Detail publikačního výsledku

The influence of surface modifications of glass on glass fiber/polyester interphase properties

ČECH, V.; PŘIKRYL, R.; BÁLKOVÁ, R.; VANĚK, J.; GRYCOVÁ, A.

Original Title

The influence of surface modifications of glass on glass fiber/polyester interphase properties

English Title

The influence of surface modifications of glass on glass fiber/polyester interphase properties

Type

Peer-reviewed article not indexed in WoS or Scopus

Original Abstract

Unsized glass fibers and planar glass substrates were subjected to low temperature plasma or wet-chemical process to modify the fiber or substrate surface and thus influence the interphase properties of the glass/polyester system. Plasma-polymerized thin films (interlayers) of organosilicon monomers (hexamethyldisiloxane and vinyltriethoxysilane) were deposited in an RF helical coupling plasma system on the glass surface. Commercial silane coupling agent (vinyltriethoxysilane) was coated onto an unmodified glass surface from an aqueous solution. Bonding at the glass/interlayer interface was analyzed by employing a micro-scratch tester together with an optical polarizing microscope for the planar samples. The results revealed that the adhesion bonding could be controlled by plasma process parameters. Scanning electron and atomic force microscopies enabled characterization of the film surface morphology. Chemical composition and chemical structure of prepared interlayers were characterized using X-ray photoelectron and infrared spectroscopies. Microcomposites (macrocomposites) were tested to evaluate the interfacial shear strength (short-beam strength) of the glass fiber/polyester interphase using the microbond test (short-beam shear). Our study indicated that the most efficient interphase could be prepared by plasma polymerization or wet-chemical process using the vinyltriethoxysilane monomer. The short-beam strength was 110% higher than that for untreated fibers in both cases.

English abstract

Unsized glass fibers and planar glass substrates were subjected to low temperature plasma or wet-chemical process to modify the fiber or substrate surface and thus influence the interphase properties of the glass/polyester system. Plasma-polymerized thin films (interlayers) of organosilicon monomers (hexamethyldisiloxane and vinyltriethoxysilane) were deposited in an RF helical coupling plasma system on the glass surface. Commercial silane coupling agent (vinyltriethoxysilane) was coated onto an unmodified glass surface from an aqueous solution. Bonding at the glass/interlayer interface was analyzed by employing a micro-scratch tester together with an optical polarizing microscope for the planar samples. The results revealed that the adhesion bonding could be controlled by plasma process parameters. Scanning electron and atomic force microscopies enabled characterization of the film surface morphology. Chemical composition and chemical structure of prepared interlayers were characterized using X-ray photoelectron and infrared spectroscopies. Microcomposites (macrocomposites) were tested to evaluate the interfacial shear strength (short-beam strength) of the glass fiber/polyester interphase using the microbond test (short-beam shear). Our study indicated that the most efficient interphase could be prepared by plasma polymerization or wet-chemical process using the vinyltriethoxysilane monomer. The short-beam strength was 110% higher than that for untreated fibers in both cases.

Keywords

composite, glass fiber, interface/interphase

Key words in English

composite, glass fiber, interface/interphase

Authors

ČECH, V.; PŘIKRYL, R.; BÁLKOVÁ, R.; VANĚK, J.; GRYCOVÁ, A.

Released

01.01.2003

ISBN

0169-4243

Periodical

JOURNAL OF ADHESION SCIENCE AND TECHNOLOGY

Volume

10

Number

17

State

Kingdom of the Netherlands

Pages from

1299

Pages count

21

Full text in the Digital Library

BibTex

@article{BUT41356,
  author="Vladimír {Čech} and Radek {Přikryl} and Radka {Bálková} and Jan {Vaněk} and Alena {Grycová}",
  title="The influence of surface modifications of glass on glass fiber/polyester interphase properties",
  journal="JOURNAL OF ADHESION SCIENCE AND TECHNOLOGY",
  year="2003",
  volume="10",
  number="17",
  pages="21",
  issn="0169-4243"
}