J 2021

Homeostatic model of human thermoregulation with bi-stability

ECLEROVÁ, Veronika, Filip ZLÁMAL, Peter LENÁRT and Julie DOBROVOLNÁ

Basic information

Original name

Homeostatic model of human thermoregulation with bi-stability

Authors

ECLEROVÁ, Veronika (203 Czech Republic, belonging to the institution), Filip ZLÁMAL (203 Czech Republic, belonging to the institution), Peter LENÁRT (703 Slovakia, belonging to the institution) and Julie DOBROVOLNÁ (203 Czech Republic, guarantor, belonging to the institution)

Edition

Scientific Reports, London, Nature Publishing Group, 2021, 2045-2322

Other information

Language

English

Type of outcome

Article in a journal

Country of publisher

Germany

Confidentiality degree

is not subject to a state or trade secret

References:

RIV identification code

RIV/00216224:14310/21:00122533

Organization

Přírodovědecká fakulta – Repository – Repository

UT WoS

000693354000043

EID Scopus

2-s2.0-85113899428

Keywords in English

BIFURCATION-ANALYSIS; CATASTROPHE-THEORY; MATCONT

Links

EF15_003/0000469, research and development project. EF17_043/0009632, research and development project. LM2018121, research and development project. MUNI/A/1418/2019, interní kód Repo. 857560, interní kód Repo.
Changed: 8/11/2023 03:29, RNDr. Daniel Jakubík

Abstract

V originále

All homoiothermic organisms are capable of maintaining a stable body temperature using various negative feedback mechanisms. However, current models cannot satisfactorily describe the thermal adaptation of homoiothermic living systems in a physiologically meaningful way. Previously, we introduced stress entropic load, a novel variable designed to quantify adaptation costs, i.e. the stress of the organism, using a thermodynamic approach. In this study, we use stress entropic load as a starting point for the construction of a novel dynamical model of human thermoregulation. This model exhibits bi-stable mechanisms, a physiologically plausible features which has thus far not been demonstrated using a mathematical model. This finding allows us to predict critical points at which a living system, in this case a human body, may proceed towards two stabilities, only one of which is compatible with being alive. In the future, this may allow us to quantify not only the direction but rather the extent of therapeutic intervention in critical care patients.

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