PubHawk
October 2010 PMID 20195180

Critical power: implications for determination of V˙O2max and exercise tolerance.

Andrew M Jones, Anni Vanhatalo, Mark Burnley, R Hugh Morton, David C Poole

Full text PDF Download social card

Mentions

5
Peak: 2 in Jan 2021
across 3 sources since Jan 2021

Extended reach

7,972
potential audience

Total likes

188

Video views

5,391

Mentions per month

Jan 2021 – Nov 2022

Where it's discussed

  • X / Twitter2 posts
  • YouTube2 videos
  • News1 articles

AI synopsis

What people are saying

The overall tone reflects basic familiarity with the publication, illustrated by references to specific sections like 'table 1' and comments about a new video discussing watts. The word choices and brevity suggest surface-level engagement, highlighting recognition but not deep analysis or debate.

AgreementNeither agree nor disagree

The discussions show limited explicit support or disagreement with the publication, primarily referencing the content without clear alignment or opposition.

InterestModerate interest

Interest appears modest, as participants mention topics like watts and refer to the article with some curiosity but without deep analysis.

EngagementNeutral engagement

The engagement level is neutral; posts mention specific details, such as 'table 1' or 'watts,' indicating some attention but not extensive discussion or critique.

ImpactNeutral impact

The discussions seem to have little influence on broader conversations, primarily noting the publication without demonstrating substantial influence or calls for action.

Abstract in brief

  • The text explains that the time to exhaustion during high-intensity exercise follows a predictable hyperbolic pattern based on power or velocity, characterized by critical power (CP) or critical velocity (CV), which represents the maximum sustainable rate of energy (mostly oxygen-based ATP production) without tapping into energy stores.
  • It emphasizes that when energy reserves (W) are depleted, the tolerated exercise duration ends, and the critical power concept helps in understanding fatigue, performance limits, and muscular physiology in athletes.
  • The review discusses various mathematical models of critical power, new research on its underlying mechanisms, and its wide applicability in improving personal athletic performance and understanding exercise-related fatigue.
Read the full abstract

Top posts

Most liked on X and Bluesky
EM- SportScience
@EMsportscience · X

@chuurveg @JPohlkampHartt @aaronzpearson 1) https://t.co/Cr5DLzUifr (see table 1) 2) https://t.co/QCkfrISImD 3) https://t.co/UZm8GffoCn

Feb 14, 2021 · 3 likes · 2,494 followers View post →
Le Cycliste Belge
@MarlierAlex · X

https://t.co/LeFDZ5vUrQ Ma nouvelle video est dispo et elle parle de watts! https://t.co/E5QnrLCAdV

Jan 18, 2021 · 1 like · 77 followers View post →

All mentions

EM- SportScience
@EMsportscience · X

@chuurveg @JPohlkampHartt @aaronzpearson 1) https://t.co/Cr5DLzUifr (see table 1) 2) https://t.co/QCkfrISImD 3) https://t.co/UZm8GffoCn

Feb 14, 2021 · 3 likes · 2,494 followers View post →
Le Cycliste Belge
@MarlierAlex · X

https://t.co/LeFDZ5vUrQ Ma nouvelle video est dispo et elle parle de watts! https://t.co/E5QnrLCAdV

Jan 18, 2021 · 1 like · 77 followers View post →
Utility of The W BAL Model in Training Programme Design For ...
News

https://doi.org/10.1249/MSS. Bossi, A. H., Mesquida, C., Passfield, L., Rønnestad, B. R., & 0b013e3181d9cf7f. Hopker, J. G. (2020). Optimizing ...

Nov 9, 2022 View →