Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Effect of Air Blowing inside Isolated Hospital Clothing on Perceptual and Physiological Heat Strain in Laboratory Conditions

View through CrossRef
Abstract Heat stress is one of the most common complaints of health care employees who wear isolation gowns to protect themselves from biological agents, particularly during the warmer seasons. This study was conducted in climatic chamber to determine the influence of airflow within isolated hospital gowns on physiological-perceptual heat strain indices. The experiment was conducted in three stages: regular clothes, a impenetrable gown, and gown with air blowing at a temperature conditions of 27°C and 25% relative humidity. At each stage, physiological-perceptual responses data were recorded for a half-hour on a treadmill at a speed of km h− 2 and a slope of 0% activity at 5-minute intervals. There was a significant difference in mean scores for thermal discomfort and sweat sensation in both sexes when working in regular clothes, gowns, and gown with air blowing (P < 0.001). In women, the mean scores for thermal sensation, thermal discomfort, and sweat sensation reduced considerably (P < 0.001) in the gown and gown with air blowing in the amount of 10 and 12 cfm, but in males, there was a statistically significant difference between mean scores (P < 0.001) in the gown with air blowing at 12 and 14 cfm. Additionally, the mean heart rate, chest temperature, and temperature inside the gown were observed in women in 12 cfm air blowing, and the greatest mean temperature inside the gown, chest temperature, and the back temperature were observed in men in 14 cfm air blowing (P < 0.001). The usage of an air blower in isolated hospital clothes has been shown to influence physiological-perceptual parameters in men and women substantially. The existence of airflow in these gowns can improve safety, performance, and thermal comfort while also decreasing the risk of heat-related disorders.
Title: Effect of Air Blowing inside Isolated Hospital Clothing on Perceptual and Physiological Heat Strain in Laboratory Conditions
Description:
Abstract Heat stress is one of the most common complaints of health care employees who wear isolation gowns to protect themselves from biological agents, particularly during the warmer seasons.
This study was conducted in climatic chamber to determine the influence of airflow within isolated hospital gowns on physiological-perceptual heat strain indices.
The experiment was conducted in three stages: regular clothes, a impenetrable gown, and gown with air blowing at a temperature conditions of 27°C and 25% relative humidity.
At each stage, physiological-perceptual responses data were recorded for a half-hour on a treadmill at a speed of km h− 2 and a slope of 0% activity at 5-minute intervals.
There was a significant difference in mean scores for thermal discomfort and sweat sensation in both sexes when working in regular clothes, gowns, and gown with air blowing (P < 0.
001).
In women, the mean scores for thermal sensation, thermal discomfort, and sweat sensation reduced considerably (P < 0.
001) in the gown and gown with air blowing in the amount of 10 and 12 cfm, but in males, there was a statistically significant difference between mean scores (P < 0.
001) in the gown with air blowing at 12 and 14 cfm.
Additionally, the mean heart rate, chest temperature, and temperature inside the gown were observed in women in 12 cfm air blowing, and the greatest mean temperature inside the gown, chest temperature, and the back temperature were observed in men in 14 cfm air blowing (P < 0.
001).
The usage of an air blower in isolated hospital clothes has been shown to influence physiological-perceptual parameters in men and women substantially.
The existence of airflow in these gowns can improve safety, performance, and thermal comfort while also decreasing the risk of heat-related disorders.

Related Results

Gas blow mode of blowing period of blast furnaces
Gas blow mode of blowing period of blast furnaces
The purpose of the work is to generalize the experience of varying the gas-blowing parameters in the blowing periods of blast furnaces and to develop recommendations for further im...
Evolution of Antimicrobial Resistance in Community vs. Hospital-Acquired Infections
Evolution of Antimicrobial Resistance in Community vs. Hospital-Acquired Infections
Abstract Introduction Hospitals are high-risk environments for infections. Despite the global recognition of these pathogens, few studies compare microorganisms from community-acqu...
Blowing snow in Antarctica and its contribution to the surface mass balance
Blowing snow in Antarctica and its contribution to the surface mass balance
&lt;p&gt;On the windiest, coldest and driest continent of the world, blowing snow is frequently active, especially during the winter months. Coastal regions with strong kat...
British Food Journal Volume 44 Issue 12 1942
British Food Journal Volume 44 Issue 12 1942
Heat also facilitates the transmission of water through the cell walls, thereby assisting its passage from the interior to the surface of the material; it increases the vapour pres...
Air convection in coarse blocky permafrost : a numerical modelling approach to improve the understanding of the ground thermal regime
Air convection in coarse blocky permafrost : a numerical modelling approach to improve the understanding of the ground thermal regime
Permafrost is a thermal phenomenon, defined as subsurface material with a temperature remaining below 0°C for at least two consecutive years. Permafrost occurs at high latitudes an...
Effect of ocean heat flux on Titan's topography and tectonic stresses
Effect of ocean heat flux on Titan's topography and tectonic stresses
INTRODUCTIONThe thermo-mechanical evolution of Titan's ice shell is primarily controlled by the mode of the heat transfer in the ice shell and the amount of heat coming from the oc...
Combining Solution-Blowing and Melt-Blowing Techniques to Produce an Efficient Non-Woven Filter
Combining Solution-Blowing and Melt-Blowing Techniques to Produce an Efficient Non-Woven Filter
New substances and particles appearing in the environment following technological development pose new challenges for separation methods. Moreover, the growing amount of waste also...

Back to Top