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ASTM Selected Technical Papers
Performance of Protective Clothing and Equipment: 11th Volume, Innovative Solutions to Evolving Challenges
By
Karen Lehtonen
Karen Lehtonen
Symposium Chair and STP Editor
1
LION
,
Dayton, OH,
US
Search for other works by this author on:
Brian P. Shiels
Brian P. Shiels
Symposium Chair and STP Editor
2
ArcWear
,
Louisville, KY,
US
Search for other works by this author on:
R. Bryan Ormond
R. Bryan Ormond
Symposium Chair and STP Editor
3
North Carolina State University
,
Raleigh, NC,
US
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ISBN:
978-0-8031-7694-2
No. of Pages:
319
Publisher:
ASTM International
Publication date:
2020

Manikins have been used for almost 100 years to help understand the properties of clothing materials and garments. Data from sweating manikins also have been used within thermoregulation computer models to estimate the physiological responses of humans. In recent years, the development of the ManikinPC system has incorporated a thermoregulation model into a thermal sweating manikin system to provide a real-time analysis of predicted physiological response. This paper describes an experimental study that demonstrates the utility of this manikin–model system to predict the effects of three composite materials used in firefighter suits on human physiological response. This study addresses this question: Can ManikinPC emulate the physiological response of a controlled wear trial using three different sets of firefighter turnout gear in one environmental condition? The average core temperature, skin temperature, and sweat loss from human subjects are compared with the predicted values generated from the manikin coupled with the model. Results indicate similar trends and ranking of the three suits. The data revealed slightly higher predictive responses from the manikin–model system compared with the collected human data.

1.
Endrusick
T. L.
,
Stroschein
L. A.
, and
Gonzalez
R. R.
, “
Thermal Manikin History
,”
U.S. Army Research Institute of Environmental Medicine
,
2013
, http://web.archive.org/web/20170507091446/https://www.usariem.army.mil/index.cfm/about/divisions/bbmd/thermal_manikin
2.
Katić
K.
,
Li
R.
, and
Zeiler
W.
,
“Thermophysiological Models and Their Applications: A Review
,”
Building and Environment
106
(
2016
): 286–300,
3.
Fiala
D.
,
Lomas
K. J.
, and
Stohrer
M.
,
“A Computer Model of Human Thermoregulation for a Wide Range of Environmental Conditions: The Passive System
,”
Journal of Applied Physiology
87
(
1999
): 1957–1972,
4.
Fiala
D.
,
Lomas
K. J.
, and
Stohrer
M.
,
“Computer Prediction of Human Thermoregulatory and Temperature Responses to a Wide Range of Environmental Conditions
,”
International Journal of Biometerology
45
(
2001
): 143–159,
5.
Wissler
E. H.
,
“Mathematical Simulation of Human Thermal Behavior Using Whole Body Models
,” in
Heat Transfer in Medicine and Biology
, ed.
Eberhart
R. C.
and
Shitzer
A.
(
New York, NY
:
Plenum Press
,
1985
), 325–373,
6.
Yi
L.
,
Fengzhi
L.
,
Yingxi
L.
, and
Zhongxuan
L.
,
“An Integrated Model for Simulating Interactive Thermal Processes in Human–Clothing System
,”
Journal of Thermal Biology
29
(
2004
): 567–575,
7.
Al-Othmani
M.
,
Ghaddar
N.
, and
Ghali
K.
,
“A Multi-Segmented Human Bioheat Model for Transient and Asymmetric Radiative Environments
,”
International Journal of Heat and Mass Transfer
51
(
2008
): 5522–5533,
8.
Standard Test Method for Measuring the Thermal Insulation of Clothing Using a Heated Manikin
, ASTM F1291-16 (
West Conshohocken, PA
:
ASTM International
, approved October 1,
2016
),
9.
Standard Test Method for Measuring the Evaporative Resistance of Clothing Using a Sweating Manikin
, ASTM F2370-16 (
West Conshohocken, PA
:
ASTM International
, approved October 1,
2016
),
10.
Psikuta
A.
,
Annaheim
S.
, and
Rossi
R. M.
,
“Thermo-Physiological Simulation
,” in
Manikins for Textile Evaluation
, ed.
Nayak
R.
and
Padhye
R.
(Cambridge, U.K:
Woodhead Publishing
,
2017
), 331–349,
11.
Blood
K.
and
Burke
R.
, “
Further Validation of the Model-Controlled Newton Thermal Manikin against Historical Human Studies
” (paper presentation, Eighth International Meeting for Manikins and Modelling,
Victoria, BC
, August 22–26,
2010
).
12.
Burke
R.
,
Blood
K.
,
Deaton
A. S.
, and
Barker
R.
, “
Application of Model-Controlled Manikin to Predict Human Physiological Response in Firefighter Turnout Gear
” (paper presentation, Eighth International Meeting for Manikins and Modelling,
Victoria, BC
, August 22–26,
2010
).
13.
Blood
K.
and
Burke
R.
, “
Further Validation of a Model-Controlled Thermal Manikin Using Firefighter Turnout Gear
” (paper presentation, Fifth European Conference on Protective Clothing,
Valencia, Spain
, May 29–31,
2012
).
14.
DenHartog
E. A.
,
Fang
X.
, and
Deaton
A. S.
,
“Effects of Total Heat Loss versus Evaporative Resistance of Firefighter Garments in a Physiological Heat Strain Trial
,” in
Performance of Protective Clothing and Equipment: 11th Volume, Innovative Solutions to Evolving Challenges
, ed.
Lehtonen
K.
,
Shiels
B. P.
, and
Ormond
R. B.
(
West Conshohocken, PA
:
ASTM International
,
2020
), 204–221,
15.
Test Method for Thermal and Evaporative Resistance of Clothing Materials Using a Sweating Hot Plate
, ASTM F1868-17 (
West Conshohocken, PA
:
ASTM International
, approved June 1,
2017
),
16.
Burke
R.
,
Curran
A.
, and
Hepokoski
M.
, “
Integrating an Active Physiological and Comfort Model to the Newton Sweating Thermal Manikin
” (paper presentation, International Conference on Environmental Ergonomics,
Boston, MA
, August 2–7,
2009
.
17.
Pandolf
K. B.
,
Givoni
B.
, and
Goldman
R. F.
,
“Predicting Energy Expenditure with Loads while Standing or Walking Very Slowly
,”
Journal of Applied Physiology: Respiratory, Environmental, and Exercise Physiology
43
(
1977
): 577–581,
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