High-speed imaging of ESCRT recruitment and dynamics during HIV virus like particle budding

Endosomal sorting complexes required for transport proteins (ESCRT) catalyze the fission of cellular membranes during budding of membrane away from the cytosol. Here we have used Total Internal Reflection Fluorescence (TIRF) microscopy to visualize the recruitment of ESCRTs specifically, ALIX, CHMP4...

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Veröffentlicht in:PloS one 2020-09, Vol.15 (9), p.e0237268-e0237268
Hauptverfasser: Gupta, Shilpa, Bromley, Josh, Saffarian, Saveez
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Bromley, Josh
Saffarian, Saveez
description Endosomal sorting complexes required for transport proteins (ESCRT) catalyze the fission of cellular membranes during budding of membrane away from the cytosol. Here we have used Total Internal Reflection Fluorescence (TIRF) microscopy to visualize the recruitment of ESCRTs specifically, ALIX, CHMP4b and VPS4 onto the budding HIV Gag virus-like particles (VLPs). We imaged the budding VLPs with 200 millisecond time resolution for 300 frames. Our data shows three phases for ESCRT dynamics: 1) recruitment in which subunits of ALIX, CHMP4b and VPS4 are recruited with constant proportions on the budding sites of HIV Gag virus like particles for nearly 10 seconds, followed by 2) disassembly of ALIX and CHMP4b while VPS4 signal remains constant for nearly 20 seconds followed by 3) disassembly of VPS4. We hypothesized that the disassembly observed in step 2 was catalyzed by VPS4 and powered by ATP hydrolysis. To test this hypothesis, we performed ATP depletion using (-) glucose medium, deoxyglucose and oligomycin. Imaging ATP depleted cells, we show that the disassembly of CHMP4b and ALIX observed in step 2 is ATP dependent. ATP depletion resulted in the recruitment of approximately 2-fold as many subunits of all ESCRTs. Resuming ATP production in cells, resulted in disassembly of the full ESCRT machinery which had been locked in place during ATP depletion. With some caveats, our experiments provide insight into the formation of the ESCRT machinery at the budding site of HIV during budding.
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ATP depletion resulted in the recruitment of approximately 2-fold as many subunits of all ESCRTs. Resuming ATP production in cells, resulted in disassembly of the full ESCRT machinery which had been locked in place during ATP depletion. 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subjects Acquired immune deficiency syndrome
AIDS
ATP
Biology and Life Sciences
Budding
Cell membranes
Cytosol
Deoxyglucose
Depletion
Dismantling
Experiments
Fluorescence
Gag protein
Genomes
HIV
Human immunodeficiency virus
Infrared imaging systems
Lasers
Medicine and Health Sciences
Microscopy
Oligomycin
Organelles
Phase transitions
Physics
Physiological aspects
Protein transport
Proteins
Research and Analysis Methods
Salt
Transport proteins
Viral research
Virus replication
Virus-like particles
Viruses
title High-speed imaging of ESCRT recruitment and dynamics during HIV virus like particle budding
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