“Physiological demands of fencing: A Narrative Review” Autori: Luke W. Oates, Michael J. Price, Lindsay M. Bottoms. Fonte: Journal of Elite Sport Performance. ​FullText 73815 (2023).

November 24, 2025

1. Aim of the Review

  • Objective: To provide an updated overview of the literature regarding the physiological and thermoregulatory demands of fencing.
  • Practical purpose: To improve training protocols, competition management, and recovery strategies for fencers.

2. Methodology

  • Search on scientific databases (Pubmed, SPORTDiscus, Google Scholar) from 1985 to 2022.
  • Inclusion of studies related to all three weapons: épée, foil, and sabre.
  • Included studies on Pool phase and Direct Elimination (DE) phase.

3. Main Results

3.1 Movement Characteristics

  • Fencing = high-intensity intermittent sport.
  • Work/Rest ratios:
    • Épée: ~1:1 – 2:1
    • Foil: ~1:1 – 1:3
    • Sabre: ~1:5 – 1:6
  • Average single action time:
    • Épée: 15 sec
    • Foil: 5 sec
    • Sabre: 2.5 sec
  • Analysis technology: modern accelerometers to measure speed, distance, accelerations, and loads.

3.2 Heart Rate

  • During competition: 75–100% of maximum heart rate (HRmax).
  • Higher HR in DE matches compared to Pools.
  • Simulated studies tend to underestimate cardiac load compared to real competitions.

3.3 Oxygen Consumption (VO₂)

  • Average VO₂ during DE:
    • ~75% of VO₂max.
  • Average values: 35–47 ml/kg/min for simulated épée; slightly lower in Pools.
  • Few direct measurements during real competitions, mainly estimates based on HR.

3.4 Blood Lactate Concentration

  • Generally low (often < 4 mmol/L).
  • Mixed energy contribution:
    • Phosphocreatine system predominant (explosive movements).
    • Important aerobic support in the preparatory and recovery phase.
  • In longer matches (like épée), progressive fatigue leads to greater reliance on aerobic metabolism.

3.5 Rating of Perceived Exertion (RPE)

  • Increases significantly in DE phases compared to Pools.
  • RPE differences detected between upper and lower limbs (weapon/arms more fatigued, but legs equally stressed).

3.6 Thermoregulation

  • Under-studied issue:
    • Full equipment = major obstacle to heat dissipation.
    • Gastrointestinal temperatures > 39°C observed.
    • Possible negative effects on performance and fatigue perception during prolonged competitions.
  • Future proposals: measurements of skin temperature, subjective thermal sensation, internal mask temperature.

4. Conclusions and Practical Implications

  • Fencing heavily taxes both the alactic anaerobic (phosphocreatine) and aerobic systems.
  • Training programming:
    • Develop aerobic capacity for long-term endurance (9-11 hour competitions).
    • Focus on recovery speed between matches.
    • Integrate cooling protocols (cooling strategies) during dead times between bouts.
  • Recommended measurements for monitoring:
    • Heart rate
    • RPE
    • Body temperature

Summary Table

Area Key Result
Heart Rate 75–100% HRmax
Average VO₂ ~75% VO₂max
Lactate Low (< 4 mmol/L)
Energy System Phosphocreatine + Aerobic
Movements 4–10% high intensity, 40–50% moderate
Thermoregulation Critical, risk of >39°C core temperature
Recommended Strategies Targeted strength and aerobic training

Final Consideration:
This study confirms that fencing is an extremely complex sport at a physiological level, requiring an integrated management of energy conditioning, mental endurance, and thermoregulation to optimize competitive performance.