Characterisation of EN 1.4136 stainless steel heat-treated in solar furnace

被引:0
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作者
Ioan Milosan
Daniel Cristea
Ionelia Voiculescu
Mihai Alin Pop
Marianne Balat-Pichelin
Andra Mihaela Predescu
Cristina Aurica Bogatu
Tibor Bedo
Andrei-Constantin Berbecaru
Victor Geantă
Camelia Gabor
Luminita Anisoara Isac
Flavius Aurelian Sarbu
Gheorghe Oancea
机构
[1] Transilvania University of Brasov,Department of Materials Science, Faculty of Materials Science and Engineering
[2] Politehnica University of Bucharest,Department of Materials Technology and Welding, Faculty of Engineering and Management of Technological Systems
[3] PROMES-CNRS Laboratory,Department of Engineering and Management of Metallic Materials Obtaining, Faculty of Materials Science and Engineering
[4] Politehnica University of Bucharest,Department of Product Design, Mechatronics and Environment, Faculty of Product Design and Environment
[5] Transilvania University of Brasov,Department of Engineering and Industrial Management, Faculty of Technological Engineering and Industrial Management
[6] Transilvania University of Brasov,Department of Engineering Manufacturing, Faculty of Technological Engineering and Industrial Management
[7] Transilvania University of Brasov,undefined
关键词
1.4136 stainless steel characterizations; Concentrated solar energy; Heat treatment; Structure; Wear; Hardness;
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摘要
The paper presents a study concerning the characterisation of EN 1.4136 stainless steel heat-treated by means of concentrated solar energy in orde to improve some mechanical properties. In addition to the standard chemical composition, this steel was alloyed with nickel (Ni 1.5%wt) and copper (Cu 0.30%wt). Nickel was added to increase corrosion strength in acids, oxidising or non-oxidising environments, also facilitating an improved tenacity of the material. The addition of copper allows an increasing atmospheric corrosion strength (for copper content over 0.20%), at the same time intensifying the austenitising effect of nickel. The obtained steel was subjected to a solution heat treatment (hyper-hardening) with a heating time up to a austenitisation temperature (TA = 1050 °C) for 20 (lot A) and for 33 min (lot B), respectively. The maintaining duration for austenitisation was 7 (lot A) and 21 min (lot B), respectively, followed by cooling in water. After the heat treatment in the solar furnace, the specimens were analysed from the structural point of view as well as to their behaviour when subjected to tribological stress, in accordance with the operational requirements for these types of steels. The analysed characteristics were the dynamic friction coefficient (CoF), the wear rates and the hardness (HRC) tests. Based on the collected data, a specific characterisation was made for EN 1.4136 stainless steel heat-treated in a solar furnace. By applying the thermal treatments in the solar furnace, the hardness values have been increased (of about 55%) and the average wear rates have decreased compared to the base material.
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页码:2955 / 2964
页数:9
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