Effect of microparticles of titanium diboride and nanoparticles of titanium carbonitride on the structure and properties of deposited metal

Artem’ev, A. A.; Соколов, Г. Н.; Lysak, V. I.

doi:10.1007/s11041-012-9442-2

Cited by 7 publications

(6 citation statements)

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“…where m E and m F are the specific weights of the electrode and additional wires, respectively, g/cm 3 , V E is the velocity of the electrode wire feeding depending on the welding current range, cm/s, k F is the factor of the filling of the additional wire with the modifier, γ BM is the base metal share in the deposited one, and the modifier weight fraction, M MOD , in the deposited metal for the experiments was chosen within the range of 0.002 to 0.006, which is sufficient for lean metal modification.…”

Section: Resultsmentioning

confidence: 99%

“…It is known that the ultrafine particles of refractory compounds in electrode deposited materials (flux-cored and composite wires, coated electrodes) increase the mechanical and working properties of arc-deposited alloys [1][2][3]. However, the refractory particles contact with the arc plasma and overheated liquid drops form on the electrode butt, which activates their dissociation process.…”

Section: Introductionmentioning

confidence: 99%

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A Production Method for Wear-Resistant Deposited Coatings Modified with TiN Particles

Artem’ev

Соколов

Antonov

et al. 2017

KEM

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Section: Resultsmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

A Production Method for Wear-Resistant Deposited Coatings Modified with TiN Particles

Artem’ev

Соколов

Antonov

et al. 2017

KEM

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“…are used for this purpose for surfacing [13][14][15][16][17]. The positive effect of titanium and zirconium diborides on the wear resistance of chromium-nickel martensiton-aging steels deposited by flux-cored wires has been established [18][19][20][21][22]. Special interest is the use for this purpose of boron nitride, which is due to the similarity of a number of properties, the electronic analogue of carbon [23].…”

Section: Introductionmentioning

confidence: 99%

Wear Resistance and Characteristics of the Friction Surface of Metal Coatings with Nitride-Boride Alloying

Eremin

Losev

Borodikhin

2020

SSP

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The wear resistance and characteristics of the friction surface of metal coatings with nitride-boride alloying are investigated. The object of the study was the steel deposited with flux-cored wire containing 15% chromium, 0.5% boron nitride, 1.25% titanium di-boride and 0,5% zirconium di-boride. It was established that the average value of the relative wear per test was 0.00416 g/m, which is 1.8 times less than that of the coating metal without borides. The average value of linear wear was 0.0122 mm/m, which is 1,9 times less than that of the coating metal without borides. The average value of the friction torque for the entire friction path in 339 m was 20.96 Nm. The coefficient of friction was 0.425. The hardness of such a metal reaches a maximum value of 57 HRC. The micro-hardness of structural objects is for the matrix 617-648 HV, eutectic 764-847 HV and strengthening phases 1128-1247 HV. It is shown that the metal structure is an iron-chromium martensitic matrix with a eutectic component, formed on the basis of boride (Fe, Cr)2B and high-strength nitride ε-(Fe, Cr)2-3N, which is an effective obstacle to dislocation slip under conditions of plastic deformation of the surface at wear.

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“…The addition of alloying elements in the welding wire is one approach to address heat input limitations and maintain arc stability [28]. Studies suggest that nanoparticles in the welding wire and coating on the weld bead can have significant benefit for the weld joint qualities [29,30]. There are various ways of introducing nanomaterials into welding processes, for example, as coating on the welding wire, in the form of a composite flux cored wire, as coating on the weld groove, and by injecting nanoparticles in the shielding gas [29][30][31].…”

Section: Introductionmentioning

confidence: 99%

“…Studies suggest that nanoparticles in the welding wire and coating on the weld bead can have significant benefit for the weld joint qualities [29,30]. There are various ways of introducing nanomaterials into welding processes, for example, as coating on the welding wire, in the form of a composite flux cored wire, as coating on the weld groove, and by injecting nanoparticles in the shielding gas [29][30][31]. Research has indicated that nanoparticle coating on the welding wire can bring considerable benefits compared to conventional welding wire [32].…”

Section: Introductionmentioning

confidence: 99%

High-strength steel S960QC welded with rare earth nanoparticle coated filler wire

Vimalraj

Kah

Layus

et al. 2018

Int J Adv Manuf Technol

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High-strength steel S960 is one of a number of advanced steels able to meet the demands of the shipbuilding, offshore, and construction industries for a favorable good high strength/weight ratio. Gas metal arc welding (GMAW) is commonly used in all structural steel fabrication, and developments in GMAW have removed previous limitations regarding high heat input and have reduced flaws. One solution for controlled heat input while ensuring a stable arc is alloying the welding wire. Usage of nanoparticles as an alloying element in welding wire have shown significant improvements in weld properties. This study investigates an S960QC joint welded with a welding wire having Lanthanum (La) nanoparticles as a coating and examines the influence of La on the welding parameters, arc stability, microstructure formation, and mechanical properties. The results are compared with a weld formed with conventional Union X96 welding wire. The microstructures observed in the weld region were martensite and tempered martensite for both wires. In the heat-affected zone, microstructures of upper bainite, martensite, tempered martensite, and globular bainite were found. The La nanoparticle-coated wire provided a stable arc during welding. However, due to the increase in wire thickness, manual wire feeding was required. The impact toughness was lower in the joint formed with the nanoparticle-coated wire. Additionally, the hardness at the fusion region was higher in the joint welded with the nanoparticle-coated wire.

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Effect of microparticles of titanium diboride and nanoparticles of titanium carbonitride on the structure and properties of deposited metal

Cited by 7 publications

References 0 publications

A Production Method for Wear-Resistant Deposited Coatings Modified with TiN Particles

A Production Method for Wear-Resistant Deposited Coatings Modified with TiN Particles

Wear Resistance and Characteristics of the Friction Surface of Metal Coatings with Nitride-Boride Alloying

High-strength steel S960QC welded with rare earth nanoparticle coated filler wire

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