Thermoneutrality and Immunity: How Does Cold Stress Affect Disease?

One of the major challenges the scientific community faces today is the lack of translational data generated from mouse trials for human health application. Housing temperature-dependent chronic cold stress in laboratory rodents is one of the key factors contributing to lack of translatability becau...

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Main Authors: Fiorella Vialard, Martin Olivier
Format: Article
Language:English
Published: Frontiers Media S.A. 2020-11-01
Series:Frontiers in Immunology
Subjects:
Online Access:https://www.frontiersin.org/articles/10.3389/fimmu.2020.588387/full
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spelling doaj-b14bb0f017034e85b6bec21d56543fff2020-11-25T04:11:11ZengFrontiers Media S.A.Frontiers in Immunology1664-32242020-11-011110.3389/fimmu.2020.588387588387Thermoneutrality and Immunity: How Does Cold Stress Affect Disease?Fiorella VialardMartin OlivierOne of the major challenges the scientific community faces today is the lack of translational data generated from mouse trials for human health application. Housing temperature-dependent chronic cold stress in laboratory rodents is one of the key factors contributing to lack of translatability because it reveals major metabolic differences between humans and rodents. While humans tend to operate at temperatures within their thermoneutral zone, most laboratory rodents are housed at temperatures below this zone and have an increased energy demand to generate heat. This has an impact on the immune system of mice and thus affects results obtained using murine models of human diseases. A limited number of studies and reviews have shown that results obtained on mice housed at thermoneutrality were different from those obtained from mice housed in traditional housing conditions. Most of those studies, focused on obesity and cancer, found that housing mice at thermoneutrality changed the outcomes of the diseases negatively and positively, respectively. In this review, we describe how thermoneutrality impacts the immune system of rodents generally and in the context of different disease models. We show that thermoneutrality exacerbates cardiovascular and auto-immune diseases; alleviates asthma and Alzheimer’s disease; and, changes gut microbiome populations. We also show that thermoneutrality can have exacerbating or alleviating effects on the outcome of infectious diseases. Thus, we join the call of others in this field to urge researchers to refine murine models of disease and increase their translational capacity by considering housing at thermoneutrality for trials involving rodents.https://www.frontiersin.org/articles/10.3389/fimmu.2020.588387/fullthermoneutralitymurine modelimmune functionsinfectious diseasesmetabolismbody temperature
collection DOAJ
language English
format Article
sources DOAJ
author Fiorella Vialard
Martin Olivier
spellingShingle Fiorella Vialard
Martin Olivier
Thermoneutrality and Immunity: How Does Cold Stress Affect Disease?
Frontiers in Immunology
thermoneutrality
murine model
immune functions
infectious diseases
metabolism
body temperature
author_facet Fiorella Vialard
Martin Olivier
author_sort Fiorella Vialard
title Thermoneutrality and Immunity: How Does Cold Stress Affect Disease?
title_short Thermoneutrality and Immunity: How Does Cold Stress Affect Disease?
title_full Thermoneutrality and Immunity: How Does Cold Stress Affect Disease?
title_fullStr Thermoneutrality and Immunity: How Does Cold Stress Affect Disease?
title_full_unstemmed Thermoneutrality and Immunity: How Does Cold Stress Affect Disease?
title_sort thermoneutrality and immunity: how does cold stress affect disease?
publisher Frontiers Media S.A.
series Frontiers in Immunology
issn 1664-3224
publishDate 2020-11-01
description One of the major challenges the scientific community faces today is the lack of translational data generated from mouse trials for human health application. Housing temperature-dependent chronic cold stress in laboratory rodents is one of the key factors contributing to lack of translatability because it reveals major metabolic differences between humans and rodents. While humans tend to operate at temperatures within their thermoneutral zone, most laboratory rodents are housed at temperatures below this zone and have an increased energy demand to generate heat. This has an impact on the immune system of mice and thus affects results obtained using murine models of human diseases. A limited number of studies and reviews have shown that results obtained on mice housed at thermoneutrality were different from those obtained from mice housed in traditional housing conditions. Most of those studies, focused on obesity and cancer, found that housing mice at thermoneutrality changed the outcomes of the diseases negatively and positively, respectively. In this review, we describe how thermoneutrality impacts the immune system of rodents generally and in the context of different disease models. We show that thermoneutrality exacerbates cardiovascular and auto-immune diseases; alleviates asthma and Alzheimer’s disease; and, changes gut microbiome populations. We also show that thermoneutrality can have exacerbating or alleviating effects on the outcome of infectious diseases. Thus, we join the call of others in this field to urge researchers to refine murine models of disease and increase their translational capacity by considering housing at thermoneutrality for trials involving rodents.
topic thermoneutrality
murine model
immune functions
infectious diseases
metabolism
body temperature
url https://www.frontiersin.org/articles/10.3389/fimmu.2020.588387/full
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