Why Full Program Adherence Is Non-Negotiable If You Want to Be the Best You Can Be

As a sports physiologist and strength and conditioning coach, I see the same pattern repeatedly: athletes want elite results while only partially following the system designed to produce them.

They complete the main training sessions. They show up for the obvious work. Then they skip the breathing protocols, ignore the visualization, leave the journals blank, skip the recovery tools, and wonder why progress stalls or problems like arm pump keep showing up.

 

Here is the hard truth: **Partial effort produces partial results.** This is not motivation — it is physiology.

The System Is Greater Than Any Single Goal

A well-designed performance program is not a collection of independent pieces. It is an integrated system. Strength work, skill practice, recovery methods, breathing, visualization, confidence protocols, nutrition strategies, and race-day preparation all interact with and reinforce one another.

 When an athlete executes only 25–50% of the program, they break the system. The missing pieces are often the ones that unlock the adaptations from the work they *are* doing.

The Physiological Mechanisms Behind Partial Results

The body and nervous system adapt only to the demands that are actually placed on them. Incomplete execution creates incomplete signals — and therefore incomplete adaptations.

**1. Incomplete Stimulus Produces Incomplete Adaptation** 

The SAID principle (Specific Adaptation to Imposed Demands) is non-negotiable. When supporting elements are skipped, the total training stimulus is reduced and distorted. Neural pathways for force production, coordination, and skill under pressure are only partially reinforced. Muscular, cardiovascular, and metabolic adaptations occur at a lower magnitude because the full set of signals never arrives.

**2. Insufficient Recovery Signaling** 

Training creates stress. Adaptation occurs during recovery. When breathing techniques, mobility work, blood-volume protocols, and other recovery tools are ignored, parasympathetic reactivation is delayed, tissue repair remains incomplete, and residual fatigue carries into the next session. The athlete keeps training, but the physiological window for positive adaptation stays partially closed.

**3. Blunted Neural Drive and Motor Learning** 

Visualization, confidence work, high-intent practice, and focused execution strengthen specific neural circuits. When these are skipped, motor unit recruitment stays less efficient, rate of force development improves more slowly, and technical consistency under pressure remains underdeveloped. The nervous system never fully wires the high-performance patterns the program is built to create.

**4. Suboptimal Oxygen Delivery and Blood Volume** 

Protocols designed to support hemoglobin and blood volume directly influence oxygen-carrying capacity and fatigue resistance. When they are not followed, plasma volume and red-cell mass increases are smaller, oxygen delivery is limited, and the athlete’s ability to buffer high-intensity efforts improves less. This is one reason issues such as persistent arm pump or early fatigue often continue — the supporting adaptations that manage them were never fully developed.

**5. Hormonal and Autonomic Imbalance** 

Consistent, complete programs help regulate the stress–recovery axis. Partial adherence frequently leaves the athlete in a mild chronic stress state: elevated residual sympathetic tone, incomplete hormonal recovery, and reduced anabolic signaling. Over time this environment favors maintenance or slight regression rather than progressive adaptation.

**6. Loss of Compounding Gains** 

Many of the “small” elements in a complete system produce modest individual benefits. When performed consistently, they compound. When they are skipped, the compounding effect never occurs. Progress remains linear or stalls instead of accelerating.

The Reality Athletes Need to Face

Complaints about limitations often surface when athletes are only partially compliant. The tools to manage those limitations — breathing strategies, recovery methods, preparation systems — are usually already in the program. When those tools sit unused, the problem is not mysterious. It is the predictable physiological result of incomplete execution.

The blueprint that has produced consistent winning results works when it is followed completely. It does not work when it is followed selectively.

What Full Commitment Actually Looks Like

- Do the breathing work.

- Do the visualization and confidence protocols.

- Fill out the journals and track the process.

- Use the recovery tools that were given to you.

- Follow the race-day preparation system as written.

- Execute the full set of protocols without constant negotiation.

Print the key pages. Keep them visible. Treat the complete program as non-negotiable.

The Bottom Line

The body does not adapt to the program you *intended* to follow. It adapts to the program you *actually* followed.

Partial effort sends incomplete signals. Incomplete signals produce incomplete adaptations. That is the physiological mechanism behind partial results.

If you want different results, stop negotiating with the system. 

Do the work that is already in your hands. 

Commit fully. Execute consistently. 

Be better every day than the day before.

That is how athletes actually become the best version of themselves.

Why Intention Is Everything: The Missing Ingredient in Exercise, Practice, Nutrition, and Self-Development

As a sports physiologist and strength and conditioning coach, I can tell you this with certainty:

Talent, hard work, and even good programming are not enough if they lack intention.

Intention — the deliberate, focused purpose behind every action — is what separates athletes who improve steadily from those who spin their wheels. It is the difference between simply completing a workout and actually training. Between eating and fueling. Between practicing and preparing. Between existing and developing.

If you want to be the best version of yourself as an athlete, intention must be present in nearly everything you do.

What Intention Actually Means

Intention is not just “trying hard.” It is the conscious decision to direct your attention, effort, and decision-making toward a specific outcome.

In training, it means choosing to move the bar with maximal speed and control rather than just surviving the set.
In skill practice, it means executing each repetition with focus on quality and game-like intensity rather than going through the motions.
In nutrition, it means eating with the purpose of supporting recovery, performance, and body composition rather than simply satisfying hunger or convenience.
In recovery and self-management, it means protecting sleep, managing stress, and making choices that support long-term progress instead of short-term comfort.

Without intention, actions become automatic and low-value. With intention, the same actions become powerful drivers of adaptation.

Why Intention Drives Neurological and Physical Adaptation

From a physiological and neurological standpoint, the nervous system responds to the quality of the signal it receives.

When an athlete lifts, sprints, or practices with clear intention, the brain and spinal cord receive a stronger, more specific demand. This leads to better motor unit recruitment, improved coordination, faster rate of force development, and more precise skill encoding.

Low-intention work produces low-level neural adaptations. High-intention work produces the adaptations that actually transfer to competition.

The same principle applies outside the gym. The brain strengthens the pathways you repeatedly and deliberately use. Casual, distracted, or half-hearted effort does not create the same lasting change.

Intention Across Every Domain of Athletic Development

Training and Practice
Two athletes can perform the same program. One treats every set as an opportunity to express force and refine technique. The other simply checks boxes. Over months, the gap between them becomes massive. Intention turns volume into progress.

Nutrition
Eating without intention often leads to inconsistent energy, poor recovery, and stalled body composition. Eating with intention — choosing foods and timing to support training demands — creates a measurable advantage in performance and resilience.

Recovery and Self-Management
Sleep, stress management, and lifestyle choices only become high-leverage when they are treated as part of the training process. Intention turns recovery from something that “happens” into something that is actively protected.

Mindset and Daily Habits
The highest-performing athletes approach ordinary decisions with purpose. How they warm up, how they review film, how they respond to setbacks — all of it is filtered through the question: “Does this move me closer to the standard I want?”

The Cost of Operating Without Intention

Athletes who lack intention often experience:

• Plateaus despite consistent training
• Poor transfer of gym strength to sport
• Technical inconsistency under pressure
• Frustration that effort is not producing results
• Higher risk of injury due to poor movement quality and incomplete neural development

They are working, but they are not adapting at the rate their potential allows.

How to Build Intention Into Everything You Do

Intention is a skill. It can be trained.

• Before every session, define the specific purpose of the work.
• On every set or drill, choose a clear focus (speed, quality, force, decision-making).
• After key sessions, briefly reflect: Did my effort and attention match the goal?
• Apply the same standard to nutrition, sleep, and recovery choices.
• Remove distractions that dilute focus during training and practice.

Over time, operating with intention becomes the default rather than the exception.

The Bottom Line

The athletes who reach the highest levels are rarely the ones who simply work the hardest in the most random way. They are the ones who bring deliberate intention to the process — in the weight room, in skill practice, in how they fuel, and in how they recover.

Intention turns ordinary actions into high-leverage ones.
It is what allows the nervous system to adapt.
It is what allows physical qualities to transfer.
It is what allows an athlete to continually close the gap between their current self and their potential.

If you want to be the best you can be, stop treating training, practice, nutrition, and recovery as boxes to check.

Bring intention to all of it.

That is where real development begins.

Why Neurological Adaptation to Strength and Speed Is Essential for Athletic Development and Injury Mitigation

As a sports physiologist and strength and conditioning coach, one of the most overlooked truths in training is this:

Your muscles do not get stronger or faster in isolation. Your nervous system does.

Neurological adaptation is the foundation of meaningful progress in the weight room and on the field. If you want to develop real strength, express speed, and reduce injury risk, you must train with high intent and sufficient intensity. Going through the motions at low effort will not create the neural adaptations required for high-level performance or resilience.

Strength Is Largely a Neural Quality

When an athlete gets stronger, especially in the early and intermediate stages of training, a large portion of that improvement comes from the nervous system, not just bigger muscles.

Key neurological adaptations include:

• Increased motor unit recruitment (the ability to turn on more muscle fibers)
• Higher firing rates of those motor units
• Improved intermuscular coordination
• Better rate of force development
• Reduced inhibitory signals that limit force output

These changes allow an athlete to produce more force, more quickly, and with better control. They only occur when the training stimulus is demanding enough. Light, slow, or low-intent lifting does not challenge the nervous system sufficiently to drive these adaptations.

Speed of Movement Matters

Force is only part of the equation. In sport, the ability to produce force rapidly often matters more than maximal strength alone.

Training that emphasizes high movement speed and intent — explosive lifts, Olympic lift variations, jumps, medicine ball throws, and sprint work — teaches the nervous system to:

• Recruit high-threshold motor units faster
• Improve stretch-shortening cycle efficiency
• Enhance coordination under rapid conditions
• Transfer strength into athletic movement

If an athlete only trains slow, controlled strength work and never practices expressing force quickly, the nervous system never learns to operate at the speeds required in competition. The result is strength that does not fully transfer to the field, court, or track.

High Intent and Intensity Drive Adaptation

The nervous system responds to the quality of the signal, not just the volume of work.

When an athlete trains with high intent — focusing on moving the load as explosively as possible while maintaining technical quality — the brain and spinal cord receive a clear demand to improve. This is why two athletes can perform the same sets and reps and get very different results. One is simply completing the workout. The other is actively trying to express force and speed on every rep.

Low-intent training produces low-level neural adaptations. High-intent training produces the adaptations that support both performance and resilience.

Injury Mitigation Through Neural Development

Neurological adaptation is not only about getting stronger and faster. It is also one of the most effective tools for injury mitigation.

A well-trained nervous system improves:

• Muscle activation timing and sequencing
• Joint stability under load and at speed
• Ability to absorb and redirect force
• Coordination during unexpected or high-speed movements
• Fatigue resistance of motor control

Athletes who lack these qualities often demonstrate delayed or incomplete muscle activation, poor force absorption, and technical breakdown under fatigue — all of which increase injury risk.

Training with appropriate intensity and intent builds the neural capacity to control the body under the exact conditions that commonly lead to injury: high speed, high force, and fatigue.

Practical Implications for Training

To develop meaningful neurological adaptations for both performance and injury resilience:

• Prioritize quality of movement and intent over simply accumulating volume
• Include explosive and high-velocity work regularly, not just slow strength training
• Progress intensity and complexity as the athlete’s capacity improves
• Maintain technical standards even when loads or speeds increase
• Allow adequate recovery so the nervous system can adapt rather than simply accumulate fatigue

The goal is not to train maximally every session. The goal is to train with enough intensity and intent, consistently, that the nervous system is forced to improve.

The Bottom Line

Muscles respond to training, but the nervous system determines how effectively those muscles can be used.

If you want to develop real strength, express speed, and reduce injury risk, you must challenge the nervous system with high-quality, high-intent training. Low-effort gym work produces low-level adaptations. High-intent work builds the neural foundation that supports both performance and resilience.

Train the nervous system deliberately.
Move with purpose.
Develop the qualities that actually transfer to sport and protect the athlete.

That is how lasting progress is built.

Why Neurological Adaptation Demands High-Intensity Training — and Why You Must Respect CNS Fatigue

As a sports physiologist, performance coach, and neuroscience coach, one of the most important truths I can share with athletes is this:

Your nervous system only adapts to the demands you consistently place on it.

If you want to compete at a high level, you must train and practice at a high level — with real intensity, intent, and focus. Anything less makes true high-level performance extremely difficult, and often impossible.

At the same time, that same nervous system has limits. Push it without intelligent recovery and you run into central nervous system (CNS) fatigue — a real reduction in the brain and spinal cord’s ability to drive your muscles. Understanding both sides of this equation is essential for sustainable high performance.

The Nervous System Runs the Show

Strength, speed, power, and skill are not just muscular qualities. They are primarily neurological.

When you train or practice with high intent, your brain and spinal cord adapt by:

• Recruiting more motor units
• Firing those motor units at higher frequencies
• Improving coordination between muscle groups
• Refining timing and sequencing of movement
• Increasing rate of force development

These adaptations only occur when the demand is high enough. Low-intensity or half-hearted efforts simply do not create the neurological stress required for meaningful change.

Your body is efficient. It adapts to the level of challenge it regularly experiences. If your training and skill practice consistently fall short of competition intensity, your nervous system never learns how to operate at that level.

Specificity of Neural Adaptation

This is where the SAID principle (Specific Adaptation to Imposed Demands) becomes critical from a neurological standpoint.

The nervous system is highly specific. It adapts to:

• The exact speeds you train at
• The force levels you produce
• The level of intent and focus you bring
• The decision-making and pressure you practice under

If you lift with slow, controlled effort but never train explosive intent, your rate of force development stays limited.
If you practice skills at 70% intensity, your brain never wires the high-speed, high-pressure motor patterns required in competition.
If your conditioning never approaches game intensity, your nervous system never learns how to maintain technical quality under fatigue.

You cannot expect your nervous system to suddenly perform at a level it has never been trained to reach.

What Is Central Nervous System Fatigue?

CNS fatigue is a measurable reduction in the brain and spinal cord’s ability to fully activate and coordinate muscles. The muscles themselves may still be capable of producing force, but the signal telling them to do so is weaker or less efficient.

This is distinct from peripheral (muscle) fatigue, which involves local metabolite buildup, energy depletion, and contractile impairment inside the muscle.

CNS fatigue often presents as a more global, systemic feeling rather than localized soreness.

Common signs include:

• Warm-up weights feeling unusually heavy
• Noticeable drop in bar speed or jump height
• Loss of explosiveness and coordination
• Higher perceived effort for normal loads
• Reduced grip strength
• Mental fog or “tired but wired” sensation
• Earlier technical breakdown in sessions

Why High-Intensity Work Creates CNS Fatigue — and Why That’s Necessary

Maximal and near-maximal efforts, explosive training, heavy strength work, and high-speed skill practice under fatigue place significant demand on the nervous system. They require high motor unit recruitment and rapid firing rates.

This demand is exactly what drives positive neurological adaptation. Without it, the nervous system never upgrades its capacity.

The problem arises when high neural load accumulates without adequate recovery. Sleep debt, consecutive high-intensity days, excessive volume, and life stress all amplify CNS fatigue. When this happens, performance drops, technique suffers, and injury risk rises — even if the muscles themselves feel relatively recovered.

Most healthy athletes see significant central recovery within 48–72 hours after a hard session when sleep and recovery are solid. Accumulated fatigue from weeks of poor management can take longer and may require a planned deload.

How to Train Hard Without Breaking the System

High-level preparation requires both high neurological demand and intelligent recovery.

Train and practice with intent:

• Bring real intensity and focus to strength, speed, and skill work
• Practice at game-like speeds and under fatigue when appropriate
• Demand high standards of quality and effort in preparation

Protect the nervous system:

• Prioritize sleep — it is the primary driver of neural recovery
• Monitor simple readiness markers (jump height, grip strength, bar speed on warm-up loads)
• Reduce intensity (not always volume) when clear signs of CNS fatigue appear
• Space high-neural sessions appropriately
• Use planned deloads to prevent accumulation
• Manage total stress outside of training

The Bottom Line

Neurological adaptation is non-negotiable if you want to perform at a high level. Your brain and nervous system will only give you what you have trained them to deliver. Low-intensity, low-intent training and practice leave you underprepared for the demands of competition.

At the same time, ignoring CNS fatigue turns productive stress into destructive stress. The athletes who progress long-term are the ones who train the nervous system hard when it is ready — and protect it when it is not.

Train the way you want to compete. Practice the way you want to perform.
Recover with the same seriousness you bring to the work.

That is how high-level neurological capacity is built and sustained.

What Is Fitness for the Youth and Adult Athlete — and How Do You Actually Achieve It?

Fitness is one of the most overused and least understood words in sports.

For some, it means looking good in the mirror. For others, it means surviving a workout. But for youth and adult athletes, true fitness is something deeper and far more specific.

Athletic fitness is the measurable ability to perform the physical demands of your sport at a high level, recover efficiently, stay healthy, and continue improving over time.

It is not random. It is not just “working hard.” And it is definitely not copying whatever looks impressive on social media.

Fitness Looks Different Depending on the Athlete

For the Youth Athlete Young athletes are still growing. Their bodies are changing rapidly in height, strength, coordination, and hormone levels. Fitness at this stage prioritizes:

• Building a broad athletic foundation
• Developing movement quality and coordination
• Increasing relative strength and power safely
• Improving work capacity without excessive stress
• Supporting long-term development and injury resilience

The goal is not to create a mini-professional. The goal is to create a durable, adaptable athlete who can handle higher training loads as they mature.

For the Adult Athlete Adult athletes (high school seniors, college, post-collegiate, and masters competitors) have different needs. Growth is largely complete, but recovery capacity, training history, and lifestyle stress play bigger roles. Fitness here focuses on:

• Maximizing sport-specific qualities (strength, speed, power, endurance)
• Maintaining or improving body composition when relevant
• Managing recovery and reducing injury risk
• Sustaining performance across a long season or career

Adults can often handle higher intensities, but they pay a steeper price for poor programming and inadequate recovery.

The Core Components of Athletic Fitness

Regardless of age, high-level athletic fitness is built on several key pillars:

• Strength — The foundation for force production
• Power & Speed — The ability to express strength quickly
• Work Capacity & Conditioning — The ability to repeat efforts and recover between them
• Mobility & Stability — Efficient, resilient movement
• Body Composition & Resilience — Supporting performance while reducing injury risk
• Recovery Capacity — How well the athlete adapts to training stress

These qualities do not develop equally or by accident. They require intentional, progressive training.

How Do You Actually Achieve It?

The answer is simple in concept and rare in execution: a structured, data-driven, science-backed sports performance training protocol.

Here’s why this approach matters so much:

1. Structure Creates Progress Random workouts produce random results. A structured protocol uses periodization — planned phases of training that systematically build specific qualities at the right time. This prevents plateaus, reduces burnout, and allows athletes to peak when it matters.

2. Data Removes Guesswork Tracking performance metrics (strength numbers, sprint times, jump height, training loads, recovery markers) allows coaches and athletes to make informed decisions. Data shows what is working, what is stalling, and when adjustments are needed. Without measurement, improvement is mostly hope.

3. Science Protects the Athlete Evidence-based methods respect how the body actually adapts. This includes appropriate loading, recovery windows, age-specific considerations, and injury-prevention strategies. Science-backed training is not about following the latest trend — it is about applying proven principles consistently.

4. Individualization Matters Youth athletes and adult athletes respond differently. A good protocol accounts for training age, biological maturity, sport demands, injury history, and lifestyle factors. One-size-fits-all programs leave too much potential on the table and increase risk.

What This Looks Like in Practice

A high-quality sports performance protocol typically includes:

• Baseline assessments and ongoing testing
• Clear training phases (off-season development, pre-season, in-season maintenance)
• Progressive strength and power development
• Speed, agility, and sport-specific conditioning
• Mobility and injury-resilience work
• Recovery strategies and monitoring
• Regular review of data to guide adjustments

This is how athletes move from simply “being in shape” to becoming measurably fitter, stronger, faster, and more resilient.

The Bottom Line

Fitness for the youth and adult athlete is not a vague feeling of being tired after a workout. It is a set of physical qualities that can be trained, measured, and improved.

The athletes who make the biggest long-term progress are rarely the ones who train the hardest in the most random way. They are the ones who train with purpose inside a structured, data-driven, science-backed system.

Hard work is required. Smart, structured work is what multiplies it.

If you want real fitness that transfers to the field, court, track, or platform — stop guessing and start following a proven process.

It’s Not About You: Why Some Coaches Can’t Stop Taking Credit for Their Athletes’ Success

Scroll through Instagram or TikTok and you’ll see it constantly.

A young athlete hits a personal best, makes a roster, or wins a championship — and within hours the coach’s post is up. “So proud of my athlete.” “Another one developed under my system.” “This is what happens when you train with me.”

Sometimes the athlete is barely tagged. Sometimes the story is framed almost entirely around the coach’s brilliance.

Let’s be clear: It’s not about the coach.

It’s about the athlete who showed up every single day. The early mornings. The sore muscles. The missed social events. The quiet work when no one was watching. The mental toughness to keep going when progress felt invisible.

If you’re a coach or trainer who needs the spotlight and constantly takes ownership of your athletes’ or clients’ success to pad your own ego — shame on you.

Why Do Some Coaches Live for the Credit?

Not every coach who posts achievements is ego-driven. Celebration and visibility can be healthy. But there’s a clear difference between amplifying an athlete’s win and centering yourself in it.

Some of the common drivers behind the “look at me” approach:

• Ego and identity. Coaching becomes the primary source of self-worth. When the athlete succeeds, the coach feels validated. When results slow down, their identity feels threatened.
• Marketing and status. In a crowded fitness and sports industry, results are currency. Attaching your name loudly to every success is a branding strategy — sometimes more than a coaching one.
• Insecurity. Quiet, process-focused coaches rarely go viral. The ones who constantly claim credit often feel the need to prove they “belong.”
• Transactional mindset. Some view athletes as walking advertisements rather than developing people. The relationship becomes “what can this athlete do for my reputation?”

The healthiest coaches understand a simple truth: their job is to create the conditions for growth. The athlete still has to walk through the door, do the hard reps, and own the outcome.

The Damage This Mindset Causes

When a coach consistently takes the credit, several things erode:

• Athlete ownership. Young athletes start believing their success is dependent on the coach’s magic rather than their own work ethic and resilience.
• Trust. Athletes notice when the spotlight is more important than their development. Respect quietly disappears.
• Culture. The program becomes about the coach’s brand instead of the athletes’ growth. Teammates begin competing for the coach’s approval rather than chasing excellence together.
• Long-term development. Ego-driven coaching often prioritizes short-term, flashy results over sustainable progress and well-being.

The best coaches I know almost never make it about themselves. They talk about the athlete’s work rate, the process, the daily consistency. They step back so the athlete can step forward.

What Real Coaching Looks Like

Great coaches still celebrate wins — loudly and proudly. The difference is how.

They say things like:

• “This kid put in the work when no one was watching.”
• “Proud of the process she committed to.”
• “His consistency is what made this possible.”

They share the stage instead of standing in the middle of it. They understand that the highest form of coaching is making yourself progressively less necessary as the athlete grows.

Their satisfaction comes from watching someone else succeed because of the work they put in — not because the coach needed the credit.

We’ve trained many, many champions over the years. And in no way do we take credit or steal the spotlight. Their success belongs to them — the early mornings, the grind, the resilience, the work they put in day after day when no one was watching. Our role has always been to support, guide, and create the environment for that work to pay off. Never to claim it as our own.

A Direct Message to the Spotlight Seekers

If your primary motivation for coaching is the photos, the tags, the “look what I built” posts, and the status that comes with it — you’re in it for the wrong reasons.

The athlete is the one who did the work. Day after day. Rep after rep. Setback after setback.

Your role is important. Guidance matters. Systems matter. Expertise matters. But none of it replaces the athlete’s effort.

Stop making it about your ego. Start making it about their development.

Because at the end of the day, the real measure of a coach isn’t how many success stories they can claim.

It’s how many athletes leave better, stronger, more capable people — whether the coach’s name is attached or not.

The work belongs to them. Act like it.

Heart rate monitoring has limited to no practical value for.....

Heart rate (HR) monitoring has limited to no practical value for programming or assessing intensity during gym-based resistance training in endurance athletes. Its primary, evidence-supported applications remain cardiovascular sessions: intervals, recovery days, and endurance/aerobic work.

Why HR is a poor metric in the gym for endurance athletes!

Resistance training (strength, hypertrophy, power, or strength-endurance circuits) is predominantly anaerobic or mixed, with short-duration efforts, high mechanical tension, and significant isometric or eccentric components. Heart rate responds differently here than in continuous or interval aerobic exercise:

• Lag and dissociation from true internal load. HR rises secondary to catecholamine release, muscle mass recruited, and pressor responses (including Valsalva or breath-holding), not as a direct reflection of oxygen demand or metabolic stress in the same way continuous cycling or running does. Peak HR during a heavy squat or deadlift set often occurs after the set and does not scale cleanly with relative intensity (%1RM) or effort the way it does with %VO₂max or lactate threshold.
• Rest intervals dominate the session profile. Most quality gym programs for endurance athletes use 2+ minutes rest between sets. Average session HR is therefore heavily diluted by recovery periods and does not represent the training stimulus.
• Better markers already exist and are superior. Load (absolute or relative to 1RM or estimated daily max), velocity (if using linear position transducers or similar), volume (sets × reps × load), time under tension, and session RPE (or repetition-in-reserve) provide far more valid and actionable information for progression, autoregulation, and injury-risk management. These directly target the neuromuscular and structural adaptations endurance athletes need (force production, tendon stiffness, running/cycling economy, injury resilience).

Wearing a chest strap or optical sensor during gym sessions frequently leads to misinterpretation: elevated HR on compound lifts is treated as “Zone 4/5 work,” recovery is judged by how quickly HR drops between sets (which is influenced by many non-training factors), or athletes unnecessarily restrict intensity because HR “is too high.” None of these improve outcomes for strength qualities that transfer to endurance performance.

Where HR monitoring is useful and appropriate.

For an endurance athlete the legitimate applications are almost exclusively within the cardiovascular domain:

• Interval sessions (VO₂max, threshold, anaerobic capacity work): HR (or better, HR + power/pace + RPE) helps confirm that work bouts reach the intended intensity zone and that recovery intervals allow sufficient partial recovery without drifting into chronic high-intensity accumulation.
• Endurance / aerobic base sessions: Keeping HR in prescribed zones (especially Zone 1–2 on easy days) is one of the simplest, most validated ways to enforce intensity discipline and support mitochondrial, capillary, and cardiac adaptations while managing overall training stress.
• Recovery and easy sessions: HR (and trends in resting HR or HRV when used longitudinally) provides an objective check that “easy” remains easy. Many endurance athletes chronically under-recover; HR feedback is useful here.
• Field or unstructured sessions where power, pace, or RPE alone are harder to control (trail running, group rides, etc.).

Even in these contexts, HR is rarely the sole programming tool. Power meters, GPS pace, lactate, or RPE are often more precise for intensity prescription; HR serves as a useful complementary or confirmatory signal, particularly for internal load and recovery status.

Practical recommendation

Remove the HR monitor for gym sessions. Program and progress resistance work with load, velocity, volume, and RPE. Reserve the monitor (chest strap preferred over optical for accuracy during movement) for the sessions where cardiac and metabolic intensity zones actually matter: intervals, recovery rides/runs, and longer aerobic endurance work. This keeps the tool matched to the physiology it was designed to measure and avoids noise or false constraints in the weight room.

In short, use HR monitors for data that provides relevant data, track and manage the data, but then you have to use the data for programming.... which most don't..... because they don't know how...... We use them A LOT. Garmin is our choice.

If you want to see why we build champions or have questions about our programs, reach out.

Yours in health and fitness, Greg