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Full-Text Articles in Pathology
Ifit2 Restricts Murine Coronavirus Spread To The Spinal Cord White Matter And Its Associated Myelin Pathology, Madhav Sharma, Debanjana Chakravarty, Afaq Hussain, Ajay Zalavadia, Amy Burrows, Patricia Rayman, Nikhil Sharma, Lawrence C. Kenyon, Cornelia Bergmann, Ganes C. Sen, Jayasri Das Sarma
Ifit2 Restricts Murine Coronavirus Spread To The Spinal Cord White Matter And Its Associated Myelin Pathology, Madhav Sharma, Debanjana Chakravarty, Afaq Hussain, Ajay Zalavadia, Amy Burrows, Patricia Rayman, Nikhil Sharma, Lawrence C. Kenyon, Cornelia Bergmann, Ganes C. Sen, Jayasri Das Sarma
Department of Pathology, Anatomy, and Cell Biology Faculty Papers
Interferon-induced protein with tetratricopeptide repeats 2, Ifit2, is critical in restricting neurotropic murine-β-coronavirus, RSA59 infection. RSA59 intracranial injection of Ifit2-deficient (-/-) compared to wild-type (WT) mice results in impaired acute microglial activation, reduced CX3CR1 expression, limited migration of peripheral lymphocytes into the brain, and impaired virus control followed by severe morbidity and mortality. While the protective role of Ifit2 is established for acute viral encephalitis, less is known about its influence during the chronic demyelinating phase of RSA59 infection. To understand this, RSA59 infected Ifit2-/- and Ifit2+/+ (WT) were observed for neuropathological outcomes at day 5 (acute phase) and 30 …
Autophagy Requirements For Eye Lens Differentiation And Transparency, Lisa Brennan, M Joseph Costello, J Fielding Hejtmancik, A. Menko, S Amer Riazuddin, Alan Shiels, Marc Kantorow
Autophagy Requirements For Eye Lens Differentiation And Transparency, Lisa Brennan, M Joseph Costello, J Fielding Hejtmancik, A. Menko, S Amer Riazuddin, Alan Shiels, Marc Kantorow
Department of Pathology, Anatomy, and Cell Biology Faculty Papers
Recent evidence points to autophagy as an essential cellular requirement for achieving the mature structure, homeostasis, and transparency of the lens. Collective evidence from multiple laboratories using chick, mouse, primate, and human model systems provides evidence that classic autophagy structures, ranging from double-membrane autophagosomes to single-membrane autolysosomes, are found throughout the lens in both undifferentiated lens epithelial cells and maturing lens fiber cells. Recently, key autophagy signaling pathways have been identified to initiate critical steps in the lens differentiation program, including the elimination of organelles to form the core lens organelle-free zone. Other recent studies using ex vivo lens culture …