Two players chase a through ball into the channel. One has a 10.8-second hundred meters. The other runs an 11.3. The ball breaks, both react — and the "slower" player wins by a full stride.
This happens every weekend on pitches around the world, and it confuses coaches who still equate speed with top-end velocity. The answer is acceleration. Specifically, the first 5 meters of soccer/football — the phase that determines who arrives first to loose balls, who separates from a marker, and who converts a half-chance into a goal.
If you coach athletes and you are not deliberately training acceleration, you are leaving match-winning speed on the table.

Why Acceleration Training Matters More Than Top Speed in Soccer
The data is unambiguous. Research by Vigne et al. found that approximately 90% of sprints performed by professional football players last fewer than 5 seconds. A match analysis study published in the Journal of Sports Sciences (Andrzejewski et al., 2013) classified sprints by distance — 0-10m, 10.1-20m, and >20m — and found the overwhelming majority fall in the short-distance brackets. Players rarely reach true top-end velocity during a match. The acceleration phase dominates.
Haugen et al. (2014) profiled acceleration and sprint demands in elite football and confirmed that high-intensity accelerations outnumber maximum velocity sprints by a significant margin across all positions. Lateral players (fullbacks, wingers) sprint longer distances on average (287m vs. 160m per match) than central players, but even their sprints are predominantly short and explosive.
Here is the practical takeaway: if most match actions are decided in the first 5 to 10 meters, your sprint training soccer programme should reflect that reality. Long sprints with full recovery have their place, but they should not be the backbone of your speed work.
The Biomechanics of Early Acceleration
During the initial acceleration phase (roughly the first 8 steps), performance is determined by the ability to produce large horizontal ground reaction forces. Research by Nagahara et al. (2019) on spatiotemporal and kinetic determinants of sprint acceleration in football players showed that effective acceleration is achieved through greater propulsive impulse during the initial phase, combined with higher step frequency through reduced vertical impulse and smaller braking impulse in later steps.
In plain terms: the first 5 meters soccer performance depends on how much force you push backward into the ground (horizontal force), not how high you bounce off it (vertical force). This distinction should guide every drill selection in your programme.

Step-by-Step: How to Train Acceleration for Soccer
Step 1: Master the Start Position
Before loading any drill, athletes need to own the body position that enables effective acceleration. The key landmarks are a forward trunk lean of 45-60 degrees, a positive shin angle (shin angled forward, not vertical), and aggressive arm drive in opposition to the legs.
Exercise: Standing Start Hold and Go From a staggered stance, the athlete loads the front leg (feeling tension through the hamstrings like stretching an elastic band), holds the forward-lean position for 2 seconds, then explodes forward on command for 10m.
- Sets/Reps: 4-6 x 10m
- Rest: 60-90 seconds
- Coaching Cue: "Nose over toes. Push the ground behind you. Stay low for the first 3 steps — earn the right to stand tall."
The goal is not to stay bent over artificially. A proper acceleration unfolds: the athlete starts low and rises progressively, reaching a more upright posture around the 5th to 7th step. If they pop upright on step one, they have leaked horizontal force into vertical displacement.
Step 2: Wall Drives for Force Application
Wall drives isolate the piston-like hip action required during acceleration without the complexity of full sprinting. They teach athletes to drive the knee forward and then strike the foot back down aggressively — the "push" cue that track coaches have emphasised for decades.
Exercise: Wall Drive Series (Single Leg, then Alternating) Hands on wall, body at 45-degree lean, ankles dorsiflexed. Drive one knee to 90 degrees, then punch the foot back into the ground. Progress from controlled singles to rapid alternating switches.
- Sets/Reps: 3 x 8 each leg (controlled) → 3 x 6 seconds (alternating, maximum rate)
- Rest: 45-60 seconds
- Coaching Cue: "Drive down and back, not up. Foot strikes under your hip, not in front of it. Shoulders and hips stay in a straight line."
Wall drives also serve as an effective warm-up primer on speed days, waking up the neural patterns before full-effort sprints.

Step 3: Sled Sprints for Horizontal Force Production
Resisted sprinting is the most direct method for overloading the acceleration phase. A 2024 systematic review and meta-analysis (Lahti et al., PMC) confirmed that resisted sprint training improves acceleration performance, with the greatest effects occurring over the initial 5m — precisely the distance that matters most in football.
Load selection matters. For acceleration-specific adaptations, use 10-20% of body weight on the sled. This range preserves sprint mechanics while providing enough overload to develop horizontal force. Heavier loads (50-80% BW) shift the training stimulus toward maximum force production — useful in a general preparation phase, but less specific to match acceleration patterns.
Exercise: Sled Sprint (Light-Moderate Load) Sprint 15-20m with a sled loaded at 12-18% BW. Focus on maintaining forward lean and driving each step backward into the ground.
- Sets/Reps: 5-6 x 15-20m
- Rest: 2-3 minutes (full neural recovery)
- Coaching Cue: "Same body angle as your wall drives. Attack the ground. The sled slows you down — let it. Focus on force, not speed."
If you do not have a sled, uphill sprints on a moderate gradient (5-10 degrees) achieve a similar mechanical effect by increasing the horizontal force demand.
Step 4: Falling Starts and Reactive Starts
As Joel Smith emphasises in his acceleration work, the best way to build a robust acceleration pattern is to accelerate from a variety of starting positions. A robust pattern is one that transfers across sporting situations — and soccer demands acceleration from every conceivable body position.
Exercise: Start Complex (Circuit Style, Performed as a Race) Pair athletes and race over 10-15m from the following positions:
- Falling Start — stand tall, lean forward until you lose balance, then sprint
- Push-Up Start — chest on ground, explode up and sprint on command
- Seated Start — sitting with legs extended, react to a signal
- Rollover Start — lying on back, roll to front, then sprint
- Lateral Shuffle Start — shuffling sideways, then sprint forward on cue
- Sets/Reps: 2 reps from each position (10 total sprints)
- Rest: 60-90 seconds between reps
- Coaching Cue: "Win the race. Do not think about technique — compete and let your body self-organise the fastest pattern."
The competitive element is critical. Racing forces athletes to self-organise efficient movement under time pressure, which is exactly the demand of match play. Standing triple jumps (3-4 sets of 3 reps) can supplement this block as a high-transfer power exercise that reinforces the coordination and force production needed in early acceleration.
Managing acceleration progressions across a squad of 12 players with different speed profiles is where spreadsheets break. A tool like PlayerPlan's Session Builder lets you design and share individualised sprint sessions in minutes — each athlete gets the right volume and loading for their development stage.
Step 5: 10m Sprint Variations with Game-Relevant Triggers
Planned sprints have diminishing returns. To bridge the gap between drill work and match demands, add decision-making and reactive elements to your 10m sprints.
Exercise Options:
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Partner Race: Two athletes side by side, react to a visual cue (ball drop, hand signal), sprint 10m. The competitive pressure replicates the urgency of a 50/50 ball.
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Ball Chase: Coach rolls a ball forward at varying speeds. Athlete must accelerate, reach the ball, and play a first touch before a designated line. Adds perception and timing.
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Colour Cone React: Place 3 cones at different angles, 10m away. Coach calls a colour; athlete accelerates to the correct cone. Integrates cognitive processing with explosive first step soccer ability.
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Sets/Reps: 6-8 total sprints across 2-3 variations
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Rest: 90 seconds
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Coaching Cue: "Eyes up. React and go — no false steps. The first player to the ball wins."

Step 6: Integrate Acceleration with Change of Direction
Soccer rarely involves pure linear acceleration. Players accelerate, then cut, decelerate, and re-accelerate — often within a few metres. A study by Loturco et al. (2019) found a direct connection between maximum acceleration performance and change-of-direction (COD) ability in professional football players.
Exercise: 5m Acceleration into Cut Sprint 5m to a cone, decelerate and execute a 45-degree or 90-degree cut, then accelerate 5m in the new direction. Alternate cut directions each rep.
- Sets/Reps: 4-6 x each direction
- Rest: 90 seconds
- Coaching Cue: "Accelerate hard into the cone. Lower your hips before the cut — deceleration sets up the next acceleration. No rounding the cone."
Progress by adding a ball (receive and accelerate), a defender (1v1 scenario), or a visual trigger for cut direction. The goal is to connect the acceleration qualities you have built in isolation to the chaotic, multi-directional demands of the pitch.
Common Mistakes in Soccer Acceleration Training
1. Overstriding. Athletes trying to "reach" for more distance per step end up landing with the foot in front of their centre of mass. This creates a braking force — the opposite of what you want. Cue: "Quick feet, not long feet. Push back, not out."
2. Too much volume. Acceleration work is neural, not metabolic. Quality degrades rapidly after 8-10 maximal-effort sprints. If your athletes are running 20+ sprints in a speed session, they are practising fatigue, not speed. Keep total sprint volume under 150-200m per session for acceleration-focused work.
3. Training acceleration when fatigued. Acceleration drills belong at the start of a session, after a thorough warm-up but before any conditioning or heavy resistance work. Placing them at the end — when ground contact times are slow and force production is compromised — trains the wrong neural patterns. RPE should be low going into speed work.
4. Neglecting the strength base. Acceleration is closely linked to relative strength. Research consistently shows that athletes who can squat 1.5-2x bodyweight sprint faster over short distances than weaker counterparts. If an athlete cannot produce adequate force, no amount of sprint drilling will compensate. Prioritise squats, trap bar deadlifts, and single-leg strength alongside your speed work.
5. Ignoring deceleration. The ability to brake efficiently enables the next acceleration. Players who cannot decelerate well take extra steps, lose body position, and arrive late to the next action. Include eccentric strength work (Nordic hamstring curls, drop landings) and specific deceleration drills (sprint-to-stop in 3 steps) as part of your speed programme.

Sample Weekly Programming: Integrating Acceleration Around Match Day
Acceleration training is high neural demand, low metabolic cost. It fits best on MD-3 (three days before match day) or MD-2, when the nervous system can be challenged without creating excessive muscle damage or fatigue.
| Day | Focus | Acceleration Component | Notes |
|---|---|---|---|
| MD-4 (Tue) | Strength + Power | Trap bar deadlift 4x4, box jumps 3x5 | Build the force production base |
| MD-3 (Wed) | Speed + Acceleration | Wall drives (warm-up), sled sprints 5x15m, start complex 8 reps, 10m reactive sprints 6 reps | Primary acceleration session. Total sprint volume: ~160m |
| MD-2 (Thu) | Tactical / Technical | 5m accel-to-cut 4x each direction (integrated in small-sided games) | Low volume, soccer-specific integration |
| MD-1 (Fri) | Activation only | 3-4 x 10m at 85-90% effort after warm-up | Prime the nervous system. No maximal efforts |
| MD (Sat) | Match | — | — |
| MD+1 (Sun) | Recovery | — | No speed or acceleration work |
| MD+2 (Mon) | Light return | Standing triple jumps 3x3, falling starts 4x10m | Low-volume power maintenance |
This template assumes a single-match week. In congested fixture periods, reduce the MD-3 session volume by 30-40% and eliminate the MD+2 session entirely.
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Key Takeaways
- Most match-deciding sprints happen in the first 5-10 meters. Train the acceleration phase deliberately, not as a byproduct of longer sprints.
- Horizontal force production is the primary driver of acceleration. Select drills that emphasise pushing backward into the ground (sled sprints, wall drives, uphill sprints).
- Vary starting positions to build a robust acceleration pattern that transfers to the unpredictable demands of match play.
- Keep volume low and quality high. Under 200m of total sprint volume per acceleration session. Every rep should be maximal intent.
- Place acceleration work early in the session and early in the week (MD-3 or MD-2) when the nervous system is fresh.
- Build the strength base in parallel. Relative lower-body strength (1.5-2x BW squat) underpins acceleration capacity. Sprint drills without a strength programme are building on sand.
- Connect acceleration to soccer-specific actions — cuts, ball reception, reactive triggers — to bridge the gap between drill and match performance.
FAQ
How often should soccer players train acceleration?
During the competitive season, one dedicated acceleration session per week (MD-3) is sufficient for most players, with a lighter integration session on MD-2 through tactical drills. In the off-season or pre-season, two sessions per week with 48-72 hours between them allows for more deliberate development. The key constraint is neural freshness — if an athlete is still fatigued from the previous session, they are not ready for maximal-intent sprint work.
Can you improve acceleration without a gym?
Yes, but you will eventually plateau. Bodyweight drills (start complex, reactive sprints, standing jumps, hill sprints) can meaningfully improve acceleration in younger or less-trained athletes. However, acceleration has a strong relationship with relative strength. Beyond a certain point, you need external loading — squats, deadlifts, sled work — to continue developing the force production capacity that underpins faster ground contact times. A gym is not essential to start, but it becomes essential to progress.
What is the difference between acceleration and top speed training?
Acceleration training targets the first 0-15m — the phase where the body moves from stationary (or slow) to fast. It emphasises forward lean, horizontal force, and short, aggressive ground contacts. Top speed training targets the phase beyond 30m where the athlete is upright, ground contact time is minimal (under 0.10 seconds), and the emphasis shifts to hip height, elastic energy return, and relaxation. Different biomechanics, different drills, different coaching cues. For soccer, acceleration is the higher-priority quality, but top speed work (2-3 fly-in sprints per week) still has value for players in wide and forward positions.
When in the season should you focus on acceleration?
Acceleration should be trained year-round — it is a skill that is easily gained and easily lost. The emphasis shifts across the season: pre-season allows for higher volumes and heavier resisted sprints (building the engine), while in-season training is about maintaining speed qualities with lower volumes and higher specificity. Even during congested fixture periods, 4-6 maximal sprints integrated into warm-ups can preserve acceleration capacity. The worst approach is to stop training speed entirely during the season and expect athletes to be fast on match day.
Should acceleration training differ for younger players?
The principles are the same, but the application changes. Youth players (under 16) benefit enormously from the start complex approach — varied positions, competitive races, low equipment demands. Sled sprints and heavy resistance work should be introduced gradually as athletes develop baseline strength and movement competence. Prioritise bodyweight drills, standing jumps, short hill sprints, and game-based reactive sprints. The competitive, playful element matters more for this population than precise loading percentages.
Build Your Acceleration Programme with PlayerPlan
You have the drills. You have the programming framework. Now the challenge is applying it across your entire squad — individualising loads, tracking progress, and adjusting across a 30-week season.
PlayerPlan's Session Builder lets you design acceleration sessions with drag-and-drop simplicity: set the drill, prescribe the volume, attach coaching cues, and share it directly to each player's phone. The Program Designer maps your entire speed development block across weeks, so you see exactly how acceleration work fits alongside strength, conditioning, and match recovery. And with Player Sharing, each athlete gets a personalised programme — because the centre-back and the winger should not be doing identical sprint training.
Stop managing speed programmes in spreadsheets. Start coaching.