On Defect Minimization Caused by Oxide Phase Formation in Laser Powder Bed Fusion

The article is devoted to the compressive review of the defects observed in the products of the machinery usage made mainly of anti-corrosion steels of the martensite-austenite group, difficult to process materials such as pure titanium, nickel, and their alloys, super and high entropy alloys and tr...

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Main Authors: Anna A. Okunkova, Semen R. Shekhtman, Alexander S. Metel, Nadegda A. Suhova, Sergey V. Fedorov, Marina A. Volosova, Sergey N. Grigoriev
Format: Article
Language:English
Published: MDPI AG 2022-04-01
Series:Metals
Subjects:
Online Access:https://www.mdpi.com/2075-4701/12/5/760
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author Anna A. Okunkova
Semen R. Shekhtman
Alexander S. Metel
Nadegda A. Suhova
Sergey V. Fedorov
Marina A. Volosova
Sergey N. Grigoriev
author_facet Anna A. Okunkova
Semen R. Shekhtman
Alexander S. Metel
Nadegda A. Suhova
Sergey V. Fedorov
Marina A. Volosova
Sergey N. Grigoriev
author_sort Anna A. Okunkova
collection DOAJ
description The article is devoted to the compressive review of the defects observed in the products of the machinery usage made mainly of anti-corrosion steels of the martensite-austenite group, difficult to process materials such as pure titanium, nickel, and their alloys, super and high entropy alloys and triple fusions produced by laser additive manufacturing, particularly the laser powder bed fusion. Studies were conducted on the structural defects observed in such products to improve their quality in the context of residual stress elimination, porosity reduction, and surface roughness improvement. Electrophysical and electrochemical treatment methods of removing oxide phase formation during melting and remelting of deposed tracks in layers are considered (such as ultrasound, plasma, laser, spark treatment, induction cleaning, redox annealing, gas–flame, plasma–beam, plasma–spark treatment). Types of pollution (physical and chemical) and cleaning methods, particularly plasma-based methods for oxide phase removing, are classified. A compressive comparison of low- and high-pressure plasma sources is provided. Special attention is focused on the atmospheric plasma sources based on a dielectric barrier and other discharges as a part of a production setup that presents the critical value of the conducted review in the context of the novelty for transition to the sixth technology paradigm associated with the Kondratieff’s waves.
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spelling doaj.art-36a737375ba14b849697297d6de5be442023-11-23T12:08:53ZengMDPI AGMetals2075-47012022-04-0112576010.3390/met12050760On Defect Minimization Caused by Oxide Phase Formation in Laser Powder Bed FusionAnna A. Okunkova0Semen R. Shekhtman1Alexander S. Metel2Nadegda A. Suhova3Sergey V. Fedorov4Marina A. Volosova5Sergey N. Grigoriev6Department of High-Efficiency Processing Technologies, Moscow State University of Technology STANKIN, 127055 Moscow, RussiaDepartment of High-Efficiency Processing Technologies, Moscow State University of Technology STANKIN, 127055 Moscow, RussiaDepartment of High-Efficiency Processing Technologies, Moscow State University of Technology STANKIN, 127055 Moscow, RussiaDepartment of High-Efficiency Processing Technologies, Moscow State University of Technology STANKIN, 127055 Moscow, RussiaDepartment of High-Efficiency Processing Technologies, Moscow State University of Technology STANKIN, 127055 Moscow, RussiaDepartment of High-Efficiency Processing Technologies, Moscow State University of Technology STANKIN, 127055 Moscow, RussiaDepartment of High-Efficiency Processing Technologies, Moscow State University of Technology STANKIN, 127055 Moscow, RussiaThe article is devoted to the compressive review of the defects observed in the products of the machinery usage made mainly of anti-corrosion steels of the martensite-austenite group, difficult to process materials such as pure titanium, nickel, and their alloys, super and high entropy alloys and triple fusions produced by laser additive manufacturing, particularly the laser powder bed fusion. Studies were conducted on the structural defects observed in such products to improve their quality in the context of residual stress elimination, porosity reduction, and surface roughness improvement. Electrophysical and electrochemical treatment methods of removing oxide phase formation during melting and remelting of deposed tracks in layers are considered (such as ultrasound, plasma, laser, spark treatment, induction cleaning, redox annealing, gas–flame, plasma–beam, plasma–spark treatment). Types of pollution (physical and chemical) and cleaning methods, particularly plasma-based methods for oxide phase removing, are classified. A compressive comparison of low- and high-pressure plasma sources is provided. Special attention is focused on the atmospheric plasma sources based on a dielectric barrier and other discharges as a part of a production setup that presents the critical value of the conducted review in the context of the novelty for transition to the sixth technology paradigm associated with the Kondratieff’s waves.https://www.mdpi.com/2075-4701/12/5/760surface cleaninglaser powder bed fusionselective laser meltingatmospheric plasma sourcesdielectric barrier dischargenickel alloy
spellingShingle Anna A. Okunkova
Semen R. Shekhtman
Alexander S. Metel
Nadegda A. Suhova
Sergey V. Fedorov
Marina A. Volosova
Sergey N. Grigoriev
On Defect Minimization Caused by Oxide Phase Formation in Laser Powder Bed Fusion
Metals
surface cleaning
laser powder bed fusion
selective laser melting
atmospheric plasma sources
dielectric barrier discharge
nickel alloy
title On Defect Minimization Caused by Oxide Phase Formation in Laser Powder Bed Fusion
title_full On Defect Minimization Caused by Oxide Phase Formation in Laser Powder Bed Fusion
title_fullStr On Defect Minimization Caused by Oxide Phase Formation in Laser Powder Bed Fusion
title_full_unstemmed On Defect Minimization Caused by Oxide Phase Formation in Laser Powder Bed Fusion
title_short On Defect Minimization Caused by Oxide Phase Formation in Laser Powder Bed Fusion
title_sort on defect minimization caused by oxide phase formation in laser powder bed fusion
topic surface cleaning
laser powder bed fusion
selective laser melting
atmospheric plasma sources
dielectric barrier discharge
nickel alloy
url https://www.mdpi.com/2075-4701/12/5/760
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