Study of Hydrothermal Behavior of Thermal Insulating Materials Based On Natural Fibers
Thermal insulation materials based on natural fibers
represent a very promising area of materials based on natural easy
renewable row sources. These materials may be in terms of the
properties of most competing synthetic insulations, but show
somewhat higher moisture sensitivity and thermal insulation
properties are strongly influenced by the density and orientation of
fibers. The paper described the problem of hygrothermal behavior of
thermal insulation materials based on natural plant and animal fibers.
This is especially the dependence of the thermal properties of these
materials on the type of fiber, bulk density, temperature, moisture and
the fiber orientation.
[1] Xu, Jianying, Ryo Sugawara, Ragil Widyorini, Guangping HAN a
Shuichi KAWAI. Manufacture and properties of low-density binderless
particleboard from kenaf core. Journal of Wood Science. 2004-2-1, vol.
50, issue 1, s. 62-67.
[2] Korjenic, Azra, Vít Petránek, Jiří Zach a Jitka Hroudová. Development
and performance evaluation of natural thermal-insulation materials
composed of renewable resources. Energy and Buildings. 2011, vol. 43,
issue 9, s. 2518-2523
[3] Khedari, Joseph, Noppanun Nankongnab, Jongjit Hirunlabh, Sombat
Teekasap a Shuichi Kawai. New low-cost insulation particleboards from
mixture of durian peel and coconut coir. Building and Environment.
2004, vol. 39, issue 1, s. 59-65
[4] Annex D des CUAPS: (Annex D des CUAPs „Factory-made thermal
insulation material and/or acoustic insulation material made of vegetable
fibres; edition Oktober 2009"). oktober 2009.
[5] Korjenic, Azra a Thomas Bednar. Developing a model for fibrous
building materials. Energy and Buildings. 2011, vol. 43, issue 11, s.
3189-3199
[6] Manohar, Krishpersad, Dale Ramlakhan, Gurmohan Kochhar, Subhas
Haldar a Shuichi Kawai. Biodegradable fibrous thermal insulation.
Journal of the Brazilian Society of Mechanical Sciences and
Engineering. 2006, vol. 28, issue 1, s. - (cit. 2013-10-24).
[7] Arambakam, R., H. Vahedi Tafreshi a B. Pourdeyhimi. A simple
simulation method for designing fibrous insulation materials. Materials.
2013, vol. 44, s. 99-106
[8] EN 822 Thermal insulating products for building applications.
Determination of length and width, 2013
[9] EN 823 Thermal insulating products for building applications.
Determination of thickness
[10] EN 1602 Thermal insulating products for building applications.
Determination of the apparent density
[11] ISO 8301 Thermal insulation -- Determination of steady-state thermal
resistance and related properties -- Heat flow meter apparatus, Amd1:
2010
[12] EN 12667 Thermal performance of building materials and products.
Determination of thermal resistance by means of guarded hot plate and
heat flow meter methods. Products of high and medium thermal
resistance
[13] ISO 10 456. Building materials and products -- Hygrothermal properties
-- Tabulated design values and procedures for determining declared and
design thermal values, 2012
[1] Xu, Jianying, Ryo Sugawara, Ragil Widyorini, Guangping HAN a
Shuichi KAWAI. Manufacture and properties of low-density binderless
particleboard from kenaf core. Journal of Wood Science. 2004-2-1, vol.
50, issue 1, s. 62-67.
[2] Korjenic, Azra, Vít Petránek, Jiří Zach a Jitka Hroudová. Development
and performance evaluation of natural thermal-insulation materials
composed of renewable resources. Energy and Buildings. 2011, vol. 43,
issue 9, s. 2518-2523
[3] Khedari, Joseph, Noppanun Nankongnab, Jongjit Hirunlabh, Sombat
Teekasap a Shuichi Kawai. New low-cost insulation particleboards from
mixture of durian peel and coconut coir. Building and Environment.
2004, vol. 39, issue 1, s. 59-65
[4] Annex D des CUAPS: (Annex D des CUAPs „Factory-made thermal
insulation material and/or acoustic insulation material made of vegetable
fibres; edition Oktober 2009"). oktober 2009.
[5] Korjenic, Azra a Thomas Bednar. Developing a model for fibrous
building materials. Energy and Buildings. 2011, vol. 43, issue 11, s.
3189-3199
[6] Manohar, Krishpersad, Dale Ramlakhan, Gurmohan Kochhar, Subhas
Haldar a Shuichi Kawai. Biodegradable fibrous thermal insulation.
Journal of the Brazilian Society of Mechanical Sciences and
Engineering. 2006, vol. 28, issue 1, s. - (cit. 2013-10-24).
[7] Arambakam, R., H. Vahedi Tafreshi a B. Pourdeyhimi. A simple
simulation method for designing fibrous insulation materials. Materials.
2013, vol. 44, s. 99-106
[8] EN 822 Thermal insulating products for building applications.
Determination of length and width, 2013
[9] EN 823 Thermal insulating products for building applications.
Determination of thickness
[10] EN 1602 Thermal insulating products for building applications.
Determination of the apparent density
[11] ISO 8301 Thermal insulation -- Determination of steady-state thermal
resistance and related properties -- Heat flow meter apparatus, Amd1:
2010
[12] EN 12667 Thermal performance of building materials and products.
Determination of thermal resistance by means of guarded hot plate and
heat flow meter methods. Products of high and medium thermal
resistance
[13] ISO 10 456. Building materials and products -- Hygrothermal properties
-- Tabulated design values and procedures for determining declared and
design thermal values, 2012
@article{"International Journal of Architectural, Civil and Construction Sciences:68047", author = "J. Zach and J. Hroudova and J. Brozovsky", title = "Study of Hydrothermal Behavior of Thermal Insulating Materials Based On Natural Fibers", abstract = "Thermal insulation materials based on natural fibers
represent a very promising area of materials based on natural easy
renewable row sources. These materials may be in terms of the
properties of most competing synthetic insulations, but show
somewhat higher moisture sensitivity and thermal insulation
properties are strongly influenced by the density and orientation of
fibers. The paper described the problem of hygrothermal behavior of
thermal insulation materials based on natural plant and animal fibers.
This is especially the dependence of the thermal properties of these
materials on the type of fiber, bulk density, temperature, moisture and
the fiber orientation.
", keywords = "Thermal insulating materials, hemp fibers, sheep
wool fibers, thermal conductivity, moisture.", volume = "8", number = "9", pages = "995-4", }
