Cover Image

Quasicrystal structure in Al – Cu – Fe PVD coatings

Saved in:

Bibliographic Details
Date:	2013
Main Authors:	N. V. Zaitseva, S. M. Zakharov, T. D. Vnukova, V. V. Zholud
Format:	Article
Language:	English
Published:	2013
Series:	Metal Science and Treatment of Metals
Online Access:	http://jnas.nbuv.gov.ua/article/UJRN-0000412245
Tags:	Add Tag No Tags, Be the first to tag this record!
Journal Title:	Library portal of National Academy of Sciences of Ukraine \| LibNAS

Institution

Library portal of National Academy of Sciences of Ukraine | LibNAS

Similar Items

Corrosion behaviour of quasicrystal Al – Cu – Fe and Al – Ni – Fe alloys in acidic solutions
by: O. V. Sukhova, et al.
Published: (2018)

Thermoactivation analysis of temperature dependence of hardness in quasicrystals of the system Al—Cu—Fe
by: Yu. V. Milman, et al.
Published: (2022)

Coatings of the Ti-Al-N system deposited by PVD methods
by: A. A. Luchaninov, et al.
Published: (2012)

Wear and blanking performance of an AlCrN PVD coated punch.
by: Çöl, M., et al.
Published: (2012)

Wear and blanking performance of an AlCrN PVD coated punch
by: M. Зцl, et al.
Published: (2012)

Image Sampling with Quasicrystals
by: Grundland, M., et al.
Published: (2009)

PVD Ti coating on Sm-Co magnets
by: Bovda, O.M., et al.
Published: (2008)

Corrosion resistance of Nd-Fe-B magnets with PVD protecting coatings modified by pulsed plasma treatment
by: Bovda, O.M., et al.
Published: (2008)

Structure and mechanical properties of high-entropy AlCuNiFeCr and AlCuNiFeCrTi coatings obtained by electron beam surfacing
by: O. I. Yurkova, et al.
Published: (2017)

Structure and corrosion properties of quasi-crystal cast alloys and film Al–Cu–Fe coatings
by: S. I. Riabtsev, et al.
Published: (2020)

Structure features and properties of hard Ti-Al-N and superhard Ti-Si-N nanocomposite coatings deposited using PVD in HF discharge
by: A. D. Pogrebnjak, et al.
Published: (2008)

Structure and properties of FeCr, CrAl and FeCrAl coatings deposited by cathodic arc evaporation
by: Vasilenko, R.L., et al.
Published: (2021)

Structure of Fe-Cu coatings prepared by the magnetron sputtering method
by: Nowakowska-Langier, K., et al.
Published: (2010)

Clinical analysis of blood traces of rats after subcutaneous implantation of Nd-Fe-B magnets with protective PVD ZrN coatings
by: Kutsevliak, V.I., et al.
Published: (2021)

Heat protective properties of thermal coatings, containing quasi-crystalline alloy Al–Cu–Fe
by: A. L. Borisova, et al.
Published: (2012)

Покрытия системы Ti-Al-N, нанесенные PVD методами
by: Лучанинов, А.А., et al.
Published: (2012)

Investigation of process of formation of structure and properties in magnetron nanolayer FeAl-coatings
by: Ju. S. Borisov, et al.
Published: (2017)

Effect of deposition parameters on microstructure and tribological properties of hard CA-PVD multi-component TiAlCrN and TiAlCrCN coatings
by: Misiruk, I.O., et al.
Published: (2020)

Сharacterization of ARC-PVD ZrN nanostructured coatings by using the fractals theory
by: Romaniuk, S.P., et al.
Published: (2022)

Synthesis and characterisation of nanocrystalline ZrN PVD coatings on AISI 430 stainless steel
by: Taran, A.V., et al.
Published: (2019)

Structure and properties of oxyde coatings on substrates of Al-Cu and Al-Mg alloys manufactured using electrolyte-plasma oxidation
by: A. D. Pogrebnjak, et al.
Published: (2008)

Structure and properties of coatings based on FeCrAl and Cr18Ni10T
by: Belous, V.А., et al.
Published: (2020)

Study of degradation mechanism of metal-cutting tools and their hardening by ZrN PVD coatings
by: Skoblo, T.S., et al.
Published: (2018)

The features of structure formation at synthesis of high entropy alloys of Al – Cr – Fe – Ni – Cu, Al – Ti – Cr – Fe – Ni – Cu and Ti – Cr – Fe – Ni – Cu systems by means of powder metallurgy
by: H. A. Bahliuk, et al.
Published: (2015)

Comparative characterization of ARC-PVD ZrN and PEO hydroxyapatite coatings on pure Ti-6Al-4V substrates for biomedical applications
by: Garkusha, I.E., et al.
Published: (2023)

Ion-plasma deposition of thin quasicrystalline Al-Cu-Fe and Al-Cu-Co films
by: Ryabtsev, S.I., et al.
Published: (2020)

Structure and substructure variations of icosahedral Ti₄₁.₅Zr₄₁.₅Ni₁₇ quasicrystals under irradiation imitating outer space factors
by: Bazdyreva, S.V., et al.
Published: (2015)

Plasma coatings on ZrO2 base using alloy AlCuFe as a metallic sublayer
by: A. L. Borisova, et al.
Published: (2010)

Properties of coatings of the Al–Cr–Fe–Co–Ni–Cu–V high entropy alloy produced by the magnetron sputtering
by: L. R. Shaginjan, et al.
Published: (2016)

Корозійна поведінка квазікристалічних сплавів Al – Cu – Fe та Al – Ni – Fe у розчинах кислот
by: Sukhova, O. V., et al.
Published: (2018)

Corrosion properties of oxide ceramic coatings based on Al–Cu–Mg and Al–Mg alloys
by: L. M. Bilyi, et al.
Published: (2021)

Structure and Properties of A356—AlCuFe Composite Obtained Using Electromagnetic Agitation
by: S. S. Polishchuk, et al.
Published: (2014)

Receive Fe-based nanoparticles in a nacl matrix by EB-PVD on a rotating substrate
by: Yu. A. Kurapov, et al.
Published: (2021)

The influence of hydrogen peroxide on composition and porosity of oxide ceramic coatings on Al–Si–Cu ta Al–Cu–Mg alloys
by: V. M. Posuvailo, et al.
Published: (2021)

Conditions of producing defect-free quasi-crystalline Al–Cu–Fe coatings using the method of electron beam deposition in vacuum
by: S. S. Polishchuk, et al.
Published: (2014)

Comparison of corrosion of aluminum-based alloys forming decagonal quasicrystals in NaCl solution
by: Polonskyy, V.A., et al.
Published: (2022)

Detonation coatings produced by spraying of alloyed powders based on Fe–Al intermetallics
by: N. V. Vigilianska, et al.
Published: (2024)

New quasi-atomic nanostructures containing exciton quasimolecules and exciton quasicrystals: theory
by: S. I. Pokutnyi
Published: (2019)

Corrosion strength of plasma coatings based on composite powders with FeAl intermetallic
by: N. V. Vihilianska, et al.
Published: (2022)

Electrical resistivity of Ti₄₁.₅Zr₄₁.₅Ni₁₇ quasicrystals in the temperature region 0.3–300 K
by: Azhazha, V.M., et al.
Published: (2005)