The Performance of an Algorithm for Classifying Gym-based Tasks across Individuals with Different Body Mass Index

ABSTRACT Previous activity classification studies have typically been performed on normal weight individuals. Therefore, it is unclear whether a generic classification algorithm could be developed that would perform consistently across individuals who fall within different BMI categories. Acceleration data were collected from the hip and ankle joints of 50 individuals: 17 normal weight, 14 overweight, and 19 obese. Each participant performed a set of 10 dynamic tasks, which included activities of daily living and gym-based exercises. The performance of a generic classification algorithm, developed using linear discriminant analysis, was compared across the three separate BMI groups for each sensor. Higher classification accuracies (92–95%) were observed for the ankle sensor; however, both sensors demonstrated consistent performance across the three groups. This is the first study to demonstrate the effectiveness of a generic classification algorithm across individuals with different BMI and may be a first step toward automated activity profiling in weight-loss programs.

[1]  A. King,et al.  Men gain additional psychological benefits by adding exercise to a weight-loss program. , 2001, Obesity research.

[2]  Tanzeem Choudhury,et al.  Automated Personalized Feedback for Physical Activity and Dietary Behavior Change With Mobile Phones: A Randomized Controlled Trial on Adults , 2015, JMIR mHealth and uHealth.

[3]  I. Raz,et al.  Moderate exercise improves glucose metabolism in uncontrolled elderly patients with non-insulin-dependent diabetes mellitus. , 1994, Israel journal of medical sciences.

[4]  F. M. Gervásio,et al.  The impact of obesity in the kinematic parameters of gait in young women , 2013, International journal of general medicine.

[5]  David R Bassett,et al.  Accuracy of physical activity monitors in pregnant women. , 2010, Medicine and science in sports and exercise.

[6]  Catrine Tudor-Locke,et al.  Accelerometer profiles of physical activity and inactivity in normal weight, overweight, and obese U.S. men and women , 2010, The international journal of behavioral nutrition and physical activity.

[7]  Lei Gao,et al.  Evaluation of accelerometer based multi-sensor versus single-sensor activity recognition systems. , 2014, Medical engineering & physics.

[8]  Bo Zhou,et al.  A Hybrid Hierarchical Framework for Gym Physical Activity Recognition and Measurement Using Wearable Sensors , 2019, IEEE Internet of Things Journal.

[9]  R. Ross,et al.  Effects of an energy-restrictive diet with or without exercise on abdominal fat, intermuscular fat, and metabolic risk factors in obese women. , 2002, Diabetes care.

[10]  Scott W Cheatham,et al.  The efficacy of wearable activity tracking technology as part of a weight loss program: a systematic review. , 2017, The Journal of sports medicine and physical fitness.

[11]  Scott E Crouter,et al.  Refined two-regression model for the ActiGraph accelerometer. , 2010, Medicine and science in sports and exercise.

[12]  Gert R. G. Lanckriet,et al.  Hip and Wrist Accelerometer Algorithms for Free-Living Behavior Classification. , 2016, Medicine and science in sports and exercise.

[13]  Scott E Crouter,et al.  Spring-levered versus piezo-electric pedometer accuracy in overweight and obese adults. , 2005, Medicine and science in sports and exercise.

[14]  M Crivellini,et al.  Biomechanical analysis of sit-to-stand movement in normal and obese subjects. , 2003, Clinical biomechanics.

[15]  Kenneth Meijer,et al.  Activity identification using body-mounted sensors—a review of classification techniques , 2009, Physiological measurement.

[16]  Johannes Peltola,et al.  Activity classification using realistic data from wearable sensors , 2006, IEEE Transactions on Information Technology in Biomedicine.

[17]  L. Beilin,et al.  Independent and additive effects of energy restriction and exercise on glucose and insulin concentrations in sedentary overweight men. , 2004, The American journal of clinical nutrition.

[18]  A Moncada-Torres,et al.  Activity classification based on inertial and barometric pressure sensors at different anatomical locations , 2014, Physiological measurement.

[19]  Daniel P. Siewiorek,et al.  Activity recognition and monitoring using multiple sensors on different body positions , 2006, International Workshop on Wearable and Implantable Body Sensor Networks (BSN'06).

[20]  Classification of Physical Activity Cut-Points and the Estimation of Energy Expenditure During Walking Using the GT3X+ Accelerometer in Overweight and Obese Adults , 2017 .

[21]  Geehyuk Lee,et al.  Accelerometer Signal Processing for User Activity Detection , 2004, KES.

[22]  E. Melanson,et al.  Commercially available pedometers: considerations for accurate step counting. , 2004, Preventive medicine.

[23]  Maarit Kangas,et al.  Calibration and validation of accelerometer-based activity monitors: A systematic review of machine-learning approaches. , 2019, Gait & posture.

[24]  R. Shaw,et al.  The Impact of Interventions that Integrate Accelerometers on Physical Activity and Weight Loss: A Systematic Review , 2017, Annals of behavioral medicine : a publication of the Society of Behavioral Medicine.

[25]  Zhenyu He,et al.  Activity recognition from acceleration data based on discrete consine transform and SVM , 2009, 2009 IEEE International Conference on Systems, Man and Cybernetics.

[26]  K. Vranizan,et al.  Changes in plasma lipids and lipoproteins in overweight men during weight loss through dieting as compared with exercise. , 1988, The New England journal of medicine.

[27]  Tim Dallas,et al.  Feature Selection and Activity Recognition System Using a Single Triaxial Accelerometer , 2014, IEEE Transactions on Biomedical Engineering.

[28]  M. Zhang,et al.  Three-dimensional gait analysis of obese adults. , 2008, Clinical biomechanics.

[29]  Jian Xun Peng,et al.  Practical automated activity recognition using standard smartphones , 2012, 2012 IEEE International Conference on Pervasive Computing and Communications Workshops.

[30]  Mike Y. Chen,et al.  Tracking Free-Weight Exercises , 2007, UbiComp.

[31]  G. Plasqui,et al.  Smart approaches for assessing free‐living energy expenditure following identification of types of physical activity , 2017, Obesity reviews : an official journal of the International Association for the Study of Obesity.

[32]  G Plasqui,et al.  Improving assessment of daily energy expenditure by identifying types of physical activity with a single accelerometer. , 2009, Journal of applied physiology.

[33]  G. Healy,et al.  Accelerometer-Derived Sedentary and Physical Activity Time in Overweight/Obese Adults with Type 2 Diabetes: Cross-Sectional Associations with Cardiometabolic Biomarkers , 2015, PloS one.

[34]  Kathryn M. Ross,et al.  Impact of newer self‐monitoring technology and brief phone‐based intervention on weight loss: A randomized pilot study , 2016, Obesity.