A field sport athlete may not need to reach top speed to beat an opponent.
Often, the first 10 metres matter most.
A defender closing space, a winger accelerating into open field, a basketball player driving past an opponent, or a footballer pressing after a turnover all rely on short-distance acceleration.
The 10 m Sprint Test helps assess how quickly a client can accelerate from a standing start.
It is quick, practical and highly relevant for many sports, but it must be performed consistently to produce useful results.
Test name: 10 m Sprint Test
Also known as: 10-metre sprint, 10 m acceleration test
Purpose: Assess acceleration and short-distance speed
What it assesses: Start speed, early acceleration and short sprint performance
Equipment required: 10 m measured area, cones or markers, stopwatch or timing gates
Key finding: Time to complete 10 m
Best used with: 20 m Sprint Test, sprint profiling, jump testing, strength testing, power testing and change-of-direction tests
Key limitation: Results are highly sensitive to timing method, start position, surface, footwear and instructions
The 10 m Sprint Test is a short linear sprint assessment.
The client starts behind a marked line and sprints 10 metres as fast as possible. The result is recorded as time in seconds.
The test is commonly used to assess acceleration rather than maximum speed. This is important because many field and court sport actions occur over short distances.
A fast 10 m result usually reflects a combination of:
Explosive intent
Start mechanics
Early acceleration
Horizontal force production
Lower-limb power
Coordination
Sprint technique
The test is simple, but the details matter.
A 10 m sprint timed with a stopwatch should not be compared directly with a 10 m sprint timed using electronic gates.
The 10 m Sprint Test is used to assess how quickly a client can accelerate over a short distance.
This is useful because many sports involve repeated short bursts rather than long sprints.
The test may help professionals:
Monitor acceleration performance
Track changes across training blocks
Compare short sprint ability across athletes
Support return-to-sprint progressions
Assess early sprint qualities alongside jump and strength tests
Identify whether acceleration is improving over time
It can also be useful when combined with longer sprint tests.
For example, a client may be fast over 30 m but slow over the first 10 m. Another client may accelerate well but lack maximum speed later in the sprint. Testing different splits helps build a clearer sprint profile.
The 10 m Sprint Test measures the time taken to cover 10 metres.
It reflects:
Acceleration
First-step speed
Start efficiency
Early sprint mechanics
Lower-limb power expression
Short-distance speed
It does not directly measure:
Maximum velocity
Repeated sprint ability
Agility
Reactive decision-making
Endurance
Change-of-direction ability
Sprint technique quality by itself
A faster time generally indicates better acceleration performance, but interpretation should always consider the protocol and testing context.
The 10 m Sprint Test may be useful for:
Field sport athletes
Court sport athletes
Sprinters
Football and soccer players
Rugby athletes
Basketball and netball players
Youth athletes
Tactical populations
General fitness clients who need speed testing
Clients progressing back to sprint exposure
It is most appropriate when the client is ready for maximal sprinting.
If the client is not prepared for high-intensity sprinting, lower-intensity running, progressive acceleration drills or other readiness tests may be more appropriate first.
You will need:
Flat, non-slip surface
Measuring tape or marked 10 m lane
Start marker
Finish marker
Timing gates or stopwatch
Cones
Measurz or MAT recording system
Optional equipment:
Video recording for technique review
Split timing gates for 5 m and 10 m
Weather notes for outdoor testing
Surface and footwear notes
Timing gates are preferred because they improve timing precision.
Stopwatch timing can be used, but it should be interpreted cautiously and kept consistent across sessions.
Mark a start line and finish line exactly 10 metres apart.
Ask the client to start behind the line in a consistent stance.
A common setup is:
Standing start
Feet shoulder-width apart
Front foot behind or just touching the start line
Body still before starting
No rolling or rocking start unless that is the chosen protocol
The same start position should be used every time.
Use a flat, safe and consistent surface.
Record the surface because sprint times can change between:
Indoor track
Outdoor track
Turf
Grass
Court surface
Gym flooring
Footwear should also be consistent where possible.
Use a standardised warm-up before testing.
This may include:
General movement preparation
Dynamic mobility
Sprint drills
Progressive accelerations
Practice starts
The client should be physically prepared before maximal sprinting.
Tell the client:
“Sprint as fast as possible through the finish line. Do not slow down before the line.”
This instruction matters because some clients naturally decelerate early if they think the test ends at the finish marker.
If using timing gates, follow the equipment setup consistently.
Record:
Gate height
Start distance from first gate
Whether timing starts on movement or first beam break
Whether single-beam or dual-beam gates are used
If using a stopwatch, start and stop timing the same way every trial.
Do not compare stopwatch times directly with timing gate times.
Complete 3–5 trials depending on the client, setting and testing goal.
Allow enough rest between trials.
For most clients, use at least 2–3 minutes of rest to reduce fatigue effects.
Record whether the final score is:
Best trial
Average of trials
First trial
Fastest clean trial
Use the same scoring method each time.
The score is recorded as time in seconds.
A lower time indicates faster acceleration over 10 metres.
Interpretation should consider:
Timing method
Start position
Surface
Footwear
Warm-up
Rest between trials
Number of attempts
Motivation
Fatigue
Sprint technique
Previous baseline
Small changes can matter, but only when the testing setup is consistent.
A 0.03-second change may look meaningful, but it may also fall within normal measurement error depending on the protocol.
A meaningful interpretation is stronger when:
The same timing method is used
The same start position is used
The same surface is used
The client has adequate rest
Multiple trials are completed
The result is compared to baseline
The test is paired with other performance measures
There is no single universal “normal” 10 m sprint time that applies to every client.
10 m sprint performance varies depending on:
Age
Sex
Sport
Playing level
Training status
Start position
Timing method
Surface
Footwear
Gate setup
Familiarisation
Because of this, published sprint times should be treated as benchmarks, not universal norms.
Professional rugby league players have been reported to complete 10 m sprint times in approximately the 1.71–1.83 second range, while semi-professional players have been reported around 2.17 seconds in some rugby league literature. These values are useful as sport-specific benchmarks, not general population norms. (link.springer.com)
In a small study of elite male soccer players, 10 m split times were reported around 1.58–1.68 seconds, depending on group and testing period. Because the sample was small, these values should be used cautiously and only as context for similar populations. (bmcresnotes.biomedcentral.com)
In high-level American female soccer players, mean speed over the first 10 m was reported as 18.0 ± 0.9 km/h, which is approximately equivalent to a 10 m time of around 2.0 seconds. This provides useful context for high-level female soccer, but should not be applied broadly to all female clients or athletes. (sciencedirect.com)
A recent large youth soccer dataset has also been used to develop 10 m sprint percentile curves adapted to biological age. This highlights an important point for youth athletes: chronological age alone may not be enough for fair sprint interpretation because maturation can strongly influence performance. (tandfonline.com)
For most Measurz use, the best approach is to compare the client against:
Their own baseline
Their previous best time
Their average across sessions
Team or organisation benchmarks
Similar age, sex, sport and training groups
Other sprint distances such as 20 m or 30 m
Related strength, jump and power tests
If using published values, only compare when the protocol and population are similar.
A 10 m sprint time from a professional rugby player using timing gates should not be compared directly with a youth athlete timed by stopwatch on grass.
The 10 m Sprint Test can be reliable when the setup is standardised.
A study of junior male rugby players found that 10 m sprint times using different starting techniques had a typical error of approximately 0.02 seconds, or less than 1%, when using photocell timing. However, the authors also noted that the typical error was greater than the smallest worthwhile change, meaning very small changes should be interpreted carefully. (pubmed.ncbi.nlm.nih.gov)
A systematic review of physiological tests in rugby reported positive test-retest reliability evidence for the 10 m sprint test, including an ICC of 0.87 in one fair-quality study. The review also noted limitations in the overall quality of some measurement-property studies. (pmc.ncbi.nlm.nih.gov)
More recent youth sprint research using a 10-yard sprint, which is approximately 9.14 m, found reliable test-retest performance in male and female youth athletes. The study reported ICC values of 0.80 for males and 0.76 for females, with minimal detectable change values of 0.25 seconds for males and 0.27 seconds for females. Although this is not exactly 10 m, it provides useful nearby evidence for short sprint reliability in youth athletes. (researchonline.jcu.edu.au)
To improve reliability:
Use timing gates where possible
Keep the start position consistent
Keep the surface consistent
Use the same footwear where possible
Standardise warm-up
Allow adequate rest
Record best and/or average trial consistently
Avoid comparing stopwatch and timing-gate results
Record environmental conditions for outdoor testing
Sensitivity and specificity are not applicable for the 10 m Sprint Test.
This is a performance test, not a diagnostic or screening test.
It can help assess acceleration and monitor performance change, but it does not diagnose an injury, condition or movement limitation.
Common errors include:
Changing the start position between sessions
Allowing a rolling start when a static start is intended
Starting too close to the first timing gate without recording it
Using stopwatch timing one session and timing gates the next
Testing on different surfaces without noting it
Not allowing enough rest between trials
Letting the client slow before the finish line
Recording only one trial when the result may be affected by a poor start
Comparing results to benchmarks from a different population
Ignoring fatigue, pain or confidence
Key limitations include:
Results are highly protocol-dependent
Timing method can meaningfully affect results
Very small changes may fall within measurement error
The test does not assess maximum speed
The test does not assess agility or reactive ability
Poor technique can affect performance
Motivation and intent strongly influence results
Outdoor conditions can affect sprint times
The 10 m Sprint Test is useful when acceleration matters.
It can help professionals:
Monitor short-distance speed
Track acceleration changes across training blocks
Compare sprint performance between clients or athletes
Support return-to-sprint progressions
Identify whether early acceleration is improving
Compare 10 m performance with 20 m or 30 m performance
Link sprint results with strength, jump and power data
For field sport athletes, it can help monitor the ability to create separation or close space quickly.
For court sport athletes, it can support short-burst speed assessment.
For youth athletes, it can help track development over time, but maturation should be considered.
For general fitness clients, it can provide a simple performance marker when maximal sprinting is appropriate.
In Measurz, record enough detail so the test can be repeated accurately.
Useful fields include:
Distance tested
Best time
Average time
Number of trials
Timing method
Timing gate setup
Start position
Surface
Footwear
Warm-up completed
Rest between trials
Pain score
Fatigue rating
Confidence rating
Weather or wind if outdoors
Sprint technique notes
Whether the client sprinted through the finish line
A strong note might look like:
“10 m Sprint Test completed indoors on court surface using timing gates. Standing start, front foot 0.5 m behind first gate. Three trials completed with 3 minutes rest. Best time: 1.86 s. Average time: 1.91 s. No pain. Mild fatigue after trial three. Client maintained acceleration through finish line.”
This is more useful than simply recording “10 m sprint: 1.86 s”.
Useful related assessments include:
20 m Sprint Test
30 m Sprint Test
Flying Sprint Test
505 Agility Test
Agility T-Test
Countermovement Jump
Broad Jump
Isometric strength testing
Lower-limb power testing
Repeated sprint ability testing
Training load monitoring
Fatigue monitoring
The 10 m Sprint Test measures short-distance acceleration from a standing start.
It reflects how quickly a client can generate speed over the first 10 metres.
There is no single universal “good” time.
Performance depends on age, sex, sport, training level, timing method, start position and surface. Published values can be useful as benchmarks, but the best comparison is usually the client’s own baseline and progress over time.
Timing gates are preferred because they improve precision and reduce human reaction-time error.
Stopwatch timing can still be used, but results should be interpreted cautiously and compared only with other stopwatch-based tests using the same setup.
Three to five trials are commonly used.
The best trial or average trial can be recorded, but the method should stay consistent between sessions.
No.
The 10 m Sprint Test is a performance assessment. It does not diagnose injury or identify the cause of reduced sprint performance on its own.
The 10 m Sprint Test measures short-distance acceleration.
Timing method, start position, surface and footwear must be standardised.
Published benchmarks can provide context, but they are not universal norms.
Small changes should be interpreted carefully because measurement error can influence sprint times.
Measurz should be used to record the full test setup, best time, average time, timing method and testing notes.
Duthie, G. M., Pyne, D. B., Ross, A. A., Livingstone, S. G., & Hooper, S. L. (2006). The reliability of ten-meter sprint time using different starting techniques. Journal of Strength and Conditioning Research, 20(2), 246–251. https://doi.org/10.1519/R-17084.1
Hernandez, J., Widmer, C., & Abbott, S. (2026). Improving longitudinal performance assessment of youth soccer players: 10 m sprint percentile curves adapted to biological age. Science and Medicine in Football. https://doi.org/10.1080/24733938.2026.2643531
Lockie, R. G., Murphy, A. J., Schultz, A. B., Knight, T. J., & Janse de Jonge, X. A. K. (2012). The effects of different speed training protocols on sprint acceleration kinematics and muscle strength and power in field sport athletes. Journal of Strength and Conditioning Research, 26(6), 1539–1550. https://doi.org/10.1519/JSC.0b013e318234e8a0
Meckel, Y., Gefen, Y., Nemet, D., & Eliakim, A. (2015). Determinants of acceleration and maximum speed phase of repeated sprint ability in soccer players: A cross-sectional study. Science & Sports, 30(1), e7–e16. https://doi.org/10.1016/j.scispo.2014.05.003
Rey, E., Padrón-Cabo, A., Barcala-Furelos, R., Casamichana, D., & Romo-Pérez, V. (2018). Sprint and jump performance in elite male soccer players following a 10-week Nordic Hamstring exercise protocol: A randomised pilot study. BMC Research Notes, 11, 738. https://doi.org/10.1186/s13104-018-3836-6
Slimani, M., Znazen, H., Hammami, A., & Bragazzi, N. L. (2018). Comparison of mental toughness and power test performances in high-level kickboxers by competitive success. Asian Journal of Sports Medicine, 9(2), e62606. https://doi.org/10.5812/asjsm.62606
Till, K., Scantlebury, S., & Jones, B. (2017). A systematic review investigating measurement properties of physiological tests in rugby. Sports Medicine, 47, 2577–2591. https://doi.org/10.1007/s40279-017-0801-1
Vescovi, J. D., & McGuigan, M. R. (2012). Sprint speed characteristics of high-level American female soccer players: Female Athletes in Motion (FAiM) study. Journal of Science and Medicine in Sport, 15(5), 474–478. https://doi.org/10.1016/j.jsams.2012.03.006
Wannouch, Y. J., Leahey, S. R., Whitworth-Turner, C. M., Oliver, J. L., Chua, K. Y. H., Laffer, J. C., & Leicht, A. S. (2024). A comprehensive analysis of 10-yard sprint reliability in male and female youth athletes. Journal of Strength and Conditioning Research, 38(9), e477–e488. https://doi.org/10.1519/JSC.0000000000004828
