Strength Training for High School Rowers

Ryan Sparks
May 20, 2026

The question every high school rower and parent eventually asks: does strength training drop a 2K erg time?

The honest answer is more interesting than the marketing one. Strength training contributes to rowing performance. It does not, by itself, drop a 2K. The peer-reviewed evidence supports a small but real effect, and the rowers who improve the most over a high school career are the ones who improve aerobic capacity, technique, and force production together over years, not the ones who add lifts in isolation.

This article walks through what strength training actually does for a high school rower, how to program it across the rowing year, the foundational lifts and rower-specific refinements, what to do without a gym, the lightweight-versus-heavyweight question, and the honest answer to the 2K question. It sits inside the broader summer training framework we've covered separately (summer training for high school rowers prescribes two to three strength sessions per week as part of the summer base block; this article is the depth treatment of that prescription).

What strength training actually does for rowers

Strength training is one input to rowing performance. Aerobic capacity is the bigger one.

That sentence sounds like a hedge. It is not. It is the single most important sentence in the rowing strength literature, and the peer-reviewed evidence supports it directly. In a 2023 study of adolescent rowers, Ledergerber and colleagues found that three variables together explained 97.5 percent of the variance in 2K erg performance: absolute VO₂max, maximal isokinetic trunk flexion strength, and sex. Aerobic capacity does most of the work. Trunk strength matters. Weight-room maximum-strength numbers are a contributor among others, not the dominant variable.

A 2020 meta-analysis by Thiele, Prieske, Chaabene, and Granacher in the Journal of Sports Sciences pooled the controlled training studies and found that strength training produced a small but statistically significant effect on rowing-specific performance (SMD 0.32) and on lower-limb maximal strength (SMD 0.42). It did not significantly affect cardiorespiratory endurance. Strength training works. Its effect on race performance is real but bounded.

So what does strength training actually do?

It raises the ceiling on the force you can produce per stroke. A rower's average force per stroke during a 2K is roughly 65 to 70 percent of their maximum producible force. If you raise the maximum, you raise the submaximal force at any given relative effort. British Rowing's resistance training materials frame this directly: every newton of additional maximum force gives the rower headroom inside the stroke.

It reduces the risk of overuse injuries that interrupt training. Rowers are particularly susceptible to low-back and rib injuries from the repetitive loading of the catch and drive. Strength training, programmed well, builds tissue tolerance in the structures that take that loading. The athlete who can train consistently for three years adapts more than the athlete with the same talent who misses six weeks every spring.

The honest single-sentence framing: strength training will not, by itself, drop your 2K. It raises the ceiling on the force you can produce per stroke, supports the aerobic base that actually does drive 2K, and keeps you healthy enough to train consistently.

That is why every senior international rowing program includes it.

When to lift and how often across the rowing year

The high school rowing year has four phases, and the strength program should look different in each.

Off-season (late spring and summer for spring-racing programs, or summer for programs without spring racing).Two to three sessions per week, 30 to 45 minutes each. This is the heaviest block of the year. The emphasis is hypertrophy and maximum-strength development. The athlete who arrives at September pre-season visibly stronger than they were in June has had a productive summer.

Pre-season (late summer and early fall for fall head-racing programs). Two sessions per week. The emphasis shifts from hypertrophy to power and rate-of-force-development. Plyometrics enter the program: box jumps, broad jumps, medicine ball throws. The goal is converting the off-season strength gains into rowing-specific power.

In-season (fall head racing, winter erging, spring sprint racing). One to two sessions per week. The emphasis is maintenance, not building. The principle is two steps forward in the off-season and pre-season, no steps back in-season. A rower who lifts heavy on Wednesday and races Saturday is racing tired.

Recovery and transition (post-championships, typically two to three weeks). Low-load movement work. The body needs the reset before re-entering the off-season block. This is not a vacation from training; it is the lightest training of the year.

The cadence of two to three sessions per week matches what we recommend in the summer training framework. It is also what the GB Rowing Team prescribes for senior rowers in their off-season block, scaled appropriately for high school athletes.

The foundational lifts and the rower-specific refinements

Strength programming for rowers is built on five compound movement patterns: squat, hinge, push, pull, and carry. Each pattern has a rower-specific refinement worth knowing.

Squat pattern. Front squat is preferred over back squat for rowers. The bar position on the front of the shoulders emphasizes the trunk and quadriceps and reduces lumbar shear compared to a back squat. The goblet squat (a dumbbell held at the chest) is the entry version for high schoolers learning the pattern. Both teach the same hip-and-knee mechanics rowers use in the drive.

Hinge pattern. The hex bar deadlift (also called a trap bar deadlift) is preferred over the conventional barbell deadlift for rowers, particularly tall rowers, because the load sits inside the lifter's frame rather than in front of it. The lower-back load is meaningfully reduced. Romanian deadlifts, with a slight knee bend and a hip-hinge emphasis, train the posterior chain (glutes, hamstrings, lower back) that drives the back half of the stroke.

Pull pattern. Rowing is a pulling-dominant sport. The strength program should reflect that. Vertical pulling (pull-ups, lat pulldowns) and horizontal pulling (bent-over rows, dumbbell rows) deserve more weekly volume than pushing. This is the single most common programming mistake high schoolers make in a generic gym setting: they bench too much and pull too little.

Push pattern. Overhead press, push-ups, and push-up variations. Bench press is acceptable but not the priority some non-rowing programs make it. Pushing strength matters for trunk stability and for general athletic balance; it does not transfer to the stroke the way pulling does.

Carry pattern. Suitcase carries (one dumbbell held at one side) and farmer's carries (a dumbbell in each hand) are anti-lateral-flexion core work under load. They train the trunk's job in rowing more directly than any sit-up variation. Walk for 20 to 40 meters under load, set down, repeat.

Single-leg work. Rear-foot-elevated split squats (Bulgarian split squats), single-leg Romanian deadlifts, and step-ups. Sweep rowers in particular develop asymmetric leg strength because of the rotational nature of the stroke. Unilateral work directly addresses the asymmetry. Scullers benefit too, just less acutely.

Core work. Anti-rotation (Pallof press), anti-extension (dead bug, plank variations), anti-lateral-flexion (side plank, suitcase carry). The trunk's job in rowing is force transmission from the legs to the handle without energy leak. Anti-movement is the principle. Crunches are not on the list.

The NSCA-aligned framework for this comes from Nugent and colleagues (2020) in Strength and Conditioning Journal, and is consistent with what GB Rowing Team and Rowing Australia publish. This is the consensus position across the rowing strength literature.

Sets, reps, and how to progress safely

Two to three sessions per week, 30 to 45 minutes each. Eight to 15 repetitions per set, two to four sets per exercise. This range covers the productive territory for high school athletes: heavy enough to drive adaptation, light enough to maintain technique.

Technique precedes load. Always. The NSCA Youth Resistance Training Position Statement (Faigenbaum et al., 2009) and the 2014 International Consensus on Youth Resistance Training (Lloyd et al., British Journal of Sports Medicine) both state that progressive resistance training is safe and beneficial for youth with proper supervision, and that movement quality and progressive loading should precede maximal lifts. The consensus is not technique-or-load. It is technique, then progressive load.

Maximal lifts (one-rep maxes, true testing of absolute limits) are not appropriate for high school athletes who do not have qualified strength and conditioning supervision. The position statements are technique-and-supervision-based, not a specific-age rule, but the practical default for a high schooler without a credentialed coach is: do not test maximums.

The interference principle matters too. Strength training and aerobic training compete for the same recovery resources at high intensity. The Rowing Stronger recommendation, supported by the broader S&C literature, is at least six hours between a strength session and an aerobic session, ideally on different days. If the program forces both on the same day, strength comes first when the goal is strength development and aerobic comes first when the goal is aerobic development.

What if you don't have a gym?

Most high schoolers in the summer do not have a fully equipped gym. They have, at best, some dumbbells, a pull-up bar, a sturdy box or bench, and bodyweight.

That is enough.

Here is the bodyweight-first progression for each pattern:

  • Squat: bodyweight squat, goblet squat with a dumbbell or kettlebell, Bulgarian split squat
  • Hinge: bodyweight Romanian deadlift, single-leg RDL, dumbbell deadlift, hex bar deadlift if available
  • Pull: inverted row (under a sturdy table or low bar), assisted pull-up with a band, pull-up, weighted pull-up
  • Push: incline push-up, push-up, decline push-up, push-up to handstand progression
  • Carry: dumbbell suitcase carry, dumbbell farmer's carry with whatever weight is available
  • Core: dead bug, plank, side plank, Pallof press with a resistance band

The upgrade path is straightforward. When you can do 15 reps with good technique, add load or progress the variation. A high schooler who runs this progression two or three times a week through the summer will arrive at pre-season measurably stronger than they were in June.

The barrier is not equipment. The barrier is consistency.

Lightweights and heavyweights program differently

Lightweight rowers face a real programming tradeoff. Maximum-strength training that adds significant lean mass can move a lightweight out of weight class. The FISA development materials flag this explicitly, and it matters more for high school lightweights than the general rowing strength literature acknowledges.

For lightweights, the priority is neural strength adaptations (lower reps, higher quality, technique-focused) over hypertrophy. Maintain weight class first; build relative strength inside it. A lightweight pulling a clean front squat at a stable bodyweight is in a better position than one who gained six pounds of muscle and is now racing openweight against athletes 15 pounds heavier than they are.

For heavyweights, hypertrophy and absolute strength both matter. Rowing is a sport where added mass can be advantageous, provided the aerobic engine scales with it. A heavyweight who adds 10 pounds of muscle and improves their 2K erg has done something useful. A heavyweight who adds 10 pounds of muscle and does not improve their 2K has added drag.

The honest framing for both: gain mass deliberately or hold mass deliberately. Drifting is not a plan.

When (and whether) to introduce Olympic lifts

Olympic lifts (the clean, the snatch, the jerk, and their variations) are excellent power developers. They are standard in senior international rowing programs and produce real transfer to rowing-specific power.

The honest answer for high school rowers: only with a qualified strength and conditioning coach who can teach the technique progression. The transfer is real. The injury risk from poorly-taught Olympic lifts is also real, and a high schooler attempting to learn the clean from a YouTube video is more likely to develop a movement pattern that hurts them than one that helps them.

The defensible default for a high schooler without qualified S&C coaching: kettlebell swings and medicine ball throws. Kettlebell swings train hip-extension power without the technique demands of a clean. Medicine ball throws (chest passes, slams, rotational throws) train rate-of-force-development across multiple planes. Both produce most of the power-development benefit of Olympic lifts without the teaching infrastructure.

When a high schooler arrives at a college program with a qualified S&C coach, that coach can introduce Olympic lifts if and when they make sense for the athlete. Do not chase them earlier.

What college coaches actually look for in a recruit's physical profile

The screening metrics are 2K erg, height, and wingspan. Max squat and max deadlift numbers are not screening metrics. No college coach is recruiting a high schooler because they hex bar deadlifted 405.

What coaches look for during a recruiting visit or a video review is movement quality. A recruit who hex bar deadlifts 275 with clean mechanics, a stable spine, and a controlled lockout is more developable than one who pulls 405 with a rounded back. The first athlete is showing the coach a movement pattern that will respond to college S&C programming. The second is showing a movement pattern the college S&C coach will have to undo before they can build on it.

This is consistent with the framework we cover in Collegiate Rowing Recruiting. Primary selection markers (the objective inputs: 2K erg, height, academics) get a recruit considered. Secondary selection markers (movement quality, coachability, presentation, retention likelihood) determine which of the considered recruits actually get offered. Strength matters as a developmental indicator of secondary selection, not as a primary selection marker.

The 2K erg is the primary strength-adjacent metric coaches care about. For context on what 2K times matter at each level of college rowing, the college erg score standards article covers the current benchmarks.

Does strength training improve your 2K erg?

This is the question that drives the SEO traffic to this article, so it deserves a direct section.

Yes, in a small and bounded way. No, not in the linear way the question implies.

The peer-reviewed evidence:

Lawton, Cronin, and McGuigan (2011) in Sports Medicine reviewed the strength-and-rowing literature. They found that dynamic lower-body strength tests correlate with 2,000-meter ergometer times at r = -0.54 to -0.68. The correlation is moderate to strong. Stronger rowers tend to row faster 2Ks. But the controlled training studies, where researchers added strength training to a rowing program and measured the 2K change, produced small individual improvements (1.4 to 2.1 seconds in 2K time) with poor experimental quality. The correlation is real. The causal effect from adding strength training alone is small.

Thiele and colleagues (2020) in the Journal of Sports Sciences ran a meta-analysis of the controlled training studies. The pooled effect on rowing-specific performance was small but statistically significant (SMD 0.32). The pooled effect on lower-limb maximal strength was slightly larger (SMD 0.42). The pooled effect on cardiorespiratory endurance was not significant. Strength training improves strength. It improves rowing-specific performance modestly. It does not improve the aerobic engine that drives 2K performance.

Ledergerber and colleagues (2023) in the European Journal of Sport Science studied adolescent rowers specifically. Three variables explained 97.5 percent of the variance in 2K erg performance: absolute VO₂max, maximal isokinetic trunk flexion strength, and sex. Aerobic capacity is the dominant variable. Trunk strength contributes. Weight-room maximum-strength numbers do not appear as a top-three predictor.

DeLeo and colleagues (2025) in Frontiers in Sports and Active Living found that countermovement jump impulse (the force-time integral, not jump height itself) correlated strongly with 2K performance (r = 0.71). Jump height alone did not correlate significantly. The transfer mechanism is specific: it is force-time expression, not vertical leap.

The honest synthesis: strength training contributes to 2K performance through better force application per stroke and through keeping the rower healthy enough to train aerobically. It is not, by itself, a 2K-dropping intervention. The athletes who drop their 2K the most are the ones who improve aerobic capacity, technique, and force production together over years.

This is also why we are careful, on the Sparks blog and across our camps, not to claim that strength training (or any single training input) will drop a specific number of seconds off a 2K. The evidence does not support that claim. The honest claim is the one above.

Common mistakes high school rowers make in the weight room

A short list of patterns that show up across the high school rowing population:

Lifting too heavy too soon. Form precedes load. Always. A 14-year-old novice who squats with a 45-pound bar and clean mechanics is developing more usefully than one who squats 135 with a rounded back.

Skipping the warm-up. Five to ten minutes of dynamic mobility before every session. Leg swings, hip circles, arm circles, bodyweight squats. Cold muscles do not move well, and cold joints do not load well.

Bench press as the headline lift. Rowing is a pulling sport. Bench has a place in the program. It is not the centerpiece. Pull-ups and rows deserve more volume.

Crunches as core work. The trunk's job in rowing is force transmission without energy leak. Anti-movement is the principle. Spinal flexion (crunches, sit-ups) does not train that job and may aggravate the low-back issues rowers are already prone to.

Stacking strength and rowing on the same day at high intensity. At least six hours between sessions when both are intense, ideally on different days entirely.

Lifting through pain. Soreness after a session is normal. Sharp pain during a lift is a stop signal, not a push-through signal. The high schooler who pushes through is the one who misses three weeks later.

Not eating enough. Strength adaptation requires a caloric surplus. Chronic underfueling slows adaptation, increases injury risk, and (in the worst cases) drives REDS, the relative energy deficiency syndrome that has become a recognized issue in junior rowing. A high schooler training hard is not the high schooler to cut calories aggressively.

A sample week in the off-season

Here is a concrete two-day-per-week template for the off-season block. Use it as a starting point; an athlete with access to a qualified S&C coach should follow that coach's programming over a generic template.

Day A (Monday)

  • Dynamic warm-up: 5 to 10 minutes
  • Front squat or goblet squat: 3 sets of 8 to 10 reps
  • Romanian deadlift: 3 sets of 8 to 10 reps
  • Pull-up or inverted row: 3 sets to technical failure (stop when form breaks)
  • Push-up or overhead press: 3 sets of 8 to 12 reps
  • Plank or side plank: 3 sets of 30 to 45 seconds each
  • Suitcase carry: 3 sets of 30 meters per side

Day B (Thursday)

  • Dynamic warm-up: 5 to 10 minutes
  • Hex bar deadlift: 3 sets of 6 to 8 reps
  • Bulgarian split squat: 3 sets of 8 to 10 reps per leg
  • Bent-over row or dumbbell row: 3 sets of 8 to 12 reps
  • Dumbbell overhead press or push-up variation: 3 sets of 8 to 12 reps
  • Pallof press: 3 sets of 10 reps per side
  • Farmer's carry: 3 sets of 30 meters

Total session time: 30 to 45 minutes. Progress by adding load when 12 to 15 reps becomes achievable with clean form, or by adding a set rather than rushing the load. The goal is the cumulative work over 12 weeks of summer, not the heaviest single day.

Where this fits

Strength training is one input to rowing performance. Not the only one, and not the dominant one. The high schooler who builds a strength habit alongside their aerobic base, technical work, and recovery is doing what every senior international rowing program does. The high schooler who chases weight-room numbers in isolation, hoping they translate to a faster 2K, is misreading the evidence.

The rower who pays attention to how their body responds to strength work, what feels right, what feels off, what's sustainable, is also building the same self-awareness that translates to better racing. Coaching yourself in the weight room and coaching yourself in the boat are the same skill.

For the broader summer training framework that strength work sits inside, see How High School Rowers Should Train Over the Summer. For the camps where strength work is integrated into the program structure, see Best Rowing Camps for High School Athletes 2026.

Strength Training for High School Rowers
About Author
Ryan Sparks
Ryan Sparks, founder of Sparks, explores culture's impact on athletic development, runs global rowing camps, and co-authors books on rowing recruitment.