White-nose syndrome increases torpid metabolic rate and evaporative water loss in hibernating bats

Fungal diseases of wildlife typically manifest as superficial skin infections but can have devastating consequences for host physiology and survival. White-nose syndrome (WNS) is a fungal skin disease that has killed millions of hibernating bats in North America since 2007. Infection with the fungus...

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Veröffentlicht in:American journal of physiology. Regulatory, integrative and comparative physiology integrative and comparative physiology, 2017-12, Vol.313 (6), p.R680-R686
Hauptverfasser: McGuire, Liam P, Mayberry, Heather W, Willis, Craig K R
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container_end_page R686
container_issue 6
container_start_page R680
container_title American journal of physiology. Regulatory, integrative and comparative physiology
container_volume 313
creator McGuire, Liam P
Mayberry, Heather W
Willis, Craig K R
description Fungal diseases of wildlife typically manifest as superficial skin infections but can have devastating consequences for host physiology and survival. White-nose syndrome (WNS) is a fungal skin disease that has killed millions of hibernating bats in North America since 2007. Infection with the fungus causes bats to rewarm too often during hibernation, but the cause of increased arousal rates remains unknown. On the basis of data from studies of captive and free-living bats, two mechanistic models have been proposed to explain disease processes in WNS. Key predictions of both models are that WNS-affected bats will show ) higher metabolic rates during torpor (TMR) and ) higher rates of evaporative water loss (EWL). We collected bats from a WNS-negative hibernaculum, inoculated one group with , and sham-inoculated a second group as controls. After 4 mo of hibernation, TMR and EWL were measured using respirometry. Both predictions were supported, and our data suggest that infected bats were more affected by variation in ambient humidity than controls. Furthermore, disease severity, as indicated by the area of the wing with UV fluorescence, was positively correlated with EWL, but not TMR. Our results provide the first direct evidence that heightened energy expenditure during torpor and higher EWL independently contribute to WNS pathophysiology, with implications for the design of potential treatments for the disease.
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White-nose syndrome (WNS) is a fungal skin disease that has killed millions of hibernating bats in North America since 2007. Infection with the fungus causes bats to rewarm too often during hibernation, but the cause of increased arousal rates remains unknown. On the basis of data from studies of captive and free-living bats, two mechanistic models have been proposed to explain disease processes in WNS. Key predictions of both models are that WNS-affected bats will show ) higher metabolic rates during torpor (TMR) and ) higher rates of evaporative water loss (EWL). We collected bats from a WNS-negative hibernaculum, inoculated one group with , and sham-inoculated a second group as controls. After 4 mo of hibernation, TMR and EWL were measured using respirometry. Both predictions were supported, and our data suggest that infected bats were more affected by variation in ambient humidity than controls. Furthermore, disease severity, as indicated by the area of the wing with UV fluorescence, was positively correlated with EWL, but not TMR. 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subjects Animal diseases
Animals
Arousal
Ascomycota - classification
Ascomycota - pathogenicity
Bats
Body Temperature Regulation
Chiroptera
Chiroptera - metabolism
Chiroptera - microbiology
Correlation analysis
Dermatomycoses - metabolism
Dermatomycoses - microbiology
Dermatomycoses - physiopathology
Dermatomycoses - veterinary
Disease control
Energy expenditure
Energy Metabolism
Environment
Fluorescence
Fungal diseases
Fungi
Hibernation
Humidity
Infections
Male
Mathematical models
Medical treatment
Metabolic rate
Nose
Respirometry
Severity of Illness Index
Skin diseases
Therapeutic applications
Time Factors
Torpor
Up-Regulation
Water loss
Water Loss, Insensible
White-nose syndrome
Wildlife
title White-nose syndrome increases torpid metabolic rate and evaporative water loss in hibernating bats
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