Best Exercises for Sprint Speed: Get Faster in 6 Weeks

Sprint speed is the most physically dominant performance separator across team sports: NFL combine analysis shows that a 0.1-second improvement in the 40-yard dash shifts a receiver's draft position by an average of 22 spots (Berri and Simmons, 2011). Yet most athletes train for sprint speed with methods that are either too general (lots of jogging) or too specific too early (sprint intervals before the strength foundation exists). This guide identifies the exercises that produce the most reliable sprint speed improvements within a 6-week block, with the biomechanical reasoning for why each one works.

Sprint velocity is the product of stride length and stride frequency: Velocity (m/s) = Stride Length (m) × Stride Frequency (strides/s). At maximum velocity, elite male sprinters take approximately 4.6 strides per second at a stride length of 2.2–2.4 m, producing top speeds of 10–12 m/s. The limiting factor for most sub-elite athletes is not stride frequency (which is relatively fixed by neural conduction limits) but stride length — specifically, the propulsive impulse generated during the stance phase of each stride.

Ground contact time during maximum velocity sprinting is 80–110 ms. In that window, the athlete must apply horizontal braking impulse on foot strike and convert it to propulsive impulse as the body moves over the foot. Mero and Komi (1986) showed that athletes who produce more propulsive force during the second half of stance — the push-off phase — achieve longer strides at equivalent frequencies. This is why hip extensor power, not calves or quads, is the primary target for sprint speed improvement in the gym.

The first 0–10 m of a sprint (acceleration phase) and the 30–60 m phase (maximum velocity) require different mechanical strategies and different training emphases. Most team sport athletes — who rarely exceed 20 m in a single sprint — need to prioritize acceleration mechanics. Track and field sprinters, and positions like wide receivers and cornerbacks, need both phases trained to equal priority.

1. Heavy Sled Push (resisted sprint). The most direct transfer exercise for acceleration. Sled loads of 10–15% body weight maintain sprint mechanics while overloading hip extension — the propulsive mechanism that determines acceleration. Heavier loads (20–30% BW) develop force but distort mechanics; lighter loads (5–10% BW) are better for maintaining speed while adding stimulus. Target: 5–8 × 15 m with 3–4 minutes rest.

2. Trap Bar Deadlift (heavy, maximal intent). Hip extensor peak power at 80–90% 1RM produces the force adaptations that underlie acceleration. McBride et al. (2009) found that trap bar deadlift 1RM correlated r = 0.78 with 10 m sprint time in college athletes — one of the strongest single-exercise correlations in the sprint literature. Weekly heavy trap bar work at 3–5 sets of 3–4 reps is a sprint training essential.

3. Hip Thrust Variations. The hip thrust isolates the gluteus maximus through its full range of motion at near-peak hip extension — exactly the mechanical position that produces propulsion in the second half of each sprint stance. Barbell hip thrust at 70–80% 1RM for 4×5, or loaded single-leg hip thrust 3×8 per leg, directly targets the sprint-specific hip extensor axis.

4. Broad Jump (standing long jump). Horizontal impulse production. Three to five sets of three maximal standing long jumps, with 2-minute rests between sets, train the hip-extension-to-propulsion transfer that acceleration demands. Broad jump distance correlates r = 0.82 with 10 m sprint time (Loturco et al., 2015) — it is both an effective test and a training tool.

5. Sprint Drills (A-skip, B-skip, ankling). Technique drills that reinforce dorsiflexion, high knee drive, and foot-strike position under low fatigue. These do not produce fitness adaptations — they encode the mechanical pattern that speed sessions then express. Perform at the start of each session before neuromuscular fatigue accumulates.

6. Wicket Runs. Hurdle wickets placed at specific stride-length distances force the athlete to maintain target step frequency and length. This drill bridges technique and maximum velocity by imposing mechanical constraints that accelerate motor learning. Use at 90% effort for 3–5 × 20 m.

7. Depth Jump (30–45 cm box). Reactive strength — the capacity to minimize ground contact time while maintaining output — is the key variable in maximum velocity sprinting. RSI targets for sprinters: ≥2.0 (male), ≥1.6 (female). Progress to higher boxes only after achieving target RSI at lower heights; rushing to taller boxes extends ground contact time and defeats the reactive purpose.

8. Unloaded Sprint Repetitions (10–30 m). Full-speed sprint repetitions are, ultimately, the most sprint-specific training tool. Volume of 80–120 m of maximal sprinting per session (across 4–8 individual runs) is an effective range for adaptation without excessive fatigue accumulation. Every run must be maximal — submaximal speed practice encodes submaximal patterns.

Athletes below these benchmarks consistently show greater sprint improvement from strength training than from additional sprint volume. Once these levels are reached, the balance shifts toward more sprint-specific work.

Three sessions per week. Session A: strength-focused. Session B: speed-focused. Session C: plyometric and reactive. At least 48 hours between sessions A and B. Baseline test: 10 m sprint, 30 m sprint, and CMJ before Week 1.

Timing gates are the gold standard for sprint measurement, but two smartphones with a video analysis app provide reliable split times at a fraction of the cost. Position phones at 10 m and 30 m marks with a third camera at start; video analysis software identifies frame-by-frame split times with accuracy within ±0.02 seconds in controlled conditions.

CMJ height serves as the most practical weekly readiness and adaptation proxy. When CMJ height is within 3% of the athlete's recent high, they are neuromuscularly ready for maximal sprint work. CMJ declining by more than 5% below a 7-day moving average indicates residual fatigue — reduce sprint volume by 20% and do not attempt a personal record sprint effort on that day.

PoinT GO's 800 Hz IMU captures CMJ take-off velocity and jump height from every practice jump in under 60 seconds. As sprint speed improves across the 6-week block, take-off velocity from CMJ rises in parallel — providing a between-session confirmation that training adaptations are progressing without requiring formal sprint retesting more than once every 2–3 weeks.

Sprint training recovery differs from hypertrophy training recovery in one fundamental way: the adaptation target is the neuromuscular system, which requires full ATP-PCr replenishment between both intra-session sets and inter-session recovery. The following requirements are non-negotiable for retaining session quality.

Between reps: Maximum velocity sprint repetitions require 5–8 times the sprint duration as rest. A 4-second 30 m sprint needs 20–32 seconds minimum rest for partial PCr recovery; 3–4 minutes for full recovery. Most team conditioning programs use 1:3 to 1:5 work:rest ratios during speed sessions, which is insufficient for maximal sprint quality. For this 6-week programme, minimum rest ratios of 1:10 are recommended for max-speed efforts.

Between sessions: Central and peripheral neuromuscular fatigue from maximal sprint sessions takes 36–72 hours to fully resolve. Three sprint sessions per week with 48-hour minimums between sessions is the upper limit for most athletes. Adding sprint volume to daily team practice on top of this protocol risks quality decay and increases hamstring strain risk, which peaks with residual fatigue in the hamstring complex.

Sleep and protein: Sprint power adaptations depend on myosin heavy chain isoform shifts toward faster fiber types — a process that requires both sleep (7–9 hours for peak hormone environment) and protein availability (minimum 1.6 g/kg/day; 2.2–3.1 g/kg/day for simultaneous body composition management during speed blocks).