Experimental Evaluation of Thermal Protection Properties of Volume Textile Materials

Article Preview

Abstract:

In the article research results are presented, which aim to provide evaluation of thermal protection properties of volume textile materials. However, as a result of experts wearing it has been revealed that by their operational performance their characteristicsare quite high to such materials: Holofiber, Tinsulate, Arctic, etc. At the present time to research thermal protection properties of sewing materials methods are used that can be divided into 2 groups: Methods based on the principle of steady heat mode and Methods based on the principle of unsteady (regular) mode. New device has been developed which allows to simplify both the schematic diagram and the methodological approach to experimental evaluation of thermal protection properties of volume textile materials. The corresponding experimental research were held based on the developed bicalorimeter. Study results allowed to establish heat insulation material «ArcticP» possesses the highest thermal resistance.It is located with its metallized coating facing outside. High values of thermal protection properties of this material are explained by availability of metallized coating from outer side which ensures partial heat reflection.. The research was made in Don State Technical University within the framework of State Assignment of the Ministry of education and science of Russia under the project 11.9194.2017/БЧ.

You might also be interested in these eBooks

Info:

Periodical:

Pages:

916-921

Citation:

Online since:

May 2020

Export:

Price:

Permissions CCC:

Permissions PLS:

Сopyright:

© 2020 Trans Tech Publications Ltd. All Rights Reserved

Share:

Citation:

* - Corresponding Author

[1] R. Shishoo, Recent developments in materials for use in protective clothing, International Journal of Clothing Science and Technolog, June 2002. 14 (2002) 201-215.

DOI: 10.1108/09556220210437167

Google Scholar

[2] P.W. Gibson, C. Lee, F. Ko, D. Reneker Application of Nanofiber Technology to Nonwoven Thermal Insulation, Journal of Engineered Fibers and Fabrics. 2(2009) 32-40.

DOI: 10.1177/155892500700200204

Google Scholar

[3] I. Cherunova , S. Tashpulatov, S. Kolesnik, Automation of Deformed Fibrous Materials Thermal Characteristics Accounting Process in Garments Production, IEEE Xplore, (2018) Information on https://ieeexplore.ieee.org/document/8501795.

DOI: 10.1109/rusautocon.2018.8501795

Google Scholar

[4] I.V. Cherunova, M.P. Stenkima, P.V. Cherunov, Investigation of the structure and properties of flexible polymeric materials for integration with thin heat conductors structural membranes, Structural Membranes – 2017. (2017) 210-216.

Google Scholar

[5] R.A. Granger, Experiments in Heat Transfer and Thermodynamics, Cambridge University Press, (2012).

Google Scholar

[6] M. Baczek – Baczek, L. Hes, Determination of heat transfer by radiation in textile fabrics by means of method with known emissivity of plates, Journal of Industrial Textiles, 44(2014) 115–129.

DOI: 10.1177/1528083713480377

Google Scholar

[7] Materials for clothes, The method for determining the total thermal resistance, RF. GOST 20489-75 (1975).

Google Scholar

[8] Ergonomics of the thermal environment, Determination and interpretation of cold stress when using required clothing insulation (IREQ) and local cooling effects', International Organisation for Standardisation, Geneva, EN ISO 11079 (2007).

DOI: 10.3403/30118491u

Google Scholar

[9] Yu.N. Nekrasov, M.V. Rodicheva, A.V. Uvarov, Device for determination of heat-shielding properties of sewing materials, MGUDT, (2000) 59-60.

Google Scholar

[10] V.A. Osipova, Experimental study of heat transfer processes, Energiya, (1979).

Google Scholar

[11] A.F. Mills, B.H. Chang, Error analysis of experiments, University of California, (2004).

Google Scholar

[12] I.V. Cherunova, M.P. Stenkima, P.V. Cherunov, Investigation of the structure and properties of flexible polymeric materials for integration with thin heat conductors structural membranes, Structural Membranes – 2017. (2017) 210-216.

Google Scholar

[13] I. Cherunova, M. Dhone, N. Kornev, Coupled thermo-aerodynamical Problems in design of protection Cloth, COUPLED PROBLEMS-2015. (2015) 1303-1311.

Google Scholar

[14] G. Havenith, R. Hws, W.A. Lotens, Resultant clothing insulation: a function of body movement, posture, wind, clothing fit and ensemble thickness, ERGONOMICS. 33 (1990) 67-84.

DOI: 10.1080/00140139008927094

Google Scholar

[15] E.D. Andersen Linear optimization: Theory, methods, and Extensions, MOSEK APS, (2010).

Google Scholar

[16] I.V. Cherunova, S.A. Kolesnik, S.V. Kurenova, Yu.V. Eremina, A.V. Merkulova, P.V. Cherunov, Study of the structural and acoustic properties of clothing materials for thermal protection of human, International Journal of Applied Engineering Research. 10 - 9 (2015) 40506-40512.

Google Scholar

[17] Standard Test Method for Thickness of Textile Materials, ASTM D1777, 96, (2015).

Google Scholar

[18] P. Cherunov, I. Cherunova, S. Knyazeva, M. Stenkina, E. Stefanova, N. Kornev, The Development of the Research Techniques of Structure and Properties of Composite Textile Materials when Interacting with Viscous Fractions of Hydrocarbon Compounds, Structural Membranes – 2015. (2015) 555-564.

Google Scholar

[19] Information on http://legprom.net/?id=1452.

Google Scholar

[20] Information on https://www.uio.no/studier/emner/matnat/ifi/INF-GEO4310/h09/ undervisningsmateriale/imaging-kap2.pdf.

Google Scholar