Wagner diagram for modeling O2 pathway : calculation and graphical display by the Helsinki O2 Pathway Tool

Wagner diagram for modeling O2 pathway : calculation and graphical display by the Helsinki O2 Pathway Tool

Publiceringsår

2024

Upphovspersoner

Rissanen, Antti-Pekka E.; Mikkola, Tom; Gagnon, Dominique D.; Lehtonen, Elias; Lukkarinen, Sakari; Peltonen, Juha E.

Abstrakt

Maximal O2 uptake (VO2max) reflects the individual’s maximal rate of O2 transport and utilization through the integrated whole-body pathway composed of the lungs, heart, blood, circulation, and metabolically active tissues. As such, VO2max is strongly associated with physical capacity as well as overall health and thus acts as one predictor of physical performance and as a vital sign in determination of status and progress of numerous clinical conditions. Quantifying the contribution of single parts of the multistep O2 pathway to VO2max provides mechanistic insights into exercise (in)tolerance and into therapy-, training-, or disuse-induced adaptations at individual or group levels. We developed a desktop application (Helsinki O2 Pathway Tool—HO2PT) to model numerical and graphical display of the O2 pathway based on the ‘Wagner diagram’ originally formulated by Peter D. Wagner and his colleagues. Approach. The HO2PT was developed and programmed in Python to integrate the Fick principle and Fick’s law of diffusion into a computational system to import, calculate, graphically display, and export variables of the Wagner diagram. Main results. The HO2PT models O2 pathway both numerically and graphically according to the Wagner diagram and pertains to conditions under which the mitochondrial oxidative capacity of metabolically active tissues exceeds the capacity of the O2 transport system to deliver O2 to the mitochondria. The tool is based on the Python open source code and libraries and freely and publicly available online for Windows, macOS, and Linux operating systems. Significance. The HO2PT offers a novel functional and demonstrative platform for those interested in examining VO2max and its determinants by using the Wagner diagram. It will improve access to and usability of Wagner’s and his colleagues’ integrated physiological model and thereby benefit users across the wide spectrum of contexts such as scientific research, education, exercise testing, sports coaching, and clinical medicine.
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Organisationer och upphovspersoner

Helsingfors universitet

Rissanen Antti-Pekka E.

Gagnon Dominique D.

Lehtonen Elias

Peltonen Juha

Jyväskylä universitet

Gagnon Dominique Orcid -palvelun logo

Helsingforsregionens universitetscentralsjukhus specialupptagningsområde

Rissanen Antti-Pekka E.

Gagnon Dominique D.

Lehtonen Elias

Peltonen Juha

Publikationstyp

Publikationsform

Artikel

Moderpublikationens typ

Tidning

Artikelstyp

En originalartikel

Målgrupp

Vetenskaplig

Kollegialt utvärderad

Kollegialt utvärderad

UKM:s publikationstyp

A1 Originalartikel i en vetenskaplig tidskrift

Publikationskanalens uppgifter

Moderpublikationens namn

Physiological Measurement

Volym

45

Nummer

5

Artikelnummer

055028

Publikationsforum

65067

Publikationsforumsnivå

1

Öppen tillgång

Öppen tillgänglighet i förläggarens tjänst

Ja

Öppen tillgång till publikationskanalen

Delvis öppen publikationskanal

Licens för förläggarens version

CC BY

Parallellsparad

Ja

Övriga uppgifter

Vetenskapsområden

Medicinsk teknik; Gymnastik- och idrottsvetenskap; Allmänmedicin, inre medicin och annan klinisk medicin

Publiceringsland

Förenade kungariket

Förlagets internationalitet

Internationell

Språk

engelska

Internationell sampublikation

Ja

Sampublikation med ett företag

Nej

DOI

10.1088/1361-6579/ad4c36

Publikationen ingår i undervisnings- och kulturministeriets datainsamling

Ja

Wagner diagram for modeling O2 pathway : calculation and graphical display by the Helsinki O2 Pathway Tool - Forskning.fi