Creating a Dryland Training Program to Complement Freestyle Swimming

Freestyle is often described as the most "efficient" competitive stroke, but that efficiency is deceptive. Underneath the smooth, rhythmic look of a well-executed freestyle stroke lies an enormous amount of rotational force, shoulder loading, core stabilization, and repetitive motion — all happening in an environment (water) that offers almost no eccentric loading to build tissue resilience the way land-based movement does. This is precisely why dryland training has become one of the most important, and most misunderstood, components of a competitive swimmer's development.

A well-designed dryland program does not exist to make swimmers "look strong" or to turn them into powerlifters. Its purpose is narrower and more precise: to build the strength, stability, mobility, and power that translate directly into a faster, more durable freestyle stroke, while reducing the injury risk that comes from tens of thousands of repetitive overhead-style movements per week. This article walks through the physiological demands of freestyle, the principles that should guide dryland program design, specific exercises organized by function, sample weekly structures for different training phases, and the injury-prevention considerations that should shape every decision a coach or swimmer makes.

Why Freestyle Swimmers Need Dryland Training

The Repetitive Load Problem

A competitive swimmer training six days a week can accumulate 10,000 to 18,000 meters of freestyle-dominant work per week, which translates to tens of thousands of arm rotations. Each freestyle stroke cycle asks the shoulder to move through a huge range of motion — from full extension overhead at entry to hyperextension behind the hip at the finish of the pull — while the rotator cuff muscles work to keep the humeral head centered in the glenoid socket. Unlike land-based throwing or lifting movements, this happens with no ground reaction force and minimal eccentric braking, meaning the small stabilizing muscles of the shoulder get worked without the same balancing resistance training that would normally build them up in a land-based athlete.

Over a season, this repetitive volume without adequate counterbalancing strength work is the single biggest contributor to the most common swimming injury: "swimmer's shoulder," an umbrella term for a cluster of impingement, rotator cuff tendinopathy, and labral irritation issues. Surveys of competitive swimmers have found shoulder pain affecting a substantial majority of athletes at some point in their careers, particularly among those who swim heavy freestyle and butterfly volume. Dryland training, done correctly, is one of the most effective tools available to reduce this risk.

The Power Problem

Water is also a poor medium for developing certain types of power. While swimming builds excellent muscular endurance and some power through resisted movement, it does very little to develop the type of fast-twitch, high-force output that improves start speed, wall push-offs, and underwater dolphin kick propulsion — all of which are disproportionately important in freestyle races, especially sprint events. Plyometric and explosive strength work on land fills this gap in a way that swimming itself cannot.

The Core and Kinetic Chain Problem

Freestyle is not an arm stroke; it's a whole-body rotational movement driven by the trunk. Elite freestylers rotate the body as a unit around a fixed long axis, using core and hip rotation to generate the torque that the arms and legs then convert into propulsion. A weak or poorly coordinated core breaks this kinetic chain, forcing the shoulders to compensate — which both reduces speed and increases injury risk. Dryland core work, particularly anti-rotation and rotational power training, directly addresses this.

Principles for Designing a Dryland Program

Before getting into specific exercises, it's worth establishing the principles that should govern every decision in the program.

1. Dryland should serve the stroke, not compete with it. The goal is never to maximize how much weight a swimmer can lift; it's to maximize how those land-based adaptations transfer to speed and durability in the water. This means favoring movement patterns and loading schemes that build strength swimmers can actually use, rather than generic bodybuilding-style programming.

2. Shoulder health work is non-negotiable, not optional "extra." Because of the repetitive load problem above, rotator cuff and scapular stabilizer work should appear in some form nearly every dryland session, not just as a once-a-week afterthought.

3. Periodize dryland alongside the swimming season, not independently. Dryland volume and intensity should rise and fall with the swimming training cycle. Heavy lifting during peak race-taper weeks, for example, undermines the very freshness the taper is trying to create.

4. Fatigue management matters more for swimmers than for land-sport athletes. Because swimmers are already accumulating enormous training volume in the pool, dryland sessions need to be dosed carefully. A dryland session that leaves a swimmer's legs too sore to kick effectively the next day, or shoulders too fatigued to hold technique, has done more harm than good.

5. Age and training age change everything. A 12-year-old age-group swimmer needs a completely different dryland emphasis (movement quality, bodyweight control, general athleticism) than a 19-year-old collegiate swimmer with five years of strength training experience (who can handle heavier external loads and more targeted power work).

6. Individualize where possible. Swimmers with a history of shoulder pain, hypermobility, or scoliosis-related asymmetries need modified programming. A generic team dryland circuit is a reasonable starting point, but coaches should be willing to adjust for individuals.

The Core Components of a Freestyle-Focused Dryland Program

A comprehensive program should include five categories of work, each serving a distinct purpose.

1. Shoulder Stability and Rotator Cuff Work

This is the foundation layer and should be present in almost every session, typically as part of the warm-up or as dedicated "prehab" blocks.

• External rotation exercises (band or light dumbbell): side-lying external rotation, standing band external rotation at 0 and 90 degrees of abduction. These target the infraspinatus and teres minor, which are chronically undertrained relative to the internal rotators that swimming itself strengthens.

• Scapular stabilization: prone Y-T-W raises, scapular push-ups (protraction/retraction with straight arms in plank position), and band pull-aparts. These build the serratus anterior and lower trapezius, which control healthy scapular movement during the overhead phase of the stroke.

• Rhythmic stabilization drills: partner or wall-based drills where a swimmer holds a plank or overhead position while resisting small perturbations, building the reflexive stability of the rotator cuff under dynamic load.

• Face pulls with a resistance band or cable, which combine external rotation with scapular retraction and are one of the highest-value single exercises for swimmer's shoulder prevention.

2. Core Strength and Rotational Stability

Freestyle demands both anti-rotation strength (resisting unwanted movement to keep the body streamlined) and rotational power (generating the torque that drives the stroke). Both need to be trained.

• Anti-rotation: Pallof presses, plank variations (front, side, with shoulder taps), and stir-the-pot exercises on a stability ball.

• Rotational power: medicine ball rotational throws against a wall, cable woodchoppers, Russian twists with a controlled tempo, and standing med-ball rotational slams.

• Streamline-specific core work: hollow body holds and hollow rocks, which train the exact trunk position swimmers must hold off every wall and during underwater dolphin kick sequences.

3. Total-Body Strength

General strength underpins everything else — power output, injury resilience, and the ability to hold technique when fatigued late in a race. Compound, multi-joint lifts are the priority here.

• Lower body: squats (back squat, front squat, or goblet squat depending on training age), Romanian deadlifts, single-leg work such as Bulgarian split squats and step-ups, which build the hip and leg power essential for starts, turns, and underwater kick.

• Upper body pulling: pull-ups, lat pulldowns, single-arm rows, and cable pulls that mimic the freestyle catch-and-pull pattern (often done on a cable machine set to shoulder height to simulate the pulling angle).

• Upper body pushing: should be included but programmed conservatively and with attention to shoulder position, since swimmers already get significant "pushing" stimulus from the water; overloading the pecs and anterior shoulder relative to the posterior chain can worsen the muscular imbalance that contributes to shoulder impingement. Push-up variations and controlled dumbbell bench work are generally preferable to heavy overhead pressing for swimmers.

• Hip and posterior chain: deadlift variations and hip thrusts, which support both kick power and overall trunk stability.

4. Power and Plyometric Training

This category is what most directly improves start speed, wall push-offs, and underwater kick — three phases of a freestyle race that can collectively account for a large share of total race time, especially in 50s and 100s.

• Lower body plyometrics: box jumps, broad jumps, depth jumps (for more advanced athletes), and lateral bounds, which build the explosive hip and ankle extension needed for a powerful start and push-off.

• Upper body power: medicine ball chest passes and overhead slams, plyometric push-ups, which help develop the fast force production relevant to the initial pull phase off the start.

• Core power: explosive med-ball rotational throws, discussed above, straddle the line between core and power training.

Plyometric work should be introduced gradually and dosed conservatively — it's the highest-injury-risk category if progressed too quickly, particularly for younger or less experienced athletes.

5. Mobility and Flexibility

Freestyle requires substantial shoulder flexion and extension range, thoracic spine rotation, and ankle plantarflexion (for an efficient, low-drag kick). Mobility work should target these specific areas rather than generic full-body stretching.

• Shoulder mobility: sleeper stretches, cross-body stretches, and controlled articular rotations (CARs) for the shoulder joint, done through full pain-free range.

• Thoracic spine mobility: foam roller thoracic extensions, open-book rotations, and quadruped thoracic rotations, which support the body-roll mechanics central to efficient freestyle.

• Ankle mobility: weighted ankle stretches or banded ankle mobilizations to improve plantarflexion range, directly supporting kick efficiency and reducing drag.

• Hip mobility: 90/90 hip stretches and hip flexor stretches, supporting both kick mechanics and the rotational demands of the stroke.

Periodizing Dryland Across the Season

Dryland training should not look the same in September as it does in February race week. A simple four-phase structure works well for most club and collegiate programs.

Preparatory / General Strength Phase (early season): Higher dryland volume, moderate intensity, emphasis on movement quality, general strength base-building, and addressing any imbalances or weaknesses identified in preseason screening. This is the time for higher-rep compound lifts and building a foundation of shoulder health work that will be maintained all season.

Build Phase (mid-season): Dryland shifts toward more sport-specific patterns and begins incorporating more power work, while total volume may decrease slightly as swimming volume increases. Strength sessions become more targeted — cable pulls at freestyle-specific angles, single-arm work that challenges rotational stability, continued shoulder health maintenance.

Peak / Competition Phase (pre-championship weeks): Dryland volume drops substantially. Sessions become short, sharp, and power-focused — a few sets of jumps, throws, or light explosive lifts to keep the nervous system primed without creating residual fatigue. Shoulder health work continues but at reduced volume, using it as maintenance rather than a training stimulus.

Taper/Race Week: Dryland is minimal to none, or limited to very brief activation work (banded external rotations, light core activation) as part of a pre-meet warm-up routine. The priority is arriving at competition fully recovered.

Sample Weekly Dryland Structure (Build Phase Example)

For a club or collegiate team training dryland three times per week alongside five to six pool sessions:

Session 1 (after an easier swim day):

• Dynamic warm-up (5-10 min)

• Shoulder activation circuit: band external rotations, Y-T-W raises, face pulls (2-3 sets)

• Squats or goblet squats: 3-4 sets of 6-8

• Pull-ups or lat pulldowns: 3-4 sets of 8-10

• Pallof press: 3 sets of 10 per side

• Ankle and hip mobility cooldown

Session 2 (power-focused, ideally not the day before a key swim set):

• Dynamic warm-up

• Lower body plyometrics: box jumps or broad jumps, 3-4 sets of 4-5

• Medicine ball rotational throws: 3 sets of 6 per side

• Single-leg work: Bulgarian split squats, 3 sets of 8 per leg

• Cable pull at freestyle catch angle: 3 sets of 10

• Hollow body holds and rocks: 3 sets

Session 3 (shorter, maintenance-focused):

• Dynamic warm-up

• Full shoulder health circuit (extended version of Session 1's activation work)

• Core circuit: side planks, stir-the-pot, Russian twists

• Thoracic and hip mobility work

• Optional: light upper-body pushing (push-up variations)

Sessions typically run 30-45 minutes for in-season maintenance, and can extend to 45-60 minutes during the general preparatory phase when volume is higher.

Common Mistakes to Avoid

Overloading the chest and anterior shoulder. Many generic strength programs default to heavy bench pressing and overhead pressing. For swimmers, this can exacerbate the internal-rotation-dominant posture that swimming already creates, worsening shoulder impingement risk rather than reducing it. Posterior chain and pulling work should outweigh pushing work in volume.

Treating dryland as a conditioning punishment. Dryland sessions built around exhausting circuits with no technical coaching teach poor movement patterns under fatigue and increase injury risk, particularly with plyometric and lifting movements. Quality of movement should always take priority over exhaustion.

Ignoring individual injury history. A swimmer coming back from shoulder impingement needs a modified program with reduced overhead loading and a greater emphasis on scapular control, not the same circuit as the rest of the team.

Programming heavy dryland the day before key swim sets or races. Residual muscle soreness and neural fatigue from a hard lifting or plyometric session can measurably degrade swimming technique and speed for 24-48 hours. Session placement within the weekly schedule matters as much as session content.

Skipping mobility work under time pressure. When sessions get cut short, mobility and shoulder-health components are often the first to go — but these are precisely the components with the highest injury-prevention value relative to their time cost.

Putting It All Together

A well-built dryland program is not an add-on bolted onto the swimming schedule; it's an integrated part of training that should be planned with the same care as the pool workouts themselves. The most effective programs share a few common threads: they prioritize shoulder health and posterior chain strength to counterbalance the repetitive, internally-rotated nature of the freestyle stroke; they build rotational core strength and power to support the body-roll mechanics that drive efficient swimming; they develop explosive power to improve the start, turns, and underwater phases of a race; and they're periodized thoughtfully so that dryland stress complements rather than competes with in-water training demands.

For coaches and swimmers building or refining a program, the starting point should always be an honest assessment of current movement quality, injury history, and training age — followed by a gradual, well-coached progression rather than an attempt to do everything at once. Done consistently over a season, this kind of targeted dryland work pays dividends in both speed and durability, helping freestyle swimmers train harder, recover better, and stay healthy through the demands of a full competitive season.