Home Β» Running Mechanics Explained Β» The Real Cause of Overstriding (And Why Itβs Not What You Think)
π¨ What If Intentionally Trying To Cover More Ground Isn’t The Real Problem?
Most athletes think overstriding starts with the foot.
They see:
π a foot landing too far in front of the body
π a stride that looks too long
π a runner reaching for distance
And the conclusion seems obvious:
π stop reaching
π shorten the stride
π bring the foot back underneath the body
Sounds reasonable.
After all, overstriding is easy to see.
π₯ But what if overstriding is not the problem?
What if overstriding is what the problem looks like?
That is a very different question.
Because visible and causal are not always the same thing.
β‘ Think about it.
Overstriding becomes visible at the foot.
But the foot does not arrive at the ground independently.
Before the foot from the swing leg ever contacts the ground, the rest of the sprint system is already influencing where, when, and how that contact will occur.
During each stride, not only does:
π the pushing leg aggressively drive backward into the ground
but also:
π the arms aggressively support that pushing action
π the torso supports those force expressions even more
π the swing leg aggressively attacks forward and balances the pushing action
π₯ ALL OF THIS IS HAPPENING AT THE SAME TIME
Every one of those actions influences where, when, and how the incoming foot eventually reaches the ground.
That creates a different question.
Instead of asking:
π How do I stop overstriding?
AQ often asks:
π What contributors are creating the overstride in the first place?
Because if overstriding is being influenced by contributor relationships throughout the sprint system…
then changing the foot position may not always change what is creating the foot position.
And that distinction may explain why many athletes spend years trying to fix overstriding…
without ever addressing the reason it appeared.
β‘ Why Overstriding Can Be Misunderstood
Overstriding often gets reduced to a simple explanation:
π your foot lands too far in front of your body
That observation may be correct.
But it may not explain why it happened.
Those are two different conversations.
Most athletes see:
π where the foot landed
AQ becomes interested in:
π what caused the foot to land there
Because overstriding becomes visible at the foot.
But the contributors influencing the foot may extend throughout the rest of the sprint system.
π₯ That distinction matters.
Because once athletes see an overstride, the natural reaction is usually:
π shorten the stride
π stop reaching
π pull the foot back
The assumption is that changing the visible outcome will solve the problem.
But visible outcomes do not always reveal their cause.
β‘ Think about what the foot from the swing leg is trying to do.
It is not simply looking for a place to land.
It is arriving as part of a sprint system that is already producing force, counterbalance, timing, and projection.
If any of those relationships begin to change:
π where the foot lands may change
π when the foot lands may change
π how the foot lands may change
The overstride may be revealing those changes.
Not necessarily creating them.
That creates a very different investigation.
Instead of asking:
π How do I stop the foot from landing so far in front?
AQ often asks:
π What contributor relationships are causing the foot to arrive there?
For example:
π Is the pushing leg contributing enough to support aggressive projection?
π Are the arms supporting the pushing leg aggressively enough?
π Is the torso supporting those force expressions effectively?
π Is the swing leg arriving forward aggressively enough to balance the pushing action?
π Is timing between steps still supporting faster movement?
π Has the sprint system reached a strength-balance limitation?
Any one of those relationships may influence where, when, and how the incoming foot eventually reaches the ground.
π₯ That is the key observation.
The foot may reveal the overstride.
The contributor relationship may reveal the cause.
The overstride may be reflecting something that is already happening elsewhere throughout the sprint system.
This is why AQ often views overstriding as a contributor investigation rather than a foot-placement investigation.
The foot may reveal the overstride.
But the source of the overstride may exist somewhere else entirely.
π What May Be Creating The Overstride?
If overstriding is not always the problem itself…
then what might be creating it?
AQ does not assume every athlete overstrides for the same reason.
But several contributor relationships may influence where the incoming foot eventually reaches the ground.
π₯ One possibility is that the demand to run faster is beginning to exceed what one or more contributors can currently support.
Under normal conditions, to run faster:
π the pushing leg must contribute more
π the swing leg must contribute more
π the arms must contribute more
π the torso must contribute more
π all while remaining balanced with one another
As those contributors continue increasing their force contribution together:
π speed continues rising
But what happens when one contributor can no longer continue rising with the others?
β‘ This is where Strength Balance becomes important.
AQ views Strength Balance as:
π₯ The ability of the contributors responsible for the pushing side and swing side of sprinting to continually rise in strength together while remaining balanced with one another.
π₯ Strength Balance Principle
π₯ Speed can continue increasing only while the pushing side and swing side continue rising in strength together.
π₯ If one side can no longer rise with the other, speed may eventually become limited by the side that is least capable of continuing to rise.
π₯ This may occur because the sprint system can no longer maintain the balance between the pushing side and swing side necessary to support greater speed.
Ideally:
π the pushing side continues increasing its contribution to speed
π the swing side continues increasing its contribution to speed
π both sides remain balanced with one another
π speed continues rising
But if one side can no longer continue rising with the other:
π speed may become capped
π contributor relationships may begin reorganizing around the limitation
π visible outcomes may begin appearing elsewhere throughout the sprint system
To help see this more clearly:
Consider an athlete recovering from a hamstring injury.
π the arms may still be capable of contributing more
π the torso may still be capable of contributing more
π the uninjured leg may still be capable of contributing more
π but speed becomes capped by what the injured hamstring can contribute
Not because the stronger contributors suddenly became weaker.
π₯ But because the stronger contributors can no longer continue increasing their contribution without losing strength balance with the injured hamstring.
Now remove the injury.
The same principle may still exist.
One contributor may simply no longer be capable of supporting the speed being demanded.
Any contributor can become the limitation.
π the pushing leg
π the swing leg
π the arms
π the torso
π₯ The issue is not necessarily injury.
The issue may be that the demand to run faster has begun exceeding what one or more contributors can currently support.
Sometimes that limitation may become visible as:
π the foot arriving farther in front
π timing between steps no longer supporting greater speed
π contact patterns changing
π movement appearing less fluid
The athlete notices the symptom.
The contributor relationship may be what changed first.
π₯ That is an important distinction.
Most athletes see:
π the overstride
AQ becomes interested in:
π what contributor relationship may have created the overstride
Because if the overstride is being influenced by deeper relationships throughout the sprint system…
then correcting the foot position may not always correct the reason the foot position appeared.
This is one reason AQ often investigates contributor limitations before investigating foot placement.
The foot may reveal the outcome.
π₯ The contributor relationship may reveal the cause.
π¦Ά Why Changing The Foot May Not Fix The Overstride
At this point, a reasonable question becomes:
π If the foot is landing too far in front…
π why not simply move it backward?
That seems logical.
After all, the overstride becomes visible at the foot.
So changing the foot appears to be the direct solution.
π₯ Sometimes that may help.
But it may not always address what created the overstride in the first place.
Because the foot does not arrive at the ground independently.
The foot arrives as the visible outcome of contributor relationships that already exist throughout the sprint system.
Think about what has already happened before the foot reaches the ground.
During each stride, not only does:
π the pushing leg aggressively drive backward into the ground
but also:
π the arms aggressively support that pushing action
π the torso supports those force expressions even more
π the swing leg aggressively attacks forward and balances the pushing action
π₯ ALL OF THIS IS HAPPENING AT THE SAME TIME
Every one of those contributors is already influencing where, when, and how the incoming foot eventually reaches the ground.
β‘ That creates an important distinction.
The foot may be the location where the overstride becomes visible.
But the foot may not be the location where the overstride originated.
A contributor can become the limitation for many reasons.
Perhaps:
π insufficient strength
π insufficient force contribution
π loss of strength balance
π inability to support greater speed
Any contributor can become the limitation.
π the pushing leg
π the swing leg
π the arms
π the torso
π₯ The important point is not which contributor became the limitation.
The important point is that forcing the foot backward does not automatically remove that limitation.
It does not automatically increase force contribution elsewhere.
And it does not automatically restore strength balance.
The visible outcome may change.
But the underlying contributor relationship may remain exactly the same.
π₯ This is one reason athletes often experience temporary improvements.
They consciously change:
π where the foot lands
π how the stride looks
π what they think about while running
For a short period:
π the movement may appear different
But if the contributor relationship that created the overstride remains unchanged:
π the body often returns to the same pattern
AQ does not view this as stubbornness.
AQ views it as a clue.
The body may be organizing movement around contributor relationships that still exist.
As long as those relationships remain unchanged:
π similar outcomes may continue appearing
π₯ That does not mean the foot is unimportant.
It simply means the foot may be revealing information.
And information is often more useful than correction.
Because the visible pattern may help identify:
π what contributor is becoming the limitation
π where strength balance may be breaking down
π what may be preventing further increases in speed
That is why AQ often investigates the source of the pattern before attempting to change the pattern itself.
The athlete sees:
π the overstride
AQ asks:
π what contributor relationship is creating it?
π What Happens When The Real Limitation Improves?
By now, a different picture may be starting to emerge.
AQ is not suggesting that overstriding should be ignored.
AQ is suggesting that overstriding may sometimes be the visible outcome of something happening elsewhere.
π₯ And that is where your attention may need to turn.
Suppose a contributor has become the limitation.
Perhaps:
π the pushing leg cannot contribute enough force
π the swing leg cannot contribute enough force
π the arms cannot contribute enough force
π the torso cannot contribute enough force
As a result:
π speed becomes capped
π contributor relationships reorganize around the limitation
π the overstride may begin appearing
π₯ Many athletes immediately focus on the overstride.
AQ often becomes interested in the contributor limitation.
Because if the contributor limitation remains:
π the speed limitation may remain
π the contributor relationships may remain
π the overstride may remain
But what happens if the contributor limitation improves?
That is where things become interesting.
Suppose the contributor limiting speed becomes capable of contributing more.
Now:
π speed is no longer capped at the previous level
π contributor relationships can reorganize differently
π strength balance may improve
π force contribution throughout the sprint system may improve
As those relationships improve:
π speed may increase
π timing between steps may improve
π movement may become more fluid
π the overstride may begin disappearing
β‘ Notice what changed first.
The athlete did not start by fixing the overstride.
The athlete improved the contributor limitation.
The overstride may have improved as a result.
This is one reason AQ often views overstriding as information.
The overstride may be showing the athlete:
π where speed is being limited
π where contributor relationships may be breaking down
π where strength balance may be struggling to support more speed
π₯ That does not mean every overstride is caused by the same limitation.
Nor does it mean every improvement removes the overstride.
But AQ would argue that improving the contributor limitation is often more productive than simply chasing the visible outcome.
Because when the source improves:
π speed may improve
π movement may improve
π overstriding may improve
All from the same change.
AQ ultimately asks a different question.
Not:
π How do I stop overstriding?
But:
π What contributor limitation may be creating the overstride in the first place?
Because when the contributor limitation improves…
the visible outcome often changes with it.
π What This Means For You
Most athletes ask:
π How do I stop overstriding?
After reading this article, AQ would encourage a different question:
π What contributor limitation may be creating the overstride?
Overstriding may not always be the problem itself.
Sometimes it may be the visible outcome of a contributor that can no longer support more speed.
π₯ When that happens:
π speed may become capped
π the sprint system may reorganize around the limitation
π the overstride may begin appearing
AQ often becomes interested in the contributor limitation first.
Because when the limitation improves:
π speed may improve
π strength balance may improve
π timing between steps may improve
π movement may become more fluid
π the overstride may improve as a result
β‘ The goal is not necessarily to fix the overstride.
The goal is to improve what may be creating it.
Because when the source improves:
π speed often improves
π the visible outcome often changes with it
π₯ AQ ultimately views overstriding as information.
Not simply a foot-placement problem.
The foot may reveal the overstride.
The contributor relationship may reveal the cause.
And that information may be far more valuable than the overstride itself.
π§ You Are Here (Within The AQ Speed Training System)
You are currently exploring:
π THE REAL CAUSE OF OVERSTRIDING: why overstriding may often be a visible outcome of deeper contributor relationships rather than a simple foot-placement problem.
π See How This Fits Into The Complete AQ Speed System
Learn how AQ explains sprint speed through contributor relationships, force support, projection, and whole-body sprint movement.
β‘οΈ RUNNING MECHANICS EXPLAINED: The System That Makes You Faster
πͺ Continue Deeper Into Running Mechanics Explained
Learn why many visible running-form problems may be compensations rather than the true starting point of the problem.
β‘οΈ Why Running Form Mistakes Keep Coming Back
Learn why foot strike may often be revealing deeper sprint-system relationships.
β‘οΈ Does Foot Strike Matter? (YesβBut Probably Not As Much As You Think)
Learn why ground contact time may often be influenced by contributors throughout the sprint system.
β‘οΈ What Influences Ground Contact Time? (And Why Quick Feet Aren’t The Answer)
π― Ready To Run Faster?
The AQ speed system uses resistance-band isometric training to improve the sprint system’s ability to produce and support aggressive movement.
β‘οΈ Run Faster With Isometric Training!
β FAQ
Does overstriding make you slower?
π It can. But AQ often becomes interested in the contributor limitations that may be creating the overstride in the first place.
Is overstriding always caused by taking strides that are too long?
π Not necessarily. Sometimes it reflects limitations in the sprint system’s support relationships.
Can overstriding be a symptom instead of a cause?
π Yes. Visible overstride often reflects deeper contributor relationships occurring elsewhere throughout the sprint system.
Should you shorten your stride to fix overstriding?
π Sometimes cues alone miss the deeper cause. Improving the contributor limitation may be more productive than chasing the visible outcome.
Can better mechanics reduce overstriding naturally?
π Yes. Improving push-side support, swing-side support, timing between steps, and strength balance often changes overstriding without directly cueing foot placement.










