Anthranilate Fluorescence Marks a Calcium-Propagated Necrotic Wave That Promotes Organismal Death in C. elegans: e1001613

For cells the passage from life to death can involve a regulated, programmed transition. In contrast to cell death, the mechanisms of systemic collapse underlying organismal death remain poorly understood. Here we present evidence of a cascade of cell death involving the calpain-cathepsin necrosis p...

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Veröffentlicht in:PLoS biology 2013-07, Vol.11 (7)
Hauptverfasser: Coburn, Cassandra, Allman, Erik, Mahanti, Parag, Benedetto, Alexandre, Cabreiro, Filipe, Pincus, Zachary, Matthijssens, Filip, Araiz, Caroline, Mandel, Abraham, Vlachos, Manolis, Edwards, Sally-Anne, Fischer, Grahame, Davidson, Alexander, Pryor, Rosina E, Stevens, Ailsa, Slack, Frank J, Tavernarakis, Nektarios, Braeckman, Bart P, Schroeder, Frank C, Nehrke, Keith, Gems, David
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container_issue 7
container_start_page
container_title PLoS biology
container_volume 11
creator Coburn, Cassandra
Allman, Erik
Mahanti, Parag
Benedetto, Alexandre
Cabreiro, Filipe
Pincus, Zachary
Matthijssens, Filip
Araiz, Caroline
Mandel, Abraham
Vlachos, Manolis
Edwards, Sally-Anne
Fischer, Grahame
Davidson, Alexander
Pryor, Rosina E
Stevens, Ailsa
Slack, Frank J
Tavernarakis, Nektarios
Braeckman, Bart P
Schroeder, Frank C
Nehrke, Keith
Gems, David
description For cells the passage from life to death can involve a regulated, programmed transition. In contrast to cell death, the mechanisms of systemic collapse underlying organismal death remain poorly understood. Here we present evidence of a cascade of cell death involving the calpain-cathepsin necrosis pathway that can drive organismal death in Caenorhabditis elegans. We report that organismal death is accompanied by a burst of intense blue fluorescence, generated within intestinal cells by the necrotic cell death pathway. Such death fluorescence marks an anterior to posterior wave of intestinal cell death that is accompanied by cytosolic acidosis. This wave is propagated via the innexin INX-16, likely by calcium influx. Notably, inhibition of systemic necrosis can delay stress-induced death. We also identify the source of the blue fluorescence, initially present in intestinal lysosome-related organelles (gut granules), as anthranilic acid glucosyl esters--not, as previously surmised, the damage product lipofuscin. Anthranilic acid is derived from tryptophan by action of the kynurenine pathway. These findings reveal a central mechanism of organismal death in C. elegans that is related to necrotic propagation in mammals--e.g., in excitotoxicity and ischemia-induced neurodegeneration. Endogenous anthranilate fluorescence renders visible the spatio-temporal dynamics of C. elegans organismal death.
doi_str_mv 10.1371/journal.pbio.1001613
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subjects Acids
Apoptosis
Ischemia
Mammals
Nematodes
Neurodegeneration
Young adults
title Anthranilate Fluorescence Marks a Calcium-Propagated Necrotic Wave That Promotes Organismal Death in C. elegans: e1001613
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