Detail publikačního výsledku
Plasmachemical surface modification of glass fibers to enhance shear strength of fiber reinforced composites
ČECH, V.
Original Title
Plasmachemical surface modification of glass fibers to enhance shear strength of fiber reinforced composites
English Title
Plasmachemical surface modification of glass fibers to enhance shear strength of fiber reinforced composites
Type
Paper in proceedings (conference paper)
Original Abstract
Plasma polymerization technique was employed for continuous surface modification of glass fiber bundles in order to enhance the shear strength of polyester resin reinforced by the fibers. Systematic analyses of composite interphase enabled us to specify the key factors influencing shear properties of the fiber reinforced composite and discover optimal solution. Accomplished results demonstrate know how to control composite performance by way of surface modification of reinforcements.
English abstract
Plasma polymerization technique was employed for continuous surface modification of glass fiber bundles in order to enhance the shear strength of polyester resin reinforced by the fibers. Systematic analyses of composite interphase enabled us to specify the key factors influencing shear properties of the fiber reinforced composite and discover optimal solution. Accomplished results demonstrate know how to control composite performance by way of surface modification of reinforcements.
Keywords
surface modification; thin film; glass fiber; FRC
Key words in English
surface modification; thin film; glass fiber; FRC
Authors
ČECH, V.
Released
13.12.2007
ISBN
978-80-239-8857-4
Book
XXIV: Vyztužené plasty / Reinforced Plastics
Pages from
48
Pages to
54
Pages count
7
Full text in the Digital Library
BibTex
@inproceedings{BUT28334,
author="Vladimír {Čech}",
title="Plasmachemical surface modification of glass fibers to enhance shear strength of fiber reinforced composites",
booktitle="XXIV: Vyztužené plasty / Reinforced Plastics",
year="2007",
pages="48--54",
isbn="978-80-239-8857-4"
}