Series: BEYOND THE ARENA: HOW TO ORGANISE A STRONGMAN COMPETITION - Episode 2: Selecting Events and Balancing Difficulty

Only weeks before a strongman competition, an organiser looks at an attractive event list: maximum deadlift, log press for repetitions, a heavy yoke, a fast farmers walk and atlas stones. The list offers five powerful images for an audience, but the crucial sporting question is not whether they look impressive. It is whether they distinguish relevant athletic capabilities under fair and consistent conditions. If each implement tests nearly the same limiting ability, the contest may favour one athlete profile too heavily. If the loads are excessive, many competitors may receive zero. If they are too light, speed may dominate an event advertised as a strength contest. If the sequence exists solely for entertainment, accumulated fatigue can change the final events in ways nobody anticipated.

Episode Two of BEYOND THE ARENA: HOW TO ORGANISE A STRONGMAN COMPETITION examines event selection and difficulty balancing as matters of sports design, biomechanics and operations. It does not claim that one universal set of five or six events is perfect. Strongman has different formats, traditions and circuits, with legitimate differences in their aims. The objective is instead a decision process that can be explained, checked and improved. We consider what each event family tests, how maximum strength relates to speed and work capacity, how implement loads should be selected, what happens when many athletes tie on zero, why sequence and rest matter, and how judging, venue geometry and safety affect selection. Numerical examples are teaching scenarios, not official standards.

The evidence base includes Hindle and colleagues' systematic review of strongman exercise biomechanics, their review of research methods, studies of the yoke and farmers walk, strongman injury epidemiology, the ACSM resistance-training position stand and the International Olympic Committee's consensus on training and competition load [1–7]. Published rules from Strongman Champions League and Official Strongman illustrate real differences among systems [8,9]. An important limitation deserves explicit mention: existing work documents mechanical characteristics of individual events, but there is little direct experimental evidence comparing whole strongman competition programmes and proving that one yields a universally fairer ranking. We therefore separate established evidence, cautious biomechanical inference and practical organisational recommendations.

1. What should a strongman competition measure?

In everyday speech, strength can sound like one indivisible attribute: somebody is either strong or not. In exercise physiology and biomechanics, performance is task-dependent. An athlete may generate exceptionally high force against a slowly moving barbell yet struggle to apply that capability while running with two heavy objects. Another may excel at overhead pressing but have modest stone-loading results because object geometry, grip, body position and technical transitions become important. No individual performance fully represents all these capacities. Strongman literature identifies families of movements including lifting, carrying or walking, and pulling tasks [1]. Therefore the claim that a contest crowns the strongest athlete needs an operational definition: which types of tasks will be used to compare competitors? Without one, the title sounds compelling but remains scientifically imprecise.

Measurement theory describes a related concept as construct validity: an assessment should capture the property it claims to assess. This does not mean transforming every competition into a laboratory or confusing audiences with equations. It means asking whether results are largely influenced by the capability we intend to test. A maximal deadlift measures performance in that lift under its prescribed technical and equipment conditions, not absolute strength in every possible movement. A twenty-metre farmers walk tests loaded locomotion in a particular setting where mass, handle design, traction, stability and acceleration interact. A loading medley measures performance over an entire sequence, not the simple average of capacities observed in isolation. Validity depends on the stated aim of the competition, and that aim must be set before knowing who might win.

Sporting purpose should be distinguished from the cultural identity of strongman. Events have their own history, and an organiser may reasonably include iconic stones, heavy carries or vehicle pulls to preserve a recognisable character. Tradition, however, does not excuse unclear judging or poor equipment design. Atlas stones may be the signature event, yet a stone too large for most competitors' usable grips or platforms of inappropriate height can generate too many tied scores and unnecessary exposure to hazards. A truck pull may be spectacular, but ground friction, gradient and weather can alter the actual task between competitors. The sport's iconic movements are starting points for careful design rather than exemptions from it.

Balance does not simply mean one event for every muscle group. That interpretation, sometimes imported from gym programming, misses the complex nature of strongman. The trunk, grip, posterior chain and postural systems do not work in isolated compartments during a loaded yoke walk. Events are multifactorial. Two very different-looking implements may share a decisive limiting factor such as maintaining trunk rigidity, while movements engaging similar musculature can demand distinct motor skills. It is more useful to analyse functional dimensions: maximum force production, expression of force at speed, loaded locomotion, control of irregular objects, repeat-effort capacity and technical complexity. The matrix suggested here is a practical design tool, not a scientifically validated universal scale.

Consider two imaginary contest programmes. One includes maximum deadlift, axle deadlift repetitions, a frame deadlift and a medley dominated by low-position pulls. Despite their different labels, the rankings may depend substantially on pulling capacity, trunk demands and task-specific grip. A second uses maximum deadlift, log repetitions, a yoke, farmers walk and atlas stones. It potentially samples a wider set of qualities but cannot guarantee perfect fairness. A specialised pressing championship might deliberately include two overhead events. That is legitimate when clearly advertised. The concern is presenting a deliberately specialised event as a neutral, exhaustive assessment of all strongman abilities.

The meaning of the winner matters too. In many contests, final standing comes from placing points in each event rather than directly adding kilograms to seconds. Event selection therefore sets implicit sporting weights. Five events with equal placing points may influence the total equally even while requiring very different amounts of work. Five strongly overlapping events effectively provide repeated scoring opportunities for the same capability. Conversely, when one event produces mostly ties, its ability to differentiate athletes shrinks and its effective importance differs from its nominal weight. Simply displaying five different event icons cannot guarantee balance. Organisers must consider the interaction of task demands, the expected distribution of results and the scoring system, an issue developed further in Episode Five.

An experienced team can complete an event-selection matrix before signing supplier contracts. List candidate events in rows and relevant demands in columns: maximal force, pressing, loaded carry, loading and object handling, speed, repeated effort, technical complexity, grip and operational risk. Rate each cell with a modest ordinal judgement such as low, moderate or high, and explain the reasoning. Ideally two people complete it independently before comparing disagreements. The matrix must not be presented as a statistically validated balance score. Its purpose is to uncover unintentional overlap and force the team to articulate choices. If every candidate event rates high for grip demand while the organisers intended broad testing, the design should be questioned.

A final uncomfortable question is how much performance should depend on previous familiarity with a particular implement. Strongman is legitimately technical: manipulating stones and logs is part of the sport. Yet rewarding skill differs from introducing arbitrary surprises. An athlete may train stones of known diameters, but an unusually textured competition stone unveiled only on the day may disproportionately favour those who tested it earlier. The answer is not total uniformity across all strongman events. It is disclosure of relevant dimensions, comparable access to information and, where practical, equal opportunities for technical inspection. A well-designed contest tests adaptability without turning unequal information into a hidden extra event.

2. The biomechanical families of events: why a name is not enough

An event name cannot fully describe the sporting task. We need to examine its dominant movements, forces, contact with the implement, duration and conditions for recording a result. Hindle and colleagues' 2019 systematic review synthesised studies on the atlas stone lift, farmers walk, heavy sled or vehicle pull, log lift, keg walk, suitcase carry, tire flip and yoke walk [1]. The authors grouped the exercises broadly into carrying and walking, pulling and static lifting, while also identifying distinct phases within tasks. This is a useful scientific framework, but not a complete catalogue. Real contests include Husafell carries, Conan's Wheel, wheelbarrow events, arm-over-arm pulls, axle clean and press and multi-implement medleys. Traditional names indicate a family; the detailed rules and equipment define the actual test.

Consider a static lift. Maximal deadlift involves very high force against a load moving relatively slowly near the athlete's limit, but performance depends on bar configuration, start height, handle diameter, mass distribution, permitted straps, suits and lockout standards. An axle deadlift and a flexible deadlift-bar event are not interchangeable because the advertised mass is identical. Joint moment demands, start mechanics and grip limitations may differ. An organiser cannot assume that pulling strength will be measured identically by every implement. Similar issues arise between log and axle clean and press. A bulky log requires particular object handling and stabilisation; an axle introduces different grip and clean mechanics. Allowing a single clean followed by multiple presses changes the task compared with cleaning every repetition.

Loaded carries introduce locomotion that static lifts do not reproduce in the same way. In a yoke walk, the athlete supports a large mass while generating stable steps through an implement transferring load via the shoulders and trunk. Biomechanical research documents changes in spatiotemporal characteristics with loading and the characteristics of the sample, without identifying one universally optimal profile [3]. During a farmers walk, hand grip becomes directly involved, while each step can induce implement oscillation. Published biomechanical analysis comparing the farmers walk with ordinary walking and deadlift demonstrates that it is more than running with oversized dumbbells [4]. A carry tests the ability to lift an object initially and then transform available force into an efficient series of steps.

Odd-object handling changes the mechanical problem again. An atlas stone requires hand and forearm positioning around a round object, stabilisation in the lap, trunk repositioning and extension to a platform. A larger diameter is not merely a heavier stone: even at equal mass, moment arms, grip surface and access for the hands differ. An equally heavy sandbag may be compressible, have a different gripping surface and reward another strategy. Tire flips combine initial force production with rotation and control of a large rolling object. This is why a list of weights cannot fully describe difficulty. Two implements marked 120 kilograms do not necessarily pose equivalent challenges. Geometry and technical rules are part of the load.

A second classification concerns the result: maximum mass, repetition count, completion time, distance, achieved height or progress through a sequence. The same implement can elicit different athlete behaviour under different outcome rules. A maximal attempt allows preparation between lifts within the regulations. A sixty-second repetitions event highlights pacing, breathing and decisions about short pauses. A yoke sprint for time rewards starting and acceleration differently from a maximum-distance carry. Organisers must define the outcome before selecting judges and timers. Otherwise, competition morning may reveal that no rule exists for an athlete who covers only seventeen metres of a twenty-metre course.

A third dimension is time: how long an effort lasts and how load is distributed within it. The principal effort of a maximal attempt may be brief, while the full process including setup and reloading can take minutes. A ninety-second medley can combine high-force tasks with accelerations and turns. A vehicle pull may involve a difficult initiation phase and a different steady movement phase. These distinctions shape fatigue and recovery opportunities. ACSM guidance highlights task specificity and the relevance of intensity and exercise order in resistance training, but training recommendations cannot be mechanically converted into precise predictions of competition rankings [7]. Physiology helps planners anticipate possible effects; it does not let them calculate exactly how each competitor's performance will decline.

For each candidate event, describe in plain language: what is lifted or moved; where the task begins and ends; the likely limiting factors; what is measured and how accurately; the permitted techniques; the treatment of failures; and how changes in equipment or surface might alter results. This description is often worth more than pages of promotional material. In a farmers walk, an athlete unable to lift the handles at the start may receive zero despite potentially impressive running speed once moving. If organisers wish to test carrying speed without that initial barrier, they can design a different format, but should acknowledge that it changes the skill tested. Event design begins with the anatomy of the task, not a photograph on the poster.

A methodological caveat matters. Existing biomechanics studies involve relatively small participant groups, often men, tested with particular implements and protocols. The 2020 methods review describes practical difficulties of field measurements and the use of simplified methods including two-dimensional motion analysis [2]. Observed laboratory values should therefore not become universal thresholds for novices, women, masters athletes or events with different implements. Research provides mechanisms and plausible expectations. The choice of actual loads needs to consider the registered field, experience, equipment and realistic testing. Where data are weak, the responsible choice is to acknowledge uncertainty and build a documented adjustment process before the rules become final.

3. Static strength and overhead pressing: maximum weight is not the only difficulty

A static event can provide a clear reference point for a competition. Spectators quickly understand increasing kilograms, and athletes recognise the approach toward loads near their individual limits. Yet the organiser must choose between maximum weight, repetitions at a fixed load, or progressive loading. Each variant produces a different distribution of results and rewards different strategies. In maximal deadlift, athletes select loads and seek the largest valid result; with multiple attempts, progression and rest intervals matter. A one-minute deadlift-for-reps event can become a test of local endurance, movement economy and breathing management. A progressive ladder also introduces transitions between loads. Merely writing “Deadlift” on a poster is inadequate technical information and does not allow the schedule to be estimated accurately.

Difficulty has two distinct meanings: how demanding a task is for one athlete and how well it separates the results of an entire field. Three hundred kilograms may be routine for an elite competitor, impossible for another and unsuitable for a novice division. Organisers need more than the strongest entrant's personal record. They should estimate the distribution of ability using verified results from similar events, disclosed entries and, where useful, independent coach input. Ideally, competitors should have genuine opportunities to record distinguishable performances while the task remains a meaningful strength challenge. Eight zero scores in a field of twelve are not automatically illegitimate, but they require a convincing explanation if broad competitive balance was the advertised goal.

In a progressive maximal event, step size can alter placings. If loads are 250, 270, 290 and 310 kilograms, a competitor capable of 289 kilograms and another capable of 271 can record the same official result. Very small increments, however, increase attempts and logistical duration. Very large increments increase ties. An organiser can use a more flexible loading system with predeclared attempts and ordered changes, but that requires rigorous technical staffing and judging. No scientifically established universal increment exists. Step size should reflect class ability, the attempt limit, expected strength range and the ability to reload safely. The actual mass should be checked physically rather than inferred from colours or unverified markings.

Overhead events add further variation. Maximal log press, log repetitions, axle clean and press, and unilateral giant dumbbell are all overhead tasks but are not equivalent tests. Implement diameter, handles, shoulder positioning, overhead balance and clean requirements matter. Requiring every repetition to begin on the floor partly transforms a press-for-repetitions test into repeated cleans. Allowing push press or jerk means the result does not represent strict pressing strength alone. No technique is inherently inferior in a contest that has declared it. The rulebook must establish permitted methods, valid final positions and whether mass or repetitions determine the score. An announcer can explain the distinction simply; an official must be able to judge it consistently.

Two deadlift and two log events in a five-event general competition may overrepresent similar qualities and local fatigue. An athlete with exceptional hip extension and static loading tolerance would receive several opportunities to score from closely related abilities, while a competitor excelling at carries or odd objects might have fewer. Such concentration is justified in a dedicated deadlift-and-overhead championship, but it should be explained in a contest claiming broader coverage. Resistance-training research indicates that exercise order, intensity and specificity affect performance, but it does not prescribe a mandatory number of static events for strongman championships [7]. Choosing a defensible balance remains a sporting-governance decision.

For repetitions events, one frequent error is taking a favourite athlete's one-repetition maximum and subtracting a fixed percentage to determine the competition load. Athletes can perform different repetition counts at the same fraction of maximum, and equipment or fatigue can modify the relationship. An exceptional maximal lifter may not maintain repeated performance as well as a competitor with greater repeated-effort capacity. Define the purpose before choosing the percentage. Are we testing a few heavy repetitions or sustained work over roughly a minute? Is the event pressing endurance or the entire clean-and-press cycle? If many zeroes are likely, an entry load, successive weight stages or a secondary outcome measure may be considered, provided the adopted competition regulations permit them and the consequences for every competitor are clear.

Static events contain hidden standardisation issues: different bar flex, starting heights altered by plate diameter, unstable platforms, conflicting markings and inconsistently permitted personal equipment. A thick axle can make grip the principal limitation; straps change that relationship. A contest primarily intended to measure lifting strength may intentionally reduce the grip constraint, while a grip-focused contest may do the opposite. Both approaches require explicit rules. Terms such as raw or classic have different meanings in different sports and organisations. The competition document must define its actual equipment and performance standards rather than rely on ambiguous labels.

Static and pressing events have a valuable place in many strongman programmes because they provide an intelligible demonstration of high force, but their difficulty needs calibration across three dimensions: physiological demand, differentiation between entrants and reproducible standards. An event with challenging loads but universal zeroes may offer little discrimination. An event differentiating athletes well but using inconsistent lockout standards is unfair. Even clear rules cannot save comparability when a vital implement fails halfway through. Responsible planning anticipates all three failure modes before the programme is printed.

4. Heavy carries: yoke, farmers, frame and the difference between mass and movement

Loaded carries sit at the heart of strongman's identity because they require an athlete to transform available strength into controlled movement over distance. In a gym, a heavy lift can be assessed by its load. In a farmers or yoke lane, kilograms do not tell us how quickly the object can be transported, how much it oscillates or the physiological cost of keeping it moving. An athlete capable of an exceptional static lift can lose time through repeated stops, unstable steps or grip failure. Another with less maximal strength may win through efficient acceleration and consistent rhythm, provided the implement remains within their ability to control it. Carries are not decorative accessories to the deadlift. They represent a distinct expression of strength involving force, speed, coordination and postural control [1,3,4].

The yoke is an excellent example. Athlete and implement create a dynamic combined system. A large mass supported on the shoulders can oscillate forwards and backwards, while stride length and cadence contribute to stability. Hindle and colleagues' research provides evidence about movement patterns and spatiotemporal characteristics but does not prescribe a universal contest load [3]. The organiser must define weight, distance, whether putting down and restarting is allowed, finish-line measurement, time limit and treatment of incomplete attempts. A 350-kilogram yoke over ten metres does not necessarily rank athletes identically to the same yoke over twenty-five metres. Starts and acceleration may dominate a shorter route, while sustained movement, local endurance and avoiding stops may become more influential on a longer route.

Yoke design changes difficulty as well. Structure width, rigidity, bar height, plate distribution, crossbar diameter and available adjustments affect how the implement behaves. A very rigid frame should not automatically be assumed mechanically equivalent to one oscillating noticeably at every step. Parallel competition lanes need comparable loads, heights and handling. Ground conditions are equally influential: uneven paving can turn an event into obstacle avoidance, and a slight slope changes acceleration and braking. Changing direction for later competitors may be unfair if wind or gradient meaningfully influences movement. Direct route inspection is more useful than assuming that any two measured twenty-metre paths are automatically equivalent.

Farmers walk combines the initial lift, hand-grip maintenance, trunk stability and loaded locomotion. Comparative biomechanics research has documented differences between farmers walk, ordinary walking and deadlift [4]. Yet “130 kilograms per hand” does not guarantee a stable difficulty level across implements. Handle height above the ground, diameter, texture, object width and length, and mass distribution can change both the start and oscillation during movement. Long implements close to the legs feel different from compact blocks. A turnaround introduces a new technique requirement, whereas a straight sprint places greater emphasis on starting and uninterrupted cadence. Permitting straps changes what the event demands of grip, and prohibiting them changes it again. The personal-equipment rule and the implement's characteristics should be provided before competition.

Frame carry, wheelbarrow and modified car carry cannot be analysed simply by summing the weight of two objects held at the sides. A frame may have central or lateral handles, a low platform and a different centre of gravity. Car carries have their own load distribution and movement restrictions. Organisers should distinguish total implement mass from the mechanical demand on the athlete. For vehicles being pulled or pushed, vehicle mass is not equal to the required pulling force: rolling resistance, gradient, brakes, tyre pressure and the ground all matter. Advertising a fifteen-tonne truck pull describes the truck's mass, not a lifting force equivalent to a fifteen-tonne barbell. Explaining the distinction preserves the drama while avoiding misleading physics.

Rope, cable and harness pulls are particularly sensitive to geometry. The attachment point, rope length, initial angle, shoe-ground friction and rolling condition of wheels can dominate difficulty. An athlete facing a partly engaged brake cannot fairly be compared with one pulling the same vehicle after the brake is fully released. Even without visible faults, wind or changes in traction matter. A controlled rehearsal by competent staff should check whether conditions can be reproduced. If venue or vehicle conditions change mid-event, sporting officials must follow the published procedure for assessing whether results remain comparable, whether a restart is justified or whether the event should stop. There is no simple defensible formula that automatically adjusts every such difference into corrected seconds.

For carries, difficulty is better described by the combination of verified mass, implement geometry, distance, surface and time limit. A very heavy farmers walk over ten metres may become primarily a test of the initial pick and short hold. Over forty metres, the same implement can demand endurance and pacing if entrants can lift it. A thirty-second yoke limit may yield zero completions from athletes capable of finishing in fifty seconds. Extending the limit can change standings without changing one kilogram. Before finalising details, simulate different profiles: a very strong but slower athlete, a lighter fast athlete, an exceptional grip athlete and one prone to dropping the load. The purpose is not to favour individuals, but to test whether the event differentiates competitors in a way consistent with the stated sporting objective.

Heavy carries ultimately teach scientific humility. Mass cannot be separated from movement, and movement cannot be separated from the environment. Promotional numbers describe part of the challenge but do not certify difficulty or comparability. A credible event specifies what is moved, how far, over which course and under what rules, then checks whether those conditions remain stable between competitors. A mismeasured metre or a lane with different grip can affect rankings more than the genuine ability gap between closely matched athletes. The organiser's responsibility is to make the outcome reflect sporting performance as much as possible, rather than accidents of venue geometry.

5. Odd objects and medleys: when technique changes the meaning of heavy

Static strength events sometimes permit a relatively straightforward comparison of loads. Odd-object events create additional challenges. A concrete stone has no handle, a sandbag deforms, a tire rotates and a keg can shift the relationship between its centre of mass and the athlete's contact points. Equal masses are consequently not equivalent mechanical tasks. Selecting atlas stones, sandbag loading, tire flip or keg toss requires the organiser to understand that difficulty arises from object geometry, surface, athlete dimensions, permitted technique and the movement destination. The studies synthesised by Hindle and colleagues on stones and tires support this reasoning, although limited protocols and participant numbers constrain generalisation [1,2].

In atlas-stone events, diameter influences whether athletes can embrace the object effectively, while platform height influences the final extension. A taller athlete may have advantages or disadvantages compared with a shorter one, depending on diameter, friction and loading geometry; height alone cannot settle the question. When stones progress in mass, organisers need to ask whether difficulty increases gradually in practice rather than merely on labels. A 140-kilogram stone with an exceptionally smooth surface may be more difficult to handle than a 150-kilogram stone with more favourable contact. If platform heights vary across stones, progression becomes multidimensional. Publish verified masses, approximate diameters, platform heights, the order of stones, time limits and rules for tacky, chalk, forearm protection and repeated attempts.

Sandbag loading is often chosen because it appears logistically simple: a few bags, a platform and a timer. In reality, bag shape, packing density, wear, filler position and object height influence available gripping strategies. For three progressively loaded bags, define the order, distances between objects, what counts as successful loading and what happens if a bag falls backwards. An exceptionally wide bag may disproportionately challenge shorter-armed athletes even at a reasonable mass. Organisers should determine whether that technical challenge is intentional or distorts the intended test. Eliminating all anthropometric differences is neither possible nor necessarily desirable in strongman. Accidentally changing bag shape between athletes or using implements of unverified mass, however, undermines legitimate comparison.

Tire flip has its own complications. Total tire mass is only part of the problem because initiating rotation depends on diameter, contact points, rubber rigidity and whether the athlete can get their hands under the edge. The ground influences how predictably the tire turns. A larger tire with useful tread grips may be easier to initiate than a slightly lighter tire with an awkward lip. Check that every athlete receives a comparable start position and that the object is reset consistently after each repetition. Spectator separation must reflect the entire zone into which a tire may move, tip or rebound, not just the footprint it occupies at rest.

Medleys add sequencing. Suppose a competitor carries a 100-kilogram bag for fifteen metres, then a 110-kilogram keg, then loads a 120-kilogram object onto a platform. The winner may not be the strongest at any individual component. They may be the person who manages transitions, preserves speed, avoids mistakes and works efficiently under fatigue. That is a legitimate quality to test. Yet if the final object is impossible for nine of twelve entrants, much of the ranking will depend on the first two tasks, and incomplete results may create multiple ties. If every implement is much too light, the event becomes close to a sprint with moderate resistance. Neither outcome is inherently invalid; it must match the advertised purpose.

Distances between objects may affect medley results almost as much as mass. Repeated 180-degree turns create a different task from a straight lane, and different routes for different athletes undermine comparability. Rules must say whether objects can be completed in any order, whether switching hands is allowed, where finish lines lie, and how incomplete sequences rank. One system may compare the number of completed implements and then time or distance on the unfinished segment, but there is no universal strongman method. If objects have highly unequal difficulty, simple station counts may imply that a trivial segment is worth as much as a very demanding one. Those compromises belong to competition philosophy and the scoring system.

Odd-object events are not decorative entertainment. They help distinguish gym strength from force applied to complex real-world-like tasks, one of strongman's defining features. Success depends on transparent object dimensions, comparable conditions and a progression that lets an appropriate share of competitors demonstrate different performance levels. A very heavy atlas stone can create a memorable climax, but if it turns nearly every athlete into a spectator of the favourite, the organiser should ask whether this is a meaningful competitive event or effectively a demonstration. Extreme difficulty can have a place, but it should be deliberate rather than inserted only for photographs.

The strongest argument for including odd objects is not that they look more authentic than a barbell. It is that they generate constraints that barbell strength alone does not fully resolve. An irregular surface demands continuous grip adjustment; a shifting load challenges balance; a large diameter changes the relationship between the implement and body segments; repeated transfers create distinct phases of effort. Yet precisely because these tasks are complex, the organisers' obligation to communicate implement characteristics becomes stronger. Technical novelty can be legitimate, but hidden access to practice equipment for some athletes and not others is not a defensible competitive advantage. A fair event can reward adaptability while disclosing the conditions athletes are expected to adapt to.

6. Calibrating difficulty: thresholds, zero scores and ranking sensitivity

Choosing an event load is sometimes treated as intuition: recall what a famous champion lifted, subtract or add kilograms, and announce the result. In fact, it is a measurement problem under uncertainty. We cannot know each entrant's precise performance on the competition day because fatigue, preparation, time, equipment familiarity and environment all matter. At best we have estimates derived from relevant competition results and training information of varying credibility. A well-calibrated event need not guarantee personal records. It should offer meaningful differentiation and an appropriate challenge for the advertised competitive standard. This is not a demand to make events easy. It is a demand to know why they are hard and what their difficulty will do to the rankings.

A useful idea is the floor effect. If ten of twelve entrants cannot perform the first valid lift, scores cluster at the minimum. The event no longer distinguishes those ten athletes. At the other end, the ceiling effect occurs when almost everybody reaches the highest result the format permits. In a very easy three-object medley, every entrant may finish within a narrow time range. Timing may still differentiate them, but an error of a few tenths of a second can become disproportionately influential. In repetitions events, most athletes may similarly accumulate near-identical counts. Floor and ceiling effects come from measurement theory; using them to reason about strongman is a practical analogy, not a statistical system experimentally validated for every competition.

Imagine twelve entrants in a log-for-repetitions event with two proposed loads. With load A, ten athletes score zero, one scores one repetition and one scores two. With load B, two score zero, three score one, four score between two and four, and three score between five and eight. If the contest's purpose is to differentiate regional pressing ability, load B might reveal more information across the field. Yet load A could be intentional at an extreme elite final where breaking the threshold is the spectacle. Choosing between them depends on the event's purpose and level, not an imagined universal prohibition on zero scores. We should know whether we want broad ranking discrimination or a near-maximal threshold challenge before making the final choice.

A basic sensitivity analysis requires no advanced software. Develop an anonymised set of realistic ability estimates for the target category using documented results, then simulate likely outcomes under three candidate loads. Examine the share of entrants who might finish, expected zeroes, distinct scores and time needed to deliver the event. The simulation does not predict the future precisely. Its purpose is to expose designs that rely on the optimistic assumption that everybody will arrive at peak form. Handle personal information carefully and avoid publicly ranking athletes using gossip. Particularly in novice competitions, verified comparable performances may be more useful than selectively presented social-media training clips.

For carries, mass cannot be calibrated separately from distance and time limit. A yoke that allows ten athletes to finish twenty metres may allow only four to finish forty, despite unchanged load. A harsh time limit can record incomplete performances for athletes genuinely able to carry the object at a slower speed. A very long limit may transform a sprint into a stop-start endurance test. Difficulty is therefore a vector of mass, geometry, distance, time, attempts, reset rules and permitted equipment. Changing any one component can change placings. There is no magic number of kilograms that defines an event's level independently of its complete context.

Different classes also require independent analysis. It is not defensible to assume every women's or lighter-weight division should use a fixed percentage of men's open weights, regardless of event and experience. Performance distributions, anthropometry and access to equipment may create different relationships. Official Strongman publishes class-specific loading for certain qualification events, illustrating that parameters belong to particular categories and formats rather than one universal constant [8]. Independent organisers should examine evidence from the populations they actually plan to invite, test their implements and consult people with relevant experience. Claiming that science has established one correct mass for all women, masters or novices goes beyond the available evidence.

How can organisers improve score differentiation without making a contest trivial? By relating the answer to the event's purpose. A maximal event may begin at an achievable entry load and progress to truly demanding attempts. A medley may start with accessible implements and increase in difficulty, allowing weaker athletes to record meaningful progress while stronger competitors display both completeness and speed. A timed yoke may be heavy enough to remain recognisably a strength task without excluding most entrants at the first step. These designs still require precise ranking rules. If ties are resolved through criteria invented after competition, even excellent load selection cannot protect fairness.

Before finalising weights, bring together the sporting director, equipment coordinator and safety lead. The first assesses sporting relevance, the second verifies that the proposed masses can be achieved and measured, and the third evaluates venue and technical hazards. Record each change, its reason and the final deadline for altering announced parameters. After the final rules are published, a safety-driven change may still be necessary, but it must not become a disguise for accommodating favourites. Responsible competition design is not a promise that conditions will never change. It is a transparent method for deciding and communicating unavoidable changes.

7. Event order, accumulated fatigue and fairness across a long competition day

An organiser can choose five excellent events and still create a poorly balanced competition through their order. Strongman loads the whole body, and fatigue does not disappear when the announcer introduces the next implement. Grip maintenance, trunk stabilisation, loaded acceleration and complex motor skills can all be influenced by previous work. The International Olympic Committee consensus on training and competition load highlights the importance of intensity, duration, frequency, loading history, sleep, psychological stress and recovery in athletes' responses [6]. It does not supply a formula for perfect strongman event order, but it supports treating sequence and rest as genuine variables rather than decorative features of the schedule. We cannot infer that every final event is unfair; we can infer that a final event must be considered in its accumulated context.

Imagine the same contest delivered in two sequences. First: maximum deadlift, log repetitions, yoke, farmers and atlas stones. Second: farmers, yoke, deadlift, stones and log. This is more than a change to the audience's narrative. The first may produce considerable pulling and axial load before the carries. The second may fatigue grip and trunk before deadlift, while stones can alter preparedness for the final overhead event. Yet there is inadequate evidence to declare either sequence universally superior. Athletes with different endurance, technical skill and recovery characteristics may respond differently. Organisers therefore should not choose an order designed to favour known entrants. They should offer defensible sporting and logistical reasons, publish the sequence in advance and use the same conditions for everybody.

Repeated limiting factors deserve attention. If two opening events demand extreme grip endurance, such as strapless farmers and a heavy bag medley, forearm fatigue may influence later pulling. Two overhead events in succession may produce local shoulder and triceps fatigue. A difficult vehicle pull followed immediately by a heavy yoke can tax locomotor musculature repeatedly. These combinations are not automatically prohibited. A demanding final may deliberately assess repeated performance under fatigue. The point is that this must be a conscious choice. Repeatedly challenging the same structures also tests between-event recovery. If that quality contributes to the ranking, organisers should acknowledge it rather than calling every result an isolated measure of pure strength.

Rest matters both as a nominal interval and as the interval an athlete actually receives. In a twelve-competitor event, the first person in one round may have a different wait to the next event than the last, depending on order and equipment changeover. Reverse-order starts based on previous standings may produce different combinations of waiting and preparation. Such patterns are part of many formats, but participants need to understand them. Technical delays affecting only some entrants may create an unplanned recovery advantage or disadvantage. Useful controls include announced start orders, realistic minimum changeover periods where possible, prepared warm-up facilities and suspension/restart procedures. Physiologically identical recovery cannot be guaranteed, but arbitrary allocations of preparation time can be reduced.

Overall event duration also changes the challenge. Five events packed into three hours are not experientially equivalent to the same five spread over nine hours. Over a long day, staying warm, eating, moving between areas and maintaining concentration become part of performance. Over a short day, reduced recovery can affect repeated effort. There is no scientifically established perfect number of minutes for all competitors and events. Operationally, the schedule should be realistic and contain contingency time. Lost minutes should not be recovered by suddenly cancelling athletes' expected recovery without appropriate communication and rules. An athlete informed of a thirty-minute break should not unexpectedly be summoned for an attempt three minutes later because the stage crew wishes to catch up.

Interpretation of fatigue must respect research limitations. Much evidence on load and injury comes from other sports, and weekly load models cannot precisely predict performance in a one-day strongman medley. Popular acute-to-chronic workload ratios have methodological limitations and should not be treated as validated safety cut-offs for competition. Strongman loading is implement-specific and competitors vary considerably in experience. Retrospective injury research supports caution, but it does not show that one particular order of five events causes a particular injury rate [5,6]. Distinguishing general physiological principles from direct contest evidence is essential to scientifically responsible communication.

A practical event-order review can be straightforward. List events with their dominant demands, expected setup time, performance duration and warm-up needs. Highlight sequences repeatedly stressing the same limiting ability. Simulate three athlete profiles and one credible delay scenario. Identify whether venue constraints drive the sequence and whether any alternative preserves logistical efficiency while distributing load more appropriately. Consult judges and medical personnel on operational concerns, then publish the agreed order sufficiently early. This will not mathematically discover the best possible programme, but it can remove obvious contradictions. That is a more defensible objective than claiming scientific optimisation based on incomplete data.

Fatigue belongs in strongman. A champion must perform across multiple demanding tasks, sometimes after severe efforts. What the organiser should not add is accidental fatigue through avoidable delays, failed transport, inadequate warm-up areas or selectively communicated changes. There is a sporting and ethical difference between difficulty intentionally designed for all athletes and difficulty suffered only by those unlucky enough to have a blocked lane or a shortened break. The first may legitimately define the contest. The second damages its credibility.

8. Divisions, standards and fairness: difficult for whom?

The word difficult is incomplete unless we identify the intended competitors. The same yoke may be straightforward in an elite open final and impossible for most novices. A log producing five repetitions from a highly trained athlete may produce none from somebody with limited implement experience. Planning should therefore define the level and eligibility of an event before selecting loads, rather than choose spectacular weights first and work out who can compete later. Novice, experienced amateur and elite competitions differ in more than the mass of the implements. Technical complexity, capacity for repeated efforts, preparation time and familiarity with competition procedures also matter. A useful first question is whether the organisers intend to assess emerging skill, broadly established competitive ability, or the outer boundary of exceptional performance.

Current systems illustrate genuine variation among classes. Official Strongman's 2026 online qualifying events include open, multiple men's and women's bodyweight classes, and masters categories, with category-specific loading requirements [8]. Strongman Champions League publishes its own events and rules [9]. These structures should not be merged into a fictional universal regulation. A sanctioned contest should follow the applicable organisation's current rules. Independent organisers may set their own class structure, but it should be justified by likely entrants, available resources, credible judging and the possibility of meaningful results. A class with one entrant cannot provide the interpersonal comparison normally implied by a championship title, although the individual performance may remain impressive and worth recognition.

A novice event can create a gradual entry into strongman without losing its identity. It need not be reduced to light gym exercises or become an unscored demonstration, but it should avoid unannounced technical barriers and implements that exclude nearly everybody. A mix of lifting, overhead work, carrying and an odd object can introduce a broad sporting experience, provided adequate instruction and equal equipment information are available. If a particularly unusual implement is used, novices should know its dimensions and technical rules before travelling. Otherwise the result may predominantly reflect previous access to that equipment rather than the strength competence the event claims to test. Basic opportunity to prepare is a fairness issue, not a demand that the organiser make the contest easy.

Women's and lighter bodyweight divisions deserve independent calibration, not a universal percentage of men's open weights. Much of the available published strongman biomechanics evidence involves small male samples, as methodological reviews acknowledge [1,2]. There is no universally validated equation converting a men's yoke load into the correct women's load across every competitive standard. The same applies to stone diameters, platform heights and handle design: anthropometry and equipment characteristics can change difficulty independently of listed mass. Use documented performances from the category concerned, consult people with relevant experience and physically inspect the implements. Women's participation should not be treated as a decorative addition to a men's contest. If women's classes are advertised, they need genuine sporting design and adequate resources.

Masters divisions require similar care. A threshold age does not determine an athlete's physical capacity, and competitors above forty or fifty may possess extraordinary experience and strength. At the same time, injury history, recovery and implement familiarity vary individually. It would be irresponsible to prescribe one mandatory reduction factor for every masters competitor. Classes and loads can be adjusted to the field and the organiser's regulations without turning age group membership into a medical diagnosis. Technically accessible choices should not be mistaken for underestimating older athletes. Good competitions allow authentic performances across classes within a reasonably managed risk environment.

Small fields create another challenge. An organiser may be tempted to combine very different divisions under identical loads simply to make logistics easier. An open format can be legitimate when everyone knowingly enters those conditions. In other cases, it can create unsuitable tasks for much of the field. Options include publishing fewer classes before registration, using category-specific loads, scheduling separate rounds or holding a demonstration rather than a classification whose comparisons would be misleading. Every option creates operational costs and trade-offs. The essential issue is to explain them before athletes commit rather than improvisedly merging categories on competition morning.

Fairness must encompass access to information, not only implement mass. If one group can test stones beforehand while another does not even know their diameter, the advantage may arise from privileged access rather than athletic ability alone. If favourites privately learn the truck-pull start position or strap permissions, the conditions are no longer informationally comparable. Organisers can offer common inspection sessions or technical briefings when feasible and distribute reliable specifications otherwise. Equal access to information does not imply equal results, and it should not. It simply prevents unequal communication from artificially magnifying differences in preparation.

Even judging consistency can have class-specific implications. A log's lockout rules, a sandbag's platform condition and the measurement of a partly completed yoke should be defined with equivalent clarity across all divisions. If an event uses different apparatus sizes, the difference must be reflected in technical briefings and the judges' instructions. The referee does not need to demand identical movement patterns from competitors with different anatomy where the written rule defines an outcome, but the declared outcome standard should be consistently applied. Distinguishing valid technical variation from rule-breaking is the responsibility of qualified officials, not a justification for favouritism.

Ultimately, calibrating events across divisions means designing several related tests rather than applying a single arithmetic discount to a men's open programme. The same event family may be retained while mass, distance, platform height or time change, but each adjustment can alter what determines success. Review the expected result distribution for each class on its own terms. A professional organiser cannot promise identical bodies, abilities or preparation histories. They can promise declared criteria, verified parameters, comparable information and consistent rules within each division. That is a practical foundation of sporting fairness.

9. Technical risk, officiating and infrastructure: the limits of spectacle

Event selection is a safety decision before it is a staging decision. A test can have genuine sporting value yet remain inappropriate for the available venue. An enormous tire flip needs room for rotation and stopping. A heavily loaded yoke needs a stable lane and space where the implement can be set down without reaching spectators. Atlas stones require platforms capable of supporting impact and controlled handling space. Vehicle pulls require checks of rolling conditions, route geometry and vehicle restraint. Retrospective strongman injury research documents injuries across different anatomical regions, but it does not permit a precise individual injury probability to be assigned to every implement or future contest [5]. Organisers should not manufacture arbitrary hazard coefficients from an epidemiological study. They should identify the actual site hazards and manage them through suitable equipment, competent personnel and verifiable procedures.

Difficulty cannot be increased without limit simply by adding mass. At some point extreme loading creates disproportionate operational consequences: implements become difficult to handle, platforms may be unsuitable, a larger loading crew is needed, event duration rises and errors become more likely. Increasing the yoke load requires checking structural capacity but also stability during walking, component condition, behaviour when dropped and safe resetting between attempts. A massive log must be manipulated without unnecessarily exposing staff at every changeover. Stones demand appropriate landing areas and a safe method of recovering an object that fails to remain on the platform. General risk-management frameworks such as ISO 31000 help organise decision-making, but they do not provide engineering specifications for every strongman implement [11].

Judging changes the actual difficulty through the conditions of valid performance. An ambiguous deadlift lockout leads to different results even when competitors can move equivalent masses. A delayed down command on a log can add an unannounced isometric stability challenge. Farmers timing differs depending on whether the first implement or both implements must cross the finish line. With atlas stones, a stone that briefly touches a platform and falls requires an explicit interpretation. These are part of the challenge, not peripheral technicalities. Sporting directors and referees should rehearse several borderline attempts before finalising the rules. That discussion can expose wording which appears precise in print but does not tell judges what to do when an object moves unexpectedly.

Complex events increase the potential for errors, particularly when technicians are hurried. In a loading medley, officials may need to observe implement order, successful transfers, timing and interference with the course. In a deadlift ladder, loading crews must verify each step. When two lanes operate simultaneously, a single referee may struggle to observe all relevant details. Event design must therefore match available staffing. It is not responsible to draft seven simultaneous validity conditions with one judge and no supporting record. A simple, observable rule can be fairer than a sophisticated theoretical scheme that cannot be executed reliably on the field.

Environmental and surface conditions matter just as much. Outdoor rain can alter traction; heat complicates the management of strenuous effort; wind can affect tall implements and exposed courses. Every competition should have procedures for suspension, course inspection and resumption, with named authority. Not every rainfall event requires cancellation of a farmers walk, yet a wet course cannot simply be assumed equivalent to a dry one. Sound decisions integrate actual ground observations, competent assessment and sporting comparability. Thus an event list is not independent of the season. An autumn outdoor competition and a midsummer indoor contest may need different operational arrangements even with otherwise identical implements.

Each proposed event should pass an acceptance checklist covering dimensions, verified mass, equipment owner, height or distance, judging standard, timing method, personal equipment rules, incomplete-attempt treatment, major hazards and stop procedure. If a critical condition cannot be verified, the event should not be retained merely because it appears on promotional material. Necessary changes must follow the regulations and be communicated consistently, ideally before athletes incur substantial training and travel costs. The more unusual an implement, the greater the responsibility to describe and test it.

Safety is also influenced by what happens between official attempts. Heavy implements do not disappear when an athlete finishes. They must be returned, reloaded, inspected and prepared for the next competitor. A yoke can be dangerous during a careless reset even if the successful carry itself was controlled. Stones and sandbags can obstruct crew routes. A large tire can settle into an awkward position that creates a different start challenge. The site plan should therefore contain equipment-resting zones and movement procedures, with a crew leader authorised to stop the next attempt until the area is ready. Cutting this time for a faster show may create risk without adding any genuine sporting value.

Novelty and standardisation may seem to conflict. Strongman is attractive precisely because it can introduce implements that athletes do not handle every day. Yet novelty need not mean arbitrary danger or secret rules. An original implement can have its mass, dimensions, gripping area, route, time and scoring conditions published beforehand. An unusual medley can still provide everybody with the same technical description. Standardisation does not suppress invention. It makes invention competitively comparable. Without it, rankings may reward privileged information, exclusive equipment access or the ability to interpret vague instructions rather than the strength and skill the audience believes it is watching.

There is an important difference between accepting inherent sporting risk and accepting unmanaged organisational risk. An athlete may voluntarily choose a demanding load within a properly declared event, but cannot reasonably be expected to calculate whether a temporary platform has been professionally assessed, whether equipment has been maintained, or whether spectators will intrude on a working lane. Those are organisational responsibilities. Medical preparedness also cannot be replaced by an athlete signing a general waiver. Any safety design should reflect applicable local legal requirements and specialist advice; generic international standards are useful frameworks but cannot substitute for site-specific engineering or clinical decisions.

10. Three hypothetical contests and an auditable selection method

To convert principles into a practical tool, consider three fictional competitions. The first is a novice event with twelve entrants and five events: fixed-load deadlift repetitions, log repetitions, a twenty-metre farmers walk, sandbag loading and a short-course yoke. The organiser does not copy weights from an international final. The loads are informed by results for comparable entrants and by physical tests of the implements. Simulations reveal that the first proposed log weight creates almost universal zeroes, so it is reduced before the rules become final without removing the genuine challenge. The sandbag sequence becomes progressively demanding, allowing less experienced athletes to record meaningful progress while stronger entrants finish and receive time-based differentiation. The objective is not to equalise outcomes. It is to avoid designing a novice contest in which the vast majority are excluded from the test they were invited to take.

The same novice case illustrates a communication issue. The organiser must not publish “farmers 100 kilograms” without saying whether that means per hand or total, whether straps are permitted and whether the distance is straight or includes a turn. The briefing describes when timing begins, which portion of the implement must cross the finish and how an athlete receives a distance score if they stop early. For the log, officials establish clean requirements, overhead lockout and the treatment of missed attempts. The athletes receive specifications early enough to prepare. This does not make the field equally skilled, but it makes the competition itself an identifiable task rather than a collection of unexpected tests revealed after arrival.

The second fictional event is a regional open contest with experienced athletes and six tasks: maximal deadlift, axle clean and press, yoke, farmers, atlas stones and truck pull. It samples lifting, overhead work, locomotion, odd-object handling and pulling, but the team notices substantial repeated grip and trunk demands. It therefore examines event sequencing, realistic transitions and recovery periods. The truck pull is rehearsed to check rolling and surface consistency. Deadlift progressions are designed to differentiate a credible range of athletes rather than only the favourite. Stone dimensions and platform heights are measured and published. Six events may require a long day, so reloading time and athlete readiness are included in the schedule. Afterwards, the organisers examine whether unexpectedly similar tasks dominated the overall rankings.

The third fictional competition is an elite exhibition designed for a large audience, featuring three exceptionally difficult events and two presentation intervals. Its aim may legitimately be extraordinary performance rather than fine-grained separation across a large field. Yet if prizes are awarded by ranking, the scoring rules must remain consistent, and a zero score cannot be reinterpreted because a sponsor wants a closer finish. The organiser may describe this as an elite invitational with severe loads and a purpose different from novice competition. Sporting identity is credible when declared accurately. If a contest calls its winner the strongest person in the world despite inviting only three commercially selected athletes, the claim needs qualification: the winner triumphed in those invited events, not in a universal scientific assessment of every competitor worldwide.

For all three scenarios, apply a transparent decision sequence. First define purpose and division, then map each candidate event to relevant functional demands. Verify equipment availability and credible data about likely entrants. Choose provisional mass, distance, time and technical rules. Model outcome distributions including ties and zeroes. Review sequence, fatigue, rest and realistic setup times. Referees confirm that standards can actually be observed and applied, and the safety lead evaluates venue and equipment handling. Only after these steps should the technical programme be frozen and published. Material changes should repeat the relevant checks and leave an auditable record. This is a proposed operational synthesis, not an algorithm proven in randomised trials.

Consider a simple scoring-design test. Suppose a five-event contest awards placing points in each event. If three events are highly dependent on pulling performance, the same athlete profile may receive repeated advantages. Rather than claim a definitive formula for biomechanical diversity, compare the event-demand matrix and, after competition, descriptive relationships among event placings. Small fields make correlations uncertain. The same athletes dominating all events may reflect genuine all-round excellence, not a defective contest. However, when three tasks are nearly identical and rankings are extremely similar, the programme is worth reviewing for the following edition. Descriptive evidence should generate questions for organisers, not automatic verdicts about athletes.

An unexpected equipment problem provides another test. Two days before competition, the yoke is found to be incompatible with the venue. The organiser should not use it solely because it appears on a poster. Nor should an arbitrary replacement be chosen to favour particular entrants. If the rules provide a safety-change mechanism, the sporting director assesses a substitute that preserves as much as possible the intended event family and relative demand, then communicates the change, reason and scoring implications to every athlete. If no comparable safe substitute exists, postponing or dropping the event may be fairer than improvisation. Athletes may still be disappointed and incur costs, but transparent decisions treat them as participants with legitimate expectations rather than extras in a stage production.

Post-event analysis tests the method again. Compare predicted difficulty with actual performance. If ten farmers completions were expected but only two occurred, check whether mass, handle, route or conditions differed from assumptions. If every log result is zero, review whether entry-level ability was overestimated or whether the execution standard was too restrictive or insufficiently explained. If nearly everybody completes every task extremely quickly, assess whether the field was stronger than anticipated or loads were too low. Analyse trends without exposing unnecessary personal information and carry conclusions into the next edition. Over several contests, these records can become a modest local evidence base that serves planning better than simply copying television-final weights.

Another useful scenario involves two proposed apparatus suppliers offering implements nominally described as identical. Before deciding only on price, compare dimensional drawings, handle heights, mass distribution, maintenance records and compatibility with floor protection. A cheaper yoke that flexes unpredictably or cannot be adjusted sufficiently for the registered athletes may create substantial downstream costs. It may require more staff, cause delays or force a late event redesign. The economically efficient decision should account for the whole delivery process rather than a single rental invoice. A procurement checklist linked to the sporting matrix can help organisers avoid discovering too late that the available implement tests something different from the announced event.

Finally, a well-balanced competition does not mean every athlete has the same statistical chance of winning. Sporting contests are supposed to reveal genuine differences in preparation and ability. Balance means event selection matches the announced purpose, parameters reflect the intended field, rules are observable and stable, results can differentiate competitors and conditions are comparable. An exceptional athlete should be able to win decisively. They should not win because others were given incomplete information, used a different lane or faced impossible thresholds copied exclusively from the favourite's personal records.

The most valuable output of this workflow is institutional learning. A new competition may initially rely on informed judgement and imperfect data. That is acceptable if the organisers say what is estimated, track what actually occurred and change their process accordingly. Over time, a consistent archive of loads, completion rates, ties, setup durations, scoring disputes and near misses can improve decisions. It cannot remove uncertainty or turn each athlete into a predictable machine. It can make repeated organisational decisions less arbitrary, and that is a meaningful step in professionalising strongman competition.

11. Conclusion: appropriate difficulty is not always maximum difficulty

Designing a strongman competition requires more than putting five heavy objects on a stage. Each event is a means of distinguishing sporting abilities, with its own biomechanics, rules, logistics and hazards. Selection should begin with the contest's purpose and target divisions, continue through a review of movement demands, and conclude with checks on loading, distance, duration and observable judging standards. Extreme difficulty is legitimate at some elite finals. It is not automatically more scientific, fair or entertaining. Similarly, an event that most competitors can complete is not automatically trivial if it creates meaningful distinctions in a novice contest. Design quality is the correspondence between what the event intends to measure and what actually occurs in the arena.

Scientific evidence supports task specificity, biomechanical differences among strongman implements and the importance of viewing athlete load in context [1–7]. The 2026 American College of Sports Medicine resistance-training overview, a major update based on many reviews, again illustrates that exercise variables shape adaptations. It does not, however, establish the optimal event list for a strongman competition [10]. Training adaptation should not be confused with contest performance, nor should an association be promoted to a universal rule. When we describe different mechanical demands of yoke, log and atlas stones, we draw on research-informed reasoning. When we recommend an event-selection matrix or a simulation of likely zero scores, we offer a practical planning method rather than claim that its superiority was established experimentally. The distinction between direct evidence and applied synthesis remains essential.

A balanced contest does not promise that every athlete will complete every task, that injuries will never occur or that every division can use one simple load-conversion factor. It can promise documented conditions, an explained selection of implements, known rules, comparable treatment and auditable results. In the next episode we move from event selection to the structure of participation itself: competition categories and eligibility criteria. Before asking how heavy an atlas stone or yoke should be, we need to know exactly who has been invited to lift it.

References and further reading

[1] Hindle, B. R., Lorimer, A., Winwood, P., & Keogh, J. W. L. (2019). The Biomechanics and Applications of Strongman Exercises: A Systematic Review. Sports Medicine - Open, 5, 49. https://doi.org/10.1186/s40798-019-0222-z

[2] Hindle, B. R., Lorimer, A., Winwood, P., & Keogh, J. W. L. (2020). A systematic review of the biomechanical research methods used in strongman studies. Sports Biomechanics, 19(1), 90–119. https://doi.org/10.1080/14763141.2019.1598480

[3] Hindle, B. R., Lorimer, A., Winwood, P., Brimm, D., & Keogh, J. W. L. (2021). The Biomechanical Characteristics of the Strongman Yoke Walk. Frontiers in Sports and Active Living, 3, 670297. https://doi.org/10.3389/fspor.2021.670297

[4] Winwood, P. W., Cronin, J. B., Brown, S. R., & Keogh, J. W. L. (2014). A Biomechanical Analysis of the Farmers Walk, and Comparison with the Deadlift and Unloaded Walk. International Journal of Sports Science & Coaching, 9(5), 1127–1143. https://doi.org/10.1260/1747-9541.9.5.1127

[5] 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

[6] Soligard, T., Schwellnus, M., Alonso, J.-M., et al. (2016). How much is too much? (Part 1) International Olympic Committee consensus statement on load in sport and risk of injury. British Journal of Sports Medicine, 50(17), 1030–1041. https://doi.org/10.1136/bjsports-2016-096581

[7] American College of Sports Medicine. (2009). Progression models in resistance training for healthy adults. Medicine & Science in Sports & Exercise, 41(3), 687–708. https://doi.org/10.1249/MSS.0b013e3181915670

[8] Official Strongman. 2026 Official Strongman Games Online Qualifier: published 2026 classes, event rules and loading requirements. https://officialstrongman.com/STRONGMAN-GAMES

[9] Strongman Champions League. Rules & Regulations, online document accessed October 2026. https://strongmancl.com/rules/

[10] Currier, B. S., D’Souza, A. C., Fiatarone Singh, M. A., et al. (2026). American College of Sports Medicine Position Stand: Resistance Training Prescription for Muscle Function, Hypertrophy, and Physical Performance in Healthy Adults: An Overview of Reviews. Medicine & Science in Sports & Exercise, 58(4), 851–872. https://doi.org/10.1249/MSS.0000000000003897

[11] International Organization for Standardization. ISO 31000:2018, Risk management — Guidelines. https://www.iso.org/standard/65694.html

[12] Puschkasch-Möck, S., Haff, G. G., Behringer, M., & Wirth, K. (2026). Is Mechanical Power a Valid and Relevant Parameter to Control Resistance Training? Journal of Strength and Conditioning Research, 40(3), 356–365. https://doi.org/10.1519/JSC.0000000000005411

[13] Health and Safety Executive (UK). Managing crowd safety at events: guidance on risk assessment and crowd-management planning. https://www.hse.gov.uk/event-safety/crowd-management.htm