|
Gait Characteristics
|
DeVita et al., 2003, USA [85]
|
Lower extremity joint kinetics & energetics
|
General population
|
39 (54%)
|
Motion analysis, force platform
|
BMI
|
42.3(2.9)
|
+
|
NA
|
–
|
|
Browning et al., 2006, USA [86]
|
Metabolic rates & energy cost
|
General population
|
39 (49%)
|
Oxygen consumption, preferred walking speed
|
BMI / WHR, %BF: DEXA
|
M:33(2).1 F:33.8(3.3)
|
+
|
NA
|
–
|
|
Browning & Kram., 2007, USA [87]
|
Walking biomechanics(knee-joint loads)
|
Young adults
|
20 (50%)
|
Ground reaction force, gait kinematics
|
BMI / *segment mass
|
M:34.1(3.7), F: 37(6)
|
+
|
NA
|
–
|
|
Lafortuna et al., 2008, Italy [88]
|
Energetics and cardiovascular responses of walking & cycling
|
Lean: hospital staff, OB: hospital admits (body mass reduction)
|
21 (71%)
|
HR, Vo2 max, metabolic rate
|
BMI / %BF: BIA
|
41.1(5)
|
+
|
NA
|
–
|
|
Lai et al., 2008, China [89]
|
Three-dimensional gait characteristics
|
General population
|
28 (50%)
|
Motion analysis
|
BMI
|
33.06(4.2)
|
+
|
NA
|
–
|
|
Browning et al., 2009, USA [90]
|
External mechanical work
|
Young adults
|
20 (50%)
|
Ground reaction force
|
BMI
|
M:34.1(3.7), F:37(6)
|
–
|
NA
|
+
|
|
Malatesta et al., 2009, Switzerland [91]
|
Mechanical external work
|
General population
|
49 (61%)
|
Center of mass displacement, mechanical external work, kinetic energy transduction
|
BMI
|
39.6(0.6)
|
–
|
NA
|
–
|
|
Ko et al., 2010, USA [92]
|
Characteristics of gait
|
Older adults enrolled in aging research
|
164 (66%)
|
Motion analysis, force platform
|
BMI
| |
+
|
+/−
|
–
|
|
Russell et al., 2010, USA [93]
|
Energy expenditure & biomechanical risk factors for knee OA
|
Young adults
|
20 (50%)
|
O2 uptake, peak impact shock, peak external knee adduction moment knee adduction angular impulse
|
BMI
|
33.09(4.22)
|
–
|
NA
|
–
|
|
Blaszczyk et al., 2011, Poland [94]
|
Basic spatiotemporal gait measures
|
General population + outpatient obesity treatment clinic
|
136 (74%)
|
Stance & swing time, stride length
|
BMI
|
37.2(5.2)
|
+
|
NA
|
+
|
|
Ehlen et al., 2011, US [95]
|
Energetics and biomechanics of gait
|
General population
|
12 (100%)
|
Oxygen consumption, ground reaction forces, & three-dimensional lower-extremity kinematics
|
BMI / %BF: DEXA
|
33.4(2.4)
|
NA
|
NA
|
–
|
|
Cimolin et al., 2011, Italy [96]
|
Gait pattern
|
Obese: admits to obesity multidisciplinary rehabilitation program
|
28 (64%)
|
Gait Spatio-temporal parameters & kinematics
|
BMI / WC
|
OB + LBP: 42.4(5.5), OB - LBP: 39.3
|
+
|
NA
|
–
|
|
Russell & Hamill., 2011, US [97]
|
Obesity × laterally wedged insole effect on gait kinetic and kinematic
|
Young females
|
28 (50%)
|
Peak joint angles, external knee adduction moment & angular impulse
|
BMI / %BF: DEXA
|
37.2(6.1)
|
+
|
NA
|
–
|
|
Wu et al., 2012, USA [98]
|
Gait adaptations & implication on risk of slip initiations
|
Young male students
|
10 (50%)
|
Motion analysis, force plate
|
%BF from BIA / BMI
|
33.7(2.8)
|
+/−
|
NA
|
–
|
|
Harding et al., 2012, Canada [99]
|
Knee OA × obesity effect on knee joint mechanics
|
General population + orthopedic clinic admits
|
244 (72%)
|
Knee joint angles, joint moment
|
BMI / *thigh and calf circumference
|
34.9(4)
|
+
|
+
|
+
|
|
Russell et al., 2013, USA [100]
|
Laterally wedged insoles × obesity effect on knee joint contact force
|
General population
|
28 (50%)
|
Center of pressure on the tibial plateau
|
BMI / %BF: DEXA
|
37.2(6.1)
|
NA
|
NA
|
–
|
|
Browning et al., 2013, USA [101]
|
Metabolic rate, stride kinematics & external mechanical work
|
young females
|
37 (49%)
|
Oxygen uptake, ground reaction force, lower extremity kinematics
|
BMI / %BF: DEXA, *Trunk-to-leg fat mass ratio
|
33.9(3.6)
|
–
|
NA
|
–
|
|
Ranavolo et al., 2013, Italy [102]
|
Walking coordination during walking
|
General population
|
50 (50%)
|
Motion analysis
|
BMI / WC, %BF: Siri equation
|
Range(33.8–44)
|
+
|
NA
|
–
|
|
Vismara et al., 2014, Italy [103]
|
Changes in gait
|
General population
|
32 (44%)
|
Motion analysis
|
BMI
|
40.2(3.3)
|
+
|
NA
|
–
|
|
Haight et al., 2014, USA [104]
|
Compressive tibio-femoral forces
|
General population
|
19 (47%)
|
Motion analysis (lower extremity biomechanics), EMG
|
BMI / %BF: DEXA
|
35(3.8)
|
+/−
|
NA
|
–
|
|
Glave et al., 2014, USA [105]
|
Gait alterations
|
General population
|
22 (50%)
|
Gait variables
|
BMI / %BF: DEXA
|
31.42(7.3)
|
+
|
NA
|
+
|
|
Cau et al., 2014, Italy [106]
|
Gait strategy
|
Hospital patients for weight reduction programs & staff
|
35 (57%)
|
Center of pressure parameters
|
BMI
|
43(4.9)
|
+
|
NA
|
–
|
|
Lerner et al., 2014, USA [107]
|
Joint kinematics & individual muscle forces during gait
|
General population
|
19 (47%)
|
Motion analysis, EMG data, ground reaction force
|
BMI / lean mass (kg): DEXA
|
35(3.78)
|
+
|
NA
|
–
|
|
Disease Prevalence/Incidenc
|
Kouyoumdjian et al., 2000, Brazil [108]
|
Severity of Carpal tunnel syndrome
|
Carpel tunnel syndrome patients
|
384 (13%)
|
Case - control study
|
BMI
| |
+
|
NA
|
–
|
|
Young et al., 2001, USA [109]
|
Asthma risk
|
Military population and their families (17-69 yrs)
|
38,924 (53%)
|
Case - control study
|
BMI
| |
+
|
+
|
–
|
|
J. D. Bland., 2005, UK [110]
|
Age × body mass index effect on carpel tunnel syndrome risk
|
Hospital admits
|
4166 (14%)
|
Self-report CTS diagnosis
|
BMI
| |
+
|
+
|
–
|
|
Liuke et al., 2005, Finland [111]
|
Prevalence and progression of lumbar disc degeneration
|
Employed middle-aged men
|
129 (50%)
|
Prospective cohort: MRI imaging
|
BMI
| |
NA
|
+
|
–
|
|
Dagan et al., 2006, Israel [112]
|
BMI as a screening method for detection of excessive daytime sleepiness
|
Professional drivers
|
153 (100%)
|
Sleep characteristics
|
BMI
|
36.78(7.32)
|
+
|
NA
|
–
|
|
Zhao et al., 2007, USA [113]
|
Osteoporosis
|
Chinese general population + US Caucasian general population
|
6477 (0%)
|
Bone mass at the lumbar spine, total body bone mineral content
|
BMI / %BF: DEXA
| |
+
|
+
|
+
|
|
Sharifi-Mollayousefi et al., 2008, Iran [114]
|
BMI as independent risk determinants in the development and severity of Carpal tunnel syndrome
|
Patients with carpal tunnel syndrome (cases) and their relatives (controls)
|
262 (50%)
|
Case-control study
|
BMI
| |
+
|
NA
|
–
|
|
Grotle et al., 2008, Norway [115]
|
OA incident in hip, knee, and hand
|
General population
|
1675 (35%)
|
Prospective cohort: OA diagnosis
|
BMI
| |
+
|
+/−
|
–
|
|
Noorloos et al., 2008, Netherlands [116]
|
Obesity × whole body vibration effect on risk of LBP
|
Occupational vehicle drivers
|
214 (69%)
|
Low back pain
|
BMI
| |
–
|
–
|
–
|
|
Toivanen et al., 2010, Finland [117]
|
Knee OA risk
|
Finnish adults aged 530 years
|
823 (39%)
|
Prospective cohort: OA diagnosis
|
BMI
| |
+
|
+
|
–
|
|
Vismara et al., 2010, Italy [118]
|
LBP incidence
|
General population
|
37 (70%)
|
Trunk angle during standing, forward flexion & lateral bending
|
BMI
|
LBP:41.9(5.3),Non:39.2(3.6)
|
+
|
NA
|
–
|
|
Wood et al., 2011, USA [119]
|
Pain experienced by persons with chronic back pain
|
Patients with lower back pain of over 3 months
|
198 (62%)
|
Blood pressure, pain level
|
BMI
| |
–
|
–
|
–
|
|
Ackerman & Osborne., 2012, Australia [120]
|
Burden of hip & knee joint disease
|
General population
|
1157 (55%)
|
OA diagnosis
|
BMI
| |
+
|
+
|
–
|
|
Jensen et al., 2012, Denmark [121]
|
LBP risk factor
|
Newly educated health care helpers
|
1355 (41%)
|
Prospective cohort: Self-reported levels of LBP
|
BMI
|
34.8(6.08)
|
–
|
–
|
–
|
|
Silvernail et al., 2013, USA [122]
|
Biomechanical risk factor for knee OA
|
Yong university and community members
|
30 (67%)
|
Gait kinetic & kinematics
|
BMI / %BF: BIA
|
34.4(3.9)
|
–
|
–
|
–
|
|
Seror & Seror., 2013, France [123]
|
Incidence of idiopathic median nerve lesion at the wrist
|
Patients with carpal tunnel syndrome
|
676 (25%)
|
Electrophysiological evaluation outcomes
|
BMI
| |
+
|
+
|
–
|
|
Martin et al., 2013, USA [124]
|
Knee OA risk factor
|
British birth cohort participants
|
2957 (0%)
|
Knee Osteoarthritis
|
BMI (z-score)
| |
+
|
NA
|
–
|
|
Romero-Vargas et al., 2013, Mexico [125]
|
Modifications on spino-pelvic parameters & type of lumbar lordosis
|
General population
|
200 (80%)
|
Spino-pelvic values
|
BMI / WC
| |
–
|
–
|
+
|
|
Messier et al., 2014, USA [126]
|
Frontal plane knee alignment × obesity effect on knee joint loads in knee OA
|
Community dwelling older adults (age > 55 yrs)
|
157 (100%)
|
knee osteoarthritis: X-ray at baseline
|
BMI
|
33.4(3.7)
|
+
|
+
|
–
|
|
Urquhart et al., 2014, Australia [127]
|
Occupational activities × obesity effect on LBP
|
General population + weight loss clinic attendees
|
145 (61%)
|
Low back pain intensity & disability
|
BMI
| |
+
|
NA
|
–
|
|
Evanoff et al., 2014, France [128]
|
Physical occupational exposures × obesity effect on post-retirement shoulder/knee pain
|
French national power utility employees
|
9415 (52%)
|
Retrospective cohort: self-administered questionnaires
|
BMI
| |
+
|
–
|
–
|
|
Functional Capacity
|
Hulens et al., 2001, Belgium [129]
|
Submaximal & maximal exercise capacity
|
General population
|
306 (74%)
|
Oxygen uptake, carbon dioxide production, respiratory quotient, breathing efficiency, mechanical efficiency & anaerobic threshold
|
BMI / %BF: BIA
|
38.1(5.6)
|
+
|
NA
|
–
|
|
Hulens et al., 2002, Belgium [130]
|
Peripheral muscle strength
|
Outpatient Endocrinology Clinic patients
|
241 (100%)
|
Trunk strength, peak oxygen consumption
|
BMI / Fat free and fat mass: BIA
|
37.5(5.4)
|
NA
|
NA
|
–
|
|
Maffiuletti et al., 2007,Switzerland [131]
|
Voluntary & stimulated fatigue of the quadriceps femoris muscle
|
Lean: hospital staff, obese: hospital admits for body mass reduction
|
20 (50%)
|
Maximal voluntary isometric & isokinetic torque, torque loss
|
BMI / Fat free mass: BIA
|
41.3(5.4)
|
+
|
NA
|
–
|
|
Segal et al., 2009, USA [132]
|
Forces on the medial compartment of the knee joint
|
General population
|
59 (68%)
|
knee joint forces
|
BMI / WHR
|
Central: 35(4), lower body: 36.4 (5.4)
|
+/−
|
NA
|
+
|
|
Capodaglio et al., 2009, Italy [133]
|
Lower limb muscle function
|
General population
|
40 (50%)
|
Isokinetic strength during knee flexion & extension
|
BMI
|
38.1(3.1)
|
+
|
NA
|
+
|
|
Singh et al., 2009, USA [134]
|
Maximum acceptable weights of lift
|
General population
|
60 (67%)
|
MAWL
|
BMI / WC,WHR,%BF estimated: ST
|
II: 37.13(1.58) III:47.84(9.85)
|
–
|
NA
|
–
|
|
Faria et al., 2009, Portugal [135]
|
Muscle–tendon unit stiffness
|
General population
|
105 (77%)
|
Ankle muscle–tendon unit stiffness at 30% MVC
|
BMI
|
32.1(1.3)
|
+
|
+
|
–
|
|
Park et al., 2010, USA [136]
|
Joint RoM
|
Young and university affiliated
|
40 (50%)
|
RoM
|
BMI
|
44(7.4)
|
+/−
|
NA
|
–
|
|
Blazek et al., 2013, USA [137]
|
Age × obesity effect on Knee adduction and flexion moments
|
General population
|
96 (38%)
|
Ground reaction force magnitude, knee alignment, step width, toe-out angle, limb position
|
BMI
|
35.3(3.9)
|
+
|
NA
|
–
|
|
Cavuoto & Nussbaum., 2013, USA [138]
|
Age × obesity effect on shoulder capacity
|
Young: students, old: retired or employed in non-physically demanding jobs
|
32 (50%)
|
Endurance, discomfort, motor control, task performance
|
BMI / WC, WHR
|
Young: 34.1(2.8), Old: 36.4(3.3)
|
+
|
NA
|
+
|
|
Hamilton et al., 2013, USA [139]
|
BMI × workstation configuration effect on joint angles
|
General population
|
30 (80%)
|
Joint angle, forward functional reach
|
BMI
|
I: 32(1.26) II:37(1.73) III:44(4.97)
|
–
|
–
|
–
|
|
Mignardot et al., 2013, France [140]
|
Motor control behavior
|
General population
|
20 (60%)
|
Kinematic variables, Center of mass displacement characteristics
|
BMI
|
36.6(3.3)
|
+
|
NA
|
–
|
|
Wearing et al., 2013, Australia [141]
|
Resistance exercise × obesity effect on immediate transverse strain of the Achilles tendon
|
University faculty
|
20 (50%)
|
Sonographic examinations
|
BMI
|
30(3.1)
|
+
|
+
|
+
|
|
Cavuoto & Nussbaum., 2013, USA [142]
|
Strength and functional performance
|
Local community
|
36 (50%)
|
Endurance time, strength
|
BMI / WC,WHR
|
33.6(3.1)
|
+/−
|
NA
|
+
|
|
Cavuoto & Nussbaum., 2014, USA [143]
|
Age × obesity effect on functional performance
|
General population
|
32 (50%)
|
endurance, discomfort, motor control, task performance
|
BMI / WC,WHR
|
Young: 34.3(4), Old: 35.9(3.6)
|
+
|
NA
|
+
|
|
Mehta & Cavuoto., 2015, USA [144]
|
Obesity × age effects on handgrip endurance
|
General population
|
45 (44%)
|
hand grip endurance
|
BMI
|
Young: 33.1(3.6),Old:36.1(8.1)
|
+/−
|
NA
|
–
|
|
Balance & Plantar Pressure
|
Hills et al., 2001, Australia [145]
|
Plantar pressure
|
General population
|
70 (50%)
|
Pressure distribution
|
BMI
|
38.75(5.97)
|
+
|
NA
|
+
|
|
Gravante et al., 2003, Italy [146]
|
Centre of pressure location & plantar pressures
|
General population
|
72 (53%)
|
Centre of pressure location, plantar ground contact surface areas & pressures
|
BMI / WHR
|
M:36(7.4), F:38(6.8)
|
+/−
|
NA
|
–
|
|
Birtane & Tuna., 2004, Turkey [147]
|
Plantar pressure distribution
|
General population
|
50 (50%)
|
Pedobarographic evaluations
|
BMI
|
32.2(2)
|
+
|
NA
|
–
|
|
Berrigan et al., 2006, Canada [148]
|
Balance control constraint during accurate and rapid arm movement
|
General population
|
17 (53%)
|
Body kinematics, center of pressure, displacement, reaction time, movement time
|
BMI
|
37(6.6)
|
+
|
NA
|
–
|
|
Teh et al., 2006, Singapore [149]
|
Pressure distribution under the feet
|
General population
|
120 (42%)
|
Plantar pressure distribution
|
BMI
|
I: 34.3 II: 38.9(3.6)
|
+/−
|
NA
|
–
|
|
Singh et al., 2009, USA [150]
|
obesity × task duration effect on postural sway and functional reach
|
Students & sedentary office workers
|
20 (50%)
|
Posture sway, functional reach
|
BMI / WHR
|
45.96(7.85)
|
+
|
NA
|
–
|
|
Blaszczyk et al., 2009, Poland [151]
|
Postural control
|
Obesity treatment clinic patients
|
133 (75%)
|
CP measures: voluntary displacement, path, range
|
BMI / %BF: BIA, WC,HC
|
37.2(5.2)
|
–
|
NA
|
–
|
|
Park et al., 2009, USA [152]
|
Postural stress during static posture maintenance
|
General population
|
40 (50%)
|
Rated perceived exertion
|
BMI / WHR,%BF estimated: ST
|
46.26(4.99)
|
+
|
NA
|
–
|
|
Menegoni et al., 2009, Italy [153]
|
Static posture variability
|
Orthopedic Rehabilitation Unit patients and staff (control)
|
54 (81%
|
Center of pressure velocity & displacements along the antero-posterior & medio-lateral axis
|
BMI
|
M:40.2(5), F: 41.1(4.1)
|
+
|
NA
|
+
|
|
Monteiro et al., 2010, Portugal [154]
|
Plantar pressure
|
Postmenopausal women
|
239 (79%)
|
Foot-scan pressure plate
|
%BF from BIA / BMI
|
29.6(3.2), 36.4(3.8)
|
+/−
|
NA
|
–
|
|
Miller et al., 2011, USA [155]
|
Balance recovery from small forward postural perturbations
|
Young adults (22 years old)
|
20 (50%)
|
Peak COM displacement, peak COM velocity, peak ankle torque
|
BMI
|
33.2(2.3)
|
–
|
NA
|
–
|
|
Matrangola & Madigan., 2011, USA [156]
|
Balance recovery using an ankle strategy
|
Young males
|
20 (50%
|
Body angle, ground reaction force
|
BMI
|
32.2(2.2)
|
+/−
|
NA
|
–
|
|
Peduzzi de Castro et al., 2014, Portugal [157]
|
Pressure relief insoles
|
General population
|
31 (32%)
|
Ground reaction force, plantar pressure
|
BMI
|
36.5(4.51)
|
+
|
NA
|
–
|
|
Task Functionality
|
Galli et al., 2000, Italy [158]
|
Motion strategies: sit-to-stand
|
General population + obese subjects suffering from chronic lower back pain
|
40 (75%)
|
Movement kinetics & kinematics
|
BMI
|
40(5.9)
|
+
|
NA
|
–
|
|
Sibella et al., 2003, Italy [159]
|
Biomechanical model: sit-to-stand
|
Hospital recovers
|
50 (80%)
|
Trunk flexion, feet movement, knee & hip joint torques
|
BMI
|
37.9(4.9)
|
+
|
NA
|
–
|
|
Lafortuna et al., 2006, Italy [160]
|
Energy cost of submaximal cycling
|
Lean: hospital staff, obese: hospital admits for body mass reduction
|
18 (50%)
|
Oxygen uptake, Vo2 max, anaerobic threshold, mechanical efficiency
|
BMI / %BF: BIA
|
40(1.2)
|
+
|
NA
|
–
|
|
Gilleard & Smith., 2007, Australia [161]
|
Postural adaptations: trunk forward flexion motion in sitting and standing
|
General Population
|
20 (50%)
|
Trunk flexion motion during forward flexion, trunk posture, hip joint moment
|
WC / BMI
|
38.9(6.6)
|
+/−
|
NA
|
–
|
|
Xu et al., 2008, USA [162]
|
Lifting kinematics & kinetics
|
College students
|
12 (50%)
|
Motion analysis
|
BMI
|
33.28 (30.4–38.8)
|
–
|
NA
|
+
|
|
Taboga et al., 2012, Italy [163]
|
Mechanical work, energy cost of transport, and efficiency: running
|
Hospital admits-adults from metabolic disorders
|
25 (40%)
|
Oxygen uptake, kinematics, center of mass location
|
BMI / %BF: BIA
|
41.5(5.3)
|
+
|
NA
|
–
|
|
Hendrick et al., 2012, USA [164]
|
Neural processes of cognitive control: stop signal test
|
General population
|
43 (30%)
|
Functional magnetic resonance imaging
|
BMI
|
33.2(2.6)
|
+
|
NA
|
+
|
|
Singh et al., 2013, USA [165]
|
Contact forces & moments exerted by the abdomen on the thigh: seated reaching
|
Older adults
|
10 (100%)
|
Motion analysis, force plate
|
BMI / WC
|
39.04(5.02)
|
+/−
|
NA
|
+
|
|
Schmid et al., 2013, Switzerland [166]
|
Kinetic & kinematic variables: sit-to-stand test.
|
Going to attend a weight loss program at hospital
|
36 (72%)
|
Vertical ground reaction forces, rising velocity (motion analysis)
|
BMI
|
I: 32.68(1.53), II: 39.42(2.71)
|
–
|
+/−
|
–
|
|
Pysiological Responses
|
Willenberg et al., 2010, Switzerland [167]
|
Venous flow parameters of the lower limbs
|
Students and medical staff
|
45 (49%)
|
Venous hemodynamics: Diameter, flow volume, peak, mean, & minimum velocities
|
BMI / WHR, WC
|
36.2(5.9)
|
+
|
NA
|
+
|
|
Engelberger et al., 2014, Switzerland [168]
|
Diurnal leg volume increase
|
Obese subjects: weight management clinic patients, general population
|
39 (62%)
|
Common femoral vein diameter, peak flow velocity, mean velocity & minimal velocity
|
BMI / WHR
|
40.2(5.9)
|
+
|
NA
|
–
|
|
Yang et al., 2015, China [169]
|
Acute high-altitude exposure
|
Chinese railroad construction workers
|
262 (46%)
|
Acute mountain sickness
|
BMI
|
29.9(3.8)
|
–
|
NA
|
–
|
|
Miscellaneous
|
Menegoni et al., 2007, Italy [170]
|
Clinical protocol to characterize the trunk movements
|
Lean: hospital staff, obese: hospital admits for diet therapy and exercise classes
|
20 (50%)
| |
BMI
|
38.7(3.5)
|
NA
|
NA
|
–
|
|
Forman et al., 2009, USA [171]
|
Restraint of automobile occupants
|
Post mortem human surrogates
|
5 (40%)
|
Chest deformation, acceleration, tension in the restraint system, etc.
|
BMI
|
40
|
+
|
NA
|
–
|
|
Lerner et al., 2014, USA [172]
|
Obesity-specific kinematic marker set to account for subcutaneous adiposity
|
General population
|
18 (50%)
|
Ground reaction force, walking kinematics, EMG
|
BMI
|
35(3.78)
|
NA
|
NA
|
–
|
|
Thorp et al., 2014, Australia [173]
|
Standing workstations effect on fatigue, musculoskeletal discomfort & work productivity
|
Middle-aged sedentary employees
|
23 (100%)
|
Self-reported fatigue, musculoskeletal discomfort, work productivity
|
BMI
|
33.7(4.3)
|
+
|
+
|
–
|