| Energy Balance, Hormonal Status, and Military Performance in Strenuous Winter Training |
Nykänen T, Ojanen T, Vaara JP, Pihlainen K, Heikkinen R, Kyröläinen H & Fogelholm M |
2023 |
International Journal of Environmental Research and Public Health 20(5), 4086 |
Experimental study, Male soldiers, N = 68 |
Applied use |
Energy Expenditure |
| Changes in Body Composition, Energy Metabolites and Electrolytes During Winter Survival Training in Male Soldiers |
Nykänen T, Ojanen T, Heikkinen R, Fogelholm M & Kyröläinen H |
2022 |
Frontiers in Physiology 13:797268 |
Experimental study; Male soldiers, N = 68 |
Applied use |
Energy Expenditure |
| Pulmonary Capacity, Blood Composition and Metabolism among Coal Mine Workers in High- and Low-Altitude Aboveground and Underground Workplaces |
Wang Y, Wang H, Chen Y, Xu N, Lee W & Lam W-K |
2022 |
International Journal of Environmental Research and Public Health, 19 (14), 8295 |
Experimental study; healthy male coal mine workers from Tibet (altitude 3990–4400m) and Tangshan (altitude 100-120m), N = 71 |
Applied use |
HR; HRV: Energy expenditure, TRIMP |
| Influence of chronic pain in physical activity of children with cerebral palsy |
Riquelme I, do Rosário R, Vehmaskoski K, Natunen P & Montoya P |
2018 |
NeuroRehabilitation, 43 (2): 113-123. |
Cross-sectional study; 4-16 y children, n=52 |
Applied use |
Energy expenditure |
| Cardiovascular and Energy Requirements of Parents Watching Their Child Compete: A Pilot Mixed-Methods Investigation |
Lochbaum M, Prosoli R, Barić R |
2017 |
Pedagogics, psychology, medical-biological problems of physical training and sports, 21(6):279–284 |
Qualitative study; Adults, n = 2 |
Applied use |
Energy Expenditure; Training Effect |
| Novel tools in determining the physiological demands and nutritional practises of Ontario FireRangers during fire deployments |
Robertson AH, Larivière C, Leduc CR, McGillis Z, Eger T, Godwin A, Larivière M & Dorman SC |
2017 |
PlosOne 12(1):e0169390 |
Cross-sectional study; Adult, n = 21 |
Applied use |
Energy expenditure; Stress and recovery |
| Validating the use of heart rate variability for estimating energy expenditurete variability for estimating energy expenditure |
Robertson AH, King K, Ritchie SD, Gauthier AP, Laurence M & Dorman SC |
2015 |
International Journal of Human Movement and Sports Sciences 3(2): 19-26 |
Cohort study; Adult, n = 30 |
Validity |
Energy expenditure; VO2max |
| Exercise for fitness does not decrease the muscular inactivity time during normal daily life |
Finni T, Haakana P, Pesola AJ & Pullinen T |
2014 |
Scandinavian Journal of Medicine and Science in Sport 24: 211-219 |
Cross-sectional study; Adult, n = 27 |
Applied use |
Energy expenditure |
| Heart rate variability recordings are a valid non-invasive tool for evaluating soldiers’ stress |
Salonen M, Kokko J, Tyysk J & Koivu M |
2013 |
Journal of Defence Studies and Resource Management |
Cross-sectional study |
Applied use; Usability |
Energy expenditure |
| Validation of heart rate monitor-based predictions of oxygen uptake and energy expenditure |
Montgomery P, Green D, Etxebarria N, Pyne D, Saunders P & Minahan C |
2009 |
Journal of Strength and Conditioning Research 23(5): 1489-1495 |
Cross-sectional study; Adult, n = 17 |
Validity |
Energy expenditure; VO2 |
| A novel method for using heart rate variability data for estimation of oxygen consumption and energy expenditure: A validation |
Smolander J, Rusko H, Ajoviita M, Juuti T & Nummela A |
2007 |
ECSS congress |
Cross-sectional study; Adult, n = 20 |
Validity |
Energy expenditure; VO2 |
| Energy expenditure can be accurately estimated from HR without individual laboratory calibration |
Pulkkinen A, Saalasti S & Rusko H |
2005 |
ACSM congress |
Cross-sectional study: Adult, n = 32 |
Validity |
Energy expenditure |