Results 261 to 270 of about 475,440 (346)
The Life of a Kidney Podocyte
Acta Physiologica, Volume 241, Issue 8, August 2025.ABSTRACT Aim
Podocytes, highly specialized epithelial cells located in the glomerulus of the kidney, are essential to the filtration barrier that ensures separation of blood and urine. These cells exhibit a unique architecture, characterized by an intricate network of foot processes interconnected by slit diaphragms, which serve as a critical selective Desiree Loreth, Wiebke Sachs, Catherine Meyer‐Schwesinger +2 morewiley +1 more sourceThe complete sequence of perlecan, a basement membrane heparan sulfate proteoglycan, reveals extensive similarity with laminin A chain, low density lipoprotein-receptor, and the neural cell adhesion molecule.
, 1991 Douglas M. Noonan, Anna Fulle, Piera Valente, Silla Cai, Elizabeth A. Horigan, Makoto Sasaki, Yasuhiro Yamada, John R. Hassell +7 moreopenalex +1 more sourceEndothelial Glycocalyx in Cerebral Infarction After Endovascular Treatment in Patients With Intracranial Artery Stenosis
CNS Neuroscience &Therapeutics, Volume 31, Issue 8, August 2025.The predictive role of Glycocalyx in cerebral infarction after endovascular treatment in patients with cerebral artery stenosis. ABSTRACT Objective
To examine whether plasma glycocalyx levels in patients with severe intracranial arterial stenosis (ICAS) are associated with the prediction of new cerebral infarctions following endovascular treatment ...Fangfang Zhao, Tao Wang, Jichang Luo, Haoyuan Gao, Yangmin Zheng, Rongliang Wang, Junfen Fan, Haiping Zhao, Ziping Han, Yumin Luo, Liqun Jiao +10 morewiley +1 more sourceHeparan sulfate fine-tuned interleukin-1 (IL-1) signaling inhibits insulin secretion of grafted pancreatic islets. [PDF]
Sci AdvWrublewsky S, Rother S, Pohlemann F, Radanovic T, Junker F, Boewe AS, Schunk S, Roma LP, Ruiz-Gómez G, Pisabarro MT, MacDonald PE, Menger MD, Laschke MW, Ampofo E. +13 moreeuropepmc +1 more sourceApolipoprotein E and Alzheimer’s disease: The influence of apolipoprotein E on amyloid- and other amyloidogenic proteins [PDF]
, 2017 Agosta, Alata, Albert A. Davis, Aleshkov, Allen, Alzheimer, Anderson, Atagi, Bailey, Bales, Bales, Bales, Basak, Bateman, Beffert, Beffert, Beffert, Bell, Bell, Benilova, Benjamin, Bernardi, Bertram, Bien-Ly, Bien-Ly, Biere, Brecht, Brunden, Bu, Caselli, Castellano, Castellano, Cedazo-Mínguez, Cheng, Cirrito, Cirrito, Cole, Cooper, Corder, Corder, Cotman, David M. Holtzman, de la Torre, Deane, Deane, DeMattos, Drory, Emamzadeh, Engelborghs, Esparza, Evans, Fabre, Fagan, Fagan, Farrer, Fryer, Fryer, Funato, Gallardo, Gallyas, Games, Gao, Garai, Govone, Greenberg, Grehan, Guerreiro, Gustafson, Halliday, Hardy, Harris, Harris, Heinonen, Hirsch-Reinshagen, Hirsch-Reinshagen, Holtzman, Holtzman, Holtzman, Holtzman, Hone, Hong, Hu, Huang, Huang, Huang, Hughes, Irizarry, Irwin, Irwin, Irwin, Iwai, Jakes, Jarrett, Jason D. Ulrich, Jellinger, Ji, Jiang, Jonsson, Josephs, Kanekiyo, Kehoe, Kim, Kim, Kim, Klunk, Klunk, Koistinaho, Koldamova, Korczyn, Kotzbauer, Lacomblez, LaDu, LaDu, Lashuel, Lee, Li, Li, Li, Li, Liao, Lill, Lippa, Liu, Liu, Ma, Mahley, Mahley, Mak, Mandrekar, Marchesi, Marder, Martin, Masliah, Mathis, Mattila, Mauch, McKee, Mikolaenko, Morris, Mui, Nalivaeva, Namba, Narita, Nathan, Nelson, Nielsen, Ohm, Panegyres, Paresce, Paresce, Pfeifer, Pfrieger, Pitas, Poirier, Praline, Rebeck, Rebeck, Reiman, Riemenschneider, Rockenstein, Roses, Roychaudhuri, Saavedra, Sabbagh, Saito, Sanan, Schmechel, Shaffer, Shibata, Siderowf, Srinivasan, Strittmatter, Strittmatter, Strittmatter, Sullivan, Sunderland, Szaruga, Tamamizu-Kato, Tesseur, Thal, Theendakara, Tien-Phat V. Huynh, Tiraboschi, Tokuda, Tsuang, Ulrich, Van Gool, van Horssen, Verghese, Wahrle, Wahrle, Wakabayashi, Wang, Watanabe, Wilson, Wisniewski, Wisniewski, Withers, Wood, Wyss-Coray, Yang, Ye, Yeh, Yuan, Zerbinatti, Zhang, Zhang, Zlokovic +207 morecore +2 more sourcesGene Expression Shifts in Emperor Penguin Adaptation to the Extreme Antarctic Environment
Molecular Ecology, Volume 34, Issue 15, August 2025.ABSTRACT
Gene expression can accelerate ecological divergence by rapidly tweaking the response of an organism to novel environments, with more divergent environments exerting stronger selection and supposedly, requiring faster adaptive responses. Organisms adapted to extreme environments provide ideal systems to test this hypothesis, particularly when ...Josephine R. Paris, Flávia A. Nitta Fernandes, Federica Pirri, Samuele Greco, Marco Gerdol, Alberto Pallavicini, Marine Benoiste, Clément Cornec, Lorenzo Zane, Brian Haas, Céline Le Bohec, Emiliano Trucchi +11 morewiley +1 more source