One of the most common pieces of sprinting advice is:
“Land with your foot directly underneath your hips.”
The idea behind this cue makes sense. Coaches want athletes to avoid overstriding, reduce braking forces, and prevent the foot from reaching excessively in front of the body.
But if you want to know how to run faster, the answer isn’t as simple as forcing the foot straight under the hips. Faster sprinting comes from covering more distance per step while keeping ground contact quick and foot mechanics efficient.
When we actually slow down footage of the world’s fastest sprinters, there’s a problem:
Their foot doesn’t necessarily contact the ground directly underneath their hips.
Look closely at athletes such as Usain Bolt, Noah Lyles, Asafa Powell, Gabby Thomas, and Melissa Jefferson at top speed. At initial ground contact, the point of contact can be in front of the hips rather than directly underneath them.
So does that mean elite sprinters are all overstriding?
Or is our definition of overstriding—and the way we coach athletes to avoid it—too simplistic?
This breakdown is for youth, high school, college, and amateur athletes who want to improve sprint speed and efficiency. We’ll look at foot placement, overstriding myths, elite sprint biomechanics, reach mechanics, ground contact, injury considerations, and how to balance distance per step with step frequency so you can coach and train with a more accurate model of what actually makes athletes faster.
That’s what I want to break down.
What Is Overstriding in Sprinting?
Overstriding is generally described as the foot landing too far in front of the body’s center of mass.
The concern is that an athlete reaches forward, contacts the ground well ahead of the body, creates excessive braking, and ultimately runs slower.
There’s truth to the idea that excessive reaching can become inefficient.
But there’s an important distinction:
Landing in front of the hips is not automatically the same thing as overstriding.
When sprinting at top speed, there is a braking component when the foot initially contacts the ground. The goal isn’t necessarily to eliminate every braking force. Instead, the athlete needs to manage that contact effectively and transition rapidly into the propulsive portion of the step.
This is why simply drawing a vertical line underneath the hips and telling every athlete that their foot needs to land on that line can oversimplify what actually happens during elite sprinting.
What Elite Sprinters Actually Do
Modern slow-motion video gives us an advantage coaches didn’t always have.
We can go frame-by-frame and see exactly where an athlete’s foot first contacts the track.
And when you do that with elite sprinters, an interesting pattern emerges.
Melissa Jefferson
When Jefferson’s foot initially contacts the track at top speed, the contact point is visibly in front of her hips.
This is important because we’re not simply looking at where the leg eventually moves during stance. We’re looking at the initial point of contact.
Her body then continues moving forward over the foot this is critical to understanding how to run faster.
Gabby Thomas
We can see something similar with Gabby Thomas’s sprinting form.
At initial contact, the foot is in front of the hips rather than directly underneath her.
However, there’s another important detail:
She’s still contacting the ground toward the front portion of the foot and the foot hits significantly in front of the hips and center of mass.
That’s very different from aggressively reaching forward and crashing onto the heel.
And that distinction is critical to understanding what I mean when I coach athletes to reach in order to run faster.
Asafa Powell
Asafa Powell is another useful example because his sprint mechanics have long been considered extremely technically sound.
Slow the video down at initial contact and look at the front portion of the foot—the area actually making contact with the track.
Again, the point of contact is not simply directly underneath the hips.
That doesn’t mean Powell is making a sprinting mistake.
It means we need a more nuanced way of thinking about foot placement.
Noah Lyles
The same thing can be observed with Noah Lyles.
When his foot contacts the track, the initial contact point can be seen ahead of the hips.
This matters because athletes are frequently told online that:
“You’re slow because your foot is landing in front of your hips.”
But if that alone were the problem, we’d have to explain why some of the fastest humans in history demonstrate a similar relationship at top speed.
The answer is that foot placement is only one part of the equation.
Ground-contact time, foot-strike mechanics, how the athlete handles the forces at contact, and how quickly they transition back off the ground all matter.
Why I Actually Coach Athletes to Reach for Proper Sprinting Technique When Speed Training
This is where my coaching philosophy differs from a lot of conventional sprint advice.
I frequently encourage athletes to reach and cover more distance per step.
Why?
Because running speed isn’t just about moving your legs quickly. Faster sprinters also put more force into the ground, which is what creates effective longer strides instead of just reaching farther.
You also have to cover ground.
I’ve seen athletes become obsessed with getting the foot straight back underneath them. They cycle the leg quickly, put the foot down, and take lots of short, rapid steps.
Their feet look fast.
But the athlete isn’t traveling very far with each step.
That’s a problem.
The fastest sprinters aren’t simply moving their legs quickly. They’re able to combine quick contacts with tremendous amounts of distance covered per step, which is what leads to faster speeds. The video uses Usain Bolt’s roughly 41-step 100-meter races as an example of how an elite sprinter can cover tremendous distance while still moving at extraordinary speed. Top sprinters can produce over 1000 pounds of force downward and roughly five times more vertical force than slower sprinters.
That’s the combination we’re looking for:
More distance per step + the ability to remain quick (fast ground contact time) = greater sprinting speed.
Reaching Does NOT Mean Heel Striking
This distinction is extremely important.
When I tell an athlete to reach, I’m not telling them to throw their lower leg forward and land hard on their heel.
In fact, that’s one of the problems athletes can initially encounter when learning to cover more ground.
They reach farther but don’t know how to manage foot strike and stride mechanics before contact.
The result can be a heel or midfoot-dominant contact that feels heavy and slow.
That’s why reaching has to be paired with proper foot-strike mechanics.
The goal is to create more range while still being able to contact the ground effectively toward the front portion of the foot and transition off the ground quickly.
Think of it as:
Reach → effective foot contact → quick transition → push off
Not:
Reach → heel crash → long ground contact
Those are two completely different movements, and it only works when the athlete maintains good form rather than just projecting the foot farther ahead.
The Real Problem Isn’t Always Where Your Foot Lands
This is another area where I think sprint analysis can go wrong.
Someone sees an athlete’s foot slightly in front of the hips and immediately says:
“You’re overstriding.”
But what if that isn’t what is making the athlete slow?
What if the athlete’s actual problem is:
- Excessive ground-contact time
- Poor ankle positioning and posture
- Inefficient push-off mechanics
- Inability to absorb and redirect force quickly
- Insufficient distance covered per step
In sprinting, good posture means a tall posture with a neutral pelvis, which helps prevent force leakage and improve speed.
Changing the athlete’s foot strike to land closer to the hips could theoretically make that athlete cover even less ground without solving the actual limitation.
That’s why I prefer to look at the entire movement and overall running form rather than applying one universal rule.
Usain Bolt Is the Extreme Example
Usain Bolt makes this concept particularly easy to see.
Watch him at top speed in slow motion and look at how much range he creates before his foot contacts the track.
The foot reaches forward, yet he can still contact toward the front portion of the foot, handle the collision with the ground, and get back off the track incredibly quickly.
That’s what makes the movement effective.
The goal isn’t simply:
“Put your foot farther forward.”
It’s being able to create range without allowing that range to destroy the rest of your sprinting form.
Bolt was exceptionally good at combining tremendous distance per step with the ability to manage extremely fast sprinting contacts.
But What About Braking Forces?
One of the biggest arguments against reaching is that it creates braking forces.
And yes, braking matters.
When the foot contacts the ground at top speed, the athlete experiences a brief deceleration before transitioning through the stance phase.
But the important question isn’t simply:
“Are there braking forces?”
A better question is:
How effectively does the athlete manage them?
If an athlete reaches excessively, collapses into the ground, spends too much time on the ground, and can’t redirect more force quickly, that’s a problem.
But if the athlete can create greater range, contact effectively, absorb the forces of landing, and transition rapidly into propulsion, the equation is very different. Elite sprinters separate themselves by how much force they can put into and redirect off the ground; top sprinters produce five times more vertical force than slower ones.
The goal is to minimize unnecessary slowdown while still maximizing useful distance per step.
Stride Length: Why Distance Per Step Matters
This is ultimately why I’m so interested in reaching.
If two athletes have similar stride frequency, but Athlete A covers significantly more distance with each step through better stride length, Athlete A has a major advantage.
Conversely, longer steps aren’t automatically better if creating those longer steps causes the athlete’s step frequency to collapse.
That’s why sprint speed shouldn’t be reduced to either:
“Take longer steps.”
or:
“Take quicker steps.”
You need both.
The goal is to find the greatest amount of useful distance per step an athlete can create while maintaining the speed and quality of the movement. By being intentional on where the foot hits and if the heel is striking.
That’s very different from intentionally taking giant, slow strides.
Why “Land Under Your Hips” Can Be Misleading
I understand why the cue exists.
For an athlete who is aggressively throwing the lower leg forward, heel striking, and spending too much time on the ground, telling them to stop reaching can potentially clean up the movement.
But a coaching cue and a literal description of sprint biomechanics aren’t necessarily the same thing.
If we turn:
“Don’t excessively overstride”
into:
“Your foot must always contact the ground directly underneath your hips,”
we may create another problem.
Most athletes start cutting their stride short. This is terrible for speed training and significantly impacts sprinting performance.
They lift the knee and immediately drive the foot straight back toward the ground because they are trying to maximize ground force.
That can reduce the amount of distance they’re covering and cause the athlete to be more at risk for injury
Instead, I want athletes to understand the tradeoff between range and quickness.
Does Reaching Increase Hamstring Injury Risk?
Another common criticism is that reaching farther in front of the body will automatically increase the risk of a hamstring injury.
Sprinting itself places enormous demands on the hamstrings, particularly as the leg prepares for ground contact.
So any meaningful change to sprint mechanics needs to be introduced progressively. Gradual progression in training intensity helps avoid injury.
If an athlete suddenly starts creating ranges of motion and sprinting positions they haven’t trained for, their tissues may not be prepared for those demands. Adequate recovery is essential for speed improvements and to avoid overuse injuries.
That doesn’t mean the answer is simply to shorten every athlete’s stride.
It means athletes need to develop the strength and eccentric capacity required to tolerate high-speed sprinting and any mechanical changes should be coached and progressed appropriately.
So Where Should Your Foot Land When Sprinting?
I don’t think the answer should be:
“Directly underneath your hips.”
And I also don’t think the answer should be:
“As far in front of you as humanly possible.”
The better goal is to find the foot placement that allows you to:
- Cover significant distance per step
- Maintain short, effective ground contacts
- Contact the ground with appropriate foot and ankle mechanics
- Avoid excessive braking
- Transition quickly from contact into propulsion
- Maintain enough stride frequency to continue running fast
That’s why I teach reaching as part of proper sprinting technique.
I’m not trying to create the longest stride possible at any cost.
I’m trying to help athletes create more useful distance with every step.
The Bottom Line
When you watch the world’s best sprinters frame-by-frame, sprinting is more complicated than simply telling an athlete to “land underneath the hips.”
Elite athletes can contact the ground with the foot in front of the hips while still moving incredibly fast.
The difference is what happens around that contact.
How much distance are they covering as part of overall running performance?
Where on the foot are they contacting?
How quickly can they get off the ground?
How effectively can they absorb and redirect force?
And can they create more range without sacrificing step frequency?
Those questions give us a much better understanding of sprint performance than simply drawing a vertical line underneath the hips.
So instead of being afraid of reaching, I think athletes should learn how to reach effectively when maximizing speed.
Because the goal isn’t to take the most steps.
The goal is to cover the distance in the least amount of time.
