CNS |
Adam Green | Investigating novel targets and therapeutic strategies in the treatment of pediatric high-grade glioma (HGG), including diffuse intrinsic pontine glioma (DIPG) |
Lydia Heasley | Investigating the molecular causes and cellular/developmental consequences of the fascinating genetic elements known as structural genomic variations (e.g., copy number alterations, chromosome rearrangements, loss of heterozygosity, etc.) |
Joan Hooper | Cell interactions and gene regulatory networks driving mammalian craniofacial development |
Ethan Hughes | Oligodendrocytes and their Precursors in the Adult Central Nervous System |
Sujatha Jagannathan | mRNA surveillance in health and disease |
Igor Kogut | My laboratory is investigating the mechanisms leading to cellular reprogramming and aging, as well as induced Pluripotent Stem Cell (iPSC)-associated cellular rejuvenation. My group’s expertise in producing mRNA and manipulating RNA transfections was crucial for identifying and optimization of a cocktail of factors that can “rejuvenate” human somatic cells, which we can now deliver into cells via non-integrating clinically relevant RNA molecules. My group is currently exploring the applicability of this somatic cell rejuvenation approach in improving outcomes of skin transplantation. In addition, my laboratory works extensively with genetically corrected patient iPSCs and skin cells derived from these iPSCs as a potential therapeutic tool for the treatment of Epidermolysis Bullosa (EB), a group of severe inherited skin blistering diseases. |
Edward Lau | Protein synthesis and proteome dynamics in induced pluripotent stem cell models of cellular differentiation and senescence |
Amanda Law | Molecular, cellular and genetic basis of neurodevelopmental mechanisms involved in risk for schizophrenia and other psychiatric disorders |
Shi-Long Lu | Molecular mechanisms and targeted therapies for squamous cell carcinomas |
Traci Lyons | Mechanisms of lymphatic mediated metastasis of breast cancer |
Wendy Macklin | Oligodendrocyte development and disease |
Susan Majka | Define how pulmonary mesenchymal vascular progenitor cells (MVPC) regulate microvascular function and adaptive angiogenesis underlying the pathogenesis of chronic lung diseases (CLDs), including emphysema, fibrosis and TSC/LAM |
Jim McManaman | Mammary gland development and function |
Michael McMurray | Mechanisms of assembly and inheritance of dynamic macromolecular structures: Higher-order septin assemblies in budding yeast |
Jeffrey Moore | Molecular regulation of the microtubule network in cell division and disease |
Christian Mosimann | How cells acquire their fates during development and how these processes go wrong in congenital disease |
Jessica Nelson | Molecular, cellular, and circuit mechanisms of behavioral plasticity |
Jamie Nichols | Skeletal development and variability |
Karin Payne | Growth plate cartilage biology, signaling pathways involved in bony bar formation after growth plate injury & development of stem cell- and biomaterial-based approaches for cartilage regeneration |
Chad Pearson | Cell biology of the cytoskeleton: Centriole and cilia assembly and function |
Eric Pietras | How inflammation reprograms hematopoietic stem cell (HSC) fate choices |
Rytis Prekeris | Regulation of cell division, cell polarity and cell migration during development and cancer |
Tânia Reis | The Genetic Basis of Obesity and Neuronal Control of Energy Balance in Drosophila melanogaster |
Diego Restrepo | Olfactory signal transduction and olfactory sensory coding using electrophysiological, morphological and molecular techniques |
Olivia Rissland | The role of protein and mRNA decay during early Drosophila embryogenesis |
Dennis Roop | Skin development and disease |
Brian Russo | My laboratory defines molecular mechanisms that enable bacterial infection and inflammatory processes. We are interested in defining the molecular mechanisms of Shigella flexneri infection and the host and bacterial interactions that enable bacteria to polymerize actin and to move between cells. We are also interested in understanding how cytoskeletal proteins known as intermediate filaments contribute to bacterial infection and inflammatory processes |
Charles Sagerstrom | Epigenetic and Transcriptional Control of Embryonic Cell Fate Decisions |
Stephen Santoro | Development and adaptation of the mammalian olfactory system |
David Schwartz | Investigating the genetic and biological determinants of diseases that are influenced by the environment |
Julie Siegenthaler | CNS vasculature and meninges development and function |
Kunhua Song | Mechanisms governing cardiomyocyte lineage commitment and pathogenesis of cardiomyopathies |
Emily Su | Molecular mechanisms of impaired placental angiogenesis and function in human fetal growth restriction |
Kelly Sullivan | Deciphering the role of interferon signaling in Down syndrome using a combination of cell-based and in vivo models |
Lori Sussel | The main focus of our research is to understand the complex transcriptional networks that regulate development, differentiation and function of the pancreas |
Matthew Taliaferro | Gene expression; subcellular RNA localization; localized translation in neurons; high-throughput screening; RNA-seq |
Arianne Theiss | Mitochondrial dysfunction in intestinal disease |
Ronald Vagnozzi | Cellular mechanisms of cardiac wound healing, fibrosis, and inflammation. Macrophage-fibroblast crosstalk in the heart |
Rajeev Vibhakar | Pediatric Oncology & Neuro-Oncology with an emphasis on medulloblastoma |
Eszter Vladar | How multiciliated cells adopt their cell fate, build cilia and orient the cilia for directional clearance during normal development, regeneration and human disease |
Trevor Williams | Transcriptional regulation of mouse embryonic development and the role of transcription factors in mammary gland development and breast cancer |
Michael Yeager | How the lung vasculature -blood vessels and particularly lymphatics- operate during episodes of acute and chronic inflammation |
Michael Zuscik | Osteoarthritis pathogenesis & treatment; Connections between the gut microbiome and skeletal homeostasis & disease |