Among the many questions raised during coaching clinics and athletics conferences, one appears with remarkable regularity: what is the correct distance between wickets when performing wicket runs?

The simplicity of the question often hides a more complex reality. During visits to tracks around the world, it is not uncommon to see wickets placed at a fixed distance—frequently seven feet—regardless of the athlete’s anthropometrics, technical level, or sprint velocity. Shoe size, height, age, and performance level appear irrelevant. The spacing remains unchanged.

From a coaching and biomechanical perspective, this approach is problematic. Sprint mechanics, particularly during the upright phase, depend on a precise interaction between stride length, ground contact time, and horizontal velocity. Standardising wicket spacing without considering these variables risks turning what should be a highly technical drill into a generic coordination exercise with limited transfer to maximal velocity sprinting.

For this reason, I decided to systematise the way I approach wicket spacing, translating observations from elite sprint mechanics into practical guidelines applicable across different levels of athletes.

---

Wicket Runs and Maximum Velocity Mechanics

Wicket runs are widely used in sprint training to develop the qualities associated with maximal velocity: vertical force application, optimal front-side mechanics, and efficient stride rhythm. When properly implemented, the drill encourages athletes to strike the ground beneath the centre of mass while maintaining posture and elastic stiffness through the lower limbs.

However, the placement of wickets must respect the progressive nature of sprint acceleration. Even though the drill targets maximum velocity mechanics, athletes typically enter the wickets while completing the final phase of acceleration. As a result, stride length is still increasing across the first few barriers.

Biomechanical analyses of elite sprinting—particularly those examining the transition between acceleration and upright running—demonstrate that stride length expands progressively as velocity increases (Morin & Samozino, 2016). A static spacing therefore contradicts the natural rhythm of the sprint cycle.

---

A Progressive Approach to Wicket Spacing

Through extensive practical experimentation—often involving the placement of more than one hundred wickets during weekly sessions while I was working in the United States—I began to observe a consistent pattern in how athletes naturally adapted their stride distribution.

The result was the development of a progressive spacing model, where the distance between wickets increases gradually until the athlete reaches the target stride length associated with maximal velocity.

For example, if the final target spacing is 200 cm, the progression may develop as follows:

• H1–H2: 182 cm
• H2–H3: 186 cm
• H3–H4: 182 cm
• H4–H5: 196 cm
• H5–H6: 200 cm
• From H6 onwards: 200 cm

This progression allows the athlete to continue accelerating while approaching the mechanical rhythm required for upright sprinting. Once the final spacing is reached, the subsequent wickets reinforce stable maximum-velocity mechanics.

The objective is not merely to “step over barriers”, but to shape the rhythm of the stride cycle, guiding the athlete toward optimal force application and posture.

The following video from 2018 resumes the main points.

---

From Elite Performance to Everyday Coaching

Upon returning to Italy after my experiences abroad, I spent many hours analysing sprint footage from a wide spectrum of performances: from sub-10-second 100-metre sprinters competing at the highest level to developing athletes across different age categories.

The challenge was clear: how could the mechanical principles observed in the “Olympus of athletics” be translated into practical coaching tools accessible to all levels of performance?

The table I developed from this work represents the synthesis of that effort. It offers a practical reference for coaches seeking to structure wicket runs in a way that respects sprint biomechanics while remaining adaptable to different athlete profiles.

Used correctly, progressive wicket spacing helps bridge the gap between theory and practice, allowing technical concepts observed in elite sprinting to become tangible elements of everyday training.

---

Practical Implications for Coaches

For coaches implementing wicket runs within sprint programmes, several principles should guide their application:

• Wicket spacing should reflect the progressive development of stride length during acceleration.
• The drill must prioritise rhythm and posture, not merely step frequency.
• Distances should be adapted to the athlete’s speed, anthropometrics, and training level.
• Video analysis can provide valuable feedback on whether stride distribution aligns with intended mechanics.

When these principles are respected, wicket runs become a powerful tool for reinforcing upright sprint mechanics rather than a simple coordination exercise.

---

---

The future is bright,
Scirocco TF

---

Join our programs

---