A method for the production of a readily processable low-carbon structural steel with satisfactory weldability

• 1. 具有良好低温韧性易焊接的软磁结构钢及其制造方法 [P] . 中国专利： CN1238549C . 2006.01.25
• 2. 具有良好低温韧性易焊接的软磁结构钢及其制造方法 [P] . 中国专利： CN1534105A . 2004-10-06
• 3. A method for the production of a readily processable low-carbon structural steel with satisfactory weldability [P] . 德国专利： DE2166989A1 . 1977-05-18

  机译： 一种具有良好焊接性的易加工低碳结构钢的生产方法

• 4. METHOD HEAT TREATMENT OF PLATES FROM STRUCTURAL WELDING LOW-CARBON MICROALLOY STEEL [P] . CS232179B1 . 1985-01-16

  机译： 结构焊接低碳微合金钢板的方法热处理

• 5. PRODUCTION METHOD FOR LOW-CARBON STEEL THIN-WALLED CAST SLAB, THE THIN-WALLED CAST SLAB, AND PRODUCTION METHOD FOR LOW-CARBON THIN-WALLED STEEL SHEET [P] . 日本专利： JP2017131933A . 2017-08-03

  机译： 低碳薄壁铸坯的生产方法，薄壁铸坯以及低碳薄壁铸坯的生产方法

• 1. Classification of Ultrasonic Signs Pre-processed by Fourier Transform through Artificial Neural Network Using the Echo Pulse Technique for the Identification of Defects in Welded Joints of Structural Steel [J] . Renata Torres Melo Sotero, Maria Clea S. de Albuquerque, Francisco G. de Paula, 机械工程与自动化：英文版 . 2015,第005期
• 2. Effect of welding processes on mechanical and microstructural characteristics of high strength low alloy naval grade steel joints [J] . S.RAGU NATHAN, V.BALASUBRAMANIAN, S.MALARVIZHI, 兵工学报（英文版） . 2015,第003期
• 3. Microstructural Features and Microhardness of Fe-Mo-Nb-V-C Low-Carbon Steel Processed by High-Pressure Torsion: The Significance of the Initial Structural State [C] . Galina Maier, Elena Astafurova, Eugene Melnikov, International Conference on Advanced Materials with Hierarchical Structure for New Technologies and Reliable Structures . 2016
• 4. Simulation on the welding process of low-alloy steel by finite element method. [D] . Wang, Shaodong. 2006
• 5. High-Cycle Low-Cycle Extremely Low-Cycle Fatigue and Monotonic Fracture Behaviors of Low-Carbon Steel and Its Welded Joint [O] . Younghune Kim, Woonbong Hwang 2019
• 6. Effects of Microstructural Modification by Friction Stir Processing on Fracture Toughness of Low-carbon Steel Welds [O] . Hajime YAMAMOTO, Hiroki IZUMI, Kazuhiro ITO 2019

• 1. Effects of Microstructural Modification Using Friction Stir Processing on Fatigue Strength of Butt-Welded Joints for High-Strength Steels [J] . Hajime Yamamoto ,Kazuhiro Ito . 材料科学与应用期刊（英文） . 2018,第7期
• 2. Effect of welding process methods on the regularity of iron element in copper/steel deposited layer [J] . Wang Yan ,Li Longqing ,Lu Hong . 中国焊接 . 2013,第002期
• 3. Correlation between Process Variables in Shielded Metal-Arc Welding (SMAW) Process and Post Weld Heat Treatment (PWHT) on Some Mechanical Properties of Low Carbon Steel Welds [J] . J. O. Olawale ,S. A. Ibitoye ,K.M. Oluwasegun . 矿物质和材料特性和工程（英文） . 2012,第9期
• 4. 具有均匀性硬度分布、良好切削加工性和焊接性的贝氏体塑料模具钢 [C] . 江来珠 ,阎启 ,张爱文 . 2000年亚洲钢铁大会 . 2000
• 5. 高强度船体结构钢焊接性及其焊接裂纹的形成和预防的研究 [A] . 林浩 . 2006