Higher cadence reduces tissue loading
A modest 5-10% increase in step cadence reduces peak vertical loading rates and several joint loads at the same running speed.
In plain English
Take 5 to 10 percent more steps per minute and each footfall lands softer. Peak impact drops about 5 to 10 percent, and the sharp early force drops even more. Your knees and hips get a little relief, and it costs no extra energy.
Why it works
Higher cadence → shorter stride → foot lands closer to body's center of mass → reduced braking forces, reduced peak impact, more gradual force build-up.
What it means in practice
For runners with current knee, shin, or hip pain associated with running, suggest a 5-10% cadence increase via metronome or audio cue. For pain-free runners, cadence work is optional — there is no strong evidence that increasing cadence in already-comfortable runners is beneficial.
The evidence
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Consistent evidence across the 10 studies that increased stride rate (and correspondingly reduced stride length) reduces several biomechanical factors associated with running injuries: center of mass vertical excursion, ground reaction force magnitude, shock attenuation requirement, and energy absorbed at the hip, knee, and ankle joints. The directional finding holds despite methodological differences. The review concludes that increased stride rate appears to reduce the magnitude of several key biomechanical factors associated with injury.
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A moderate (5-10%) increase in running cadence consistently produces favorable biomechanical changes: reduced vertical ground reaction forces, lower loading rates, shortened stride length, improved knee and hip joint alignment, more favorable joint loading distribution. An 8-week 10% cadence intervention shifted most runners from rearfoot to midfoot or forefoot strike, reducing initial impact forces. These changes have been linked to reduced incidence of overuse injuries — particularly patellofemoral pain, tibial stress fractures, and medial tibial stress syndrome. The review concludes cadence modification is a viable strategy for both prevention and rehabilitation, though it cautions that biomechanical change does not guarantee injury reduction.
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Both gait retraining programs were more effective than no intervention in improving running pain at 6-month follow-up (impact vs control: -3.2 NRS, 95% CI -5.1 to -1.3, p=0.001; cadence vs control: -2.9 NRS, p=0.002). Impact group showed greater improvement in knee function immediately after intervention (+10.8, 95% CI 1.0-20.6, p=0.027). No significant between-group differences in usual pain or lower-limb kinematics.
n=30
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Increasing cadence by 10% (C1) reduced rearfoot peak force by 81 N and shortened stride by 17 cm. Low-drop footwear (C3) reduced rearfoot peak force by 72 N, decreased rearfoot contact time by 1.89 ms, and shifted pressure toward the midfoot. Orthoses (C2) reduced rearfoot peak force by 41 N without changing stride length. The combined intervention (C4) produced the largest effects: rearfoot peak force down 183 N, forefoot peak force down 139 N, and midfoot contact time up 5.07 ms. All effects were significant (p<0.001 for force changes) with Cohen's d values ranging from 0.45 (smallest, C2 rearfoot contact time) to 1.21 (largest, C4 forefoot peak force).
n=23
Why we call confidence high
Schubert 2014 review, Figueiredo 2025 systematic review of 18 studies, Junior 2024 RCT in PFP runners, and Nicolas-Peyrot 2025 all converge: 5-10% cadence increases consistently reduce vertical ground reaction forces, loading rates, and stride length.
Where it applies
Adult recreational and trained runners; especially those with current or prior running-related knee or shin pain.
Does not apply to: runners without symptoms whose current cadence already exceeds 175-180 spm at typical training paces.
Last reviewed 2026-05-01. See how we score.