Introduction. One of main features deciding on functional abilities and agility of a man is his conative efficiency. The aim of the study was to determine the influence of physical effort on changes of skin temperature of each body areas and the analysis of dependence between the body temperature and the level of maximum absorption of oxygen (VO2max). Material and methods: The study group consisted of 7 women at about average age of 23.86 (+-0.69) years. All participants of the study were healthy, did not have overweight nor chronic illnesses. They also did not do sport professionally. During the research each participant performed the effort in the form of 6 - 8-minute-long step Astrand - Rhyming test and then 10-12-minute-long run on the athletic track. Before and after the effort the women were examined by means of thermo visual cameras (temperature in front and back of the body). In the moment of effort ending studied persons had heart rate measured with heart rate monitor. Results. Statistically non-exchangeable temperature reduction of body surface on thighs, forearms, arms, trunk (both in front as well as the back) and behind shins was observed during the study. The greatest drop of about -1.13 В°C, appeared behind shoulders, least, about -0.04 В°C, on the back surface of the trunk. Only on front side of shins the temperature increased in non-exchangeable manner, about +0.06 В°C. The important dependence (p<0.05) between the change of temperature in front (r=-0.82) and the back of the trunk (r=-0.78) as well as VO2max was shown. Conclusions: The higher pulse was measured at the studied participant the lower VO2max values were. There is dependence between the thermal reaction and the efficiency - the greater drop of temperature on the trunk the higher VO2max was. Thermal observation can be therefore helpful as indirect estimation of the efficiency in medicine and rehabilitation.


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Author Biography

Dariusz Białoszewski, Medical University of Warsaw



<p>Żołądź J.A. <i>Physiology of physical effort; </i>[Fizjologia wysiłku fizycznego] Elsevier Urban &amp; Partner; Wrocław 2012, pp. 765 – 789.</p>

<p>Zielińska D., Rynkiewicz A. Influence of complex cardiac rehabilitation on physical efficiency and quality of life of patients with impaired left ventricular[Wpływ kompleksowej rehabilitacji kardiologicznej na wydolność fizyczną i jakość życia chorych z upośledzoną czynnością lewej komory serca]. <i>Via Medica</i>. 2006, vol.3(13), pp. 208-213.</p>

<p>Kurkus – Rozowska B. Influence of rehabilitation on physical efficiency improvement in disabled people [Wpływ rehabilitacji na poprawę wydolności fizycznej osób niepełnosprawnych ruchowo]. <i>Safety of work</i> [Bezpieczeństwo Pracy], 2002, vol.3, pp. 21-25.</p>

<p>Gołębiowski T., Weyde W., Kusztal M. Physical exercise In the rehabilitation of dialysis patients. <i>Postepy Hig Med Dosw.</i> 2009, vol.63, pp. 13-22.</p>

<p>Traczyk W.Z. <i>Basic of human physiology</i> [Fizjologia człowieka w zarysie], Publisher Medical PZWL, Warsaw, 2006, pp. 255-258.</p>

<p>Żołądź J.A.<i>. </i>Human physical efficiency[Wydolność fizyczna człowieka]. <i>Physiological basis of exercise </i>[Fizjologiczne podstawy wysiłku fizycznego], Publisher Medical PZWL, Warsaw, 2006, pp. 465 – 536.</p>

<p>Thomas S.G., Weller I.M., Cox M.H. Sources of variation in oxygen consumption during a stepping task. <i>Medicine and Science in sport and exercise.</i> 1993, vol.25(1), pp. 139-144.</p>

<p>Chudecka M., Lubkowska A. The use of thermal imaging to evaluate body temperature changes of athletes during training and a study on the impact of physiological and morphological factors on skin temperature. <i>Human Movement</i>. 2012, vol.13, pp. 33-39.</p>

<p>Akimov E.B., Andreev R.S., Arkov V.V. Thermal “portrait” of sportsmen with different aerobic capacity. <i>Acta</i> <i>Kinesjologiae Universitatis Tartuensis</i>. 2009, vol.14, pp. 7 – 16.</p>

<p>Adamczyk J.G. <i>Evaluation of body’s reaction for physical effort by thermographic imaging</i> [Ocena reakcji organizmu na wysiłek fizyczny metodą obrazowania termograficznego]. Studies and monographs, Warsaw, AWF, 2013, 144 p.</p>

<p>Torii M., Yamasaki M. Sasaki T. Fall in skin temperature of exercising man. <i>British Journal of Sports Medicine</i>. 1992, vol.26, pp. 29 – 32.</p>

<p>Chudecka M., Lubkowska A. Temperature changes of selected body’s surfaces of handball players in the course of training estimated by thermovision, and the study of the impact of physiological and morphological factors on the skin temperature. <i>Journal of Thermal Biology</i>. 2010, vol.35(8), pp. 379-385.</p>

<p>Adamczyk J.G., Boguszewski D., Siewierski M.. Physical Effort Ability in Counter Movement Jump Depending on the Kind of Warm-Up and Surface Temperature of the Quadriceps. <i>Baltic Journal of Health and Physical Activity.</i> 2012, vol.3, pp. 164 – 171.</p>

<p>Merla A., Mattei P.A., DiDonato L. Thermal imaging of cutaneous temperature modifications in runners during graded exercise. <i>Annals of Biomedical Engineering.</i> 2012, vol.38, pp. 158 – 163.</p>

<p>Johnson J.M. Exercise and cutaneous circulation. <i>Exercise and Sport Sciences Reviews</i>. 1992, vol.20, pp. 59 – 97.</p>

<p>Zontak A., Sideman S., Verbitsky O. Dynamic thermography: analysis of hand temperature during exercise. <i>Annals of Biomedical Engineering</i>. 1998, vol.26, pp. 988 – 993.</p>

<p>Zaidi H., Taiar R., Fohanno S. The influence of swimming type on the skin – temperature maps of a competitive swimmer from infrared thermography. <i>Acta of Bioengineering and Biomechanics</i>. 2007, vol.9, pp. 47 – 51.</p>

<p>Ludwig N., Gargano M., Formenti D. Breathing training characterization by thermal imaging: case a study. <i>Acta of Bioengineering and Biomechanics</i>. 2012, vol.14, pp. 41 – 47.</p>

<p>Ferreira J.J., Mendonc C.S., Nunes L.A.O. Exercise as socjated thermographic changes in young and elderly subjects. <i>Annals of Biomedical Engineering</i>. 2008, vol.36, pp. 1420 – 1427.</p>

<p>Bertmaring I., Babski-Reeves K. Infrared imaging of the anterior deltoid during overhead static exertions. <i>Ergonomics</i>. 2008, vol.51, pp. 1606 – 1619.</p>

<p>Merla A., Iodice P., Tangherlini A. Monitoring skin temperature in trained and untrained subjects throughout thermal video. <i>Medicine and Biology Society</i>. 2005, vol.2, pp. 1684 – 1686.</p>

<p>Formenti D., Ludwig N., Gargano M.. Thermal imaging of exercise – associated skin temperature changes in trained and untrained female subjects<i>, Biomedical Engineering Society</i>, 2013, vol.41(4), pp. 863 – 871.</p>

<p>Merla A., Mattei P.A., DiDonato L. Thermal imaging of cutaneous temperature modifications in runners during graded exercise. <i>Annals of Biomedical Engineering</i>. 2012, vol.38, pp. 158 – 163.</p>



How to Cite

Adamczyk JG, Mastej M, Boguszewski D, Białoszewski D. USAGE OF THERMOGRAPHY AS INDIRECT NON-INVASIVE METHOD OF EVALUATION OF PHYSICAL EFFICIENCY. PILOT STUDY. Pedagogics, psychology, medical-biological problems of physical training and sports. 2014;18(3):90-5.

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