Literature DB >> 15632682

Predicting energy expenditure from accelerometry counts in adolescent girls.

Kathryn H Schmitz1, Margarita Treuth, Peter Hannan, Robert McMurray, Kimberly B Ring, Diane Catellier, Russ Pate.   

Abstract

PURPOSE: Calibration of accelerometer counts against oxygen consumption to predict energy expenditure has not been conducted in middle school girls. We concurrently assessed energy expenditure and accelerometer counts during physical activities on adolescent girls to develop an equation to predict energy expenditure.
METHODS: Seventy-four girls aged 13-14 yr performed 10 activities while wearing an Actigraph accelerometer and a portable metabolic measurement unit (Cosmed K4b2). The activities were resting, watching television, playing a computer game, sweeping, walking 2.5 and 3.5 mph, performing step aerobics, shooting a basketball, climbing stairs, and running 5 mph. Height and weight were also assessed. Mixed-model regression was used to develop an equation to predict energy expenditure (EE) (kJ.min(-1)) from accelerometer counts.
RESULTS: Age (mean [SD] = 14 yr [0.34]) and body-weight-adjusted correlations of accelerometer counts with EE (kJ.min(-1)) for individual activities ranged from -0.14 to 0.59. Higher intensity activities with vertical motion were best correlated. A regression model that explained 85% of the variance of EE was developed: [EE (kJ.min(-1)) = 7.6628 + 0.1462 [(Actigraph counts per minute - 3000)/100] + 0.2371 (body weight in kilograms) - 0.00216 [(Actigraph counts per minute - 3000)/100](2) + 0.004077 [((Actigraph counts per minute - 3000)/100) x (body weight in kilograms)]. The MCCC = 0.85, with a standard error of estimate = 5.61 kJ.min(-1).
CONCLUSIONS: We developed a prediction equation for kilojoules per minute of energy expenditure from Actigraph accelerometer counts. This equation may be most useful for predicting energy expenditure in groups of adolescent girls over a period of time that will include activities of broad-ranging intensity, and may be useful to intervention researchers interested in objective measures of physical activity.

Entities:  

Mesh:

Substances:

Year:  2005        PMID: 15632682      PMCID: PMC2491725          DOI: 10.1249/01.mss.0000150084.97823.f7

Source DB:  PubMed          Journal:  Med Sci Sports Exerc        ISSN: 0195-9131            Impact factor:   5.411


  15 in total

1.  Validity, reliability, and calibration of the Tritrac accelerometer as a measure of physical activity.

Authors:  J F Nichols; C G Morgan; J A Sarkin; J F Sallis; K J Calfas
Journal:  Med Sci Sports Exerc       Date:  1999-06       Impact factor: 5.411

2.  Goodness-of-fit in generalized nonlinear mixed-effects models.

Authors:  E F Vonesh; V M Chinchilli; K Pu
Journal:  Biometrics       Date:  1996-06       Impact factor: 2.571

3.  Validation of the COSMED K4 b2 portable metabolic system.

Authors:  J E McLaughlin; G A King; E T Howley; D R Bassett; B E Ainsworth
Journal:  Int J Sports Med       Date:  2001-05       Impact factor: 3.118

4.  Validation and calibration of physical activity monitors in children.

Authors:  Maurice R Puyau; Anne L Adolph; Firoz A Vohra; Nancy F Butte
Journal:  Obes Res       Date:  2002-03

5.  A comparative evaluation of three accelerometry-based physical activity monitors.

Authors:  G J Welk; S N Blair; K Wood; S Jones; R W Thompson
Journal:  Med Sci Sports Exerc       Date:  2000-09       Impact factor: 5.411

6.  Defining accelerometer thresholds for activity intensities in adolescent girls.

Authors:  Margarita S Treuth; Kathryn Schmitz; Diane J Catellier; Robert G McMurray; David M Murray; M Joao Almeida; Scott Going; James E Norman; Russell Pate
Journal:  Med Sci Sports Exerc       Date:  2004-07       Impact factor: 5.411

7.  Accuracy and reliability of the Caltrac accelerometer for estimating energy expenditure.

Authors:  G Pambianco; R R Wing; R Robertson
Journal:  Med Sci Sports Exerc       Date:  1990-12       Impact factor: 5.411

8.  Assessment of energy expenditure by recording heart rate and body acceleration.

Authors:  G A Meijer; K R Westerterp; H Koper; F ten Hoor
Journal:  Med Sci Sports Exerc       Date:  1989-06       Impact factor: 5.411

9.  Estimation of energy expenditure by a portable accelerometer.

Authors:  H J Montoye; R Washburn; S Servais; A Ertl; J G Webster; F J Nagle
Journal:  Med Sci Sports Exerc       Date:  1983       Impact factor: 5.411

10.  Calorimetric validation of the Caltrac accelerometer during level walking.

Authors:  J A Balogun; D A Martin; M A Clendenin
Journal:  Phys Ther       Date:  1989-06
View more
  39 in total

1.  Effect of BMI on prediction of accelerometry-based energy expenditure in youth.

Authors:  Joshua Warolin; Amanda R Carrico; Lauren E Whitaker; Li Wang; Kong Y Chen; Sari Acra; Maciej S Buchowski
Journal:  Med Sci Sports Exerc       Date:  2012-12       Impact factor: 5.411

2.  Commercial venues as supports for physical activity in adolescent girls.

Authors:  Marsha Dowda; Thomas L McKenzie; Deborah A Cohen; Molly M Scott; Kelly R Evenson; Ariane L Bedimo-Rung; Carolyn C Voorhees; Maria J C A Almeida
Journal:  Prev Med       Date:  2007-06-07       Impact factor: 4.018

3.  Higher Precision of Heart Rate Compared with VO2 to Predict Exercise Intensity in Endurance-Trained Runners.

Authors:  Victor M Reis; Roland Van den Tillaar; Mario C Marques
Journal:  J Sports Sci Med       Date:  2011-03-01       Impact factor: 2.988

4.  Distributed lag and spline modeling for predicting energy expenditure from accelerometry in youth.

Authors:  Leena Choi; Kong Y Chen; Sari A Acra; Maciej S Buchowski
Journal:  J Appl Physiol (1985)       Date:  2009-12-03

5.  Sedentary activity and body composition of middle school girls: the trial of activity for adolescent girls.

Authors:  Charlotte Pratt; Larry S Webber; Chris D Baggett; Dianne Ward; Russell R Pate; David Murray; Timothy Lohman; Leslie Lytle; John P Elder
Journal:  Res Q Exerc Sport       Date:  2008-12       Impact factor: 2.500

6.  Physical activity behavior and related characteristics of highly active eighth-grade girls.

Authors:  Sharon E Taverno Ross; Marsha Dowda; Michael W Beets; Russell R Pate
Journal:  J Adolesc Health       Date:  2013-02-04       Impact factor: 5.012

7.  Age-related change in physical activity in adolescent girls.

Authors:  Russell R Pate; June Stevens; Larry S Webber; Marsha Dowda; David M Murray; Deborah R Young; Scott Going
Journal:  J Adolesc Health       Date:  2008-10-29       Impact factor: 5.012

8.  School design and physical activity among middle school girls.

Authors:  Deborah Cohen; Molly Scott; Frank Zhen Wang; Thomas L McKenzie; Dwayne Porter
Journal:  J Phys Act Health       Date:  2008-09

9.  Objectively measured physical activity and its association with adiponectin and other novel metabolic markers: a longitudinal study in children (EarlyBird 38).

Authors:  Brad S Metcalf; Alison N Jeffery; Joanne Hosking; Linda D Voss; Naveed Sattar; Terence J Wilkin
Journal:  Diabetes Care       Date:  2008-11-25       Impact factor: 19.112

10.  Correlates of objectively assessed physical activity and sedentary time in children: a cross-sectional study (The European Youth Heart Study).

Authors:  Andreas Nilsson; Lars Bo Andersen; Yngvar Ommundsen; Karsten Froberg; Luis B Sardinha; Karin Piehl-Aulin; Ulf Ekelund
Journal:  BMC Public Health       Date:  2009-09-07       Impact factor: 3.295

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.