Stride length is one of the two variables that determine how fast you run. Together with cadence (steps per minute), it sets your pace. Yet while cadence has received enormous attention in running circles over the past decade, stride length is often reduced to a single generic figure without context for how it varies by pace, height, or fitness level.
This guide provides the complete picture: what average running stride length looks like across different paces and body types, what determines your stride length, how to measure it, and the important question of whether trying to change it is likely to help or hurt your running.
What Running Stride Length Is
A stride in running refers to one complete gait cycle: the distance covered from when one foot contacts the ground to when the same foot contacts the ground again. This means a stride includes two steps, one with each foot.
Step length is the distance from one foot contact to the next foot contact of the opposite foot. Stride length is twice the step length.
The speed equation:
Running speed (metres per second) = stride length (metres) x stride rate (strides per minute)
Or expressed in more familiar terms:
Running pace = determined by how long your strides are and how many you take per minute
This means that to run faster, you must either take longer strides, take more strides per minute, or both. Elite runners at top speed do both simultaneously: very long strides at very high cadence.
Average Running Stride Length by Pace
Stride length increases with running speed in a consistent, predictable pattern. The following values represent averages across recreational and competitive runners. Individual variation is significant, particularly based on height and fitness level.
Slow jogging/easy running (7:30 per kilometre / 12 min per mile):
Average stride length: 1.0 to 1.3 metres
Moderate easy running (6:00 per kilometre / 9:40 min per mile):
Average stride length: 1.2 to 1.5 metres
Comfortable tempo pace (5:00 per kilometre / 8:00 min per mile):
Average stride length: 1.4 to 1.7 metres
Threshold effort (4:30 per kilometre / 7:15 min per mile):
Average stride length: 1.6 to 1.9 metres
5K race pace for recreational runners (4:00 to 5:00 per km):
Average stride length: 1.7 to 2.1 metres
Elite 5K pace (sub 3:00 per kilometre):
Average stride length: 2.0 to 2.5 metres
Elite marathon pace (sub 3:00 per kilometre / sub 4:17 per mile):
Average stride length: 1.8 to 2.3 metres
These ranges are wide because stride length is highly individual. A tall runner with strong hip extensors will have a naturally longer stride at the same pace than a shorter runner with less posterior chain strength.
Average Running Stride Length by Height
Height is one of the most significant determinants of natural stride length. Taller runners have longer legs, which creates a longer natural pendulum arc and a greater potential stride length. The following estimates provide a rough guide to expected stride length at comfortable easy running pace:
Height under 160 cm (5’3″):
Comfortable easy pace stride length: 0.9 to 1.2 metres
Height 160 to 170 cm (5’3″ to 5’7″):
Comfortable easy pace stride length: 1.1 to 1.4 metres
Height 170 to 180 cm (5’7″ to 5’11”):
Comfortable easy pace stride length: 1.2 to 1.6 metres
Height 180 to 190 cm (5’11” to 6’3″):
Comfortable easy pace stride length: 1.4 to 1.8 metres
Height over 190 cm (6’3″):
Comfortable easy pace stride length: 1.6 to 2.0 metres
These are comfortable easy pace estimates. Stride length at race pace will be 20 to 40 percent longer than at easy pace for most runners.
What Determines Your Stride Length
Stride length is not something you can simply decide to change through willpower. It is the result of several interacting physiological and biomechanical factors:
Hip extension range and strength: The ability to extend the hip fully behind the body during the push-off phase of running is the primary determinant of stride length. The greater the hip extension achieved at push-off, the greater the forward propulsion and the longer the stride. The gluteus maximus and hamstrings are the primary muscles driving this extension. Tight hip flexors that limit hip extension directly limit stride length.
Calf and Achilles tendon elastic energy return: The calf and Achilles tendon store elastic energy during the loading phase of ground contact and return it during push-off. A stiffer, more elastic Achilles tendon returns more energy and contributes to longer strides. This is one reason elite runners, who develop exceptional Achilles tendon stiffness through years of training, achieve longer strides than recreational runners at the same pace.
Hip flexor strength and swing phase speed: The hip flexors drive the leg forward during the swing phase of the stride. Stronger hip flexors can drive the leg forward more quickly, allowing a longer stride to be completed within the same time available between ground contacts.
Running speed: As noted above, stride length increases naturally with running speed. Attempting to run with an artificially long stride at slow speeds wastes energy. Stride length should be allowed to increase naturally as fitness and speed develop.
Fitness level and training age: More experienced runners develop longer strides at the same pace through adaptations in tendon stiffness, hip extension strength, and neuromuscular coordination. This is one of the primary mechanisms by which pace improves as fitness develops even when training structure remains similar.
Fatigue: Stride length decreases as fatigue accumulates during longer runs and races. The characteristic late-race shuffle of a fatiguing runner is largely a stride length reduction driven by neuromuscular fatigue.
How to Measure Your Own Stride Length
GPS watch calculation:
Most GPS running watches provide average stride length calculated from pace and cadence data. This is the most convenient method and is accurate enough for training purposes.
Manual measurement:
- Find a flat surface of known length (a running track or measured path)
- Run at your target pace for 60 seconds
- Count the number of complete strides (counting each time the same foot contacts the ground)
- Divide the distance covered in those 60 seconds by the number of strides
- The result is your average stride length in metres
Example calculation:
Running at 5:00 per kilometre pace covers approximately 200 metres in 60 seconds. If 120 strides are counted in that 60 seconds, stride length is 200 ÷ 120 = 1.67 metres.
Footprint method:
Run across a wet surface (wet sand or a tarmac path wetted with water) and measure the distance between matching footprints from the same foot. This provides a direct physical measurement of stride length without requiring technology.
Stride Length and Running Economy
Running economy is the oxygen cost of running at a given pace. More economical runners use less oxygen for the same speed, meaning they can run faster before reaching their aerobic limit.
Stride length affects running economy in a complex, non-linear way:
Optimal stride length exists: Research consistently finds that each runner has an optimal stride length at a given pace that minimises oxygen cost. Both shorter-than-optimal and longer-than-optimal strides increase energy cost.
Self-selected is usually close to optimal: Most runners naturally converge on close-to-optimal stride length through the process of running. The neuromuscular system learns to minimise energy cost, which is why experienced runners are generally more economical than beginners even without formal gait coaching.
Overstriding increases energy cost: Overstriding, where the foot contacts the ground significantly in front of the centre of mass, produces a braking force on every stride. This braking force wastes energy and forces the muscles to work harder to overcome it. Paradoxically, a stride that appears longer because the foot reaches far forward may actually be slower and less efficient than a biomechanically shorter but mechanically more efficient stride.
Understriding also increases energy cost: A very short stride requires higher cadence to maintain pace, which means more muscle activations per unit of distance and higher energy cost. Most recreational runners do not understride, but those who have overcorrected their cadence or adopted an overly cautious shuffle gait can fall into this pattern.
Should You Try to Increase Your Stride Length?
This is the most practically important question for most runners, and the answer is nuanced.
Do not force a longer stride: Actively reaching the foot further forward to create a longer stride produces overstriding, which increases braking force and injury risk rather than improving performance. Stride length should not be artificially extended.
Allow stride length to develop naturally: As fitness improves, hip extension strength develops, Achilles tendon stiffness increases, and neuromuscular coordination improves. Stride length naturally increases at the same pace as these adaptations occur. This natural development is the appropriate way for stride length to increase.
Address the limiters: If stride length is below average for your height and pace, address the underlying limiters rather than forcing a longer stride mechanically:
- Tight hip flexors limiting hip extension: The couch stretch and hip flexor mobilisation exercises in other articles on this site directly address the hip flexor tightness that limits hip extension and therefore stride length.
- Weak glutes limiting push-off: Hip thrusts, Bulgarian split squats, and single-leg Romanian deadlifts develop the gluteal strength that drives push-off and increases stride length.
- Limited Achilles tendon elasticity: Eccentric calf raises and progressive calf loading develop Achilles tendon stiffness and elastic energy return capacity.
Running drills for stride length development:
Bounding: Bounding involves exaggerated running strides with maximum push-off height and distance. It directly develops the neuromuscular pattern of powerful push-off and extended flight time that produces longer strides.
How to do it:
- Run at a comfortable pace and transition into exaggerated bounding strides
- Push off powerfully from each foot, driving the knee of the opposite leg upward
- Aim for maximum height and distance with each bound
- Complete 3 x 30-metre bounding sequences before a run or as part of a speed development session
Downhill striding: Running downhill allows the stride to lengthen naturally beyond its usual self-selected length by using gravity assistance. This exposes the neuromuscular system to longer strides than it typically experiences, which can carry over to improved stride length on flat terrain.
How to do it:
- Find a gentle gradient of 3 to 5 percent
- Run at a controlled effort downhill, allowing the stride to extend naturally
- Complete 4 to 6 x 50 to 80-metre downhill strides at a comfortable but faster-than-easy effort
A-skips and B-skips: These drills develop the hip drive and leg swing mechanics that support effective stride length. A-skips develop vertical hip drive and B-skips develop the forward leg extension of the stride. Both are standard components of track and field warm-up routines.
The Stride Length and Cadence Trade-Off
Because speed equals stride length multiplied by cadence, improving running performance can come from either direction. Different types of runners naturally favour different approaches:
Cadence-dominant running style: Shorter strides at higher cadence. More common in shorter runners, runners with limited hip extension, and experienced middle-distance runners who have developed rapid leg turnover. More economical at faster paces where the Achilles tendon spring mechanism is highly engaged.
Stride-dominant running style: Longer strides at lower cadence. More common in taller runners with strong hip extensors and good Achilles tendon elasticity. More common in marathon runners where the slower cadence is offset by the efficiency of longer, more elastic strides.
Neither is superior universally. Elite runners exist across both ends of this spectrum. Haile Gebrselassie ran with very high cadence and relatively short strides. Eliud Kipchoge runs with longer strides at a somewhat lower cadence. Both represent optimal solutions for their individual biomechanics.
Frequently Asked Questions
What is the average stride length for a 5K runner?
At a typical recreational 5K race pace of 4:30 to 5:30 per kilometre, average stride length is approximately 1.7 to 2.0 metres. This varies significantly with height and fitness level, with taller and more trained runners at the higher end of this range.
Does longer stride length mean faster running?
Longer stride length at the same cadence means faster running. However, longer stride length achieved through overstriding (foot landing in front of the centre of mass) does not produce faster running because the braking force offsets the apparent length gain. Effective stride length, where the push-off drives the body forward efficiently, is what produces faster pace, not simply reaching the foot further forward.
How does stride length change with fatigue?
Stride length decreases as running fatigue accumulates, typically by 5 to 15 percent over the course of a long run or race. This is one of the primary mechanisms of late-race pace decline. Well-trained runners maintain stride length better under fatigue than untrained runners, which is one of the performance benefits of high-volume training.
Should I focus on stride length or cadence to run faster?
Both matter and both improve with training. For most recreational runners, the most effective approach is to build aerobic fitness and strength through consistent training and allow both cadence and stride length to develop naturally. Deliberately manipulating either cadence or stride length without addressing the underlying fitness that supports the change is unlikely to produce lasting improvement.
Is a longer stride length better for marathon running than 5K?
Marathon running tends to favour slightly longer, more elastic strides at lower cadence compared to 5K running, where higher cadence and slightly shorter strides are more common. This is partly because the Achilles tendon elastic energy return mechanism becomes increasingly important over longer distances where energy conservation matters more. However, the difference is smaller than popular accounts suggest and individual biomechanics override these general tendencies.