Strukturmikro、Kekerasan和Ketahanan Korosi Baja Tahan Karat马氏体13Cr3Mo3Ni在变温度和Waktu Austenisasi淬火回火后的组织、硬度和耐腐蚀性

IF 0.6 Q4 METALLURGY & METALLURGICAL ENGINEERING
Siska Prifiharni, Denni Ahmad, Andini Juniarsih, Efendi Mabruri
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引用次数: 1

摘要

410型马氏体不锈钢已广泛用于汽轮机系统中的汽轮机叶片。它们的性能可以通过各种方式得到改善,如改性元件和热处理。在这种情况下,改性不锈钢是热锻然后退火的13Cr-3Mo-3Ni马氏体不锈钢。然后制备了13Cr-3Mo-3Ni马氏体不锈钢并进行了热处理。马氏体不锈钢13Cr-3Mo-3Ni在950、1000、1050和1100°C的温度下奥氏体化1和3小时,然后在油中淬火。淬火后,材料在650°C下回火1小时。对材料进行了几项检查,如用rockwell C进行硬度测试、用光学显微镜进行金相测试和用CMS(腐蚀测量系统)进行腐蚀测试。结果表明,马氏体不锈钢13Cr3Mo3Ni[UNK]在950°C奥氏体化1小时和650°C回火1小时[UNK]的硬度值最低,硬度值为33。5 HRC,最低腐蚀速率为0。02 mpy,而在1100°C的奥氏体化温度下3小时和650°C的回火1小时的情况下,Ş的硬度值最高,硬度值为46。2 HRC,腐蚀速率最高1。62英里/小时。所形成的微观结构为马氏体、碳化物和铁素体δ相。奥氏体化温度1100°C时硬度增加是由于马氏体相中碳化物含量增加。然而,随着碳化物中Cr和Mo含量的降低,淬火过程中形成的碳化物沉淀会降低耐腐蚀性。摘要410型抗巴哈马氏体通常用于蒸汽轮机的涡轮机斜坡应用。这种耐空手道行为可以通过多种方式修复,一种是通过修改410耐空手道元素和热处理。然后对热锻工艺中修改后的特征公差装药进行了分析。然后制备样品并进行热处理。热处理过程是在950、1000、1050和1100°C的温度下进行1和3小时的奥氏体化,并使用油介质冷却。在650°C的温度过程中诊断为1小时的样品。然后测试样品在热处理过程后的暴力性、结构微观性和耐腐蚀性。结果表明,在奥氏体化温度950℃持续1小时时,暴力和腐蚀的最低值,在奥氏体化温度1100℃持续3小时时,最高值。这可能是因为马氏体结构发生变化,在更高的奥氏体化温度下变得更硬。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Strukturmikro, Kekerasan, dan Ketahanan Korosi Baja Tahan Karat Martensitik 13Cr3Mo3Ni Hasil Quench-Temper dengan Variasi Temperatur dan Waktu Austenisasi [Microstructure, Hardness, and Corrosion Resistant of Martensitic Stainless Steel 13Cr3Mo3Ni after Quench-Temper with Various Austenization Tempe
Martensitic stainless steel type 410 have been extensively used for turbine blade in steam turbine system. Their properties can be improved in various ways, such as modification element and heat treatment. The modified stainless steel in this case is martensitic stainless steel 13Cr-3Mo-3Ni were hot forged then annealed. Afterwards, martensitic stainless steel 13Cr-3Mo-3Ni were prepared and heat treated. Martensitic stainless steel 13Cr-3Mo-3Ni were austenized at temperature 950, 1000, 1050, dan 1100 °C for 1 and 3 hour followed by quench in oil. After quenching, material were tempered at 650°C for 1 hour. Several examinations were carried out on the material such as of hardness test with rockwell C, metallographic using optical microscope, and corrosion test using CMS ( c orrosion m easurement s ystem). The results show that martensitic stainless steel 13Cr3Mo3Ni  at austenitizing temperature of 950 °C for 1 hour and tempering at 650 °C for 1 hour  has the lowest hardness value with hardness value was 33 . 5 HRC and the lowest corrosion rate 0 . 02 mpy, whereas  at austenitizing temperature of 1100 °C for 3 hours and tempering at 650 °C for 1 hour has the highest hardness value with hardness value was 46 . 2 HRC and the highest corrosion rate 1 . 62 mpy. The microstructures formed are martensite, carbide, and ferrite delta phases. Increased hardness at austenitizing temperature 1100 °C is due to an increase in carbide content in the martensite phase. However, carbide precipitation formed during quenching process can decrease corrosion resistance as Cr and Mo levels decrease in carbides . Abstrak Baja tahan karat martensitik tipe 410 biasa digunakan untuk aplikasi sudu turbin pada steam turbine. Perilaku baja tahan karat jenis ini dapat diperbaiki dengan berbagai cara, salah satunya yaitu dengan cara memodifikasi unsur baja tahan karat tipe 410 tersebut dan perlakuan panas. Baja tahan karat yang telah dimodifikasi dilakukan proses hot forging kemudian dianil. Sampel kemudian dipreparasi dan dilakukan proses perlakuan panas. Proses perlakuan panas yang dilakukan yaitu austenitisasi pada variasi suhu 950, 1000, 1050, dan 1100⁰C selama 1 dan 3 jam dan didinginkan dengan menggunakan media oli. Sampel yang telah diaustenitiasi dilakukan proses temper pada suhu 650⁰C selama 1 jam. Sampel tersebut kemudian dilakukan uji kekerasan, strukturmikro, dan ketahanan korosi yang terjadi setelah melalui proses perlakuan panas. Hasil menunjukkan bahwa nilai kekerasan dan laju korosi yang paling rendah pada suhu austenitisasi 950⁰C selama 1 jam dan paling tinggi pada suhu austenitisasi 1100⁰C selama 3 jam. Hal ini dapat terjadi karena adanya perubahan struktur martensit yang menjadi lebih kasar pada suhu austenitisasi yang lebih tinggi.
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来源期刊
Metalurgija
Metalurgija 工程技术-冶金工程
CiteScore
1.20
自引率
33.30%
发文量
64
审稿时长
4-8 weeks
期刊介绍: The journal Metalurgija is primary scientific periodical that publishes scientific papers (original papers, preliminary notes, reviewed papers) as well as professional papers from the area of basic, applicable and developing researching in metallurgy and boundary metallurgy areas (physics, chemistry, mechanical engineering). These papers relate to processing ferrous and non-ferrous metallurgy, treating investigating as well as testing of raw materials, semi products and products, especially in the area of improving new materials and possibilities of their implementation. The journal is the only national periodical of this kind in the Republic of Croatia and covers the scientific field of metallurgy, especially: physical metallurgy and materials; process metailurgy, (ferrous and non-ferrous); mechanical metallurgy (processing, power , etc.); related (adjoing) branches: mechanlcal engineering, chemistry, physics etc.
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