Speed Is
A Skill.
We Develop It.

Watch a youth field sport game closely and you'll see it in almost every athlete: the ball gets played into space, and instead of exploding forward, the athlete rises up tall and takes a few stumbling steps before they're actually moving. That delay — often less than half a second — is usually the difference between winning the race to the ball and losing it.

The cause is almost always the same: posture.

Why Upright Posture Kills Acceleration

Top-end sprinting — the kind you see 40 meters into a race — happens with a tall, upright torso. But the first three to five steps out of a standing or jogging start are a completely different skill. Acceleration requires the body to be in a forward-leaning position, with the shin angled sharply into the ground on each step, so the athlete is pushing back and down rather than reaching forward.

Most young athletes have never been taught this distinction. They've absorbed, from watching elite sprinters on TV, that “fast” looks like standing tall and pumping the arms. So the moment they need to accelerate, they instinctively pop up into that tall position too early — and every early stride from that point on pushes them upward instead of forward. The result: they look like they're working hard, but they're not actually covering ground.

What This Looks Like On The Field

• A soccer player who "should" win a 50/50 ball but arrives a step late
• A rugby winger who gets caught from behind despite being the faster athlete over a full sprint
• A lacrosse or field hockey player who never quite closes the gap on a breakaway

In almost every case, the issue isn't a lack of raw speed. It's that the first three steps are being wasted on posture correction instead of forward propulsion.

How This Gets Coached

Fixing this isn't about telling an athlete to "lean forward" — that cue alone usually makes things worse. It takes structured drill work that builds the shin angle, the ground contact pattern, and the arm drive that supports it, then layers those mechanics into starts from the positions athletes actually use in games: on the whistle, off a jog, out of a defensive stance, reacting to a ball.

This is deliberately the first thing we address in every new athlete assessment, because it's the single highest-leverage fix in field sport speed. An athlete who fixes their first step doesn't just get faster in a straight line — they get faster into every cut, every recovery run, and every loose-ball race, because all of those start with the same acceleration mechanics.

Parents often ask some version of the same question: "Is it too early to start training my 10-year-old's speed?" The research says the opposite question is usually the right one to be asking — because the years between roughly 9 and 13 are when the movement patterns an athlete will use for the rest of their sporting life get built.

Why This Window Matters

Canada's national long-term athlete development framework — the model that underpins how NCCP-certified coaches across the country are trained to think about youth development — identifies specific windows in a young athlete's growth where the nervous system is unusually receptive to learning new movement skills. Miss that window, and the same skill takes longer to build later, and often never becomes fully automatic.

This isn't a fringe idea. The National Strength and Conditioning Association's official position statement on long-term athletic development makes the same case from a different angle: children and adolescents have physical, psychological, and social characteristics distinct from adults, and training that respects those differences — rather than just scaling down adult programming — produces better long-term outcomes and fewer injuries.

What This Means In Practice

For the 9–13 age group, the priority isn't maximum sprint speed or heavy loading. It's coordination, body control, and the fundamental movement vocabulary — accelerating, decelerating, changing direction, jumping and landing — done correctly and often. Athletes who build this foundation well tend to progress faster later, because the coaching at 14+ becomes refinement rather than starting from zero.

For competitive athletes aged 14–19, the priority shifts. The nervous system and structural development are further along, so this is where higher-intensity speed and power work, and more sport-specific application, does its best work.

The Mistake We See Most Often

Skipping the foundations stage and jumping straight to "speed training" with a young athlete — without ever addressing basic movement quality — is one of the most common and costly mistakes in youth sport. It's also exactly why Speed Excellence structures its coaching as two distinct programs by age, rather than one generic program stretched across a decade of childhood development.

Parents sometimes assume that the fastest sprinter on the track would automatically be the fastest player on the field. It's rarely true, and the reason comes down to one of the most reliable principles in sports science.

The Principle: The Body Adapts To What You Actually Train

Exercise scientists call this the SAID principle — Specific Adaptation to Imposed Demands. Put simply: the body gets better, specifically, at whatever you repeatedly ask it to do. A distance runner's body adapts to distance running. A sprinter's body adapts to sprinting in a straight line, from a stationary set position, over a fixed distance.

A field sport athlete is never doing that. They're reacting to a ball, a defender, or a gap that didn't exist a half-second ago — accelerating from a jog, a shuffle, or a dead stop, in an unpredictable direction, then decelerating and changing direction again almost immediately. That is a fundamentally different demand on the body than a 100-meter sprint start, and it produces a fundamentally different adaptation.

What "Field Speed" Actually Requires

This is why the best 100m sprinters in the world are rarely dominant field sport athletes, and why some of the most explosive players in soccer, rugby, and football would never be competitive sprinters. Field speed is built from:

• Reactive acceleration — reading a cue and firing, not exploding from a set start
• Multi-directional movement — cutting, shuffling, and backpedaling, not just moving forward
• Repeated-effort capacity — doing this dozens of times a game, not once, at maximum output

Lee Taft — widely regarded as one of the top athletic movement specialists in the world, and a coach whose multidirectional speed methods are used by performance staff across professional and college sport — has spent over three decades making exactly this case: team-sport speed is its own skill, built through its own training, not a byproduct of straight-line sprint work.

Why This Matters For How Your Athlete Trains

If a training program only ever works straight-line speed, it's building an adaptation that doesn't fully transfer to the game. Field sport speed training has to include the reactive starts, direction changes, and decision-making elements that actually show up on Saturday. That's the entire premise behind how sessions at Speed Excellence are built — every drill has a direct line back to something that happens in a real game.

"Agility training" is one of the most misused phrases in youth sport. Most of what gets labeled agility is actually change of direction (COD) — and the difference matters more than most parents realize.

Change of Direction: Pre-Planned

A cone drill — sprint to a cone, cut left, sprint to another cone — is change of direction. The athlete knows exactly where they're going before they move. It's a valuable building block: it trains the mechanics of decelerating, planting, and re-accelerating. But it's not the skill that actually shows up in a game.

Agility: Reactive

True agility is change of direction plus a reaction to something unpredictable — a defender's movement, a bouncing ball, a teammate's cut. It requires the athlete to read a cue and then decide which direction to move, under time pressure. That decision-making component is what actually gets tested every time your athlete is on the field, and it's a completely different skill from running a pre-set cone pattern.

Why The Distinction Matters To You As A Parent

A program that only ever does cone drills is training COD mechanics without ever training the reactive decision-making that turns those mechanics into game-usable agility. Athletes can look sharp doing pre-planned drills and still freeze or guess wrong in an actual game, because they've never practiced the reading-and-reacting part of the skill.

Lee Taft — one of the pioneers of modern multidirectional speed training, known for concepts like the "plyo step" and "hip turn" that are now used across performance training worldwide — has spent much of his career pushing the field to make exactly this distinction, because conflating the two leads to athletes who are mechanically sound but tactically slow to react.

How This Gets Coached Properly

Effective agility development is progressive: pre-planned COD mechanics first, to build the physical foundation, then reactive drills — responding to a partner, a ball, or a visual cue — layered in as the athlete is ready. Both matter. Skipping straight to reactive work before the mechanics are sound just reinforces bad movement patterns under pressure; staying on pre-planned drills forever never builds the decision-making athletes actually need.

Ask most parents what makes an athlete fast, and they'll talk about legs — stride length, leg strength, maybe hip mobility. Almost nobody mentions the arms. That's a mistake, because arm mechanics have a direct, measurable effect on how fast the legs can actually move.

Why The Arms Matter For The Legs

Sprint mechanics work as a coordinated system, not a collection of independent parts. The arms and legs move in opposition — right arm forward with left leg forward, and so on — and the rhythm of that arm action strongly influences stride frequency. An athlete with sloppy, undisciplined arm action almost always has a choppier, less powerful stride to match, because the two are mechanically linked through the trunk.

Beyond rhythm, the arms contribute directly to force production. A strong, well-timed arm drive helps counter-rotate the trunk against the legs, which allows more force to go into the ground on each stride instead of leaking out as unnecessary rotation. Watch any elite sprinter in slow motion and the arm action is aggressive, precise, and anything but an afterthought.

What Poor Arm Drive Looks Like

• Arms crossing the midline of the body, which twists the trunk and wastes energy
• Arms swinging too high or with excess tension, which slows the rhythm down
• Arms doing almost nothing at all, leaving the legs to do all the work alone

Most young athletes have never been coached on any of this, because arm mechanics rarely get attention outside of dedicated sprint coaching. It's one of the fastest, most overlooked wins available in a training program.

Why We Coach It Directly

This is a genuinely coachable skill — it responds quickly to correction, and improvements in arm mechanics tend to show up in stride quality almost immediately. It's a small piece of a much larger system, but it's one of the pieces most programs skip entirely, which is exactly why it's worth getting right.

Parents comparing 1-on-1 and group training options often frame it as a budget decision. It's worth understanding what's actually different about the coaching itself — because the gap isn't about attention in a vague sense. It's about how the body adapts to training over time.

Adaptation Is Specific, And Specific Takes Correction

The same principle that explains why field speed and track speed are different skills — the body adapts specifically to the demands placed on it — also explains why how a skill is practiced matters as much as how often. If an athlete repeats a movement with a mechanical flaw, session after session, their body doesn't ignore the flaw. It adapts to it. The flaw gets grooved in just as effectively as the correct pattern would have.

This is where real-time, individual correction earns its value. In a 1-on-1 session, a coach can catch a technical error on the very first rep and correct it before it's repeated ten more times. In a group of six, that same error might go uncorrected for an entire session, because the coach's attention is necessarily split. Both athletes get a workout. Only one of them gets a training effect specifically targeted at what they, individually, need to fix.

Why This Compounds Over A Training Block

Speed development isn't a single-session event — it's a cumulative process, where each session's adaptation becomes the foundation the next session builds on. That's true whether the correction happens or not. An athlete training with unaddressed mechanical flaws is compounding those flaws just as surely as an athlete training with clean mechanics is compounding good ones. Over 8 or 12 sessions, that gap becomes the entire difference in outcome.

This is also why programs structured as a full block — rather than a handful of disconnected sessions — see meaningfully better results. Each session is building on specific, individually corrected mechanics from the one before it, rather than starting over.

Where Group Training Still Fits

None of this makes group training bad — it's genuinely valuable for cost-effective conditioning, competitive energy, and athletes who are already mechanically sound and mainly need volume and intensity. The honest distinction is what it's good for: group training is efficient for reinforcing patterns that are already correct. Individual coaching is what builds those correct patterns in the first place.