Volume 27, Issue 12
Original Article

Evaluation of raw acceleration sedentary thresholds in children and adults

Maria Hildebrand

Corresponding Author

E-mail address: maria.hildebrand@nih.no

The Department of Sports Medicine, Norwegian School of Sport Sciences, Oslo, Norway

Corresponding author: Maria Hildebrand, Department of Sports Medicine, Norwegian School of Sport Sciences, PO Box 4014, Ullevål Stadion, Oslo 0806, Norway. Tel.: +47 47 07 02 77, Fax: +47 22 23 42 20, E‐mail: maria.hildebrand@nih.noSearch for more papers by this author
Bjørge H. Hansen

The Department of Sports Medicine, Norwegian School of Sport Sciences, Oslo, Norway

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Vincent T. van Hees

Netherlands eScience Center, Amsterdam, The Netherlands

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Ulf Ekelund

The Department of Sports Medicine, Norwegian School of Sport Sciences, Oslo, Norway

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First published: 22 November 2016
Citations: 66

Abstract

The aim was to develop sedentary (sitting/lying) thresholds from hip and wrist worn raw tri‐axial acceleration data from the ActiGraph and GENEActiv, and to examine the agreement between free‐living time spent below these thresholds with sedentary time estimated by the activPAL. Sixty children and adults wore an ActiGraph and GENEActiv on the hip and wrist while performing six structured activities, before wearing the monitors, in addition to an activPAL, for 24 h. Receiver operating characteristic (ROC) curves were used to determine sedentary thresholds based on activities in the laboratory. Agreement between developed sedentary thresholds during free‐living and activPAL were assessed by Bland‐Altman plots and by calculating sensitivity and specificity. Using laboratory data and ROC‐curves showed similar classification accuracy for wrist and hip thresholds (Area under the curve = 0.84–0.92). Greatest sensitivity (97–98%) and specificity (74–78%) were observed for the wrist thresholds, with no large differences between brands. During free‐living, Bland‐Altman plots showed large mean individual biases and 95% limits of agreement compared with activPAL, with smallest difference for the ActiGraph wrist threshold in children (+30 min, P = 0.3). Sensitivity and specificity for the developed thresholds during free‐living were low for both age groups and for wrist (Sensitivity, 68–88%, Specificity, 46–59%) and hip placements (Sensitivity, 89–97%, Specificity, 26–34%). Laboratory derived sedentary thresholds generally overestimate free‐living sedentary time compared with activPAL. Wrist thresholds appear to perform better than hip thresholds for estimating free‐living sedentary time in children and adults relative to activPAL, however, specificity for all the developed thresholds are low.

Number of times cited according to CrossRef: 66

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