Step-count outcomes of 13 different activity trackers: Results from laboratory and free-living experiments

Many activity trackers have been developed, but steps can still be inconsistent from one monitor to another. What are the differences and associations between the steps of 13 selected consumer-based and research-grade wearable devices during 1 standardized day in a metabolic chamber and 15-day free-...

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Published in:Gait & posture Vol. 98; pp. 24 - 33
Main Authors: Nakagata, Takashi, Murakami, Haruka, Kawakami, Ryoko, Tripette, Julien, Nakae, Satoshi, Yamada, Yosuke, Ishikawa-Takata, Kazuko, Tanaka, Shigeho, Miyachi, Motohiko
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Language:English
Published: England Elsevier B.V 01-10-2022
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Abstract Many activity trackers have been developed, but steps can still be inconsistent from one monitor to another. What are the differences and associations between the steps of 13 selected consumer-based and research-grade wearable devices during 1 standardized day in a metabolic chamber and 15-day free-living trials? In total, 19 healthy adults between 21 and 50 years-old participated in this study. Participants were equipped with 12 accelerometer-based active trackers and one pedometer (Yamasa) in order to monitor the number of steps per day. The devices were worn on the waist (ActiGraph, Omron, Actimarker, Lifedorder, Withings, and Yamasa) or non-dominant wrist (Fitbit, Garmin, Misfit, EPSON, and Jawbone), or placed in a pocket (Omron CaloriScan, and TANITA). Participants performed structured activities over a 24 h period in a chamber (Standardized day), and steps were monitored in the same participants in free-living trials for 15 successive days using the same monitors (free-living days). When the 13 monitors were ranked by their steps, waist-worn ActiGraph was located at the center (7th) of the monitors both in the Standardized (12,252 ± 598 steps/day, mean ± SD) and free-living days (9295 ± 4027 steps/day). The correlation between the accelerometer-based devices was very high (r = 0.87–0.99). However, the steps of Yamasa was significantly lower in both trials than ActiGraph. The wrist-worn accelerometers had significantly higher steps than other devices both trials (P < 0.05). The differences between ActiGraph and Actimarker or Lifecorder was less than 100 steps/day in the Standardized day, and the differences between ActiGraph and Active Style Pro was less than 100 steps/day in the free-living days. Regression equation was also performed for inter-device compatibility. Step obtained from the wrist-worn, waist-worn, and pocket-type activity trackers were significantly different from each other but still highly correlated in free-living conditions. •Daily step count is one of the simplest indices of daily physical activity.•We examined the difference and associations among step counts during in a metabolic chamber and 15-day free-living trials.•Steps from 13 selected consumer-based and research-grade wearable devices varied (maximum range, 2000–2500) in both trials.•But, step counts obtained from 13 wearable devices were highly correlated with each other in free-living trail.•Researchers and clinicians should be aware of the current differences.
AbstractList BACKGROUNDMany activity trackers have been developed, but steps can still be inconsistent from one monitor to another. RESEARCH QUESTIONWhat are the differences and associations between the steps of 13 selected consumer-based and research-grade wearable devices during 1 standardized day in a metabolic chamber and 15-day free-living trials? METHODSIn total, 19 healthy adults between 21 and 50 years-old participated in this study. Participants were equipped with 12 accelerometer-based active trackers and one pedometer (Yamasa) in order to monitor the number of steps per day. The devices were worn on the waist (ActiGraph, Omron, Actimarker, Lifedorder, Withings, and Yamasa) or non-dominant wrist (Fitbit, Garmin, Misfit, EPSON, and Jawbone), or placed in a pocket (Omron CaloriScan, and TANITA). Participants performed structured activities over a 24 h period in a chamber (Standardized day), and steps were monitored in the same participants in free-living trials for 15 successive days using the same monitors (free-living days). RESULTSWhen the 13 monitors were ranked by their steps, waist-worn ActiGraph was located at the center (7th) of the monitors both in the Standardized (12,252 ± 598 steps/day, mean ± SD) and free-living days (9295 ± 4027 steps/day). The correlation between the accelerometer-based devices was very high (r = 0.87-0.99). However, the steps of Yamasa was significantly lower in both trials than ActiGraph. The wrist-worn accelerometers had significantly higher steps than other devices both trials (P < 0.05). The differences between ActiGraph and Actimarker or Lifecorder was less than 100 steps/day in the Standardized day, and the differences between ActiGraph and Active Style Pro was less than 100 steps/day in the free-living days. Regression equation was also performed for inter-device compatibility. SIGNIFICANCEStep obtained from the wrist-worn, waist-worn, and pocket-type activity trackers were significantly different from each other but still highly correlated in free-living conditions.
Many activity trackers have been developed, but steps can still be inconsistent from one monitor to another. What are the differences and associations between the steps of 13 selected consumer-based and research-grade wearable devices during 1 standardized day in a metabolic chamber and 15-day free-living trials? In total, 19 healthy adults between 21 and 50 years-old participated in this study. Participants were equipped with 12 accelerometer-based active trackers and one pedometer (Yamasa) in order to monitor the number of steps per day. The devices were worn on the waist (ActiGraph, Omron, Actimarker, Lifedorder, Withings, and Yamasa) or non-dominant wrist (Fitbit, Garmin, Misfit, EPSON, and Jawbone), or placed in a pocket (Omron CaloriScan, and TANITA). Participants performed structured activities over a 24 h period in a chamber (Standardized day), and steps were monitored in the same participants in free-living trials for 15 successive days using the same monitors (free-living days). When the 13 monitors were ranked by their steps, waist-worn ActiGraph was located at the center (7th) of the monitors both in the Standardized (12,252 ± 598 steps/day, mean ± SD) and free-living days (9295 ± 4027 steps/day). The correlation between the accelerometer-based devices was very high (r = 0.87-0.99). However, the steps of Yamasa was significantly lower in both trials than ActiGraph. The wrist-worn accelerometers had significantly higher steps than other devices both trials (P < 0.05). The differences between ActiGraph and Actimarker or Lifecorder was less than 100 steps/day in the Standardized day, and the differences between ActiGraph and Active Style Pro was less than 100 steps/day in the free-living days. Regression equation was also performed for inter-device compatibility. Step obtained from the wrist-worn, waist-worn, and pocket-type activity trackers were significantly different from each other but still highly correlated in free-living conditions.
Many activity trackers have been developed, but steps can still be inconsistent from one monitor to another. What are the differences and associations between the steps of 13 selected consumer-based and research-grade wearable devices during 1 standardized day in a metabolic chamber and 15-day free-living trials? In total, 19 healthy adults between 21 and 50 years-old participated in this study. Participants were equipped with 12 accelerometer-based active trackers and one pedometer (Yamasa) in order to monitor the number of steps per day. The devices were worn on the waist (ActiGraph, Omron, Actimarker, Lifedorder, Withings, and Yamasa) or non-dominant wrist (Fitbit, Garmin, Misfit, EPSON, and Jawbone), or placed in a pocket (Omron CaloriScan, and TANITA). Participants performed structured activities over a 24 h period in a chamber (Standardized day), and steps were monitored in the same participants in free-living trials for 15 successive days using the same monitors (free-living days). When the 13 monitors were ranked by their steps, waist-worn ActiGraph was located at the center (7th) of the monitors both in the Standardized (12,252 ± 598 steps/day, mean ± SD) and free-living days (9295 ± 4027 steps/day). The correlation between the accelerometer-based devices was very high (r = 0.87–0.99). However, the steps of Yamasa was significantly lower in both trials than ActiGraph. The wrist-worn accelerometers had significantly higher steps than other devices both trials (P < 0.05). The differences between ActiGraph and Actimarker or Lifecorder was less than 100 steps/day in the Standardized day, and the differences between ActiGraph and Active Style Pro was less than 100 steps/day in the free-living days. Regression equation was also performed for inter-device compatibility. Step obtained from the wrist-worn, waist-worn, and pocket-type activity trackers were significantly different from each other but still highly correlated in free-living conditions. •Daily step count is one of the simplest indices of daily physical activity.•We examined the difference and associations among step counts during in a metabolic chamber and 15-day free-living trials.•Steps from 13 selected consumer-based and research-grade wearable devices varied (maximum range, 2000–2500) in both trials.•But, step counts obtained from 13 wearable devices were highly correlated with each other in free-living trail.•Researchers and clinicians should be aware of the current differences.
Author Nakagata, Takashi
Tanaka, Shigeho
Yamada, Yosuke
Tripette, Julien
Murakami, Haruka
Kawakami, Ryoko
Ishikawa-Takata, Kazuko
Nakae, Satoshi
Miyachi, Motohiko
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  email: tripette.julien@ocha.ac.jp
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Keywords Steps
SD
Validity
SEE
Physical activity
AMED
JIS
ICC
Accelerometer
Pedometer
DLW
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Snippet Many activity trackers have been developed, but steps can still be inconsistent from one monitor to another. What are the differences and associations between...
BACKGROUNDMany activity trackers have been developed, but steps can still be inconsistent from one monitor to another. RESEARCH QUESTIONWhat are the...
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SubjectTerms Accelerometer
Accelerometry - methods
Actigraphy
Adult
Exercise
Fitness Trackers
Humans
Middle Aged
Pedometer
Physical activity
Reproducibility of Results
Steps
Validity
Wearable Electronic Devices
Young Adult
Title Step-count outcomes of 13 different activity trackers: Results from laboratory and free-living experiments
URI https://dx.doi.org/10.1016/j.gaitpost.2022.08.004
https://www.ncbi.nlm.nih.gov/pubmed/36030707
https://search.proquest.com/docview/2707875877
Volume 98
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