Results 31 to 40 of about 18,314 (233)

Triad3a induces the degradation of early necrosome to limit RipK1-dependent cytokine production and necroptosis. [PDF]

, 2018
Understanding the molecular signaling in programmed cell death is vital to a practical understanding of inflammation and immune cell function. Here we identify a previously unrecognized mechanism that functions to downregulate the necrosome, a central ...
A Degterev, A Degterev, A Kaczmarek, A Polykratis, B Shutinoski, C Fearns, CP Dillon, D Ofengeim, DE Christofferson, DM Monack, DM Moquin, DR Green, EW Harhaj, F Ginhoux, G Dougan, H Sakamoto, I Jaco, J Hitomi, JW Upton, K Newton, KE Lawlor, L Duprez, L Eckmann, L Galluzzi, LA O’Neill, M Belosevic, M Pasparakis, MA Brennan, MJ Bertrand, N Arpaia, N Bidere, N Festjens, N Robinson, N Shembade, N Takahashi, N Vanlangenakker, N. Peltzer, P Mandal, P Vandenabeele, P Vandenabeele, R Bellamy, R Patel, RE Voll, S Akira, S He, S He, S Malladi, S McComb, S McComb, S McComb, S McComb, SB Berger, SC Sun, SP Salcedo, ST Beug, T McQuade, T Vanden Berghe, T Xie, TH Chuang, W Declercq, W Reiley, WD Cook, WJ Kaiser, WW Reiley, XN Wu, Y Dondelinger, YS Cho, Z Cai   +67 more
core   +2 more sources

TAB2 deficiency induces dilated cardiomyopathy by promoting RIPK1-dependent apoptosis and necroptosis

The Journal of Clinical Investigation, 2022
Mutations in TGF-β–activated kinase 1 binding protein 2 (TAB2) have been implicated in the pathogenesis of dilated cardiomyopathy and/or congenital heart disease in humans, but the underlying mechanisms are currently unknown.
Haifeng Yin, Xiaoyun Guo, Yi Chen, Yachang Zeng, Xiaoliang Mo, Siqi Hong, Hui He, Jing Li, Rachel Steinmetz, Qinghang Liu   +9 more
doaj   +1 more source

Depletion of RIPK3 or MLKL blocks TNF-driven necroptosis and switches towards a delayed RIPK1 kinase-dependent apoptosis [PDF]

, 2014
In human cells, the RIPK1-RIPK3-MLKL-PGAM5-Drp1 axis drives tumor necrosis factor (TNF)-induced necroptosis through mitochondrial fission, but whether this pathway is conserved among mammals is not known. To answer this question, we analyzed the presence
Baekelandt, V, Bertrand, Mathieu, Bruggeman, Inge, Dondelinger, Yves, Gonçalves, Amanda, Goossens, Vera, Grootjans, Sasker, Remijsen, Quinten, Roelandt, Ria, Takahashi, Nozomi, Van den Haute, C, Vanden Berghe, Tom, Vandenabeele, Peter, Vanlangenakker, Nele   +13 more
core   +3 more sources

Mind Bomb Regulates Cell Death during TNF Signaling by Suppressing RIPK1’s Cytotoxic Potential

Cell Reports, 2018
Summary: Tumor necrosis factor (TNF) is an inflammatory cytokine that can signal cell survival or cell death. The mechanisms that switch between these distinct outcomes remain poorly defined.
Rebecca Feltham, Kunzah Jamal, Tencho Tenev, Gianmaria Liccardi, Isabel Jaco, Celia Monteiro Domingues, Otto Morris, Sidonie Wicky John, Alessandro Annibaldi, Marcella Widya, Conor J. Kearney, Danielle Clancy, Paul R. Elliott, Timo Glatter, Qi Qiao, Andrew J. Thompson, Alexey Nesvizhskii, Alexander Schmidt, David Komander, Hao Wu, Seamus Martin, Pascal Meier   +21 more
doaj   +1 more source

Axonal Degeneration: RIPK1 Multitasking in ALS [PDF]

Current Biology, 2016
A recent study reports that microglia and oligodendrocytes promote motor neuron degeneration by inducing inflammation and necroptosis in a manner dependent on receptor-interacting kinase 1 (RIPK1). These findings could be significant for our understanding of the neurobiology and treatment of neurodegenerative diseases like amyotrophic lateral sclerosis.
Kristin, Politi, Serge, Przedborski
openaire   +2 more sources

RIPK3 restricts viral pathogenesis via cell death-independent neuroinflammation [PDF]

, 2017
Receptor-interacting protein kinase-3 (RIPK3) is an activator of necroptotic cell death, but recent work has implicated additional roles for RIPK3 in inflammatory signaling independent of cell death.
Daniels, Brian P., Gale, Michael, Loo, Yueh-Ming, Martinez, Jennifer, Oberst, Andrew, Oguin III, Thomas H., Olsen, Tayla M., Orozco, Susana, Snyder, Annelise G., Tait, Stephen W.G.   +9 more
core   +1 more source

The pseudokinase MLKL mediates programmed hepatocellular necrosis independently of RIPK3 during hepatitis [PDF]

, 2016
Although necrosis and necroinflammation are central features of many liver diseases, the role of programmed necrosis in the context of inflammation-dependent hepatocellular death remains to be fully determined.
Andreas E. Kremer, Andreas Linkermann, Babon, Cai, Christin Dewitz, Christoph Becker, Christopher Poremba, Claudia Günther, Deutsch, Dusheiko, Emma J. Petrie, Gui-Wei He, James M. Murphy, Kang, Kerstin Amann, Ma, Manns, Marinescu, Markus F. Neurath, Peter Vandenabeele, Pine, Siebler, Stefan Krautwald, Stefan Wirtz, Ulrike Schleicher   +24 more
core   +1 more source

Essential versus accessory aspects of cell death: recommendations of the NCCD 2015 [PDF]

, 2014
Cells exposed to extreme physicochemical or mechanical stimuli die in an uncontrollable manner, as a result of their immediate structural breakdown. Such an unavoidable variant of cellular demise is generally referred to as ‘accidental cell death’ (ACD).
A Ciechanover, A Criollo, A Degterev, A Degterev, A Degterev, A Gross, A Hochreiter-Hufford, A Kaczmarek, A Linkermann, A Linkermann, A Linkermann, A Linkermann, A Nagasaka, A Oberst, A Oberst, A Pogrebniak, A Rebbaa, A Strasser, A Villunger, AA Fatokun, AA Mailleux, AC Schinzel, AD Dam, AG Fraser, AJ Schile, AM Chinnaiyan, AM Chinnaiyan, AM Choi, AM Verhagen, AU Lindner, AV Vaseva, B D Dynlacht, B Joseph, B La Scola, B La Scola, B Levine, B R Stockwell, B Zhivotovsky, B Zhivotovsky, BA Gibson, BB Wolf, BH Han, C Borner, C Brenner, C Brenner, C Brenner, C Brenner, C Du, C Garrido, C Garrido, C López-Otín, C M Rodrigues, C Munoz-Pinedo, C Muñoz-Pinedo, C Scaffidi, C Scheller, C Volbracht, C Volbracht, CM Haynes, CO Bellamy, CP Baines, CP Baines, CP Dillon, D Adam, D Andrews, D C Rubinsztein, D Chandra, D Denton, D Denton, D Denton, D Denton, D Denton, D E Bredesen, D Grander, D J Klionsky, D R Green, D Raoult, D Ren, D Vercammen, D Vercammen, D Vercammen, D Xue, D Zhu, DA Fruman, DC Rubinsztein, DE Bredesen, DJ Klionsky, DL Berry, DL Vaux, DM Moujalled, DM Moujalled, DM Underhill, DR Green, DR Green, DV Krysko, DV Krysko, DW Zhang, E Basso, E Candi, E F Wagner, E H Baehrecke, E H Cheng, E Laane, E Lugli, E Murphy, E Noch, E S Alnemri, E Tasdemir, E White, E White, EA Minina, EA Slee, EA Slee, EH Baehrecke, EJ Park, F Basit, F Cecconi, F Cecconi, F Gonzalvez, F K Chan, F Madeo, F Pietrocola, F Verrier, FC Kischkel, FH Igney, G A Rabinovich, G Denecker, G Hajnoczky, G Kroemer, G Kroemer, G Kroemer, G Kroemer, G Kroemer, G Kroemer, G Kroemer, G Lettre, G M Fimia, G Marino, G Melino, G Nuñez, G Szabadkai, G Trichonas, G Van Loo, GP Sims, H Gronemeyer, H Ichijo, H Kanuka, H Kenis, H Khalil, H Kim, H L Tang, H Pearson, H Puthalakath, H Puthalakath, H Puthalakath, H Varma, H Wajant, H Walczak, H Walczak, H Wang, H Yoshida, H Zhu, H Zou, H-U Simon, HI Roach, HL Tang, HL Tang, I Amelio, I Martinou, I Vitale, IK Poon, IP Nezis, J A Cidlowski, J E Chipuk, J H Prehn, J Hitomi, J J Lemasters, J Li, J M Abrams, J M Bravo-San Pedro, J M Hardwick, J M Penninger, J Michels, J P Medema, J Sosna, J Wu, J Yang, J Yuan, J Yuan, J Zhao, J-C Marine, J-C Martinou, JA Rickard, JC Reed, JE Chipuk, JE Chipuk, JE Vince, JF Kerr, JG Albeck, JG Albeck, JH Shin, JJ Lemasters, JL Luo, JM Hardwick, JM Murphy, JS Long, JU Schweichel, JW Upton, K Bianchi, K Blomgren, K Kehe, K Kuida, K Kuida, K Miyazaki, K Newton, K Nihira, K Prabhakaran, K Richter, K S Ravichandran, K Segawa, K Tracy, K-M Debatin, KA Spriggs, KC Zimmermann, KN Alavian, KR Knight, L Altucci, L Duprez, L Galluzzi, L Galluzzi, L Galluzzi, L Galluzzi, L Galluzzi, L Galluzzi, L Galluzzi, L Galluzzi, L Galluzzi, L Mondragon, L Steinhart, L Sun, L Zitvogel, LC Gomes, M Ankarcrona, M Annicchiarico-Petruzzelli, M Arundine, M Bonora, M Campanella, M Campanella, M Chautan, M D'Amelio, M E Peter, M Elgendy, M Endres, M Irmler, M J Bertrand, M Leist, M Los, M MacFarlane, M Mediavilla-Varela, M Muzio, M O Hengartner, M Okada, M Overholtzer, M Piacentini, M V Blagosklonny, M Woo, M-L Gougeon, MA Burguillos, MA Hughes, MA Mellen, MA Mellen, MA O'Donnell, MB Jensen, MC Wei, ME Peter, MJ Bertrand, ML Coleman, N Di Daniele, N G Bazan, N Holler, N Honarpour, N Mizushima, N Mizushima, N S Chandel, N Tavernarakis, N Vanlangenakker, N Vanlangenakker, N Vanlangenakker, NJ Curtin, NJ McCarthy, NN Danial, O Kepp, O Kepp, O Krysko, P Bouillet, P Golstein, P J Jost, P Kraft, P Li, P Mazzarello, P Meier, P Nicotera, P Nicotera, P Pacher, P Pinton, P Saikumar, P Schotte, P Vandenabeele, P Vandenabeele, P Vandenabeele, P Vandenabeele, PE Czabotar, PG Clarke, PJ Jost, PS Brookes, Q Remijsen, Q Zhang, R A Flavell, R A Knight, R A Lockshin, R De Maria, R Hakem, R Rashmi, R Rizzuto, R Skouta, R Weinlich, RA Lockshin, RA Lockshin, RC Taylor, RJ O'Brien, RM del Moral, RU Janicke, RW Oppenheim, S A Aaronson, S A Lipton, S Barut, S Bhattacharyya, S Dolma, S Enzenmuller, S Fulda, S Fulda, S Grootjans, S He, S J Martin, S Jouan-Lanhouet, S Kumar, S Kumar, S Melino, S Morioka, S Renolleau, S Tan, S Vallabhapurapu, S W Tait, S Zelenay, SA Lakhani, SA Susin, SB Bratton, SC Chow, SJ Dixon, SJ Dixon, SJ Kim, SJ Martin, SJ Martin, SM Knoblach, SM Laster, SM Srinivasula, SN Willis, SW Tait, SW Tait, SW Tait, SW Tait, SW Tait, SW Yu, SW Yu, SY Chen, T Hirsch, T Ide, T Kaufmann, T Lindsten, T M Dawson, T Nakagawa, T Nakamura, T Panaretakis, T Rudel, T Tenev, T Vanden Berghe, T Vanden Berghe, T Vanden Berghe, T Vanden Berghe, T Vanden Berghe, TG Cotter, TJ Daish, TJ Fan, TM Caserta, U Moll, V De Laurenzi, V Giorgio, V Gogvadze, V L Dawson, V Labi, V M Dixit, V Nikoletopoulou, W Fiers, W G Wood, W Han, W Han, W Hou, W Malorni, W S El-Deiry, W Zhang, WJ Kaiser, WJ Kaiser, WS Yang, WW Chen, X Chen, X Li, X Liu, X Luo, X Pan, XM Yin, Y Ben-Neriah, Y Dondelinger, Y Dondelinger, Y Eguchi, Y Fuchs, Y Li, Y Liu, Y Rong, Y Shi, Y Tsujimoto, Y Wang, Y Zaltsman, YP Ow, YS Cho, Z Cai, Z Song, Z Wang, Z Zakeri, ZA Dunai   +438 more
core   +17 more sources

Optineurin functions for optimal immunity [PDF]

, 2018
Optineurin (OPTN) was identified 20 years ago in a yeast-two-hybrid screen with a viral protein known to inhibit the cytolytic effects of tumor necrosis factor.
Slowicka, Karolina, van Loo, Geert
core   +1 more source

RIPK1 regulates starvation resistance by modulating aspartate catabolism [PDF]

Nature Communications, 2021
AbstractRIPK1 is a crucial regulator of cell death and survival. Ripk1 deficiency promotes mouse survival in the prenatal period while inhibits survival in the early postnatal period without a clear mechanism. Metabolism regulation and autophagy are critical to neonatal survival from severe starvation at birth.
Xinyu Mei, Yuan Guo, Zhangdan Xie, Yedan Zhong, Xiaofen Wu, Daichao Xu, Ying Li, Nan Liu, Zheng-Jiang Zhu   +8 more
openaire   +3 more sources