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Surface & Coatings Technology
2022,
Vol.
437
5.
DOI:
10.1016/j.surfcoat.2022.128372
Carbon deposition and argon post-treatment of polyurethane surface: Structural-mechanical and fracture properties
Morozov I.A.
Beliaev A.Y.
Izumov R.I.
Bannikov M.V.
Kamenetskikh A.S.
Scherban M.G.
Kiselkov D.M.
Surface & Coatings Technology
2022,
Vol.
437
5.
DOI:
10.1016/j.surfcoat.2022.128372
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认领
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来源:
NSTL
Carbon deposition and argon post-treatment of polyurethane surface: Structural-mechanical and fracture properties
Morozov I.A.
1
Beliaev A.Y.
1
Izumov R.I.
1
Bannikov M.V.
1
Kamenetskikh A.S.
2
Scherban M.G.
3
Kiselkov D.M.
4
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作者信息
1.
Institute of Continuous Media Mechanics UB RAS
2.
Institute of Electrophysics UB RAS
3.
Perm State University
4.
Institute of Technical Chemistry UB RAS
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Abstract
© 2022 Elsevier B.V.Modification of polymeric surface by plasma ions has perspectives in creating flexible functional materials; their deformation behavior is one of the most important properties, as poor fracture resistance cancels all advantages. Carbon ions were deposited on the surface of elastic polyurethane with subsequent argon treatment. Created carbon-containing nanolayer has increased wettability and nonuniform local mechanical properties. Uniaxial extension to strains >100% induces discontinuous microcracks of carbon-modified surfaces but their propagation is constrained by inhomogeneities of the modified layer. Argon post-treatment improves wettability further but makes local mechanical properties uniform that decreases the fracture resistance. Multi-cycle uniaxial loading to 50% doesn't damage the surface but forms in the modified layer weakened domains – precursors of failure; this improves crack resistance at strains >100% a mesh of disordered microcracks appears preventing propagation of long cracks.
Key words
Argon treatment
/
Carbon deposition
/
Fatigue loading
/
Fracture resistance
/
Polyurethane
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出版年
2022
Surface & Coatings Technology
Surface & Coatings Technology
ISTP
ISSN:
0257-8972
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