Series: THE STRONGMAN COACH: FROM IDENTIFYING POTENTIAL TO PERFORMANCE - Episode 6: Adapting Training to Individual Recovery

In strongman, the same training session does not end at the same time for two athletes. For one athlete, five yoke runs represent a manageable challenge followed by good sleep and another productive session two days later. For another, the very same runs begin four days of fragmented sleep, back discomfort, slower lifting speed and irritability. A coach who sees only kilograms and stopwatch readings considers these athletes equal. A coach who examines what happens afterwards sees two organisms paying different prices for apparently identical work.

Episode Six of “THE STRONGMAN COACH: FROM IDENTIFYING POTENTIAL TO PERFORMANCE” continues the sequence of assessment, individualisation, technical learning and communication. Its subject is adapting training to individual recovery: identifying useful fatigue, distinguishing meaningful signals from ordinary training noise, deciding when to maintain or modify the stimulus, and preserving progress without turning discipline into a contest of exhaustion. Rather than promising universal formulas, we build a transparent decision process from sports science and the particular demands of strongman implements [1–3].

1. Recovery is part of training, not the space between sessions

In gym language, recovery is often confused with the absence of work: “I am not lifting today, so I am recovering.” That captures only one dimension. Recovery concerns processes through which the body restores or reorganises functions disturbed by training; adaptation concerns a more durable change in capacity resulting from repeated, adequate exposures. An athlete may recover today's performance without having achieved a lasting adaptation. Conversely, an athlete can remain tired after a productive loading period while developing capabilities that become apparent later. Coaches must distinguish these levels [1,5].

A productive strongman programme deliberately challenges the body. Deadlifts demand powerful hip and spinal extension; the log demands overhead force and coordination; yoke combines load support with movement; atlas stones require flexion, compression, gripping and a specific transition. Different-looking events are not independent. Two consecutive days may load many of the same structures even when one is labelled “strength” and the other “events.”

The practical question is not whether an athlete worked hard enough to deserve rest. It is whether the next exposure will provide valuable stimulation given the athlete's present condition. Sometimes the answer is a demanding session; sometimes it is lighter technical work, walking, a shortened session or complete rest. Recovery is not a moral reward, and constant strain does not prove professionalism. Decision quality emerges in sustained progress, competition readiness and health preserved across seasons.

2. Fatigue, recovery and adaptation are not interchangeable

Fatigue can be defined operationally as a temporary reduction in performance capacity or a higher perceived effort for a given task. It has peripheral components related to muscle tissue and metabolism, but also involves neural regulation, perception, motivation and context. It is not one reservoir that empties and refills. An athlete might feel cheerful yet move a submaximal implement more slowly; another may feel worn out after work yet still perform a highly effective technical session.

Delayed-onset muscle soreness, stiffness and the feeling of having a “heavy body” are information rather than verdicts. Lack of soreness does not establish recovery, just as its presence does not automatically mean injury. A careful coach compares sensation with function: movement range, control, speed at a familiar submaximal load, willingness to move and the trajectory across days. When several signals deteriorate together and an athlete finds the same load increasingly difficult, intervention is better supported than by a solitary fluctuating symptom.

Adaptation develops more slowly than the impression left by a session. An athlete may set a personal record after a few days of reduced volume because accumulated fatigue has declined and previously developed capacity can now be expressed. That does not establish that strength was created in three days. Equally, one extraordinary workout does not guarantee a successful preparation block. Coaching requires trends, and it requires distinguishing the display of performance from its development.

3. Why athletes respond differently to the same loading

Recovery capacity reflects a changing combination of training history, technical experience, food intake, sleep, health, stress, medication, recent exposure, age and personal circumstances. Labels such as “good recoverer” or “bad recoverer” are not permanent diagnoses. An athlete may tolerate heavy deadlifts brilliantly in the off-season but struggle after three closely spaced contests. Another might handle demanding log singles yet respond poorly to a large volume of stones because elbow flexors and forearm tissues carry additional stress.

Experience can improve movement efficiency and load tolerance, but an impressive record does not make someone invulnerable. A veteran may be technically economical while also having a history of injury or responsibilities that reduce sleep opportunity. A beginner may improve rapidly with moderate work and, precisely because the early improvements are exciting, may be pushed into loads that exceed their current tolerance. Individualisation means studying actual responses, not awarding arbitrary privileges to selected athletes.

Scientific literature has an important limitation here. Many recovery studies investigate football, cycling, running or conventional resistance exercise. Strongman adds awkward objects, axial compression, heavy carries and irregular contest calendars. General findings provide a starting point, not permission to invent universal yoke or atlas-stone cut-offs. Numerical cases in this article are educational illustrations rather than validated standards for every strongman athlete [3,7].

4. Total stress: the body does not distinguish gym and life

A coach might design four excellent weekly sessions and still underestimate what the athlete is experiencing. Twelve hours of standing at work, a noisy bedroom, serious personal stress or an overnight drive to a contest may affect concentration, motivation, food intake, movement behaviour and the ability to repeat demanding efforts. These factors cannot responsibly be translated into imaginary “fatigue kilograms,” but they deserve attention. The International Olympic Committee consensus emphasises monitoring both sporting and non-sporting stressors [3].

A useful log therefore contains more than sets and repetitions. A note such as “night shift, four hours' sleep, knee sensitive during warm-up” may support a better decision than a complicated weekly tonnage estimate. The information must be shared without fear of punishment. An athlete who hides fatigue to avoid appearing weak degrades the quality of the data and the safety of the coaching relationship. Communication, the focus of the previous episode, is therefore a necessary condition for effective programming.

Coaches need not convert the athlete's personal life into a surveillance file. They can request limited, relevant, consented indicators such as approximate sleep, perceived stress and readiness to train. The athlete retains control over personal information. Explanations for changes should be clear: “We are adjusting today's work because its cost and risk are high relative to the expected benefit, not because you have failed a test of character.”

5. External load: what the athlete actually did

External load describes the work performed independently of how the body responds. Conventional resistance training records load, sets, repetitions, distance and tempo. Strongman benefits from additional details: implement mass, time under load, distance travelled, number of pickups, obstacles, implement dimensions, loading-platform height and rest intervals. “Four farmers runs” means little without weight per hand, track length, turns and the number of drops.

No single tonnage figure or mathematical formula fully represents an event. Ten log repetitions can impose very different demands depending on whether every repetition starts on the floor or several presses are performed from the rack position. A very heavy short yoke run presents a different challenge from a lighter fast carry, even if multiplying kilograms by metres produces similar values. Whenever a coach uses an aggregate measure, the details omitted by that measure should remain available.

A practical training record shows both the intended and completed work. If six runs were programmed and only three were completed, the difference is useful information, not an embarrassment to conceal. It may reflect excessive prescription, changed conditions, a technical limitation or a sensible safety decision. The coach should investigate the cause and compare sessions that are genuinely comparable before rewriting the programme.

6. Internal load: the cost of the same work

Internal load refers to the psychophysiological response to completed work. Two otherwise identical sessions can create different effort ratings, heart-rate responses, breathlessness or disturbances in subsequent recovery. A simple session rating of perceived exertion recorded after training may help. Multiplying session duration by perceived effort is used in some sports to monitor accumulated load, but that multiplication does not turn every type of work into a precise physiological unit.

Strongman requires contextual interpretation. Minutes spent loading plates and preparing for a yoke attempt are not equivalent to minutes spent moving under compression. Heart rate in a difficult medley may rise because of exertion, excitement, heat and stress without adequately describing tendon or spinal loading. A measurement earns its place when it can improve a decision. Otherwise, the monitoring dashboard becomes an exhibition of impressive-looking numbers.

Saw, Main and Gastin's systematic review found that athletes' subjective reports of well-being were often more responsive to changes in training load than common objective markers [2]. This does not mean abandoning testing. It means not dismissing the athlete's own experience merely because it does not arrive through a sensor. A good assessment combines observable performance, the athlete's experience and a discussion of context.

7. Establishing an individual baseline

A number has little meaning without an appropriate personal reference. A resting heart rate of 68 beats per minute might be normal for one athlete and unusual for another. A fatigue rating of six out of ten could represent the end of a productive week or the start of a decline, depending on the individual's previous pattern. Coaches therefore develop baselines from several representative weeks rather than selecting one retrospectively perfect day.

Measurements should occur under reasonably similar conditions. Comparing a bar-speed test performed after coffee and a lengthy warm-up with one taken immediately after a night shift is problematic. The same principle applies to body mass, pulse and sleep questionnaires. Procedural consistency often matters more than technological sophistication. A simple baseline might begin with three questions: “How did you sleep?”, “How do you feel physically?” and “What unusual demands have you faced?”

Early records are not a basis for judging the athlete; they are a calibration phase. Only after establishing typical variability can the coach ask whether a change is sufficiently large, persistent and relevant to alter training. Good monitoring reduces uncertainty. It never removes it entirely.

8. Self-reporting: good questions beat endless forms

Short questionnaires addressing fatigue, general well-being, stress and recovery have demonstrated value for following responses to training [2]. Their advantage is accessibility: athletes need no laboratory to report difficulty getting out of bed, different shoulder pain or mental exhaustion. Their limitation is human as well: answers depend on trust, language, culture and a wish not to miss an important session.

A workable system might use four categories rated from one to five: sleep quality, energy, unusual pain and stress. The numbers should not automatically be summed into a supposedly precise clinical “recovery index.” An athlete who feels generally fine but reports sharp elbow pain after sandbag lifting has supplied information more important than their mean score. Similarly, a week of declining psychological well-being merits a conversation even when barbell numbers are still improving.

One open question may be decisive: “What should I know before we begin?” It can reveal a transport problem, a sleepless night, fear of an event or a concealed injury. Coaches must not diagnose illness from a questionnaire. They should use it to support dialogue and appropriate triage.

9. Performance indicators: what can the athlete do today?

Recovery can also be followed through low-cost performance checks. A standardised warm-up, a familiar submaximal lift or a simple jump, provided the athlete is proficient at it, may give clues about neuromuscular readiness. In strongman, a technically sound log lift far from failure may be more informative than repeated maximal tests. Above all, testing must not impose a fatigue cost greater than the information it provides.

Results require an appreciation of measurement error. Hand-timing a yoke run varies between observers, while bar-velocity results can change with the device, sensor attachment and execution strategy. Tiny changes should therefore not trigger wholesale programme revisions. A pattern is more compelling: the warm-up feels unusually difficult, the movement is slower, the athlete slept poorly and reports new pain.

A coach should avoid the testing paradox: tiring the athlete every morning in an attempt to discover whether they are tired. Select a small number of repeatable benchmarks and interpret them alongside the purpose of the session and the wider training week.

10. Heart rate and HRV: useful data with real limitations

Resting heart rate and heart-rate variability, or HRV, are sometimes marketed as an infallible traffic-light system for recovery. Reality is more complicated. They can reflect aspects of autonomic regulation but are affected by sleep, illness, alcohol, caffeine, temperature, body position, emotion and recording conditions. There is no universal HRV threshold that determines whether a strongman athlete can safely perform heavy yoke work.

When HRV is used, it requires consistent measurement, individual trends and contextual interpretation. A single low value is not a reason for panic; an apparently favourable reading does not erase joint pain or poor coordination. Very large athletes, people with relevant medical conditions and those with sleep disorders may present further reasons not to automate decisions.

The device is useful when it opens a conversation: “We are seeing a change over several days. How do you feel, and what else has changed?” It becomes unhelpful when a coach abandons observation and allows an opaque algorithm to prescribe loading. Physiological metrics are partial witnesses, not judges of the whole training programme.

11. Blood tests and markers of muscle damage

Creatine kinase, usually abbreviated CK, can rise after demanding exercise, particularly after unfamiliar or eccentric loading. However, values vary enormously between individuals, and a high reading does not directly quantify readiness for the next session. The same caution applies to inflammation markers and isolated hormone measurements. A laboratory result without symptoms, history and clinical interpretation is not a complete picture of recovery [5].

A medical professional may order investigations for specific concerns such as anaemia, endocrine conditions, nutritional deficiencies or cardiovascular disease. Coaches should not turn laboratory reports into their own diagnostic system. Abnormal results require appropriately qualified interpretation. Severe pain, unusual weakness, dark urine, breathlessness or cardiovascular symptoms warrant prompt medical assessment rather than improvised changes to training volume.

For routine monitoring, inexpensive and repeatable observations may be more valuable than laboratory panels ordered without a clinical question. Science is not the indiscriminate collection of measurements. It is the selection of valid measurements that can support worthwhile action.

12. Signals, trends and decisions rather than magic thresholds

When an athlete says “I'm wrecked,” several explanations remain possible: ordinary tiredness after demanding work, inadequate recovery for the planned next stimulus, developing illness, psychological strain or painful symptoms requiring assessment. One score cannot distinguish these circumstances. Practical athlete-monitoring frameworks start with completed work, examine the response, evaluate tolerance and assess readiness for another exposure [13].

In a prudent system, one minor signal may prompt observation, while several converging signs may justify reducing volume, removing maximal attempts or replacing an event. Warning symptoms should stop training and prompt medical assessment. Specific thresholds need athlete-level calibration. Rules such as “if HRV falls by eight per cent, reduce yoke weight by twenty per cent” have no universal validation.

Coaches should record decisions as well as observations. If five heavy sets are changed to three technical sets, the response should be reviewed over the following 24–72 hours. Over time, this creates a modest practical experiment, with clear limitations, that may be more informative than a rigid chart no one checks.

13. Acute fatigue after demanding training

Acute fatigue is not necessarily a programme failure. After heavy carries, squat sets or a long medley, athletes may experience temporary performance reductions, discomfort and an increased need for sleep. Productive training creates disturbances. The difference between appropriate stimulation and excessive dosing lies in the relationship between the cost paid and the intended benefit, and in whether the athlete can return adequately prepared for the next exposure.

If an athlete moves more slowly during the warm-up the day after heavy yoke work, this does not automatically require cancelling the whole microcycle. A light technical session may be sensible before full recovery. However, maximal attempts, rapid changes of direction and events with a greater risk of losing control deserve reassessment when coordination and attention are impaired.

The coach should anticipate when fatigue is acceptable. If Monday's difficult training aims to develop capacity for a competition two months later, some transient discomfort may be justified. If identical fatigue compromises Friday's crucial test, programming should change. Context makes the same physiological state lead to different decisions.

14. Accumulated fatigue and repeatedly difficult weeks

A common error is not one spectacularly hard workout, but the repetition of too many difficult weeks without checking the response. Athletes can complete every session separately while gradually approaching the limit of their overall tolerance. Early signals may be subtle: warm-ups take longer, the first run gets slower, familiar aches last longer and sleep becomes less restorative. A coach might mislabel this deterioration as poor motivation.

Longitudinal records help separate one bad day from a trend. There is no need for dramatic mathematical predictions. Several weeks of comparable observations can show whether the same stimulus is becoming harder to tolerate. Sometimes the problem is rapid progression in weight; sometimes it is too many near-maximal exposures across distinct events or a contest calendar that leaves too little space for restoration.

The answer need not be a uniform percentage reduction in every lift. Removing one disproportionate source of stress may be more useful: the second heavy deadlift day, the final two farmers runs or fatigued atlas-stone attempts. Good individualisation identifies the dominant cost and preserves stimuli that are still working.

15. Functional overreaching, non-functional overreaching and overtraining

Scientific literature distinguishes intentionally demanding periods that lead to temporary performance impairment followed by improvement, prolonged unwarranted deterioration and overtraining syndrome, a complex condition requiring assessment and exclusion of other causes [5]. Not every tired athlete is “overtrained.” Using that label after each heavy session empties it of meaning and may conceal illness, nutritional problems or sleep disorders.

In strongman, intentional overload should be approached carefully because awkward implements introduce technical hazards. A coach may increase volume in a planned block, but no rule guarantees that a performance decline will turn into rebound improvement. Some training approaches use accumulated fatigue deliberately; their usefulness depends on athlete characteristics, dose and subsequent recovery opportunities.

When poor performance persists for weeks and is accompanied by changes in mood, sleep, appetite or systemic symptoms, the answer is not a louder demand for willpower. The programme needs reassessment, and clinical investigation may be appropriate. Competent coaches recognise professional boundaries rather than diagnosing overtraining or unrelated medical conditions by themselves.

16. “The central nervous system is fried”: an inadequate explanation

In strength-training discussions, almost every bad day is sometimes assigned to a “fried central nervous system.” The phrase can allude to real phenomena of central fatigue, but as informal shorthand it frequently substitutes for observation. A slow lift may reflect peripheral muscular fatigue, coordination, poor sleep, pain, insufficient technical preparation or an overestimate of current capacity.

None of these explanations is established by an athlete saying that they “lack explosiveness.” Nor is there a rule stating that every heavy single requires exactly seven days of neural recovery. Exercise selection, volume, proximity to failure, movement quality and individual characteristics all influence responses. The 2026 American College of Sports Medicine synthesis found that training to momentary failure was not necessary for many measured adaptations [6], offering one practical route for moderating session cost.

Operational language is more useful: “The movement slowed, coordination changed and two recovery indicators worsened, so today we are removing maximal exposure.” A modest, verifiable explanation beats a grand-sounding diagnosis made without measurement.

17. Muscle is not the only tissue that adapts

Strength is expressed through muscles, tendons, joints, connective tissue, neural control and learned movement skills. These components do not share one timetable of adaptation or one set of warning signals. An athlete may feel that their back muscles are ready for another loading day while the skin of the hands, the elbow or the shoulder cannot tolerate the same event again. A sense of whole-body recovery does not guarantee each local structure is prepared.

This distinction matters especially with atlas stones, sandbags and carries. Changes in diameter, texture or platform height alter positioning and contact areas. Two events on consecutive days may both stress elbow flexors even though they look different on the event sheet. The coach must record not just the mass handled but how the athlete interacted with the implement.

Ordinary post-exercise muscle discomfort should not be turned into an emergency. However, progressively worsening focal pain, loss of function, swelling or neurological symptoms should not be normalised. The coach can modify exposure and facilitate specialist evaluation, but should not describe every symptom as “the adaptation happening.”

18. Sleep: an unglamorous intervention with major consequences

Sleep affects attention, mood, the regulation of effort and health. The expert consensus led by Walsh and colleagues recommends an individualised approach, noting that one blanket sleep duration fails to capture differences in need and circumstance [4]. The practical question is not simply how many hours an athlete spent in bed, but whether sleep is sufficient, reasonably regular and restorative for that athlete's life and training.

Coaches can help through intelligent scheduling, avoiding unnecessary late stimulation and accounting for travel days. However, no bedtime routine solves every problem. Pronounced snoring, witnessed breathing pauses, severe sleepiness and repeated awakenings can merit evaluation for sleep disorders. For high-body-mass strength athletes, these issues should not be overlooked on the mistaken assumption that great strength rules out breathing problems.

An athlete who repeatedly sleeps poorly needs training compatible with reality, not a lecture on discipline before every session. Sometimes the most effective coaching intervention is shortening an evening workout so that the athlete has a realistic chance of sleeping earlier.

19. Night shifts, travel and fragmented schedules

A strongman athlete's life is not always organised around a professional support structure that protects sleep. Many competitors have demanding jobs, family responsibilities, limited budgets and long car or bus journeys to contests. A plan that simply assumes nine uninterrupted night-time hours can look elegant on paper but remain impossible in practice. Adaptation begins by recognising constraints rather than denying them.

After a night shift, a coach may move the maximal session to a better window while keeping a short mobility or low-load technical session. During competition week, the plan should consider journey duration, possible delays, meals and access to rest. For an athlete competing on Saturday after a ten-hour drive on Friday, an extended activation workout upon arrival may cost more than it provides.

There is no perfect compensation for chronic sleep restriction. Planned naps may help some people but do not make persistently short nights harmless. Coaches manage variables within their control and recommend specialist care when difficulties persist. Recovery-based programming means building a plan that works in the actual calendar, not in an imaginary ideal week.

20. Nutrition for recovery: adequate, appropriate and repeatable

Food intake influences training readiness, tissue repair and development, fuel restoration and tolerance of effort. Protein supports muscular adaptation, and the International Society of Sports Nutrition position stand gives a general intake of roughly 1.4–2.0 g/kg/day for many active people [8]. This should not be interpreted as a command to multiply the full body mass of every exceptionally heavy strongman by the highest figure and force down the result; body composition, total energy intake and medical circumstances matter.

Carbohydrates support high-volume sessions and glycogen restoration, particularly when workouts are close together. Dietary fat also has important physiological roles. Coaches should help athletes maintain regular, varied and adequate intake instead of relying on enormous, poorly tolerated meals immediately before stone loading or a demanding medley.

Meal timing can fit the person's schedule without becoming a superstition about a tiny “anabolic window.” Daily totals and consistency across weeks are central. Distributing meals according to digestion and availability may help. If weight is falling rapidly, fatigue is persistent or gastrointestinal symptoms are prominent, working with a sports dietitian is more responsible than improvising a supplement stack.

21. Hydration, sodium, heat and the limits of sweat-based guesses

A summertime medley in a poorly ventilated gym can impose substantial heat stress on top of mechanical work. Sweat loss varies greatly between people and settings; a large body mass alone does not reveal an exact fluid requirement. Thirst, gastrointestinal tolerance, session duration, ambient temperature, measured losses under comparable conditions and medical guidance matter more than advising everyone to drink the same fixed volume.

Excessive hydration can also be dangerous. Coaches should not encourage forced water consumption or uncontrolled salt supplementation, particularly for athletes with hypertension, renal conditions or other medical concerns. When losses are substantial or risks exist, strategies need appropriate individual assessment. Weighing before and after training can help describe changes in mass over that period, but the result is not a pure water measurement and does not demand instant replacement of every gram.

Prevention includes sufficient breaks, access to fluids, ventilation, adapting the session under heat strain and recognising warning signs. Marked dizziness, confusion, severe weakness or loss of consciousness are not failures of determination. They require stopping activity and urgent assessment.

22. Energy restriction and the temptation to cut weight during preparation

An athlete may simultaneously want a bigger deadlift, faster yoke, smaller waist and a lower number on the scale. These goals are not automatically incompatible, but food decisions affect energy availability and the ability to maintain training volume. Aggressive calorie restriction during a block featuring maximal loads and many events can amplify fatigue, impair session quality and complicate recovery. Choices should reflect the dominant objective of the phase.

In weight-limited categories, rapid mass reduction before weigh-in can be tempting. These practices may introduce dehydration and compromises to health and performance. Coaches should discuss competition regulations, time between weigh-in and the start, the athlete's history and nutrition options well in advance, rather than turning weight cutting into a test of suffering.

For a very heavy athlete, gradual body-mass reduction may sometimes be a reasonable goal, but it should be distinguished from a phase prioritising immediate maximal performance. Rate of change, nutrition and metabolic risks require individual decisions, ideally with a qualified specialist. Massages and cold baths cannot solve a persistent deficit in essential energy intake.

23. Low energy availability and REDs are not female-only concerns

Relative Energy Deficiency in Sport, or REDs, concerns the possible systemic consequences of inadequate energy availability. The International Olympic Committee's 2023 consensus explicitly discusses male as well as female athletes [10]. A person need not look extremely lean to experience consequences of insufficient intake relative to physiological demands. High body mass does not automatically provide protection.

Possible features include persistent fatigue, recurrent illness, poorer performance and bone or endocrine concerns; none of these features alone establishes the condition. A coach should observe patterns and ask respectful questions without imposing obsessive calorie tracking or humiliating remarks about the body. Diagnosis and clinical management belong to appropriately trained health professionals.

In strongman, this risk can be obscured by the idea that a large athlete must simply “eat less” to improve movement. Responsible coaches separate body composition from personal worth and physiological health. The aim is to support performance and long-term functioning together.

24. Recovery strategies: foundational versus optional

Massage, compression, gentle activity, cold exposure and other interventions can modify perceived comfort or some measures of recovery. Feeling better immediately afterwards, however, does not automatically establish better long-term sporting adaptation. Consensus recommendations emphasise context and matching recovery strategies to goals [1]. For most athletes, the foundations remain programming, sleep and adequate energy intake.

Immediate cold-water immersion after strength training illustrates the distinction. A 2024 systematic review suggested that cold immersion directly after resistance exercise might modestly attenuate muscle growth over time, although the quality of the underlying evidence remains limited [9]. An intervention that reduces discomfort before another near-term performance is therefore not necessarily appropriate after every hypertrophy-focused off-season session.

The coach should ask: what needs to recover, by when and at what cost? An athlete competing again in two days may prioritise short-term function. An athlete developing muscle in the off-season may prefer to protect longer-term adaptation. Optional methods should remain tools rather than substitutes for a programme that athletes can recover from.

25. Deadlifts and squats: fatigue carried into other events

In strongman, the deadlift does not exist in isolation. One week may include floor deadlifts, partial pulls, repetitions for time, followed by yoke, stones and carries. Local demand on spinal extensors, hip musculature and grip can overlap. Coaches who recognise only a “leg day” and an “events day” risk prescribing the same cost twice under different names.

A heavy deadlift session taken close to failure may leave more residual fatigue than a small number of technically clean singles, although the comparison depends on intensity, volume and the individual. The 2026 ACSM overview showed that training to failure is not required for strength and hypertrophy gains across the studied populations [6]. Within a broader events programme, retaining some repetition reserve can allow adaptation without sacrificing the next key session.

Coaches should also watch specific signals: trunk stability during warm-up, maintenance of technique, changes in movement tempo and unusual pain. If a crucial yoke session follows, deadlift volume may be reduced or emphasis moved to easier variations. There is no universally correct 48-hour or 72-hour interval for everyone. The practical recovery window needs observation.

26. Log, axle and overhead pressing: recovery of the shoulder and the skill

Overhead pressing combines force production with trunk positioning, functional mobility, scapular control and coordination between the lower and upper body. Cleaning a log to the chest adds demands on spinal extensors, elbow flexors and the upper body. Two apparently separate sessions, one for strict press and another for log, may therefore produce more overlapping stress than a simple count of pressing sets suggests.

When assessing recovery, coaches distinguish muscle fatigue in the shoulders, technical difficulty in the rack position and joint pain appearing at a particular phase. A failed press does not always mean insufficient raw strength: the log may have been cleaned badly, a previous event may have caused fatigue or drive timing may have been lost. The solution starts with identifying the limitation, not reflexively adding ten shoulder sets.

In demanding weeks, one session can develop underlying strength while another rehearses technique with manageable loading. Every day does not require maximal attempts. New pain, numbness or instability should interrupt progression and prompt appropriate assessment. The aim is to preserve availability for the decisive event rather than consume capacity in intermediate sessions.

27. Yoke: why kilograms cannot describe the whole demand

The yoke demonstrates the difference between external work and actual cost. A very heavy implement can move a few metres with short steps and repeated corrections, while a lighter load can move quickly over a longer distance. Axial compression, time under load, balance, stride and stability all affect demand. The highest number of kilograms does not necessarily identify the most fatiguing workout.

Coaches should record pickups and distance separately. Five unsuccessful attempts to stand up with a heavy yoke can be demanding even though the logbook reports “zero metres.” Surface conditions, footwear and frame geometry also alter technique. These details matter when comparing sessions.

During a heavy deadlift week, yoke work might emphasise technically clean runs at manageable intensity, stopping before movement quality deteriorates. If speed is the desired adaptation, athletes should not be so overloaded that they can practise only survival steps. Judge the event according to the specific capacity being developed, not solely according to the most dramatic photograph.

28. Farmers walk and grip: recovering the hand that holds the system together

Farmers walk is sometimes described as a forearm exercise. In reality, it combines grip, trunk stabilisation, hip extension, locomotion and control of swinging external loads. Performance may decline because the grip fails, steps become inefficient or breathing can no longer support pace. Recovery assessment should follow the actual limiting factor.

Hands, skin, finger flexors and tendons may tolerate a different volume from the leg muscles. If the athlete handled abrasive sandbags yesterday, maximal farmers work today may be a poor choice even when the back feels fine. Similarly, very frequent grip sessions can interfere with other pulling and support-based events.

Intelligent progression alternates stimuli: sometimes distance, sometimes loading, sometimes turns or the initial pickup. Avoid increasing all variables simultaneously. When performance declines, first establish whether handle control was lost, the implement changed or general readiness deteriorated. A precise training assessment helps prevent unnecessary work.

29. Stones and sandbags: technique, skin, elbow flexors and accumulated strain

Atlas stones and sandbags stress the body in ways that cannot be reduced to a deadlift equivalent. Implements can deform or have awkward dimensions, their centre of mass may shift, and gripping requires friction and unusual positions. Transferring an object to a platform also combines strength with a learned sequence. When a tired athlete repeats the same technical error, another set does not necessarily improve skill.

The coach should distinguish lack of proficiency from insufficient readiness. If the first two loads are clean and later attempts devolve into jerking movements, rounded-back compensations and distressed elbows, stopping early may protect learning quality. After high-volume loading work, the following day should not automatically include another large dose of pulling and carries that stress the same structures.

Skin condition, tacky products, ambient temperature and implement texture also matter. An abrasion is not automatically a major injury, but an open wound changes safe participation. A good programme accounts for these practical details that tonnage spreadsheets tend to overlook.

30. The microcycle: event order may matter more than event count

Distributing events across a week resembles solving a system of constraints more than a classic “chest, back, legs” split. Someone preparing deadlift, log, yoke, farmers and stones cannot assume that every event will receive an ideal training day. The coach sets priorities, identifies muscular and technical overlap, and places important sessions where adequate readiness is most likely.

For example, during an accumulation week, deadlifts might be followed by upper-body accessories, then rest or easier technical work before heavy carries. This is not a universal template. If the athlete works shifts or has access to implements only on Sundays, the plan must change. Logistics are real, and a programme is useful only if it can be performed without disproportionate compromises.

Coaches should mark not only sessions but their intended purpose: high stimulus, skill practice, work capacity or recovery. Two heavy days may be reasonable for an experienced athlete, but three demanding days that stress the same tissues need a compelling explanation. Event sequencing is a form of recovery management.

31. Alternating demanding and lower-cost days

Organising hard and easy days does not mean that part of the week is wasted. A lower-cost day can reinforce technique, comfortable movement and routine without competing with the main session for the same resources. “Easy” is relative: a load trivial to an elite athlete can be near maximal for a beginner. Intensity and volume must be anchored in individual capacity and experience.

For example, a heavy yoke day involving short runs might alternate with a technique day focusing on position, steps and turns under a fully controllable load. Likewise, a demanding log session might be followed, after an appropriate interval, by low-cost practice without missed lifts. The goal is to accumulate valuable repetitions, not to maintain dramatic levels of exhaustion.

Programmes should not be copied between athletes merely because they share a weight class. Someone performing physical labour may need more lower-cost days than an athlete with an office job, although other circumstances can reverse the comparison. The distribution should be judged against the response in subsequent weeks.

32. Deloading: a programming tool rather than a fixed ritual

A deload is a planned reduction in training demands intended to manage fatigue and allow gains to become more accessible. It may involve changes in volume, intensity, event frequency, proximity to failure or a combination. There is no universal rule that every fourth week must contain exactly half the previous tonnage. Frequency and magnitude depend on the training phase, individual and competition calendar.

For an athlete doing many demanding events, considerably fewer hard attempts may be enough while retaining a small amount of relatively heavy, technically clean work for familiarity. Another person may need a larger reduction after closely spaced contests and long journeys. A deload that becomes a maximal testing week defeats its purpose, as does supposed “recovery” filled with endless accessory sets to exhaustion.

After reducing load, the coach checks whether sleep, comfort and execution have improved. If they have not, the hypothesis that the problem was simply training fatigue needs reassessment. A deload does not independently treat injury, disease or severe non-sport stress. It may help, but cannot replace evaluation.

33. Autoregulation using RPE and RIR

RPE is a rating of perceived exertion. RIR refers to estimated repetitions in reserve before muscular or technical failure, depending on the definition agreed upon. Both can help dose conventional strength exercises when day-to-day capacity varies. If a planned working set should be challenging but controlled and instead feels unusually difficult, the coach may adjust the load or number of sets.

These methods are imperfect. Beginners may judge reserve poorly, while timed events and loaded carries do not translate cleanly into RIR. A farmers run can end when the handle escapes long before the legs approach failure. A log miss may be technical rather than a simple indication of zero muscular reserve. Athletes must learn the scales and use them only where they are meaningful.

A straightforward protocol defines a target exertion range and chooses the day's working weight during warm-up, preserving the session's purpose. On favourable days the athlete can work near the upper end without turning every workout into a contest. On poor days, calibrated adjustments permit an appropriate stimulus with lower cost.

34. Movement velocity and estimating today's capacity

Bar-velocity monitoring can add information when conventional lifts are performed in reasonably standardised conditions. For a given movement and load, changes in velocity may reflect readiness or execution strategy. However, individual load–velocity relationships require calibration, and devices have technical limitations. A formula developed for squats should not simply be imported into atlas-stone coaching without validation.

In strongman, a coach can monitor a repeatable run time or the fluidity of a familiar lift, but should avoid grand conclusions from tenths of a second measured inconsistently. An athlete can become faster through technical improvement rather than recovery alone. Conversely, slower movement may reflect implement demands or a tactical choice to conserve energy.

Where resources allow, velocity data can complement RPE, repetitions and sleep observations. Where they do not, a careful coach still has tools: standardised warm-ups, a reliable training log, repeatable timing and dialogue. Technology should improve decisions rather than merely complicate them.

35. Tapering: arriving ready to compete, not merely rested

Tapering is a planned adjustment of training demands before competition that aims to reduce fatigue while retaining developed capabilities. It is not the same as abruptly stopping training. If relevant implements disappear from practice too far before the event, technical familiarity may deteriorate. If they are tested maximally until the day before, the athlete may arrive with unnecessary fatigue.

The coach decides which stimuli to maintain, which volumes to reduce and how much time the individual needs to feel ready. Recovery after a heavy yoke exposure may differ from a speed-oriented farmers session or technical log work. The final competition week must also account for transport, the judging schedule, meals, rule changes and possible time-zone differences.

An athlete who feels uneasy after reducing volume is not necessarily unprepared. A changed routine can be psychologically uncomfortable. The coach should explain the purpose in advance and keep a few familiar technical anchors. A good taper turns previous months of work into performance available when the start signal arrives.

36. Closely spaced contests: priorities and the cost of competing

Strongman calendars can involve short gaps between contests, especially for athletes seeking experience, qualifications or tour points. A competition entails more than timed events: warm-ups, unsuccessful attempts, waiting, potential dehydration, travel and disturbed sleep. Coaches should regard the whole event as demanding exposure, even when no personal records were achieved.

If competitions are only one or two weeks apart, it may make little sense to insert a full developmental training cycle between them. Preserving movement, checking comfort and addressing specific technical issues may be more useful than performing volumes that cannot produce the intended adaptation before the next contest. Where a lower-priority competition was deliberately treated as training, part of the programme may be maintained.

The competitive objective should be explicit: which event matters most, what results are desired and what compromises are acceptable? Without this decision, a coach may pursue a maximum every weekend and compromise the whole season. Recovery is a calendar-management strategy as well as a physiological concern.

37. Returning after illness: a rule more important than the plan

A respiratory infection, febrile illness or gastrointestinal problem can substantially change training readiness. Frustrated by a lost week, an athlete may try to compensate with a very heavy session immediately after symptoms improve. This is not a sound default strategy. Return should be gradual and consider illness severity, remaining symptoms, treatment and medical advice where appropriate.

Intense training should not continue during fever, substantial systemic illness or concerning cardiopulmonary symptoms. Chest pain, disproportionate breathlessness, unusual palpitations, severe dizziness or fainting require medical assessment. A coach cannot exclude myocarditis or other complications beside the deadlift platform. The question “How fast can I regain lost numbers?” comes after “Is it safe to restart?”

Early sessions may be shorter, submaximal, more generously spaced and followed by observations over the next 24–48 hours. If symptoms recur, progression should stop. Trying to repay every missed workout within a single week can create the very delay the athlete hoped to avoid.

38. Pain, injury and the difference between adaptation and warning

Pain does not map one-to-one onto tissue damage, and its intensity does not establish a diagnosis by itself. Yet it is meaningful information. Familiar, transient discomfort after demanding work may lead to observation and dose adjustment. New, focal or worsening pain, especially alongside loss of strength or function, makes maximal attempts “to see if it goes away” a poor decision.

A retrospective epidemiological study in strongman frequently identified problems involving the lower back, shoulder, biceps and knee, but its findings must be interpreted in light of self-reporting and the study design [7]. Percentages observed in one sample cannot predict the outcome of an individual athlete. They do, however, justify attention to progression, technique, volume and persistent symptoms.

The coach's role is to document the circumstances, stop unsafe exposure and coordinate return with appropriate specialists. Issuing a diagnosis or promising to cure an injury through a preferred exercise variation exceeds that role. Athlete safety takes precedence over finishing the originally planned session.

39. Rehabilitation and return to events require professional coordination

After injury, recovery is not the same as voluntarily reducing volume during a normal training week. Physicians and physiotherapists may define restrictions, stages and signs of progress, while coaches adapt strength work and event exposures without contradicting clinical advice. It is ineffective for everyone involved to work from a different assumption about what the athlete can do.

Return to strongman can proceed in stages: tolerance of general movement, modified exercises, implement contact and finally competition-relevant intensity and speed. Progression should not depend only on the number of calendar days elapsed. Function, symptoms, technical quality and agreed clinical criteria matter. A full atlas-stone event is not always the first appropriate test of elbow recovery.

Communication must run both ways. Coaches explain the true demands of an event, including implement size and movement dynamics. The clinician can identify suitable exposures and warning signals. The athlete receives one coherent plan instead of conflicting messages about courage and protection.

40. Sex, age and history: individualisation without stereotypes

Women, men, younger competitors and older athletes are not homogeneous groups. Average population differences cannot determine one person's recovery. An experienced woman may tolerate a high volume of pressing and carries better than a novice man, while two athletes of the same age may have entirely different injury histories and sleep resources.

Among older athletes, training background, medical conditions and between-session recovery may warrant adjustment, but age alone is not a reason to abandon progressive training. In adolescents, biological development, health protection and competent supervision take priority over adult-style maximal contests. Women may experience individual symptom and readiness variation related to the menstrual cycle, but current evidence does not justify one rigid algorithm imposed on everyone in every phase.

The common principle is informed dialogue and tracking personal responses. Coaches should neither prescribe from stereotypes nor ignore relevant differences, and should not seek intimate information without a valid reason and consent. Individual programming is a practice of respect and precision rather than hasty classification.

41. Very high-body-mass athletes: performance and health together

For an athlete weighing 130–160 kg, body mass may be mechanically useful in some events while changing the demands of movement, heat regulation and travel. Weight alone does not establish health status, but sporting performance does not rule out hypertension, metabolic concerns or sleep disorders either. A coach should treat the competitor as a whole person, not merely as a useful number for yoke.

Recovery sometimes depends on details that appear minor: safe loading platforms, appropriate footwear, breaks during hot conditions, adequate sleeping arrangements on trips and access to preventive clinical care. An abnormal blood-pressure measurement or other medical finding cannot be dismissed with “but he lifts huge weights.” Stimulants and any substances potentially affecting sleep, cardiovascular health or recovery should be discussed candidly with clinicians rather than concealed to protect an image of toughness.

Health should never become a source of humiliation. Reducing cardiovascular risk, improving conditioning or gradually changing body composition can coexist with a strongman identity. A mature coach can integrate these goals without reducing the athlete's value to their scale weight.

42. Clinical decisions and training decisions must remain distinct

Sometimes a coach sees something that normal session fatigue cannot adequately explain: chest pain, loss of consciousness, severe breathlessness, sudden weakness, neurological signs, fever or very dark urine following extreme exertion. These circumstances require stopping activity and urgent medical assessment, not another RPE reading. Recognising professional limits and arranging a safe response is part of coaching responsibility.

Other concerns are less dramatic but merit referral: persistent or worsening pain, prolonged unusual fatigue, unintentional weight loss, major sleep changes or repeated illness symptoms. Coaches may reduce exposure and record what they see, but clinical interpretation belongs to appropriately qualified professionals.

Where no warning signs exist and the issue appears to be tolerance of a particular training volume, a coach can reasonably experiment with dosage and scheduling. Separating these situations leaves room for intelligent training without turning every problem into an improvised diagnosis. This boundary protects the athlete and the coach's credibility alike.

43. Case study: a shift worker loses speed on farmers walk

Imagine an intermediate athlete who normally completes four submaximal farmers runs with consistent times. Across two consecutive weeks, the times deteriorate and the athlete says the grip “no longer holds.” The first reaction might be to add grip trainers or static holds. A conversation, however, reveals a recent switch to night work, fragmented sleep and training immediately after the shift. There is a more plausible alternative to sudden loss of grip strength.

The coach temporarily reduces carry volume, moves the key session to a window following better sleep and retains short technical exposure on a more difficult day. Run times, weights, rest intervals and sleep notes are recorded. After two or three weeks, results are compared without automatically attributing improvement to one adjustment, since several factors have changed.

The lesson is that a weaker result does not always demand more training for the body part that fails first. Sometimes an athlete needs conditions that permit expression of already-developed ability. Without questions about life outside the gym, coaches can prescribe the opposite of what is needed.

44. Case study: a strong deadlifter develops sensitivity to stones

An experienced competitor continues improving deadlift and yoke but reports recurring discomfort at the front of the elbow after large-volume atlas-stone sessions. Concluding that the athlete has globally “poor recovery” would be premature. The evidence suggests a local issue needing attention. The coach first discusses symptoms, stops provoking loads and recommends assessment where pain persists or function is affected.

Within medical guidance, training may preserve unaffected qualities through tolerable exercises while reducing exposure to aggravating positions. Stone gripping technique, platform height, implement diameter and attempt count are documented. A painful event should not automatically be replaced by another supposedly “safe” event without understanding its demands.

This case illustrates why recovery should be evaluated according to the task and structures involved rather than one global energy score. An athlete can be ready for productive training without being ready for every implement on the same day. Individualisation preserves progress where possible and takes local warning signs seriously.

45. Case study: the beginner improving too fast to notice the cost

A novice becomes familiar with log lifting and increases the personal best almost every week. Excited, the athlete requests additional sets and tests maximal weights more often. Initially the approach appears successful. Yet early improvements involve skill learning and neural adaptations, not instant strengthening of every loaded structure. Being capable of lifting a weight today does not establish that repeatedly handling it is already tolerable.

The coach changes the goal from weekly records to movement quality and managed progression. Some sessions use loads with effort in reserve, while others focus on the clean and stable overhead positions. Stop criteria include loss of control, new pain and repeated misses. The beginner learns to recognise a workout as successful when technique improves without a new record.

This is not an argument for timid training. Learning how to dose effort allows many productive months to accumulate. Meaningful progress is the capacity to repeat clean performances and increase demand gradually, rather than the number of dramatic attempts posted online.

46. Case study: eight weeks before a five-event competition

Consider an athlete eight weeks from a contest featuring deadlift for repetitions, log, yoke, farmers and sandbag loading. The first week evaluates limiting factors and recovery capacity rather than testing every personal best. Subsequent weeks develop priorities while overlapping back and grip demands are managed. Not every event needs its maximum possible volume every week.

As the contest approaches, attention moves towards specificity and fatigue control. If yoke times decline while sleep worsens, the solution is not necessarily more yoke. Removing an additional heavy pulling session may be more effective. If log technique remains unreliable, a small number of good lighter repetitions can be retained without repeatedly testing the maximum.

During the final phase, overall demands decline while key technical elements remain. Travel, contest time and equipment are incorporated. This is not a universal eight-week template; it demonstrates the sequence of reasoning: understand demands, monitor response, adjust the dose and arrive with usable capacity.

47. A practical decision system: green, yellow and red without superstition

A simple traffic-light convention can support organisation if it does not claim to replace judgement. “Green” means no unusual concerns, a familiar warm-up and reasonable justification to follow the plan. “Yellow” refers to several mild indicators or a meaningful change in function; the coach examines context and may reduce volume, loading, complexity or proximity to failure. “Red” means warning symptoms, significant pain or inability to move safely: the provoking work stops, with medical evaluation according to severity.

The traffic light must not be mechanically generated by an app. Excellent sleep and favourable pulse cannot make an athlete with chest pain “green.” One poor night combined with a normal warm-up may still allow carefully adjusted technical training. “Yellow” is not failure; it is often where the coach's competence becomes visible in the choice of a better stimulus.

Every decision needs a recorded reason and a reviewed outcome. If the programme is permanently being reduced, that pattern suggests a scheduling, health or programming issue requiring deeper assessment. The colours are a communication convention rather than a biological law.

48. The five-minute pre-session protocol

An accessible procedure begins with a one-minute check-in: sleep, energy, stress, new pain and possible symptoms of illness. A familiar warm-up follows, with attention to movement, coordination and perceived effort. The coach compares the information with the session's requirements and selects one of three options: proceed, adjust demands or stop the exercise and seek appropriate evaluation.

Next, the session objective is explained. If today targets yoke speed, maximal loading is not the goal. If today develops deadlift strength, success should not be redefined mid-session merely because a friend hit a personal record. Afterwards, completed work, agreed effort metrics and any unusual events are documented.

This process does not require expensive technology. It requires consistency, communication and the coach's ability to change a plan without losing authority. A well-explained adjustment reinforces trust; impulsive changes every week create confusion. Monitoring is valuable when it introduces flexible stability rather than unstructured daily negotiation.

49. A four-week cycle to learn an athlete's recovery pattern

During week one, record loads, session durations, completed work, approximate sleep, perceived effort and relevant symptoms without aggressively changing the structure. In week two, check measurement consistency and identify events associated with the greatest apparent cost. In week three, test one cautious adjustment, perhaps fewer farmers runs following a heavy deadlift day, keeping other factors reasonably stable. In week four, compare not just records but comfort, attendance consistency and technical quality.

This process is not a clinical experiment and cannot establish certain causal effects. Sleep variation, skill learning and life events can all influence the result. Nevertheless, practical reasoning can improve: the coach forms a hypothesis, applies a cautious change, observes the response and revises the explanation.

Repeated over time, these cycles develop an individual profile far more useful than generic labels. The athlete learns to communicate what is happening and the coach learns where recovery resources matter most. The aim is not to avoid all fatigue but to ensure that the fatigue accepted serves a purpose.

50. Conclusion: performance belongs to the athlete who can repeat adaptation

A strongman coach should not be assessed only by the highest number lifted on one favourable Saturday. The programme also succeeds when athletes can return, learn, progress across events and arrive healthy and ready for meaningful competitions. Individual recovery is not the opposite of hard work. It is the system that allows hard work to continue productively.

The principles discussed are practical: record external work and internal response, establish individual reference points, listen to athletes, prioritise sleep and food, manage overlapping event demands, apply autoregulation without numerical mythology and recognise when a concern belongs to medicine. Use science to inform decisions without pretending that general research validates every feature of strongman.

A good coach does not demand daily proof that an athlete can survive a workout. A good coach develops the capacity to perform when it matters. In the next episode, we will build on this foundation and examine video-based error correction: how to observe a movement, distinguish causes from symptoms and deliver feedback that changes technique.

51. The individual recovery sheet: turning observations into programming

To translate these principles into practice, a coach can use a straightforward weekly record built together with the athlete. Before every session, it captures approximate sleep duration and quality, perceived stress, energy, symptoms of illness and any pain that differs from familiar post-exercise discomfort. It also specifies the session's objective rather than merely listing exercises. A workout intended to develop yoke speed has different success criteria from one rehearsing the stability of the initial pickup. Stating the objective prevents the day from being redefined whenever a heavy implement becomes tempting.

During training, record the loads, actual sets and repetitions, distances, rest periods, misses and meaningful changes in technique. For carries, surface and implement details help interpretation. For stones, diameter and platform height may explain performance differences that weight alone cannot capture. Afterwards, athletes provide a brief global effort rating and a free-text note. All of this should take minutes rather than requiring a lengthy reporting ritual. A monitoring process that is too complicated will disappear precisely during the demanding weeks when its information is most valuable.

Once per week, compare intention with reality. Did missed lifts increase? Did times worsen under genuinely comparable conditions? Were sessions skipped? Did sleep, mood or unexplained symptoms change over multiple days? The coach should avoid turning every fluctuation into a problem. Instead, review previous interventions and determine whether the total dose, event sequence or one local exposure needs adjustment. Where medical symptoms are present, the record can help a clinician understand the circumstances without pretending to establish a diagnosis.

On a monthly basis, the review asks two connected questions: “What capacity improved?” and “What repeatable cost was required to obtain that improvement?” Two programmes may produce similar strength gains, yet one may fit the athlete's working life, sleep, health and competition calendar far better than the other. That difference is not an administrative detail. It is part of what makes a sporting career possible rather than a collection of isolated peak performances.

The most important measurement is therefore not always the most technologically elaborate one. A coach who knows when to ask, what to record, how to distinguish an unexpected symptom from routine soreness, and when to preserve or change the stimulus can use a simple notebook intelligently. Conversely, a high-resolution dashboard can create false confidence when no one checks whether its indicators are relevant to the demands of the next session. The purpose of every measurement is to inform a better choice for a specific athlete at a specific moment. The person remains more important than the score.

References and scientific sources

Methodological note. This article provides an educational synthesis of research on recovery, training load, nutrition and monitoring, integrated with applied consideration of strongman events. Strongman-specific evidence remains limited, and many principles come from other sports or studies of conventional resistance exercise. Programming examples and case scenarios are illustrative rather than clinically validated protocols. The references below permit verification of the main claims; observed associations in research do not automatically establish causality for every athlete.

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[7] Winwood, P. W., Hume, P. A., Cronin, J. B., & Keogh, J. W. L. (2014). Retrospective injury epidemiology of strongman athletes. Journal of Strength and Conditioning Research, 28(1), 28–42. https://doi.org/10.1519/JSC.0b013e3182986c0c

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[9] Piñero, A., et al. (2024). Throwing cold water on muscle growth: A systematic review with meta-analysis of the effects of postexercise cold water immersion on resistance training-induced hypertrophy. European Journal of Sport Science, 24(2), 177–189. https://doi.org/10.1002/ejsc.12074

[10] Mountjoy, M., Ackerman, K. E., Bailey, D. M., et al. (2023). 2023 International Olympic Committee's (IOC) consensus statement on Relative Energy Deficiency in Sport (REDs). British Journal of Sports Medicine, 57(17), 1073–1097. https://doi.org/10.1136/bjsports-2023-106994

[11] Schwellnus, M., Soligard, T., Alonso, J. M., et al. (2016). How much is too much? (Part 2) International Olympic Committee consensus statement on load in sport and risk of illness. British Journal of Sports Medicine, 50(17), 1043–1052. https://doi.org/10.1136/bjsports-2016-096572

[12] Thomas, D. T., Erdman, K. A., & Burke, L. M. (2016). Position of the Academy of Nutrition and Dietetics, Dietitians of Canada, and the American College of Sports Medicine: Nutrition and Athletic Performance. Journal of the Academy of Nutrition and Dietetics, 116(3), 501–528. https://doi.org/10.1016/j.jand.2015.12.006

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