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. 2019 Jun 15;20:288. doi: 10.1186/s12891-019-2663-4

Table 2.

Summary of articles included for review

Authors Participant characteristics Sensor type Location of sensor Gait metrics measures Sampling frequency Environment Gait speed Gait distance/time Quality assessment score
Nagai et al., 2014 [13]

N = 11

(3 female, 8 male)

Mean age = 72.8 yrs

Wearable device with triaxial accelerometer (WAA-066, ATR Promotions Co., Japan) Lumbar spine and cervical spine; 2 sensors)

Postural sway

Walking capacity

Gait cycle

1 occasion Indoor horizontal walkway Self-selected 50 m repetitions until tired (maximum 548 m) 0.54
Lee et al., 2017 [22]

N = 15

(11 female, 4 male)

Mean age = 58.5 yrs

Smart-shoes (UCLA Wireless Health Institute) with pressure sensors (FSR400, Interlink Electronics, USA) Insole of shoe (heel, lateral plantar, toe); 5 sensors

Plantar pressure distribution

Gait symmetry

1 occasion (preoperative) Indoor hospital ward Self-selected 40 m 0.46
Sun et al., 2018 [3, 21]

N = 20

(sex not specified)

Mean age = 58 yrs

Wearable device with accelerometers, gyroscopes (Intelligent Device for Energy Expenditure and Activity 3; MiniSun, LLC, Fresno, CA, USA) Chest, thigh ankles and plantar surface of foot; 7 sensors

Gait cycle

Cadence

Step length

Gait velocity

1 occasion Indoor, well-lit environment Self-selected 16 m 0.71
Loske et al., 2018 [23]

N = 20

(sex not specified)

Inertial sensors with accelerometer, gyroscope and magnetometer (RehaGait System, Hasomed GmbH, Magdeburg, Germany) Lateral shoe, lower and upper legs, pelvis; 7 sensors

Gait cycle

Gait symmetry

Step length

Gait velocity

Cadence

3 occasions (preoperatively, 10 weeks postop, 12 months postop) Indoors (clinic) Self selected 6 min 0.67