Touch rugby strength & conditioning

An evidence-based guide to training for touch. Touch rugby is a fast, non-contact, repeat-sprint sport — it lives on acceleration, hard deceleration and quick changes of direction, and its injuries are overwhelmingly to the lower-limb muscles. This covers the strength qualities that make you faster and more durable, the conditioning that matches how the game is actually played, the prehab that reduces the strains touch players pick up most, and how to fit it all around a season without the two halves of training grinding each other down. Practical, honest, and grounded in published sport-science research.

In one sentence: touch rewards three physical qualities above all — repeated sprint ability, sharp acceleration and deceleration for change of direction, and the lower-body (especially eccentric) strength that underpins both while protecting your hamstrings, calves and knees. Everything below is the detail behind that sentence: which lifts and runs develop those qualities, why they transfer, and how to programme them so you arrive at each match quick, springy and in one piece.

A framing note before the detail. Sport science is well studied, but people differ enormously — training age, playing level, position, sex, sleep and injury history all shift what's right for you. So this is written as can, tends to and is associated with, never as a guarantee, and every specific figure is a population-level finding drawn from published research, not a personal prescription. It's general education, not medical or individual coaching advice, and it isn't a bespoke programme.

The demands of touch rugby

Strip touch down to its movement and you get a clear picture. It's an intermittent, repeat-sprint game: long stretches of walking and jogging punctuated by short, sharp high-intensity efforts — accelerating onto the ball, chasing to make a touch, then retiring quickly to reset the defensive line. In a GPS study of international test matches, players covered on the order of 2,700 m across a match of two 20-minute halves, most of it at low velocity, with the game's edge coming from the intermittent fast bursts rather than sustained running (Chow and colleagues, 2020). Wings covered the most ground; middles and links less.

The defining feature isn't top speed — it's the constant change of speed and direction. In that same analysis, players performed more decelerations than accelerations (roughly 17 hard decelerations to 15 accelerations per half), and the authors highlighted a "heavier reliance on deceleration." Follow-up work on reactive agility found that the ability to read a play and re-direct at speed separates elite from amateur players by a large margin, with elite touch players completing a reactive-agility test markedly faster than amateurs (Chow and colleagues, 2022). Braking, cutting and re-accelerating in response to what the attack does — not just running fast in a straight line — is the skill the body has to be built for.

That movement profile explains the injury profile. Because touch is non-contact — you're touched, not tackled — the injuries are not collision injuries; they're the strains that come from sprinting, braking and cutting. Injury surveillance at a European touch championship recorded about 103 injuries per 1,000 player-match hours, of which roughly 69% were to the lower limb. The most injured region was the hip/groin/thigh (about 27%), followed by the knee/anterior lower leg and the calf/ankle/foot (around 21% each), and the single most common injury type was muscle and tendon strains — about a third of all injuries, and 92% of those in the lower limb, with the hamstring and calf standing out (Cropper and colleagues, 2019). The whole strength-and-conditioning plan below is, in effect, a response to that one picture: build the qualities that make you quick and let you brake, and armour the tissues that keep pulling.

Key strength work — and why it matters

Strength for touch isn't about looking strong; it's about having force you can put into the ground quickly. A useful hierarchy is base strength → single-leg control → fast, reactive strength, and each layer earns its place for a specific reason.

• Heavy squat and hinge patterns — for raw force. Back or front squats, trap-bar and Romanian deadlifts build the hip and knee extension strength that acceleration is made of. This is the single best-evidenced transfer in the whole guide: a systematic review with meta-analysis found that increases in lower-body strength (measured by the back squat) transfer positively to sprint performance, with a very large association (Seitz and colleagues, 2014). Stronger legs, faster first steps. General strength-training loading — think working sets in roughly the 3–6 rep range at heavier loads for the main lifts, progressed over time — is the standard route to building that force, as described in the NSCA's resistance-training guidance.
• Single-leg work — for change of direction and deceleration. You sprint, cut and brake on one leg, so split squats, step-ups, single-leg RDLs and lunge variations build the strength in the exact position the game uses. Unilateral training also improves the intermuscular coordination that cutting and sprinting rely on. Because touch is decided by braking and re-directing, the ability to absorb force on one leg — to decelerate under control — is as important as producing it.
• Jumps, bounds and short sprints — for reactive, fast strength. Heavy lifting builds the force; plyometrics and sprinting teach you to express it in the fractions of a second a step actually lasts. Meta-analyses in team-sport athletes associate plyometric and sprint training with improvements in jump, sprint and change-of-direction performance. Low-volume, high-quality jumps and accelerations — done fresh, not fatigued — are what turn gym strength into on-field speed and agility.
• References

Notice the theme: none of these are exotic. Touch doesn't need a special "touch lift" — it needs the well-established lower-body strength-and-power toolkit, biased toward single-leg and deceleration work because that's what the game asks for. Beyond injury prevention (below), strength training has a second dividend worth naming: across sports, a meta-analysis found strength training reduced overall sports injuries to under a third of the control rate, and roughly halved overuse injuries (Lauersen and colleagues, 2014) — so getting stronger makes you both faster and harder to break.

That's the plan this section describes, made concrete. The base lifts — the squats and hinges — do the heavy work of building force. The accessory block is where the sport-specific bias lives: single-leg strength for cutting and braking, and hamstring work for the tissue that fails most. The finisher converts it into speed with a small dose of jumps or short sprints. Both halves matter — the sport-specific accessories and finisher are what make the plan touch-relevant, but they only work sitting on top of the base strength and conditioning that round them out. Skip the base and you have drills without an engine; skip the sport-specific work and you have a generic gym plan that never quite transfers.

Conditioning for touch rugby

Because the game is intermittent, your conditioning should be too. The most specific quality is repeated high-intensity effort ability — being able to produce a hard sprint, recover on the jog, and do it again a minute later without the sprints fading. You build that with repeat-sprint conditioning: short maximal or near-maximal efforts (say 15–40 m, or 5–8 seconds) with incomplete recovery, repeated in sets, ideally with a change of direction built in so it mirrors the game's braking and cutting rather than just straight-line running.

Under that sits an aerobic base. It isn't glamorous, but a bigger aerobic engine is what lets you recover between sprints and hold your quality into the second half — exactly where the touch injury data showed the most injuries occurred, as fatigue accumulated. A mix of easy continuous running and some longer intervals maintains that base. A real advantage of touch here: it's non-contact, so you can carry a genuinely high running volume without the collision and joint load that limits how much the tackling codes can run. That makes touch unusually friendly to building fitness through running itself.

The trickier question is how strength and conditioning coexist. Train maximal strength and long endurance in the same session, chronically fatigued, and you can blunt the strength adaptation — the so-called interference effect. The practical fixes are well known and simple: keep your hardest running and your heaviest lifting on the same day or separated by a full day rather than smeared across every session, so easy days stay truly easy; do the quality you care most about first, when you're fresh; and don't try to make one session serve two hard purposes. Touch players who protect a couple of genuinely hard days and keep the rest easy tend to progress on both fronts.

Staying injury-resilient

Touch's injuries are predictable, which is good news — predictable means preventable, or at least reducible. The lower-limb strains that dominate the surveillance data each have evidence-based prehab that fits neatly into the plan above.

• Hamstring (the big one). Sprinting and the trunk-flexed "dump" position load the hamstrings hard, and hamstring strains are among the most common injuries in touch. The best-evidenced single exercise is the Nordic hamstring curl: a systematic review and meta-analysis of more than 8,000 athletes found that prevention programmes including it roughly halved the rate of hamstring injuries (van Dyk and colleagues, 2019). Treat that as a strong association, not a personal guarantee — a later methodological reappraisal argued the certainty is lower than the headline — but given the low cost and high hamstring risk in touch, it's an easy include. Build the volume gradually; the exercise is very demanding and brutally sore at first.
• Calf and Achilles. Repeated sprinting and push-off load the calf, and calf strains were a notable share of the touch injuries. Progressive calf-raise strength — straight-leg and bent-knee, and eccentric (slow-lowering) loading — builds the capacity and tendon tolerance that reduce strain risk. It's simple, unglamorous, and worth keeping in year-round.
• Ankle. Cutting and landing put the ankle at risk of sprains. Balance and single-leg control work (and, for anyone with a history of sprains, dedicated proprioceptive training) is the well-established route to a more stable ankle — and it doubles as change-of-direction practice.
• Knee. Cutting and decelerating are the mechanisms behind non-contact knee injuries, including the ACL. Neuromuscular training — teaching a soft, aligned landing and a controlled cut, alongside strength, balance and plyometrics — is strongly evidenced here: a meta-analysis of meta-analyses found injury-prevention programmes were associated with roughly a 50% reduction in all ACL injuries and about a two-thirds reduction in non-contact ACL injuries (Webster and Hewett, 2018).

The reassuring point is how much these overlap with the performance work. Single-leg strength trains the ankle and knee and makes you a better cutter. Nordic curls protect the hamstring and strengthen it for sprinting. A short landing-and-cutting warm-up sharpens agility and lowers knee risk. Injury-resilience for touch isn't a separate chore bolted on — it's mostly the same plan, done well.

Programming it around your season

How you train should shift with the calendar, because your goal shifts. In the off-season and pre-season, when there are no matches to recover from, you have room to build: two to three strength sessions a week, driving the main lifts up in load, with the heaviest running and most demanding plyometrics layered in as you go. This is where you make the gains the season will spend.

In-season, the goal changes from building to keeping. Matches and skills training already cost you recovery, so the strength work has to earn its place without adding much fatigue. Here the evidence is genuinely encouraging: a study in professional team-sport athletes found that a single well-loaded strength session per week was enough to maintain the strength and sprint gains built in pre-season, at least across a few months (Rønnestad and colleagues, 2011). The mechanism matters — it's intensity that maintains strength, so an in-season session keeps the loads heavy and the effort high but trims the volume right down. For most club touch players, one to two short, heavy sessions a week is the realistic sweet spot: enough to hold strength and keep the tissues robust, light enough to leave your legs for the pitch.

Two practical rules tie it together. First, fit S&C around the sport, not the other way round: the priority in-season is playing and practising touch well, so lift on days that don't rob your key sessions, and cut a gym session before adding fatigue that hurts your matches. Second, keep the prehab constant. Nordic curls, calf raises and a landing-and-cutting warm-up are the pieces you should never drop in-season, because that's exactly when the sprinting and cutting load — and the injury risk — is highest.

Where Strathlon fits

Common questions

What strength work matters most for touch rugby?

Touch is a running-and-cutting sport, so the priority is lower-body strength and power that transfers to sprinting and changing direction. A meta-analysis by Seitz and colleagues (2014) found that gains in lower-body strength, measured by the back squat, transfer positively to sprint performance, with a very large association. Build a base of heavy hip-hinge and squat patterns for force, add single-leg work for the cutting and deceleration that dominate touch, and layer in jumps and short sprints for reactive, fast-expressed strength. Every hard set should be genuinely challenging, but you don't need to grind to failure — leaving a rep or two in reserve captures most of the benefit with less fatigue.

Do Nordic hamstring curls really prevent hamstring injuries?

They are associated with a meaningful reduction. A 2019 systematic review and meta-analysis by van Dyk and colleagues, pooling more than 8,000 athletes, found that injury-prevention programmes including the Nordic hamstring exercise roughly halved the rate of hamstring injuries. That is an association from programme-level studies, not a guarantee for any individual, and a later methodological reappraisal argued the certainty is lower than the headline figure suggests. Given how common hamstring strains are in touch, the exercise is still a low-cost, well-evidenced thing to include — build the volume up gradually, because it is very demanding and causes marked soreness at first.

How should I train conditioning for touch without burning out?

Touch is an intermittent, repeat-sprint sport: short high-intensity efforts separated by lower-intensity running, with a heavy reliance on rapid deceleration and change of direction. Your conditioning should look similar — repeated short sprints with incomplete recovery, plus an aerobic base that helps you recover between efforts. Because touch is non-contact, you can do a lot of this running volume without the collision load of the tackling codes. Keep the hardest running and the heaviest lifting close together rather than scattered, so your easy days stay genuinely easy; that separation is how you stop the two halves of training grinding each other down.

Can I keep my strength during the playing season if I only lift once a week?

Often, yes. Research in professional team-sport athletes by Rønnestad and colleagues (2011) found that a single well-loaded strength session per week was enough to maintain the strength and sprint gains built in pre-season, at least across a few months. The key is intensity: a maintenance session keeps the loads heavy and the effort high but cuts the total volume, so it preserves strength without piling fatigue on top of matches and skills training. One to two quality sessions a week is a realistic in-season target for most club players.

Will lifting heavy make me slow or bulky for touch?

For a running-and-cutting sport the opposite is closer to the truth. Heavy strength training builds force you can express as acceleration and change of direction, and meta-analyses link lower-body strength gains to faster sprinting. Visible muscle gain is slow and needs a deliberate calorie surplus over months, so it does not happen by accident from a couple of sessions a week. The realistic outcome of sensible strength work is being faster, better able to decelerate and cut, and more resilient to hamstring and calf strains — all of which help in touch, not hinder it.

Which injuries should touch players train to prevent?

Injury surveillance at a European touch championship by Cropper and colleagues (2019) found most injuries were to the lower limb, with muscle and tendon strains — especially of the hamstring and calf — the most common, alongside knee and ankle injuries. The evidence-based prehab that fits touch is Nordic hamstring curls for the hamstrings, progressive calf-raise and eccentric calf loading for the calf and Achilles, balance and single-leg control for the ankle, and neuromuscular landing-and-cutting training for the knee, which meta-analyses associate with roughly a halving of ACL-injury risk. None of it replaces seeing a clinician for a specific problem.

Takeaways

• Train the three qualities that decide touch. Repeated sprint ability, sharp acceleration and deceleration for change of direction, and eccentric lower-body strength — that's the whole target.
• Build force with squats and hinges. Lower-body strength (via the squat) transfers to faster sprinting with a very large association (Seitz and colleagues, 2014); work the main lifts in a heavier rep range and progress them.
• Bias toward single-leg and deceleration work. You sprint, cut and brake on one leg, and touch involves more decelerations than accelerations — so split squats, single-leg RDLs and braking drills earn their place.
• Convert strength to speed with jumps and short sprints. Low-volume, high-quality plyometrics and accelerations, done fresh, turn gym force into on-field agility.
• Condition like the game. Repeat-sprint work over an aerobic base; touch's non-contact nature lets you run a lot without collision load.
• Prehab the predictable strains. Nordic curls (associated with roughly halving hamstring injuries; van Dyk and colleagues, 2019), calf-raise and eccentric calf work, ankle balance, and neuromuscular landing/cutting for the knee (roughly a 50% cut in ACL injuries; Webster and Hewett, 2018).
• Build off-season, maintain in-season. One heavy session a week can maintain strength through a season (Rønnestad and colleagues, 2011); one to two is a realistic club target. Keep the loads heavy, the volume low, and the prehab constant.
• Getting stronger is protective. Strength training is associated with cutting overall sports injuries to under a third of the control rate (Lauersen and colleagues, 2014) — faster and harder to break at the same time.

If you take one thing away, make it this: touch doesn't need a mysterious, sport-specific programme — it needs the well-established lower-body strength-and-power toolkit, biased toward single-leg and deceleration work, conditioned with repeat sprints, and kept honest with a handful of prehab exercises you never drop. Strathlon's role is to tune that plan toward touch and remember what you lifted, so "am I getting stronger for the season?" is answerable at a glance rather than a guess.

Pair this with the touch rugby fuelling guide — strength and conditioning only pay off if you fuel and recover to match.

References

Numbered sources for the specific figures, effect sizes and named studies above. Where a claim reflects agreed guidance rather than a single trial, the citation is to the position stand or consensus statement of the body concerned, with the country or international remit named. Touch has a small but genuinely sport-specific movement-demand literature; the strength and prevention prescriptions below are general evidence applied to a high-volume running sport without collisions.

1. Beaven RP, Highton JM, Thorpe MC, Knott EV, Twist C. Movement and physiological demands of international and regional men's touch Rugby matches. Journal of Strength and Conditioning Research. 2014;28(11):3274–9. Study of the movement and physiological demands of international and regional men's touch rugby matches — the source for the running and repeat-sprint profile described. PubMed 24832976
2. Dobbin N, Thorpe C, Highton J, Twist C. Individual and situational factors affecting the movement characteristics and internal responses to Touch match-play during an international tournament. Science & Medicine in Football. 2023;7(4):347–357. Study of the individual and situational factors affecting movement characteristics and internal responses to touch match play, the basis for how the demand varies. PubMed 35912880
3. Chow CG. Global Positioning System Activity Profile in Touch Rugby: Does Training Meet the Match-Play Intensity in a Two-Day International Test Match Series?. Journal of Sports Science & Medicine. 2020;19(3):613–619. GPS activity-profile study asking whether touch training meets match-play intensity, the source for the conditioning prescription. PubMed 32874114 · PMC7429428 full text
4. van Dyk N, Behan FP, Whiteley R. Including the Nordic hamstring exercise in injury prevention programmes halves the rate of hamstring injuries: a systematic review and meta-analysis of 8459 athletes. British Journal of Sports Medicine. 2019;53(21):1362–1370. Meta-analysis of Nordic hamstring prevention programmes halving hamstring injury rates — the source for the hamstring prehab in a sport built on repeated sprinting. PubMed 30808663
5. Cuthbert M, Ripley N, McMahon JJ, Evans M, Haff GG, Comfort P. The Effect of Nordic Hamstring Exercise Intervention Volume on Eccentric Strength and Muscle Architecture Adaptations: A Systematic Review and Meta-analyses. Sports Medicine. 2020;50(1):83–99. Study of Nordic hamstring intervention volume and eccentric strength adaptation, the dose behind that effect. PubMed 31502142 · PMC6942028 full text
6. Schiftan GS, Ross LA, Hahne AJ. The effectiveness of proprioceptive training in preventing ankle sprains in sporting populations: a systematic review and meta-analysis. Journal of Science and Medicine in Sport. 2015;18(3):238–44. Schiftan and colleagues' meta-analysis of proprioceptive training and ankle sprains, the ankle half of the prehab. PubMed 24831756
7. He Z, Duan T, Li D, Zhang X. Effects of resisted sprint training on agility and change-of-direction performance in soccer players: a systematic review with meta-analysis. PeerJ. 2025;13:e20084. Systematic review of resisted sprint training on agility and change-of-direction performance, the source for the speed work prescribed. PubMed 41146995 · PMC12554313 full text
8. Suchomel TJ, Nimphius S, Stone MH. The Importance of Muscular Strength in Athletic Performance. Sports Medicine. 2016;46(10):1419–49. Suchomel and colleagues on the importance of muscular strength in athletic performance — the source for greater maximal strength being associated with faster sprinting, jumping and change of direction, and with lower injury risk. PubMed 26838985
9. Seitz LB, Reyes A, Tran TT, Saez de Villarreal E, Haff GG. Increases in lower-body strength transfer positively to sprint performance: a systematic review with meta-analysis. Sports Medicine. 2014;44(12):1693–702. Seitz and colleagues' systematic review with meta-analysis showing increases in lower-body strength transfer positively to sprint performance, the evidence behind the 'strength is the base' argument. PubMed 25059334
10. Lauersen JB, Andersen TE, Andersen LB. Strength training as superior, dose-dependent and safe prevention of acute and overuse sports injuries: a systematic review, qualitative analysis and meta-analysis. British Journal of Sports Medicine. 2018;52(24):1557–1563. Lauersen and colleagues' meta-analysis finding strength training a superior, dose-dependent and safe prevention of acute and overuse sports injuries — the direct source for treating strength work as prehab. PubMed 30131332
11. Lauersen JB, Bertelsen DM, Andersen LB. The effectiveness of exercise interventions to prevent sports injuries: a systematic review and meta-analysis of randomised controlled trials. British Journal of Sports Medicine. 2014;48(11):871–7. Lauersen and colleagues' earlier meta-analysis of exercise interventions to prevent sports injuries, the broader evidence base the prevention advice sits on. PubMed 24100287
12. . American College of Sports Medicine position stand. Progression models in resistance training for healthy adults. Medicine and Science in Sports and Exercise. 2009;41(3):687–708. American College of Sports Medicine (ACSM, United States) position stand on progression models in resistance training — the source for the heavy-load and explosive-load percentage ranges quoted. PubMed 19204579
13. Cuthbert M, Haff GG, Arent SM, Ripley N, McMahon JJ, Evans M, et al. Effects of Variations in Resistance Training Frequency on Strength Development in Well-Trained Populations and Implications for In-Season Athlete Training: A Systematic Review and Meta-analysis. Sports Medicine. 2021;51(9):1967–1982. Cuthbert and colleagues' systematic review of resistance-training frequency in well-trained populations, the source for the sessions-per-week guidance. PubMed 33886099 · PMC8363540 full text
14. Spiering BA, Mujika I, Sharp MA, Foulis SA. Maintaining Physical Performance: The Minimal Dose of Exercise Needed to Preserve Endurance and Strength Over Time. Journal of Strength and Conditioning Research. 2021;35(5):1449–1458. Spiering and colleagues on the minimal dose of exercise needed to preserve endurance and strength — the source for maintaining in-season on as little as one to two sessions a week. PubMed 33629972
15. Rønnestad BR, Nymark BS, Raastad T. Effects of in-season strength maintenance training frequency in professional soccer players. Journal of Strength and Conditioning Research. 2011;25(10):2653–60. Ronnestad and colleagues' trial of in-season strength maintenance frequency in professional footballers, the specific in-season maintenance result quoted. PubMed 21873897
16. Nuzzo JL, Pinto MD, Kirk BJC, Nosaka K. Resistance Exercise Minimal Dose Strategies for Increasing Muscle Strength in the General Population: an Overview. Sports Medicine. 2024;54(5):1139–1162. Nuzzo and colleagues on minimal-dose resistance exercise strategies for increasing strength, supporting the claim that a small, well-chosen dose does most of the work. PubMed 38509414 · PMC11127831 full text
17. Wilson JM, Marin PJ, Rhea MR, Wilson SM, Loenneke JP, Anderson JC. Concurrent training: a meta-analysis examining interference of aerobic and resistance exercises. Journal of Strength and Conditioning Research. 2012;26(8):2293–307. Wilson and colleagues' meta-analysis of concurrent training and the interference effect — the source for separating heavy lifting from hard conditioning. PubMed 22002517
18. Schumann M, Feuerbacher JF, Sünkeler M, Freitag N, Rønnestad BR, Doma K, et al. Compatibility of Concurrent Aerobic and Strength Training for Skeletal Muscle Size and Function: An Updated Systematic Review and Meta-Analysis. Sports Medicine. 2022;52(3):601–612. An updated systematic review of the compatibility of concurrent aerobic and strength training, the more recent evidence that interference is smaller than once believed. PubMed 34757594 · PMC8891239 full text
19. Ramirez-Campillo R, Sortwell A, Moran J, Afonso J, Clemente FM, Lloyd RS, et al. Plyometric-Jump Training Effects on Physical Fitness and Sport-Specific Performance According to Maturity: A Systematic Review with Meta-analysis. Sports Medicine - Open. 2023;9(1):23. Ramirez-Campillo and colleagues on plyometric-jump training effects on physical fitness and sport-specific performance, the source for the plyometric guidance. PubMed 37036542 · PMC10086091 full text
20. Impellizzeri FM, Woodcock S, Coutts AJ, Fanchini M, McCall A, Vigotsky AD. What Role Do Chronic Workloads Play in the Acute to Chronic Workload Ratio? Time to Dismiss ACWR and Its Underlying Theory. Sports Medicine. 2021;51(3):581–592. Impellizzeri and colleagues on the pitfalls of the acute:chronic workload ratio — cited because it is the reason this guide talks about ramping load gradually rather than quoting a workload number. PubMed 33332011
21. Baz-Valle E, Balsalobre-Fernández C, Alix-Fages C, Santos-Concejero J. A Systematic Review of The Effects of Different Resistance Training Volumes on Muscle Hypertrophy. Journal of Human Kinetics. 2022;81:199–210. Systematic review of resistance-training volume and hypertrophy, the general dose-response evidence behind the set and session recommendations. PubMed 35291645 · PMC8884877 full text

This is general educational information, not medical or individual coaching advice. The sport-science figures here are drawn from published research and are framed as population-level findings and associations — individual response varies widely with training age, position, sex, history and health, and is best personalised with a qualified strength-and-conditioning coach. Anyone with pain, a current or recurring injury, a health condition, or who is pregnant or postpartum, should consult a qualified clinician before starting or changing a training programme. See our Terms for more.

← All guides · Touch rugby fuelling · Eating for results · How muscle actually grows · Recovery & rest · Understanding your stats · Home