Epoxidized Dinaphthol Application as the Basis for Binder with Advanced Carbonation Level to Reducing its Flammability

Kostiantyn Afanasenko; Andrii Romin; Yuriy Klyuchka; Volodymyr Lypovyi; Khalid Hasanov

doi:10.4028/www.scientific.net/MSF.1006.41

Paper Titles

Consideration of Thermodynamic Processes Formation of Compressed-Air Foam in Design Compressed Air Foam Systems
p.11

Protection of Wood from Burning with Paints on Alkaline Aluminosilicates-Based
p.19

Formation of Fire Retardant Properties in Elastic Silica Coatings for Textile Materials
p.25

Research of Mechanism of Fire Protection with Wood Lacquer
p.32

Epoxidized Dinaphthol Application as the Basis for Binder with Advanced Carbonation Level to Reducing its Flammability
p.41

Features of some Polymer Building Materials Behavior at Heating
p.47

Improvement of Fire Resistance of Polymeric Materials at their Filling with Aluminosilicates
p.55

Study Insulating and Cooling Properties of the Material on the Basis of Crushed Foam Glass and Determination of its Extinguishing Characteristics with the Attitude to Alcohols
p.62

Mathematical Modeling of Fire-Proof Efficiency of Coatings Based on Silicate Composition
p.70

HomeMaterials Science ForumMaterials Science Forum Vol. 1006Epoxidized Dinaphthol Application as the Basis for...

Epoxidized Dinaphthol Application as the Basis for Binder with Advanced Carbonation Level to Reducing its Flammability

Abstract:

The possibility of using polymers based on epoxyphenolic binders to obtain fiberglass with an intense level of carbonization has been investigated. The correlation between the pyrolytic transformations intensity and the fire hazard indicators of polymers is shown. It is established that the conditions for the intensive passage of pyrolytic reactions are facilitated by the presence in the matrix system of conjugated aromatic (naphthalene) radicals. The C/H ratio in the carbonized layer is confirmed by the data of IR spectroscopy both at the preparation stage and after exposure to characteristic temperatures.

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Periodical:

Materials Science Forum (Volume 1006)

Pages:

41-46

DOI:

https://doi.org/10.4028/www.scientific.net/MSF.1006.41

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Online since:

August 2020

Authors:

Kostiantyn Afanasenko*, Andrii Romin, Yuriy Klyuchka, Volodymyr Lypovyi, Khalid Hasanov

Keywords:

Carbon Residue, Carbonization, Ignition Temperature, Infrared Spectrum, Oxygen Index, Thermal Destruction, Weight Loss

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