• Assesses short duration walking speed (m/s).
  • Has been used in various patient populations including stroke, Parkinson’s disease, general neurologic movement disorders, and SCI.

Clinical Considerations

  • The 10 MWT only assesses walking speed and does not consider the amount of physical assistance required, devices or endurance.
  • The test is conducted in a controlled environment (i.e., lab or hospital setting), so results cannot be directly translated to the environment (i.e., crossing a busy street).  The 10 MWT also requires an individual to ambulate a minimum of 14 m.  There have been reports in the literature that the distance is not always standardized (i.e., 10 m versus 14 m).
  • It is a useful measure in the SCI population for both research and clinical practice.  The scale properties (time in seconds or m/s) of the 10 MWT make it a responsive test well suited to evaluating clinical interventions.
  • Is suitable for individuals who can, at a minimum, ambulate in household settings (i.e., > 14 m).
  • Assessment is easy to set up and administer, and is well-tolerated by most patient groups.

ICF Domain

Activity ▶ Mobility

Administration

  • The 10MWT is clinician-administered and measures the time required for the person with SCI to walk 10 meters.
  • The test is performed using a ‘flying start’ – the person walks 14 meters and the time is measured for the intermediate 10 meters walked.
  • The person performing the test walks at his/her preferred walking speed, they may use any assistive device (e.g., braces or walker) that they normally use, and they must wear shoes for increased safety.

Number of Items

1 – The 10 meter walking test is the only item.

Equipment

A 14 meter corridor free of obstacles, and a stopwatch.

Scoring

The time (to the nearest second) is reported. Walking speed (meters/second) can be calculated by dividing 10 meters by total time in seconds.

Languages

N/A

Training Required

None, though a clinician familiar with people with SCI is recommended for safety.

Availability

N/A. Stopwatch only required.

# of studies reporting psychometric properties: 23

Interpretability

MCID: 0.15 m/s (Forrest et al. 2014; n=249 people with incomplete SCI; outpatient, median time since injury = 0.7 years)
SEM: 0.05 m/s (Lam et al. 2008, calculated from van Hedel et al. 2005, n=22; 14 males, mixed injury types, no information on chronicity)
MDC: 0.105 m/s (Tester et al. 2016; n=72, 57 males, 20 sessions of locomotor training, mixed injury types, median (range) post-SCI = 0.7 (0.1-14.7) years

Typical Values

– Median (range) scores: AIS C: 0 (0-0.5) – 0 (0-1.7); AIS D: 0.3 (0-2.0) – 0.8 (0-2.6) (Harkema et al. 2016; N=152, 123 male, mixed injury type, median (range) time post-SCI – 0.9 (0.1 – 45.2) years)

Reliability – High

Number of studies reporting reliability data: 8

High Test-retest Reliability:

ICC = 0.977-0.981  (Musselman and Yang 2013; n=20, 14 males, incomplete SCI, time since injury (SD) = 5.4 (8.8) years)

High Inter-rater Reliability:

ICC = 0.997 (Srisim et al. 2015; n=83, chronic SCI, mixed injury types, mean time since injury (multiple and non-multiple fallers) = 46.72-58.70 months)

High Intra-rater Reliability: ICC = 0.974 (Van Hedel et al. 2005; n=22, 14 males, mixed injury types, no information on chronicity)

High Test-retest Reliability: ICC = 0.983-0.97 (Perez-Sanpablo et al. 2017; n=23, 15 males, mean age: 45.6 + 12.6 years, chronic and subacute injury types).

High Test-retest Reliability: ICC = 0.99 (Rini et al. 2018; n=25, 22 males, mean age: 27 years, AIS A/B)

Validity

Number of studies reporting validity data: 15

High correlation with Walking Index for SCI: 

At 3 months r = 0.78; At 6 months r = 0.85; At 12 months r = 0.77

High correlation with Functional Independence Measure-Locomotor Score:

At 3 months r = 0.80; At 6 months > 0.80; At 12 months r = 0.66

High correlation with 6-Minute Walk Test:

At 3 months r = 0.95; At 6 months > 0.80; At 12 months r = 0.92

(Ditunno et al. 2007; n=146, 114 males, inpatient, incomplete SCI, within 1 year post-injury)

Low to Moderate correlation with ASIA Motor Scale:

UEMS r = 0.24; LEMS r = 0.69; ASIA Motor Score r = 0.63

(Harkema et al. 2016; N=152, 123 male; mixed injury type; median (range) time post-SCI = 0.9 (0.1-45.2) years)

Moderate to High correlation with WISCI-II

r=-0.37 to -0.795

Moderate correlation with LEMS

r= -0.4 to -0.39

(Perez-Sanpablo et al. 2017; n=23, 15 males, mean age: 45.6 + 12.6 years, chronic and subacute injury types).

Responsiveness

Effect Size: Mean change (m/s): 1 to 3 months post-injury = 0.92; 3 to 6 months post-injury = 0.47 (Lam et al. 2008, calculated from measurements made in van Hedel et al. 2007; n=51, 42 males, incomplete SCI, 46 with traumatic injury)

Standardized Response Mean: All individuals: 0.51; AIS-A/B: 0.51; AIS-C: 0.50; AIS-D: 0.98 (Post locomotor training; Harkema et al. 2016; N=152, 123 male; mixed injury type; median (range) time post-SCI = 0.9 (0.1-45.2) years)

Floor/Ceiling Effect

Not established in SCI

Reviewers

Dr. Christie Chan, John Zhu, Jeremy Mak, Kyle Diab, Matthew Querée, Joanne Chi

Date Last Updated

20 July 2019

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http://www.ncbi.nlm.nih.gov/pubmed/24445972

Datta S, Lorenz DJ, Morrison S, Ardolino E, Harkema SJ. A multivariate examination of temporal changes in Berg Balance Scale items for patients with ASIA Impairment Scale C and D spinal cord injuries. Arch Phys Med Rehabil 2009;90:1208-17.
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Saensook W, Poncumhak P, Saengsuwan J, Mato L, Kamruecha W, Amatachaya S. Discriminative ability of the three functional tests in independent ambulatory patients with spinal cord injury who walked with and without ambulatory assistive devices. J Spinal Cord Med. 2014;37(2):212-7.
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