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ASTM Selected Technical Papers
Performance of Protective Clothing
By
RL Barker
RL Barker
1
North Carolina State University School of Textiles
,
Raleigh, NC 27650
;
symposium chairman and editor
.
Search for other works by this author on:
GC Coletta
GC Coletta
2
Risk Control Services, Inc.
,
Tiburon, CA 94920
;
symposium chairman and editor
.
Search for other works by this author on:
ISBN-10:
0-8031-0461-8
ISBN:
978-0-8031-0461-7
No. of Pages:
653
Publisher:
ASTM International
Publication date:
1986

The type of fiber and flame-retardant compound plays an important role in the transfer of heat through clothing when exposed to flames or molten metals. The fiber/flame retardant should preferably form a well-developed char on exposure to heat, without softening or melting, to retain low thermal conductivity of the fabric and also prevent adhesion of molten metal onto the fabric, thereby avoiding excess heat transfer through clothing. Wool performed extremely well in practice and in the draft International Organization for Standardization (ISO) tests evaluated, because of its good char-forming property, which is further enhanced by the Zirpro flame-retardant treatments. Fabric construction parameters—weight, thickness, and density—are important for a given fiber type with regard to protection against flames and molten metal. Also, accumulation of moisture in clothing has a significant effect; in multilayer clothing assemblies, the accumulation of moisture in outer fabric layers as a result of exposure to water increases protection against flame by increasing fabric heat capacity, whereas the accumulation of moisture (body perspiration) in the inner layer when wearing clothing containing a vapor barrier significantly decreases protection against flames by increasing the fabric thermal conductivity. High moisture permeability of wool clothing demonstrably reduces wearer heat stress. Interlaboratory evaluations of two draft ISO test methods for molten metal splashes showed superior repeatability and reproducibility of the test method based on a polyvinyl chloride (PVC) skin simulant as an end-point detection system in comparison with a calorimeter heat sensor. The response and sensitivity of calorimeter heat sensors were significantly affected by the calorimeter construction, contamination, and damage during testing and by the location of the heat sensor vis-á-vis the poured metal.

1.
Benisek
,
L.
,
Edmondson
,
G. K.
, and
Phillips
,
W. A.
,
Textile Research Journal
 0040-5175, Vol.
49
,
1979
, pp. 212–221.
2.
Benisek
,
L.
,
Edmondson
,
G. K.
, and
Phillips
,
W. A.
,
Fire and Materials
 0308-0501, Vol.
3
,
1979
, pp. 156–166.
3.
Benisek
,
L.
and
Phillips
,
W. A.
,
Clothing Research Journal
, Vol.
7
,
1979
, pp. 2–20.
4.
Benisek
,
L.
and
Edmondson
,
G. K.
,
Textile Research Journal
 0040-5175, Vol.
51
,
1981
, pp. 182–190.
5.
Benisek
,
L.
and
Phillips
,
W. A.
,
Textile Research Journal
 0040-5175, Vol.
51
,
1981
, pp. 191–196.
6.
Holcombe
,
B. V.
,
Fire Safety Journal
, Vol.
6
,
1983
, pp. 129–141.
7.
Mehta
,
P. N.
,
Textile Research Journal
 0040-5175, Vol.
50
,
1980
, pp. 185–193.
8.
Shalev
,
I.
and
Barker
,
R. L.
,
Textile Research Journal
 0040-5175, Vol.
53
,
1983
, pp. 475–482.
9.
Krasny
,
J. F.
,
Singleton
,
R. W.
, and
Pettingill
,
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,
Fire Technology
 0015-2684, Vol.
18
,
1982
, pp. 309–318.
10.
Barker
,
R. L.
and
Yener
,
M.
,
Textile Research Journal
 0040-5175, Vol.
51
,
1981
, pp. 533–541.
11.
Mehta
,
P. N.
and
Norman
,
D. L.
,
Textile Research Journal
 0040-5175, Vol.
53
,
1983
, pp. 153–159.
12.
Linde
,
P. J. G. van de
and
Lotens
,
W. A.
, “
Restraint by Clothing upon Firefighters Performance
,” in
Proceedings
, International Conference on Protective Clothing Systems,
Stockholm, Sweden
,
1981
.
13.
Atterbom
,
H. A.
and
Mossman
,
P. B.
, “
Effect of Impermeable Clothing and Respirator on Work Performance
,”
Proceedings
, 19th International Congress on Occupational Health,
Dubrovnik, Yugoslavia
,
Plestina
R.
, Ed.,
Institute of Medical Health and Occupational Health
, Vol.
3
,
1980
, pp. 1301–1322.
14.
Davies
,
D. G.
, “
The Development of Protective Clothing for Coke Oven Workers
,”
Proceedings
, Ergonomics Society Conference on Clothing and the Working Man,
Loughborough University
,
Loughborough, England
,
1979
, pp. 57–81.
15.
Stoll
,
A. M.
and
Chianta
,
M. A.
,
Aerospace Medicine
 0001-9402, Vol.
41
,
1969
, pp. 1232–1238.
16.
Proctor
,
T. C.
, “
Research into Equipment for Protection Against Molten Metal Splashes
,”
Proceedings
, Second International Conference on Protective Equipment,
Torremolinos, Spain
,
1982
, pp. 653–678.
17.
Kaye
,
G. W. C.
and
Laby
,
T. H.
,
Table of Physical and Chemical Constants
,
Longman
,
London
,
1973
, pp. 60–61.
18.
Morton
,
W. E.
and
Hearle
,
J. W. S.
,
Physical Properties of Textile Fibers
,
Textile Institute
,
London
,
1975
, p. 590.
19.
Benisek
,
L.
,
Journal of the Textile Institute
, Vol.
65
,
1974
, pp. 102–108.
20.
Benisek
,
L.
,
Journal of the Textile Institute
, Vol.
65
,
1974
, pp. 140–145.
21.
Gordon
,
P. G.
,
McMahon
,
D. T. N.
, and
Stephens
,
L. J.
,
Textile Research Journal
 0040-5175, Vol.
47
,
1977
, pp. 699–711.
22.
Benisek
,
L.
and
Craven
,
P. C.
,
Textile Research Journal
 0040-5175, Vol.
53
,
1983
, pp. 438–442.
23.
Stepniczka
,
H. E.
,
Industrial and Engineering Chemistry Products Research and Development
, Vol.
12
,
1973
, pp. 29–41.
24.
Baitinger
,
W. F.
,
Proceedings of Symposium on Textile Flammability
,
LeBlanc Research Corp.
,
RI
,
1978
, p. 168.
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