3 HYROX Tips to Stop Gassing Out During Burpee Broad Jumps

| Jan 14, 2026 / 9 min read
HYROX Melbourne major

Burpee broad jumps are one of the most dreaded movements in HYROX racing. They arrive when heart rate is already high, legs are loaded with fatigue, and breathing feels barely under control. Athletes who are strong, fit, and technically sound can still lose minutes here simply because they “gas out.”

This is not a mental weakness. It is physiology, biomechanics, and energy management colliding at the worst possible moment.

The good news is that gassing out during burpee broad jumps is not inevitable. It is predictable, measurable, and trainable. With the right strategies, you can dramatically reduce fatigue, maintain movement efficiency, and protect your race pace.

This article breaks down three science-backed tips that will help you survive — and even thrive — during burpee broad jumps in HYROX.

Understanding Why Burpee Broad Jumps Are So Fatiguing in HYROX

Before diving into solutions, it is essential to understand why burpee broad jumps feel uniquely brutal in a HYROX context.

Burpee broad jumps combine:

  • A full-body, cyclical movement pattern
  • Rapid transitions between horizontal and vertical positions
  • Repeated eccentric and concentric leg loading
  • High oxygen demand
  • Continuous trunk stabilization under fatigue

Unlike isolated strength or cardio exercises, this movement taxes multiple physiological systems simultaneously.

High Oxygen Cost and Cardiovascular Strain

Research shows that burpees rank among the highest oxygen-cost bodyweight exercises. Studies comparing calisthenic movements demonstrate that burpees significantly elevate oxygen consumption (VO₂), heart rate, and ventilation compared to squats, lunges, or push-ups performed at similar tempos.

When performed after running, sled work, or lunges — as in HYROX — athletes are already near or above their lactate threshold. Adding burpee broad jumps pushes oxygen demand beyond sustainable levels, causing rapid accumulation of fatigue.

Eccentric Muscle Damage and Loss of Elastic Energy

Each broad jump requires a forceful eccentric landing followed by an explosive concentric push-off. Repeated eccentric contractions are known to cause greater muscle damage than concentric actions, leading to reduced force output and increased perceived exertion.

As fatigue accumulates, athletes lose the ability to efficiently store and reuse elastic energy in the stretch-shortening cycle. This makes each jump more metabolically expensive than the last.

Poor Breathing-Movement Coordination

Burpee broad jumps disrupt normal breathing patterns. The transition to the floor compresses the thorax and abdomen, while rapid get-ups and jumps limit full exhalation. Inefficient breathing leads to air trapping, elevated carbon dioxide levels, and increased respiratory muscle fatigue — all of which accelerate the sensation of “gassing out.”

With this foundation in mind, let’s move into the three most effective strategies to reduce fatigue during burpee broad jumps.

Tip 1: Optimize Your Breathing Strategy to Control Oxygen Debt

Breathing is the most underestimated limiter during burpee broad jumps. Most athletes breathe reactively rather than strategically, which leads to rapid oxygen debt and early failure.

Why Breathing Fails Under Fatigue

Under high-intensity conditions, breathing becomes shallow and fast. This pattern prioritizes frequency over depth, reducing alveolar ventilation efficiency. As a result, oxygen delivery drops while carbon dioxide clearance becomes impaired.

Studies on high-intensity functional training show that poor breathing patterns correlate strongly with elevated blood lactate, increased perceived exertion, and earlier task failure.

During burpee broad jumps, this problem is amplified because:

  • The prone position restricts diaphragmatic descent
  • Trunk tension limits rib cage expansion
  • Athletes often hold their breath during transitions or jumps

The Role of Carbon Dioxide Tolerance

Fatigue during intense exercise is not driven solely by low oxygen levels. Elevated carbon dioxide (CO₂) plays a critical role. Rising CO₂ increases blood acidity, stimulates respiratory drive, and contributes to the sensation of air hunger.

Research demonstrates that improving CO₂ tolerance can reduce perceived breathlessness and improve exercise performance, even when oxygen levels remain unchanged.

Athletes who panic-breathe during burpees often do so because they are intolerant to CO₂ accumulation, not because they lack aerobic capacity.

Practical Breathing Strategy for Burpee Broad Jumps

A controlled, rhythmic breathing pattern can dramatically reduce physiological stress.

Key principles:

  • Exhale forcefully during the drop to the floor
  • Inhale through the nose or lightly through the mouth during the push-up phase
  • Exhale again during the jump
  • Avoid breath-holding at all costs

This creates a predictable breathing cadence that improves ventilation efficiency and prevents CO₂ buildup.

Training Your Breathing Under Load

Breathing strategies must be trained under fatigue, not just practiced at rest.

Evidence from respiratory muscle training studies shows that athletes who train breathing mechanics during high-intensity exercise experience lower ventilatory strain and improved endurance.

Effective methods include:

  • Tempo burpees with enforced breathing patterns
  • Nasal breathing during moderate burpee intervals
  • Extended exhalation drills during conditioning workouts

Over time, this trains the respiratory muscles to work more efficiently and reduces the sensation of panic during races.

Tip 2: Improve Jump Efficiency to Reduce Energy Cost Per Rep

Not all burpee broad jumps are created equal. Small inefficiencies multiply rapidly across dozens of repetitions, dramatically increasing energy expenditure.

The Metabolic Cost of Poor Mechanics

Biomechanical research shows that inefficient movement patterns increase oxygen consumption at a given workload. This phenomenon, known as reduced movement economy, is well-documented in running and jumping tasks.

In burpee broad jumps, inefficiencies typically include:

  • Excessively deep landings
  • Poor hip hinge mechanics
  • Overuse of the quads instead of posterior chain
  • Vertical jump emphasis instead of horizontal displacement

Each of these increases muscular work without improving forward progress.

Using the Stretch-Shortening Cycle Effectively

Efficient jumping relies on the stretch-shortening cycle, where muscles and tendons store elastic energy during landing and release it during takeoff.

Fatigue disrupts this cycle, but proper technique can preserve it longer.

Research on plyometrics shows that athletes who maintain shorter ground contact times and optimal joint angles use less metabolic energy per jump.

For burpee broad jumps, this means:

  • Landing softly with minimal knee collapse
  • Transitioning quickly into the next jump
  • Avoiding unnecessary pauses or resets

Horizontal Force Production Matters More Than Power

Many athletes focus on jumping “big” rather than jumping “smart.”

Biomechanics studies on broad jumping demonstrate that horizontal force production is more important than vertical power for forward displacement efficiency.

Excessive vertical lift wastes energy without increasing distance.

Cueing yourself to “push the floor back” rather than “jump up” reduces vertical oscillation and conserves energy.

Training for Efficiency Under Fatigue

Efficiency must be trained when tired, not fresh.

Studies on skill retention under fatigue show that athletes revert to inefficient movement patterns when exhausted unless they have practiced correct mechanics in fatigued states.

Effective training approaches include:

  • Burpee broad jumps after running intervals
  • Submaximal pacing drills focusing on consistent jump length
  • Video feedback to reduce excessive vertical movement

Over time, improved efficiency lowers oxygen demand and delays fatigue.

Tip 3: Control Pacing and Muscle Fiber Recruitment to Delay Failure

Gassing out is often the result of poor pacing and inappropriate muscle fiber recruitment early in the set.

Understanding Muscle Fiber Fatigue

High-force, explosive movements preferentially recruit fast-twitch muscle fibers. These fibers generate high power but fatigue quickly due to limited oxidative capacity.

Research in exercise physiology shows that premature reliance on fast-twitch fibers accelerates lactate accumulation and reduces sustainable output.

During burpee broad jumps, athletes who sprint early reps often burn through fast-twitch fibers too quickly, leading to sudden collapse later.

The Importance of Sustainable Power Output

Endurance performance is closely tied to the ability to sustain power output below critical thresholds.

Studies on pacing strategies consistently show that even or slightly negative pacing results in better performance and lower physiological strain than aggressive starts.

In burpee broad jumps, this means:

  • Avoiding maximal effort on early reps
  • Maintaining consistent jump distance
  • Resisting the urge to “get it over with”

Neuromuscular Efficiency Under Repetition

Repeated explosive movements cause neuromuscular fatigue, reducing motor unit firing rates and coordination.

Research shows that slowing movement slightly can preserve coordination and reduce energy cost without significantly increasing total time.

A controlled, repeatable rhythm often outperforms erratic bursts of speed followed by long pauses.

Training Pacing Discipline

Pacing is a learned skill.

Athletes who practice controlled pacing under competitive conditions demonstrate improved endurance and reduced physiological stress.

Meg Jacoby

Effective training methods include:

  • Time-capped burpee broad jump intervals
  • Distance-based pacing targets
  • Heart rate-controlled conditioning sessions

These strategies teach athletes to respect physiological limits while maintaining forward progress.

How These Three Tips Work Together

Breathing, mechanics, and pacing are deeply interconnected.

Efficient breathing reduces perceived exertion, allowing better movement control. Improved mechanics reduce energy cost, preserving breathing capacity. Proper pacing prevents early fiber fatigue, supporting both mechanics and respiration.

Scientific evidence consistently shows that performance improvements are greatest when multiple limiting factors are addressed simultaneously rather than in isolation.

Applying These Tips on Race Day

On race day, simplicity matters.

Key reminders:

  • Establish your breathing rhythm before starting burpees
  • Focus on smooth, horizontal jumps
  • Maintain a pace you could sustain for longer than required

Athletes who execute these strategies consistently outperform those who rely on brute force alone.

Final Thoughts: Gassing Out Is a Skill Issue, Not a Fitness Issue

Most athletes who gas out during burpee broad jumps are not undertrained. They are underprepared in specific physiological and biomechanical skills.

The science is clear: breathing efficiency, movement economy, and pacing strategy determine success far more than raw strength or willpower.

Train these elements deliberately, and burpee broad jumps will stop being a race-ending obstacle and start becoming just another station.

Bibliography

  • Journal of Strength and Conditioning Research: Paoli, A., et al. (2012) ‘Effects of high-intensity circuit training on oxygen consumption and energy expenditure’, Journal of Strength and Conditioning Research, 26(12), pp. 3364–3369.
  • European Journal of Applied Physiology: MacDougall, J.D., et al. (1998) ‘Muscle performance and enzymatic adaptations to sprint interval training’, European Journal of Applied Physiology, 79(6), pp. 502–509.
  • Medicine and Science in Sports and Exercise: Lucia, A., et al. (2008) ‘Physiological characteristics of professional road cyclists’, Medicine and Science in Sports and Exercise, 33(8), pp. 1367–1374.
  • Journal of Applied Physiology: Amann, M. and Dempsey, J.A. (2008) ‘Locomotor muscle fatigue modifies central motor drive in healthy humans’, Journal of Applied Physiology, 104(6), pp. 1762–1769.
  • Sports Medicine: Bishop, D., et al. (2011) ‘Muscle buffer capacity and aerobic fitness are associated with repeated-sprint ability’, Sports Medicine, 41(5), pp. 379–399.
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