Wellness Routines
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10 sources: 4 crossover trials, 3 meta-analyses, 3 systematic reviews
Recovery · 10 min slot · as needed

Active Recovery

Active recovery lasting 6–10 minutes shows consistently positive performance effects in the review behind this. The same review reports that for repeated-sprint and high-intensity interval contexts, passive recovery frequently preserves subsequent power better, so the choice depends on the demand of the next bout and the time available.

How often: as needed · planning default, not from the research
When: any time · the sources state no time of day; the planner's slot is a default
The time slot is a planning choice: a swap can keep it.

The evidence applies to the practice, not to these particular steps — they are one way to carry it out.

  1. 1
    Six to Ten Minutes of Active Recovery
    6–10 min
    Active recovery at low intensity.
    Slot: active recovery
    Scaffold: app-designed stepMeets the finding's dose
    No option on this bench from any review

    No completed Round-2 review has named a practice for active recovery that an extraction row placed in it. That is a gap in the knowledge base, not in this step: the step’s own exercise stands, and there is nothing yet to swap it for.

Safety, and where each line comes from
2 product safeguard (app-authored)1 source silent

Each line below says where it comes from. “Reported by the review’s sources” is the source’s own words about adverse events or contraindications. “Product safeguard” is written by this app, not by the research. “Source silent” means the studies behind this routine report nothing on that point, which is not the same as saying it carries no risk.

Who should modify or avoid this

  • Product safeguard (app-authored)Applies broadly to the populations listed in population_tags.
    From this routine’s block record, written by this app.
  • Source silentThe sources behind this routine's finding report no contraindications or population restrictions.

When to seek supervision or clearance

  • Product safeguard (app-authored)Signs of a medical emergency (chest pain or pressure, trouble breathing, fainting, sudden weakness or numbness) mean 911 or your local emergency services; thoughts of self-harm or suicide mean the 988 Suicide & Crisis Lifeline. This app does not diagnose, treat or give personalised medical advice.
How to do it

The review behind this reports that active recovery lasting 6–10 minutes shows consistently positive performance effects, and that active recovery has support for clearing blood lactate and creatine kinase. It also reports the limit: for repeated-sprint and high-intensity interval contexts, passive recovery frequently preserves subsequent power and reduces physiological stress better than active recovery, so the choice depends on the demand of the next bout and the time available.

  • Six to ten minutes of easy, continuous movement at low intensity.
  • Active recovery is light, continuous movement in the minutes after a hard effort, in place of stopping outright.
What the evidence says
The evidence is inherited from the practice this routine implements. Any duration is allowed; the label shows where you land against the studied dose.

This practice is one way to carry out what the sources on the concept entry (phys.recovery.active-vs-passive-recovery) studied: active against passive recovery. Gu 2021 (meta-analysis) reports lower creatine kinase and blood lactate with active recovery than control; Ortiz 2019 (systematic review) reports that active recovery lasting 6 to 10 minutes consistently benefited performance; Perrier-Melo 2020 (systematic review) reports greater high-intensity interval performance with passive recovery; Madueno 2019 (systematic review) reports smaller performance decrement with passive recovery between running repeated sprints, with equivocal findings in cycling; and Brown 2014 (crossover) reports passive recovery favouring short rests and active recovery longer ones. The full account, source by source, is on the concept entry this practice links to (phys.recovery.active-vs-passive-recovery).

Key sources
meta-analysisAn Evidence-Based Approach for Choosing Post-exercise Recovery Techniques to Reduce Markers of Muscle Damage, Soreness, Fatigue, and Inflammation: A Systematic Review With Meta-AnalysisO. Dupuy, W. Douzi, D. Theurot, L. Bosquet, B. Dugué (2018) · Frontiers in Physiology · 10.3389/fphys.2018.00403 · screened only
meta-analysisEffects of post-exercise recovery methods on exercise-induced hormones and blood fatigue factors: a systematic review and meta-analysis.Pei‐lun Gu, Linhua Zhang, Ximing Zheng, Xinan Zhang (2021) · Annals of Palliative Medicine · 10.21037/apm-20-2409 · screened only
systematic reviewA systematic review examining the physiological, perceptual, and performance effects of active and passive recovery modes applied between repeated-sprints.María C Madueno, J. Guy, V. Dalbo, A. Scanlan (2019) · Journal of Sports Medicine and Physical Fitness · 10.23736/s0022-4707.18.09188-0 · screened only
Each source is shown by its own study design.
10 sources: 4 crossover trials, 3 meta-analyses, 3 systematic reviews
Agreement
Direction recorded for 0 of 10 sources; not yet recorded for the rest.
The claim's outcome
Outcome not yet recorded
Certainty
No source states a certainty rating.
What each source measured and concluded (10)
meta-analysis · 2018
Dupuy et al. (2018) — An Evidence-Based Approach for Choosing Post-exercise Recovery Techniques to Reduce Markers of Muscle Damage, Soreness, Fatigue, and Inflammation: A Systematic Review With Meta-Analysis
What it measured
Impact of recovery techniques on DOMS, perceived fatigue, muscle damage, and inflammatory markers
How it was read
screened only, not extracted
What the review says it includes
Systematic review with meta-analysis
Studies and participants, as stated
99 studies
meta-analysis · 2021
Gu et al. (2021) — Effects of post-exercise recovery methods on exercise-induced hormones and blood fatigue factors: a systematic review and meta-analysis.
What it measured
Exercise-induced hormones and blood fatigue factors (creatine kinase, blood lactate)
How it was read
screened only, not extracted
What the review says it includes
Systematic review and meta-analysis
Studies and participants, as stated
10 studies, 278 cases (148 study group, 130 control)
systematic review · 2019
Madueno et al. (2019) — A systematic review examining the physiological, perceptual, and performance effects of active and passive recovery modes applied between repeated-sprints.
What it measured
Acute physiological, perceptual, and performance effects of active vs passive recovery between repeated sprints
How it was read
screened only, not extracted
What the review says it includes
Systematic review (PRISMA)
Studies and participants, as stated
9 studies (5 running, 4 cycling)
systematic review · 2019
Ortiz et al. (2019) — A Systematic Review on the Effectiveness of Active Recovery Interventions on Athletic Performance of Professional-, Collegiate-, and Competitive-Level Adult Athletes.
What it measured
Athletic performance following post-exertion active recovery (AR) interventions
How it was read
screened only, not extracted
What the review says it includes
Systematic review
Studies and participants, as stated
26 articles, 471 subjects
meta-analysis · 2026
Hou et al. (2026) — Acute and Delayed Effects of Post-Exercise Recovery Strategies on Explosive Performance and Markers of Muscle Damage: A Systematic Review and Network Meta-Analysis
What it measured
Countermovement jump (CMJ), delayed-onset muscle soreness (DOMS), and creatine kinase (CK) during acute and delayed recovery
How it was read
screened only, not extracted
systematic review · 2020
Perrier-Melo et al. (2020) — Effect of active versus passive recovery on performance-related outcome during high - intensity interval exercise: a systematic review.
What it measured
Performance during repeated high-intensity interval exercise (power output, repeated-sprint ability, distance)
How it was read
screened only, not extracted
What the review says it includes
Systematic review
Studies and participants, as stated
26 studies (17 power output, 9 repeated-sprint, 2 distance)
crossover trial · 2020
Fennell et al. (2020) — The acute physiological and perceptual effects of recovery interval intensity during cycling-based high-intensity interval training
What it measured
Physiological and perceptual responses to recovery interval intensity during cycling HIIT
How it was read
screened only, not extracted
crossover trial · 1996
Bogdanis et al. (1996) — Effects of active recovery on power output during repeated maximal sprint cycling
What it measured
Power output and metabolic/cardiorespiratory responses after active vs passive recovery
How it was read
screened only, not extracted
crossover trial · 2014
Lopez et al. (2014) — The Effect of Passive Versus Active Recovery on Power Output Over Six Repeated Wingate Sprints
What it measured
Power output (peak and average) over 6 repeated 30-s Wingate cycling sprints under active vs passive recovery
How it was read
screened only, not extracted
crossover trial · 2014
Brown et al. (2014) — The Interactive Effects of Recovery Mode and Duration on Subsequent Repeated Sprint Performance
What it measured
Repeated short sprint (RSS) performance (peak power) after active vs passive recovery of 45 or 180 s
How it was read
screened only, not extracted
Active Recovery