BEFORE ➡️ AFTER
The traditional approach to coaching often looks like this:
❌ Coach identifies the problem.
❌ Coach provides the solution.
❌ Athlete attempts to copy the solution.
The athlete may improve in that moment, but what happens when the environment changes?
What happens when the pressure increases?
What happens when opponents behave differently?
What happens when the game presents a problem they’ve never seen before?
This is where our coaching process differs.
➡️ We don’t just give athletes answers.
➡️ We create situations that help them discover answers.
Using a coaching approach heavily influenced by ecological dynamics, we design training environments that present athletes with challenges, constraints, and opportunities to explore movement solutions for themselves.
The result?
✅ Better perception of key information.
✅ Improved decision-making under pressure.
✅ More adaptable movement solutions.
✅ Greater ownership of the learning process.
In the before clip, the athlete is searching for a solution.
In the after clip, they’re no longer relying on instructions from the sideline. They’re reading the environment, adapting to the task, and self-organising more effective movement strategies.
This isn’t about creating athletes who can perform a drill perfectly.
It’s about developing athletes who can solve problems when it matters most.
Because sport isn’t predictable.
The athletes who thrive are often the ones who can adapt.
That’s what we’re training.
The Speed Mechanic
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The interventions I have with all clients is positive and encourage self development and growth as an athlete and as a person.
“Speed is an emergent behavior arising from the interaction between body, brain, and play.”
We apply sprint science, biomechanics & ecological dynamics to improve movement transfer across sports. Experienced and Professional Strength and Conditioning Coach that offers a progressive and educational program that follows the principle of Learn - Train - Sustain!!
Situational Coaching to achieve a desired response.
When organising speed training we often see a lot of drills and instruction but, what we often miss is putting the athlete into situations where they have to discover certain outcomes.
Here’s an example of how we are using situational coaching to achieve desired responses.
Why use banded resisted sprints in your warm-up? 🏃♂️💨
✅ Activates key sprint muscles (glutes & hamstrings)
✅ Improves acceleration mechanics
✅ Increases neuromuscular readiness
✅ Enhances force production and power output
✅ Prepares the body for high-speed sprinting
Keep the resistance light and the technique sharp. A few short resisted accelerations can help athletes feel faster and more explosive before sprinting. 🔥
SprintTraining
02/06/2026
Everyone celebrates bigger muscles and heavier lifts.
But here’s the uncomfortable truth:
Most athletes don’t need more muscle.
They need a better nervous system.
Strength training isn’t just about adding tissue. It’s about teaching the brain and muscles to communicate more efficiently.
The biggest performance gains often come from:
✓ Improved neuromuscular function
✓ Better motor unit recruitment
✓ Stronger actin-myosin cross-bridge interactions
✓ Increased intermuscular coordination
✓ Faster force production
Yet social media keeps convincing athletes that adding 10kg of bodyweight is the answer to every performance problem.
If bigger muscles automatically made athletes faster, every bodybuilder would be an elite sprinter.
They’re not.
Performance isn’t won by who has the biggest muscles.
It’s won by who can recruit the most muscle, at the right time, with the least wasted movement.
The weight room isn’t supposed to build impressive gym numbers.
It’s supposed to build a more efficient athlete.
Strength is a neural skill before it’s a muscular one.
Most people are training muscles.
The best coaches are training the nervous system.
Here is a cross over step before and after. We worked on a combination of improving skill and capacities.
Remedial action allowed us to rectify the force leaks we saw within the cross over step.
Are you looking to improve speed whether your a coach, player, parent or club we can support you.
Check out https://speedmechanic.co.uk
01/06/2026
🚀 TEAM SPORT ATHLETES VS. TRACK SPRINTERS
One of the biggest misconceptions in speed training:
“Team sport athletes accelerate better than sprinters.”
The reality is more nuanced.
Team sport athletes often reach their maximum velocity sooner (typically 20–35m), but they do so at a lower top speed.
Elite track sprinters continue accelerating for much longer (50–70m+) because they’re chasing a much higher velocity ceiling.
🏃♂️ Team Sport Athlete
✅ Faster to top speed
✅ Acceleration dominant
✅ Repeated sprint demands
⚡ Elite Track Sprinter
✅ Higher max velocity
✅ Longer acceleration phase
✅ Superior speed maintenance
Why does this matter?
Because many coaches spend all their time training acceleration while neglecting maximum velocity development.
If your athletes never raise their speed ceiling, they’ll eventually limit their acceleration potential too.
The best speed programs develop the entire continuum:
🔹 Acceleration
🔹 Transition
🔹 Maximum Velocity
🔹 Speed Endurance
Measure. Identify gaps. Train with intent.
Speed isn’t just about working harder.
It’s about building the right qualities at the right time.
31/05/2026
🚀 Not All Fast Players Are Built the Same
One of the biggest mistakes in performance analysis is looking at speed in isolation.
This Speed Intelligence dashboard combines 20m flying sprint speed with Reactive Strength Index (RSI) to reveal how athletes produce speed—not just how fast they are.
📊 What we’re seeing in this squad:
• Most athletes cluster between 16–19 mph with RSI values around 0.7–1.3.
• Several players achieve high speeds with relatively moderate RSI scores, suggesting they rely more on force production and sprint mechanics than pure elastic qualities.
• Athletes in the high speed + high RSI zone demonstrate what we classify as Rapid Transmission—the ability to rapidly redirect force into propulsion.
• Players with good RSI but lower top-end speed may possess untapped speed potential and could benefit from targeted sprint exposure and horizontal force development.
• Athletes with lower RSI and lower speed represent the greatest opportunity for physical development interventions.
🎯 The Coaching Insight
Speed isn’t just a horsepower problem.
Two athletes can run the same speed while possessing completely different neuromuscular profiles.
Understanding where an athlete sits on the Speed vs RSI landscape helps coaches answer critical questions:
✅ Does this athlete need more force production?
✅ More reactive strength?
✅ Better sprint mechanics?
✅ Greater exposure to maximum velocity work?
When testing moves beyond ranking athletes and starts explaining why performance exists, training becomes far more precise.
The goal isn’t simply to identify your fastest players.
The goal is to identify:
Who can get faster, why they can get faster, and what intervention will move the needle most.
📈 This is where data becomes coaching intelligence.
StrengthAndConditioning ReactiveStrength RSI HighPerformanceSport SportsAnalytics SpeedTraining
Intrinsic foot strengthening is a foundational yet often overlooked component of developing explosive athletic performance.
The intrinsic muscles of the foot help create a stable, adaptable base that enhances the transmission of force from the lower limbs into the ground and back through the kinetic chain. A stronger, more resilient foot can improve stiffness at ground contact, reducing energy leakage and allowing athletes to express higher rates of force development (RFD) in sprinting, jumping, and change-of-direction tasks.
By supporting the integrity of the medial longitudinal arch and optimizing foot-ground interactions, intrinsic foot training also enhances the storage and release of elastic energy, contributing to more efficient stretch-shortening cycle function and improved reactive performance. In essence, stronger feet provide the platform from which greater force, speed, and elasticity can be expressed.
30/05/2026
🚨 YOUTH ATHLETES AREN’T GETTING INJURED IN THE GYM…
They’re being kept OUT of the gym because of outdated beliefs.
For years we’ve heard the same arguments:
❌ “They’re too young to lift weights.”
❌ “Strength training will stunt their growth.”
❌ “The gym is dangerous for young athletes.”
❌ “Wait until they’re older.”
So coaches keep U14s, U15s and U16s away from resistance training.
Then a few years later they complain that players are weak, slow and physically underprepared.
Make it make sense.
Maybe the problem isn’t that young athletes are strength training.
Maybe it’s that coaches think strength training means chasing maximal strength.
Because here’s the reality:
A well-designed youth strength program isn’t about seeing how much weight a player can put on the bar.
It’s about developing RELATIVE STRENGTH.
The ability to produce more force relative to body mass.
Why does that matter?
Because sport isn’t played under a barbell.
Athletes have to move themselves.
Sprint.
Jump.
Decelerate.
Change direction.
And relative strength is one of the biggest physical qualities underpinning all of them.
The irony?
If coaches focused more on relative strength and movement competency, many of the fears around youth gym training disappear.
We’re not talking about 14-year-olds grinding out max-effort squats.
We’re talking about teaching them to:
✅ Control their bodyweight
✅ Develop movement quality
✅ Build force production progressively
✅ Become stronger without unnecessary mass gain
✅ Create a foundation for long-term athletic development
The biggest risk isn’t getting young athletes into the gym.
The biggest risk is waiting until they’re 16 or 17 before teaching them how to use one.
👇 Controversial question:
Are youth athletes being held back more by strength training…
…or by coaches who are afraid of it?
27/05/2026
Your hamstring programme is managing injury. Ours eliminates it.
We've all seen players like this: a 24-year-old pro centre-back with strong acceleration, but recurrent hamstring tightness. SIS diagnosed a Velocity Exposure Governance failure, with MVED Compliance at 58%, Elastic Contribution Ratio: Low, and STC = 0.5.
The 8-week intervention consisted of:
* Enforced MVED compliance ≥90% 💪
* RSI monitoring 📊
* Isometric hamstring benchmark progression 🔄
The outcome was dramatic: **MVED Compliance 58% → 96%**, **Elastic Contribution Ratio ↑ 22%**, **Max Velocity ↑ 3%**, and most importantly, **Hamstring Incidents: 2 → 0**.
The issue was not strength, it was exposure governance. SDS corrected resilience and transfer simultaneously.
Do you have a player like this?
The SIS framework identifies this in the first session. www.speedmechanic.co.uk
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