Skip to main content
Glama
Alpha-Park

Personal Agent Cardiorespiratory VO2Max Velocity Skill

by Alpha-Park

Personal Agent Cardiorespiratory VO2Max Velocity Skill

OpenClaw Ecosystem Dual-Org Sync Zero Dependencies Model Context Protocol Production Grade

Zero-dependency Uth heart rate ratio VO2max estimator, Cooper 12-minute run converter, ACSM longevity hazard ratio indexer, and cardiorespiratory fitness biological age modeler.

Architecture

flowchart TD
    HeartRateInput[Resting HR bpm & Max HR bpm] --> UthEngine[Uth Heart Rate Ratio Modeler]
    UthEngine --> VO2MaxHR[VO2max mL/kg/min: 15.3 * HRmax / HRrest]
    CooperInput[12-Minute Run Distance Meters] --> CooperEngine[Kenneth Cooper Field Test Formula]
    CooperEngine --> VO2MaxCooper[VO2max mL/kg/min: d12 - 504.9 / 44.73]
    VO2MaxHR & VO2MaxCooper --> AgeStratifier[ACSM Age & Sex Median Benchmark Matrix]
    AgeStratifier --> BiologicalFitnessAge[Cardiorespiratory Biological Age Offset]
    AgeStratifier --> MortalityHazard[JAMA All-Cause Mortality Hazard Ratio]

Related MCP server: Personal Agent Allostatic Load Index Biomarker Skill

Quickstart

from client import PersonalAgentCardiorespiratoryVo2MaxVelocity

agent = PersonalAgentCardiorespiratoryVo2MaxVelocity()
res = agent.estimate_vo2max_from_heart_rate_ratio(resting_hr_bpm=54.0, max_hr_bpm=185.0, age=42)
print(f"VO2max: {res['estimated_vo2max_ml_kg_min']} mL/kg/min | Fitness Age: {res['biological_cardiorespiratory_age']} yrs")

Related MCP Connectors

Related MCP Servers

  • A
    license
    Not graded
    quality
    B
    maintenance
    Calculates Karvonen heart-rate corridors, estimates VO2max, models fat oxidation kinetics, and prescribes weekly mitochondrial longevity volume from biometrics and current aerobic activity.
    7
    MIT
  • A
    license
    Not graded
    quality
    B
    maintenance
    Enables deterministic modeling of excess post-exercise oxygen consumption, bi-exponential recovery kinetics, cumulative oxygen debt, and post-workout fuel partitioning to generate hydration and refueling guidance. Supports workout parameter inputs to produce recovery timelines, calorie expenditure, and 95% clearance horizons.
    7
    MIT
  • A
    license
    Not graded
    quality
    B
    maintenance
    Enables deterministic modeling of excess post-exercise oxygen consumption, bi-exponential recovery kinetics, cumulative oxygen debt and calorie burn, and post-workout fuel partitioning to guide hydration and refueling directives.
    7
    MIT