Results 71 to 80 of about 135,703 (297)
Mannose receptor regulation of macrophage cell migration [PDF]
Journal of Leukocyte Biology, 2007 AbstractThe migration of macrophages through peripheral tissues is an essential step in the host response to infection, inflammation, and ischemia as well as in tumor progression and tissue repair. The mannose receptor (MR; CD206, previously known as the macrophage MR) is a 175-kDa type I transmembrane glycoprotein and is a member of a family of four ...Sturge, Justin, Todd, S. Katrina, Kogianni, Giolanta, McCarthy, Afshan, Isacke, Clare M. +4 moreopenaire +3 more sourcesLangerin-Heparin Interaction: Two Binding Sites for Small and Large Ligands as revealed by a combination of NMR Spectroscopy and Cross-Linking Mapping Experiments [PDF]
, 2015 Langerin is a C-type lectin present on Langerhans cells that mediates capture of pathogens in a carbohydrate-dependent manner, leading to subsequent internalization and elimination in the cellular organelles called Birbeck granules.Angulo, Jesus, Chabrol, Eric, de Paz, José L, Fieschi, Franck, Imberty, Anne, Muñoz-García, Juan C., Nieto, Pedro M., Rojo, Javier, Thomas, Aline, Vives, Romain R. +9 morecore +7 more sourcesTargeting the PGRN‐BMP Lysosomal Axis With NPs@PGRN Reverses Immunometabolic Dysfunction in Chronic Septic Arthritis
Advanced Science, EarlyView.Chronic septic arthritis involves intracellular bacterial persistence and lipid‐immune crosstalk via the PGRN‐BMP lysosomal axis. A dual‐targeting nanoparticle system (NPs@PGRN) restores lysosomal bactericidal function, reduces bacterial burden, and reprograms macrophage immunity, offering a novel therapeutic strategy. ABSTRACT
Chronic septic arthritis,Congsun Li, Jiaqi Fan, Tao Sun, Wushi Cui, Jiaxuan Zou, Weinan Yang, Liang Chen, Jian Xiao, Shicheng Wang, Tao Zhang, Jianqiao Hong, An Liu, Haobo Wu +12 morewiley +1 more sourceMaternal Preconception Antibiotic Exposure Disrupts Microbial Succession: A Transgenerational Risk for Offspring Gut Mucosal Immaturity and Colitis Susceptibility
Advanced Science, EarlyView.This study reveals that maternal antibiotic exposure prior to conception disrupts intergenerational gut microbial succession. By enhancing maternal‐offspring microbial transmission, altering microbial developmental trajectories and increasing selective pressures during community assembly, these disturbances lead to persistent gut mucosal immaturity and Yuzhu Chen, Ruqiao Duan, Cunzheng Zhang, Gaonan Li, XiaoLin Ji, Qi Zhang, Fei Pei, Kun Wang, Liping Duan +8 morewiley +1 more sourceStructural Model for the Mannose Receptor Family Uncovered by Electron Microscopy of Endo180 and the Mannose Receptor [PDF]
Journal of Biological Chemistry, 2006 The mannose receptor family comprises four members in mammals, Endo180 (CD280), DEC-205 (CD205), phospholipase A(2) receptor (PLA(2)R) and the mannose receptor (MR, CD206), whose extracellular portion contains a similar domain arrangement: an N-terminal cysteine-rich domain (CysR) followed by a single fibronectin type II domain (FNII) and 8-10 C-type ...Boskovic, J, Arnold, J, Stilion, R, Gordon, S, Sim, R, Rivera-Calzada, A, Wienke, D, Isacke, C, Martinez-Pomares, L, Llorca, O +9 moreopenaire +3 more sourcesEnzyme replacement therapies: What is the best option? [PDF]
, 2018 Despite many beneficial outcomes of the conventional enzyme replacement therapy (ERT), several limitations such as the high-cost of the treatment and various inadvertent side effects including the occurrence of an immunological response against the ...Barar, Jaleh, Khiavi, Mostafa Akbarzadeh, Mousavi, Rahimeh, Rafi, Mohammad, Safary, Azam +4 morecore +2 more sourcesPotent and Selective IGF‐IIR‐Recruiting Bifunctional Molecules for Targeted Lysosomal Degradation of Extracellular and Membrane Proteins
Advanced Science, EarlyView.Lysosome‐targeting chimeras (LYTACs) enable degradation of extracellular and membrane proteins via lysosomal trafficking. We report a novel IGF‐II mutant (Del1–7, Y27L) that selectively engages IGF‐IIR while avoiding IGF‐IR and IR‐A. mutIGF‐II–based LYTACs enhance target internalization and degradation and support a genetically encodable, all‐protein ...Yuan Zhao, Yaxian Liao, Pengyun Li, Regina Stasser de Gonzalez, Xuankun Chen, Nicholas S. Nieto, Florence M. Brunel, Nick Cox, Joseph Stock, Matthew McHenry, Guangsen Fu, Penghsuan Huang, Wenxin Wu, Deqin Cai, Lingjun Li, Alexander N. Zaykov, Weiping Tang +16 morewiley +1 more sourceALK1 controls hepatic vessel formation, angiodiversity, and angiocrine functions in hereditary hemorrhagic telangiectasia of the liver
Hepatology, EarlyView., 2022 Hepatic endothelial Alk1 signaling protects from development of vascular malformations while maintaining organ‐specific endothelial differentiation and angiocrine portmanteau of the names Wingless and Int‐1 signaling. Abstract Background and Aims
In hereditary hemorrhagic telangiectasia (HHT), severe liver vascular malformations are associated with ...Christian David Schmid, Victor Olsavszky, Manuel Reinhart, Vanessa Weyer, Felix A. Trogisch, Carsten Sticht, Manuel Winkler, Sina W. Kürschner, Johannes Hoffmann, Roxana Ola, Theresa Staniczek, Joerg Heineke, Beate K. Straub, Jens Mittler, Kai Schledzewski, Peter ten Dijke, Karsten Richter, Steven Dooley, Cyrill Géraud, Sergij Goerdt, Philipp‐Sebastian Koch +20 morewiley +1 more sourceHIV-1 gp120 mannoses induce immunosuppressive responses from dendritic cells.
PLoS Pathogens, 2007 The human immunodeficiency virus type 1 (HIV-1) envelope glycoprotein gp120 is a vaccine immunogen that can signal via several cell surface receptors.Meimei Shan, Per Johan Klasse, Kaustuv Banerjee, Antu K Dey, Sai Prasad N Iyer, Robert Dionisio, Dustin Charles, Lila Campbell-Gardener, William C Olson, Rogier W Sanders, John P Moore +10 moredoaj +1 more sourceDendritic glycopolymers based on dendritic polyamine scaffolds: view on their synthetic approaches, characteristics and potential for biomedical applications [PDF]
, 2014 In this review we highlight the potential for biomedical applications of dendritic glycopolymers based on polyamine scaffolds. The complex interplay of the molecular characteristics of the dendritic architectures and their specific interactions with ...Abbott, Agarwal, Agashe, Agashe, Agrawal, Agrawal, Albersheim, Albertazzi, Amir, Anajwala, Andre, Andre, Andre, Anna Janaszewska, Antoni, Antoni, Aoi, Appelhans, Appelhans, Arima, Arima, Arima, Arima, Arima, Baek, Baigude, Baigude, Baker, Bandaru, Barbara Klajnert-Maculewicz, Barner-Kowollik, Bettinger, Bhadra, Bhadra, Boas, Bogdan, Bogdan, Bojarova, Borges, Boye, Branco de Barros, Branderhorst, Branson, Brigitte Voit, Calderon, Carlmark, Carlmark, Chabre, Chabre, Chabre, Chen, Chen, Cheng, Cheng, Choudhury, Ciepluch, Ciolkowski, Ciolkowski, Cloninger, Conte, Cook, Cummins, Danishefsky, de Paz, Diebold, Dietmar Appelhans, Dolenc, Dominguez, Dondoni, Drzewinska, Duncan, Duncan, Dutta, Dutta, Dutta, Dutta, Ennen, Erbacher, Fajac, Filimon, Fischer, Franiak-Pietryga, Gabius, Gajbhiye, Gajbhiye, Gajbhiye, Gajbhiye, Gajbhiye, Garcia-Vallejo, Garg, Ghirardello, Gorelik, Gorityala, Gringas, Grobarova, Grosse, Grosse, Grosse, Gupta, Gupta, Gutsch, Hatano, Hauptmann, Hauptmann, He, Hu, Höbel, Iha, Ikeda, Imberty, Ina, Jain, Jain, Jain, Jain, Jain, Jain, Janaszewska, Janaszewska, Jararaman, Jararaman, Jayaraman, Jia, Joanna Lazniewska, Kade, Kaminskas, Kantchev, Kempe, Kensinger, Kensinger, Kesharwani, Kiessling, Kihara, Kihara, Kim, Klajnert, Klajnert, Klajnert, Klajnert, Klajnert, Klementieva, Klementieva, Kottari, Krist, Ku, Kuhlbeil, Kumar, Kunath, Kuo, Kuo, Kurmi, Köth, Laurino, Leclercq, Lee, Li, Lindhorst, Liu, Liu, Llinares, Lopez-Marin, Ma, Majoinen, Malik, Maly, Mangold, Marradi, Martos, Martínez, Matsushita, Matsushita, McCarthy, McCarthy, McCarthy, McCarthy, McNermy, Medina, Medina, Medina, Mignani, Mignani, Mignani, Mignani, Milowska, Misra, Mkandawire, Monsigny, Motoyama, Nahar, Narayan, Needham, Nepogodiev, Nicolas, Niederhafener, Niederhafener, Niederhafener, Ogiso, Oka, Oka, Ottaviani, Palcic, Paolino, Paolino, Papadopoulos, Park, Park, Park, Park, Patel, Pedziwiatr-Werbicka, Percec, Polikarpov, Richter, Robb, Ross, Roy, Roy, Roy, Roy, Rudd, Röckendorf, Sakamoto, Santoyo-Gonzáles, Santoyo-Gonzáles, Sapsford, Sashiwa, Satoh, Schengrund, Seah, Sethi, Shah, Sharma, Sharon, Shaunak, Shcharbin, Shiao, Sinha, Solassol, Stefani, Sun, Supattapone, Svenson, Svenson, Szewczyk, Szulc, Szulc, Tekade, ten Brummelhuis, Thünemann, Ting, Touaibia, Tripp, Tsutsumiuchi, Turnbull, Vacas Córdoba, Vepŕek, Wada, Wada, Walter, Wang, Wang, Wang, Warenda, Wasiak, Wijagkanalan, Wolfenden, Woller, Wood, Wu, Wu, Zanini, Zanini, Zanta, Zhang, Ziemba, Ziemba, Ziemba, Ziemba, Zinselmeyer +278 morecore +2 more sources
