Strongman vs. Traditional Resistance Training Effects on Muscular Function and Performance : The Journal of Strength & Conditioning Research

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Strongman vs. Traditional Resistance Training Effects on Muscular Function and Performance

Winwood, Paul W.1,2; Cronin, John B.1,3; Posthumus, Logan R.1,2; Finlayson, Steven J.1,2; Gill, Nicholas D.1; Keogh, Justin W.L.1,4,5

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Journal of Strength and Conditioning Research 29(2):p 429-439, February 2015. | DOI: 10.1519/JSC.0000000000000629
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In recent years, the use of strongman training modalities for performance enhancement have become popular in strength and conditioning practice (4,10,15,16,42,46). This increase in popularity could be attributed to the unique events demonstrated in the sport, the increasing accessibility of the training implements, and the opportunity to use these exercises to add variation to resistance training programs. Generally, gymnasium-based resistance training exercises are performed vertically with 2 feet side by side. Although walking lunges or split stance exercises may offset some of the limitations of the traditional lifts (20), strongman exercises such as the farmers walk and heavy sled pull may be even more applicable to sporting movements as they often involve unstable and awkward resistances and involve both unilateral and bilateral motion. Stone et al. (33) have suggested that the more similar a training exercise is to actual physical performance, the greater the probability of transfer. Advocates of strongman training (2,10,16,30,38,46) have suggested that it is more specific than other forms of strength training and may help “bridge” the gap between gymnasium-based strength training and functional performance. A recent study of 220 strength and conditioning coaches found that 81% believe that they had achieved good to excellent results from strongman implement training (42). Such a contention, however, is speculative given that no research to the knowledge of these authors has examined the chronic effects of strongman training compared with typical gymnasium-based strength training of athletes.

Articles published on the sport of strongman have provided valuable insight into how strongman implement training may be implemented in strength and conditioning programs (4,16,38,46). Researchers have investigated the metabolic and endocrine responses, and biomechanical (kinematic determinants of performance and lower-back/hip loads) demands of strongman exercises (5,12,21,22,26). These cross-sectional studies have provided results suggesting that strongman events could prove useful in improving core strength, power, sprint start, and acceleration capabilities, as well as anaerobic conditioning and for increasing energy expenditure. However, an evidence-based approach that uses longitudinal designs to determine the efficacy of strongman training is needed before strength and conditioners find reason to change current training strategies and best practice.

In light of the limitations of the literature reviewed and given that no study has investigated the effectiveness of a strongman resistance program, the purpose of this study was to compare the chronic effects of strongman implement training vs. traditional training on aspects of muscular function and performance. Such a comparison should improve our understanding of the effects of strongman exercises and how they may differ to that of traditional type gymnasium-based approach. It was hypothesized (based on the principle of specificity) that at the end of the training intervention, effect sizes (ESs) in grip strength and horizontal performance tests, for example, sprinting speed, change of direction (COD) time, medicine ball (MB) throw, and horizontal jump distance would be greater in the strongman training group, whereas ESs in the vertical performance measures including vertical jump height and 1 repetition maximum (1RM) strength would be greater in the traditional training group.


Experimental Approach to the Problem

A randomized controlled trial was used to compare a traditional resistance and strongman training protocol. Thirty experienced resistance-trained rugby players volunteered to participate in this study. Participants were assessed for body composition, 30-m sprint time, horizontal jump distance, seated MB chest press throw, vertical jump height, grip strength, 15-m sled push, and 5-0-5 COD tests (respectively). Baseline testing occurred in week 1, after which a supervised 7-week strength and power program was performed twice weekly before final testing in week 9. Changes in the outcome variables after training were compared between groups using independent t-tests and effect statistics.


Thirty male resistance-trained amateur and semiprofessional rugby players volunteered to participate in this study. A summary of the participants characteristics are presented in Table 1. No subjects were under 18 years of age in this study. All participants regularly performed resistance training as part of their training and had a strength training background (>1 year). The study was conducted in the participant's off-season where the majority of participants were at the start of a training cycle aimed at improving their strength performance. Participants were excluded if any medical problems were reported that compromised their participation or performance in this study, and athletes were taking or had previously taken any performance-enhancement drugs of any kind. All participants provided written informed consent after having being briefed on the potential risks associated with this research. Prior ethical approval was granted by the AUT University Ethics Committee, Auckland, New Zealand. In total, 36 participants were recruited for this study, but because of injury, transport issues, and work and family commitments, only 30 participants completed all parts of the testing and intervention program. The results of this study are based on the data obtained from these 30 participants. Two injuries were reported as part of the training intervention. One was a minor back muscle sprain associated with the deadlift, which resulted in the participant missing 1 training session and the other was a shoulder injury associated with strongman training in which the participant had to stop training and subsequently pull out of the study. Adherence to training was 98.6% for both groups. All training for this study was undertaken at a similar time of the day with participants instructed to maintain their normal dietary intake before and after each workout. We did not control for nutrition or hydration levels, but participants were told not to make any changes in the above during the intervention and postintervention testing.

Table 1:
Participant characteristics (mean ± SD).*

Strength Testing

No supportive aids beyond the use of a weightlifting belt and lifting chalk were permitted during the testing. The warm-up, loading increments, and rest periods used were according to previously established protocols (40). Movement competency screening of the 1RM strength exercises took place before strength testing, and instruction was given when required to improve technique. Strength testing was assessed by 1RM-3RM tests performed with a free-weight Olympic-style barbell. The 1RM test was performed for the clean and jerk and 1RM-3RM tests were performed for deadlift, military press, squat, and bent over row (respectively). Squat RM was assessed using the methods outlined by Baker and Nance (3). Completed lifts in the clean and jerk, deadlift, and military press were recognized when the participants were standing still and fully upright with the applied load. For the bent over row, participants had to achieve full range of motion of the upper limbs while remaining in a partial squat position with no movement at the hip and knee. The Poliquin formula (29) was used to determine the participants' predicted 1RM from their 2RM or 3RM values. Percentage of loading for the training intervention was based on the athletes predicted 1RM.

Functional Performance Testing

Before the commencement of functional performance testing, participants had their body composition (body mass, body fat percentage, and muscle mass [MM]) measured and recorded using a bioelectrical impedance machine (InBody230, Bio-space, Seoul, Korea). Participants then performed a 10-minute standardized warm-up before testing that consisted of dynamic stretching and light jogging interspersed with bodyweight exercises. Testing commenced 5 minutes after the warm-up. The testing session involved the determination of the participants' 5, 15, and 30-m sprint times (seconds) from a 30-m sprint, horizontal jump (m), seated 5-kg MB chest press throw (m), vertical jump height (cm), left and right handgrip strength (kg), 70-kg 15-m sled pushes (seconds), and 5-0-5 COD test (seconds). A rest period with a minimum of 10 minutes was provided between each test. Participants performed two 30-m sprints (coefficient of variation [CV] = 0.6%), 5-0-5 COD tests (CV = 2.2%), grip strength tests (CV = 4.2 and 4.5% for left and right grip strength, respectively), and 15-m sled pushes (CV = 2.9%), and 3 horizontal jumps (CV = 1.6%), countermovement vertical jumps (CVJs) (CV = 3.2%), and seated 5-kg MB chest press throws (CV = 1.3%). The best result for each test was used for data analysis. All pre- and postfunctional performance testing were performed indoors on artificial turf (15 mm underlay/10 mm overlay) at the same time of the day. The performance tests chosen for this study have been considered appropriate functional performance tests and conditioning exercises for a variety of athletes and have shown good test-retest reliability (11,13,25,27,39).

Strength and Power Assessment

Grip strength was determined with a grip strength dynamometer (TTM Original Dynamometer 100 kg, Tokyo, Japan). Participants were instructed to hold the dynamometer at their side and pull the handles together with maximal effort for up to 3 seconds. The CVJ and horizontal jump were performed off 2 feet and with full arm motion. A tape measure was used to determine horizontal jump distance and the Vertec Yardstick (Swift Performance Equipment, Brisbane, Australia) was used to determine jump height. Standing reach measures were subtracted from the Vertec-determined jump height to calculate the CVJ displacement. Horizontal jump was measured from the start line (positioned in front of toes) to the nearest point of contact on landing (back of the heel). Participants were required to jump as far forward as possible and land on 2 feet without falling. Participants were allowed 2 familiarization horizontal jumps and were instructed to “sink” into the landing to prevent falling forward.

The 70-kg 15-m sled push over (Figure 1) was measured using SpeedlightV2 wireless dual beam timing lights (Swift Performance Equipment). Participants started in a bilateral standing stance with the sled poles positioned 0.5 m before the start line. No rocking or backward steps were allowed before the start. Participants were instructed to push the sled as fast as possible with maximal effort. Hand pushing position was determined by the first web space with participants standing anteriorly to the sled poles with straight arms at their sides. Timing lights were placed at the start, 5-, 10-, and 15-m marks. Timing light beams were set at 92.5 cm (top beam) and 68 cm (bottom beam) for all performance test times represented in this study. Push sled times were recorded for total distance and between each split. The 5-kg seated concentric MB chest press throw was performed with the participant sitting on the floor with legs fully extended, approximately 60 cm apart and the back and head against a wall. The ball was held with the hands on the side and against the center of the chest with the forearms positioned parallel to the ground. Participants were instructed to throw the MB explosively at an angle of 45° to the horizontal as far as possible while keeping the head and back against the wall. Participants were instructed to throw the MB along a line in which a measuring tape was adhered too. The distance of ball flight was recorded.

Figure 1:
A 70-kg 15-m heavy prowler push.

Speed and Change of Direction Assessment

Speed and 5-0-5 COD ability were measured using SpeedlightV2 wireless dual beam timing lights (Swift Performance Equipment). For both tests, participants started in a standing split stance, with the toes of the back foot in line with the heel of the front foot, 50 cm before the start line. No rocking or backward steps were allowed before the start. Participants were instructed to sprint at maximal effort in the speed and 5-0-5 COD tests. For the 30-m sprint test, timing lights were placed at the start, 5-, 15-, and 30-m marks. Sprint times were recorded for total distance and between each split. For the 5-0-5 COD test, timing lights were placed on the 2- and 5-m markers, and times were recorded when the participant passed through the 5- and 2-m markers, turned on the line, and returned through the 2- and 5-m markers. 5-0-5 times were recorded for total distance (10 m) and between each split (0–3 m [deceleration], 2 m + 2 m [turning ability], and 2–5 m [acceleration]).

Training Programs

The 7-week training intervention involved participants performing either traditional resistance training or a strongman training program (Table 2). The traditional and strongman exercises were paired based on biomechanical similarity, and loads were equated between the 2 groups. The exercises chosen are commonly performed in strength and conditioning practice and by strongman athletes for the development of muscular strength and power (44).

Table 2:
Outline of traditional and strongman training protocols.

Equal training loads (kg) were used for the log lift and clean and jerk, and the axle press and military press. Loading for the arm over arm prowler pull and 1-arm row was based on the athletes' perceived rate of exertion (Borg's Scale) during pilot studies and expressed as a % of 1RM bent over row. For the sled pull and squat, and deadlift and farmers walk, loading was equated based on the kinetic data (24). A technical note detailing equations based on time under tension is presented in Appendix 1. Participants were asked to self-select their movement speed for the farmers walk, deadlift, and 1-arm row but were asked to perform the squat, clean and jerk, log press, and heavy sled pull as explosively as possible.

Participants in the strongman group performing the heavy sled pull were instructed to start in a 4-point power position and accelerate the sled 25 m over the artificial turf surface as quickly as possible using powerful triple extension of the lower body. For the arm over arm prowler pull (Prowler sled 30 kg, 1,400 mm length, 925 mm width), participants were instructed to start in a crouching position and pull the rope (20.0 kg; length = 30 m, and diameter = 32 mm) (Sports Distributors, Tauranga, New Zealand) to the hip with 1 arm and allow the prowler sled to remain stationary between each pull. For the farmers walk, participants were instructed to pick up the bars in each hand and walk forward over a course of 28 m with the rounding of a cone at half way (14 m). Participants could choose any technique they wished for the log lift providing that for a repetition to be counted it had to start from the floor, and the participants had to be standing upright with knees and elbows extended. The lifts were performed in a consecutive order (log lift, farmers walk, axle press, heavy sled pull, and arm over arm prowler pull). A longer rest period of up to 5 minutes was made available between sets and exercises in both protocols if the participant felt fatigued. Consistent verbal encouragement was provided during testing sessions with the participants frequently reminded to perform specific lifts as fast as possible. The farmers bars (14.3 kg; length = 1,160 mm; handle thickness of 33 mm diameter), axle (17.0 kg; length = 2,150 mm; diameter, 2 in), sled (11.5 kg; length = 600 mm; width = 400 mm), and log (58.1 kg; length = 2,355 mm; diameter = 165 mm; handle thickness of 33 mm diameter) used in this study were purchased from Getstrength, Auckland, New Zealand. Pictorial representations of the strongman exercises are presented in Figure 2.

Figure 2:
Illustration of various strongman events. A) Heavy sled pull. B) Log lift. C) Axle press. D) Farmers walk. E) Arm over arm prowler pull.

The training programs required the participants to train for up to 75 minutes biweekly on nonconsecutive days. The training exercises were performed in a controlled manner and loading was increased by ∼2% each week providing the participant could maintain good form. The fourth week was a deloading week in which participants performed the exercises with the same loads they used in week 1. All training sessions were supervised by qualified training instructors, and logs of all participants training sessions were recorded. Supplementary training was permitted, which consisted of prehabilitation and cardiovascular conditioning. All athletes were encouraged to perform 2 sessions of prehabilition exercises per week and 2 cardiovascular training sessions focused on improving aerobic capacity. However, these forms of training were not able to be monitored by the researchers.

Statistical Analyses

The data were explored by a histogram plot, and the normality of distribution was tested using Shapiro-Wilk's test for all groups in this study. Then, descriptive statistics were calculated and reported as mean and SDs. The difference in central location (mean) between groups was examined using the independent sample t-test. For the data that did not follow a normal distribution, the Mann-Whitney U-test was used to determine whether the difference between groups was significant. Effect sizes (ESs = mean change/SD of the sample scores) were calculated to quantify the magnitude of the performance differences (i.e., preintervention results − post intervention results) between each of the 2 groups (i.e., strongman and traditional) (9). Cohen applied qualitative descriptors for the ESs >0.2, >0.5, and >0.8 indicated small, moderate, and large changes, respectively. To counteract the problem of multiple comparisons and the chance of a false positive, significance was accepted at the p ≤ 0.01 level as a compromise between increasing risk of both type I (finding statistical between-group significance where none truly exists) and type II (finding no statistical between-group significance where one truly exists) errors. The 95% confidence interval was also calculated for all measures. All statistical analyses were carried out using SPSS 20.0 for Windows (SPSS, Inc., Chicago, IL, USA).


Overall, all strength and functional performance measures tended to improve with training (0.2–7%), thus providing evidence that both training programs provided positive training adaptations (Table 3). However, no significant (p < 0.01) between-group differences were found for the functional performance measures, indicating that there was no statistically significant advantage between traditional and strongman training methods.

Table 3:
Magnitude of differences between pre- and postintervention measures tested between traditional and strongman training groups.*†

With regard to the between-group effects, traditional training was associated with greater (small-moderate) ES changes in body fat mass (ES = −0.38), % body fat (ES = −0.38), 1RM squat (ES = 0.47), deadlift (ES = 0.66), COD turning ability (ES =−0.38), total COD time (ES =−0.25), horizontal jump (ES = 0.56), and sled push performance (ES =−0.31 to −0.46) than strongman training. Conversely, strongman training was found to elicit small-large greater increases in MM (ES = 0.44), 1RM bent over row (ES = 1.10), 5-m (ES =−0.28) sprint performance, and COD acceleration (ES =−0.33) than traditional training.


This study is the first to investigate the effects of a strongman training program vs. a traditional training program on a variety of body composition, muscular function, and performance measures. This study provided a unique opportunity to compare 2 forms of resistance training in athletes whose primary training goal was to improve functional performance (strength, power, speed, and COD) for the sport of rugby union. Although both the strongman and traditional training programs produced performance benefits, the principle finding in this study was the nonsignificant between-group differences in body composition and functional performance measures after 7 weeks of resistance training. Thus, the hypothesis was primarily rejected as both types of training did not offer a significant advantage over the other for improving these outcomes with a short-term training program.

Small between-group effects to body composition were observed in this study, with the strongman training group having a greater effect in changing MM (ES = 0.44; 1.1 vs. −0.02%). Such results may support the findings of Ghigiarelli et al. (12) who suggested that strongman training may be beneficial for improving muscular hypertrophy. Interestingly, small negative effects to body fat mass (kg) (ES =−0.36) and body fat (%) (ES =−0.38) were observed in the traditional training group. Previous researchers (5,21) have suggested that strongman exercises carry very high physiological demands, which may account for the small differences observed in this study.

It seems that biweekly supervised progressive strength training, supplemented with prehabilitation and cardiovascular conditioning, was a sufficient stimulus to increase maximal strength in experienced resistance-trained athletes. Similar strength improvements were observed between the strongman and traditional groups for the clean and jerk (8.6 and 10.7%) and military press (9.1 and 7.6%) 1RM strength measures; however, between-group ES analyses indicated small (ES = 0.46: 7.5 vs. 2.7%) and moderately greater increases (ES = 0.66: 11.0 vs. 5.7%) in squat and deadlift strength, respectively, for the traditional group than the strongman group. Interestingly, a large training effect was observed in the strongman group for the bent over row (ES = 1.10: 13.6 vs. 4.3%). The differences in the magnitude of strength improvements between the groups may indicate strength-specific adaptations associated with each program. Interestingly, the magnitude of strength improvements is similar to those reported by Argus et al. (1) for the bench press (11.1%) and box squat (11.3%) in which 33 elite male rugby union players performed 5 high-volume concurrent strength training sessions per week for 4 weeks. Research has reported enhanced strength improvements with increased frequency of training (18).

The magnitude of traditional 1RM strength improvements seen in the strongman training group was not expected, as the traditional group had a poststrength performance testing advantage as the lifts performed (except the bent over row) were part of the traditional groups program. Researchers have shown that practice of a specific task gives better ability to transfer strength improvements (7). From these results, it may be surmised that the strongman exercises used in this study have a positive impact on overall strength development.

Improvements in strength and power development can transfer to improved physical capabilities (35). Such results were observed in both training groups with improvements in both upper (seated MB chest press throw = ∼0.15 m) and lower body (CVJ = ∼4 cm; horizontal jump = 3–9 cm) power measures. Interestingly, the between-group improvements were very similar for the vertical jump and seated MB chest press throw. The similar magnitude of change in functional performance may be because of the specificity of training. Improvements observed in seated MB chest press throw performance may have been attributed to the upper-body pushing action of military and axle press exercises. The clean and jerk and log lift are mechanically similar to the CVJ (involving explosive triple extension that occurs at the ankle, knee, and hip), and the motor unit firing patterns that are improved during the training of these exercises would likely enhance the firing pattern of these motor units during the CVJ as well (34). Researchers using weightlifting, kettlebell training, and vertical jumping exercises have reported significant improvements (1–7%) in vertical jump performance (28,37).

An interesting between-group finding in this study was that the traditional group demonstrated a greater training effect in horizontal jump performance (ES = 0.56) than the strongman training group. The greater moderate improvement in horizontal jump performance (3.8 vs. 1.3%) may have been attributed to the greater strength improvements seen in the squat and deadlift that are performed bilaterally.

In contrast, the strongman training group performed heavy sled pulls and farmers walks, which involved periods of unilateral and bilateral work and the production of vertical and horizontal propulsive impulses. Interestingly, the strongman training between-group effects were greater for the 5 m (ES =−0.28; 1.8% faster vs. 0.9% faster) and acceleration phase of the 5-0-5 COD test (ES = −0.33; 1.5% faster vs. 3% slower). Although the effects are only small, improvements in initial acceleration are important training effects for rugby players as they may provide the player sufficient power to break through tackles and make territorial gains in a match situation. Researchers have reported that heavy sled pulls (33.1 ± 5.9 kg) are a sufficient training stimulus to improve both 5- and 10-m sprint times (19) and are commonly used by coaches in strength and conditioning practice (42). The results of this study may support the tenet that specific functional performance adaptation is closely related to the resisted movement patterns associated with the strength and conditioning stimulus. Long-term training studies could allow better insight into the effectiveness of the heavy sled pull as a conditioning method in improving acceleration performance.

The small differences between the pre- and postmeasures for 30-m speed and COD times (0.2–1.7%) are consistent with other short-term training studies that have examined the effect of 2 different resistance training programs (17,23,37). The results of these studies would indicate that various resistance training modalities could produce moderate gains in strength and power but only modest changes in speed and COD times. Combinations of high-force and high-velocity training could result in adaptation occurring at differential parts of the force-velocity curve and therefore have greater impact on athletic performance (14,17,41,45).

A surprising finding for the traditional training group in this study was the training effects (∼3.4 vs. ∼1.2%) associated with the 70-kg sled push (5 m, ES =−0.31; 10 m, ES =−0.33; 15 m, ES =−0.46). Effects in favor of the traditional style training were not expected as it was thought that the strongman group would improve sled push performance substantially, given that this group had performed the heavy sled pull for 7 weeks as part of the strongman training program. The findings may indicate that the sled pull and sled push elicit different physiological adaptations, or it could be that the strength adaptations associated with the traditional lifts (i.e., squat and deadlift) have better transferability to the horizontal activities (such as the sled push and horizontal jump), a result somewhat counterintuitive (31). Recent research has demonstrated that deep squat (0–120° of knee flexion) training (with loads of 5–10RM) resulted in greater increases in front thigh muscle CSA, isometric knee extension strength (at 75° and 105° knee extension), and squat jump performance than 12 weeks of shallow squat training (with loads of 5–10RM) (6). The strongman exercises seen in this study (e.g., farmers walk and sled pull) are performed with less knee and hip flexion than those seen in the squat and deadlift. Such differences may give insight into the small to moderate effects favoring the traditional group in some of the performance measures seen in this study.

Previous researchers have reported significant increases in grip strength (5–7%) among rugby players after 12 weeks of resistance training (36). Both training groups in this study improved grip strength performance (5–13%). It was thought that the strongman training group would show a much greater improvement than the traditional group as the strongman training implements, such as the axle and farmers bars, were thicker than the Olympic bars used in the traditional group. The thicker bars associated with strongman implements have the potential of enhancing grip strength because of the higher degree of difficulty performing exercises while grasping the bar in an area of range of motion where gripping ability is relatively weak (8,32). A limitation to this study was that grip strength was measured with a handgrip strength dynamometer at 1 angle (which was similar to the thickness of an Olympic bar). Future investigations could test grip strength at different angles, which may give better insight into the grip strength adaptations associated with training implements of varying widths.

A review by Zemke and Wright (46) suggested that strongman training programs could help increase adherence to resistance training programs. The results of this study found that adherence to training was the same for both groups (98.6%); however, the strength and conditioning coaches who oversaw the training in both groups were diligent in monitoring the athletes who participated in this study. Future research may wish to consider giving athletes a self-directed approach to training, which may give a better indication of motivation and program adherence.

Research on the injury epidemiology of strongman athletes found that strongman implement training carried twice the risk of injury as traditional training methods (43). Although 2 injuries were reported in this training study, the athlete who had the shoulder injury associated with the strongman program pulled out of the study. Strength and conditioning coaches who use strongman training methods should take into consideration the increased risk of potential injury and follow structured conditioning programs with a periodized approach. Such an approach would help to ensure appropriate loading strategies for training phases and planned exercise progressions to ensure technical competency with these lifts/events.

This study sought to collect data from a number of performance tests to gain greater insight into many aspects of muscular function and performance influenced by the training programs. However, such in-depth analysis is problematic with the issues of statistical significance. The uses of ESs were particularly useful for comparing the relative sizes of effects between the different programs and may better demonstrate “practical significance,” particularly if a longer period of training was performed and its effects quantified. Such an approach may be warranted in studies using experienced resistance-trained athletes in which increase in performance measures may only be marginal.

In conclusion, this study compared the short-term effects of strongman training and traditional training programs on aspects of muscular function and performance. Although the between-group effects demonstrated that each program may have advantages in eliciting specific performance gains, no significant between-group differences were found for the functional performance measures. It seems that when exercises are similar, and load and time under tension are equated, short-term strongman training programs are as effective as traditional training programs in improving aspects of muscular function and performance.

Practical Applications

This study was the first to compare the magnitude of performance changes between a strongman and traditional training program. From a practical perspective, these findings provide conditioning coaches with the first evidence of the efficacy of strongman training exercises, which can be used by coaches to improve training practices. From the results of this study, it can be concluded that strongman training exercises should be considered as possible alternatives to help supplement traditional training approaches. Strongman exercises could offer variation and help improve athlete motivation. Future training studies should investigate the long-term chronic adaptations associated with each strongman implement and the effectiveness of a combined strongman/traditional program vs. a traditional program. Such studies would build on the findings of this research and provide practitioners with an evidence base on the performance adaptations associated with strongman implements. This in turn would help improve knowledge regarding the possible utilization of strongman exercises in traditional training programs to further maximize performance enhancements.


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APPENDIX 1Technical Note

Matching loading parameters for the strongman events and traditional exercises: Six male strongman athletes (4 national and 2 local level athletes) volunteered to participate in the biomechanical analysis (mean ± SD: age, 24.0 ± 3.9 years; stature, 181.6 ± 9.4 cm; body mass, 112.9 ± 28.9 kg). Data were collected for each participant over 2 sessions separated by 1 week. Session 1 was performed in the strength and conditioning laboratory and involved 1 repetition maximum (1RM) testing in the squat, deadlift, and clean and jerk. Session 2 was performed in the biomechanics laboratory where participants performed repetitions in the squat, deadlift, clean and jerk, farmers walk, log lift, and heavy sled pull using the traditional lift (equivalent) loads of 70% 1RM. Kinetics were analyzed during session 2 only.

A Bertec force plate (Model AM6501; Bertec Corp., Columbus, OH, USA) was used to collect synchronized ground reaction forces at 1,000 Hz. Vicon Nexus (version 1.8.1; Vicon, Inc., Denver, CO, USA) was used to process the ground reaction force data. Ground reaction force data were filtered using a fourth order low-pass digital Butterworth filter with a cutoff frequency of 6 Hz.

To calculate and match exercise loading parameters, resultant forces were calculated using square root of (X2 + Y2 + Z2).

Table A1:
Calculations of resultant forces.

weight training; functional; transference; variation

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