Effects of annealing and quenching temperature on microstructure evolution and mechanical properties in Fe-0.17C-2.10Mn-0.51Si steel

The optimum mechanical properties of Fe-0.17C-2.10Mn-0.51Si steel are achieved by adjusting annealing and quenching temperatures. Annealing at 790 °C for 300 s, followed by quenching at 310 °C for 15 s and partitioning at 460 °C for 50 s, results in a tensile strength of 831.8 MPa and an elongation...

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Main Authors: Panpan Yuan, Depeng Shen, Wei Sun, Bingtao Tang
Format: Article
Language:English
Published: Elsevier 2025-01-01
Series:Materials & Design
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Online Access:http://www.sciencedirect.com/science/article/pii/S0264127524009298
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author Panpan Yuan
Depeng Shen
Wei Sun
Bingtao Tang
author_facet Panpan Yuan
Depeng Shen
Wei Sun
Bingtao Tang
author_sort Panpan Yuan
collection DOAJ
description The optimum mechanical properties of Fe-0.17C-2.10Mn-0.51Si steel are achieved by adjusting annealing and quenching temperatures. Annealing at 790 °C for 300 s, followed by quenching at 310 °C for 15 s and partitioning at 460 °C for 50 s, results in a tensile strength of 831.8 MPa and an elongation of 27.6 %. This is attributed to a higher volume fraction (13.1 %) and mechanical stability of retained austenite (RA), along with smaller grain size (3.99 µm) and a high proportion of high-angle grain boundaries (83.3 %), enhancing the transformation-induced plasticity (TRIP) effect. With increasing annealing and quenching temperatures, grain size increases. However, annealing temperature raises dislocation density, while quenching temperature reduces it. The fraction of RA initially increases and then decreases with higher annealing and quenching temperatures. XRD analysis shows carbide precipitation at 730 °C shifts peaks to lower angles, while dissolution at 850 °C and 910 °C leads to lattice expansion. Minimal peak shifts at 790 °C correlate with optimal properties. Micro-texture analysis reveals γ-fiber {111}//ND texture in BCC and Rotated-Goss texture in austenite, contributing to the balanced strength and ductility. This study offers insights into optimizing Q&P treatment for excellent mechanical performance.
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spelling doaj-art-2a5a6cfdc79a4642a4d20f5eb71ca2ce2025-01-09T06:12:24ZengElsevierMaterials & Design0264-12752025-01-01249113554Effects of annealing and quenching temperature on microstructure evolution and mechanical properties in Fe-0.17C-2.10Mn-0.51Si steelPanpan Yuan0Depeng Shen1Wei Sun2Bingtao Tang3School of Mechanical Engineering, Qilu University of Technology (Shandong Academy of Sciences), Jinan 250353, China; Shandong Institute of Mechanical Design and Research, Jinan 250031, ChinaSchool of Mechanical Engineering, Qilu University of Technology (Shandong Academy of Sciences), Jinan 250353, China; Shandong Institute of Mechanical Design and Research, Jinan 250031, ChinaJinlei Technology Co., Ltd., Jinan 271105, ChinaSchool of Mechanical Engineering, Qilu University of Technology (Shandong Academy of Sciences), Jinan 250353, China; Shandong Institute of Mechanical Design and Research, Jinan 250031, China; Corresponding author at: School of Mechanical Engineering, Qilu University of Technology (Shandong Academy of Sciences), Jinan 250353, China.The optimum mechanical properties of Fe-0.17C-2.10Mn-0.51Si steel are achieved by adjusting annealing and quenching temperatures. Annealing at 790 °C for 300 s, followed by quenching at 310 °C for 15 s and partitioning at 460 °C for 50 s, results in a tensile strength of 831.8 MPa and an elongation of 27.6 %. This is attributed to a higher volume fraction (13.1 %) and mechanical stability of retained austenite (RA), along with smaller grain size (3.99 µm) and a high proportion of high-angle grain boundaries (83.3 %), enhancing the transformation-induced plasticity (TRIP) effect. With increasing annealing and quenching temperatures, grain size increases. However, annealing temperature raises dislocation density, while quenching temperature reduces it. The fraction of RA initially increases and then decreases with higher annealing and quenching temperatures. XRD analysis shows carbide precipitation at 730 °C shifts peaks to lower angles, while dissolution at 850 °C and 910 °C leads to lattice expansion. Minimal peak shifts at 790 °C correlate with optimal properties. Micro-texture analysis reveals γ-fiber {111}//ND texture in BCC and Rotated-Goss texture in austenite, contributing to the balanced strength and ductility. This study offers insights into optimizing Q&P treatment for excellent mechanical performance.http://www.sciencedirect.com/science/article/pii/S0264127524009298Quenching and partitioningMicrostructureMechanical propertiesRetained austenite
spellingShingle Panpan Yuan
Depeng Shen
Wei Sun
Bingtao Tang
Effects of annealing and quenching temperature on microstructure evolution and mechanical properties in Fe-0.17C-2.10Mn-0.51Si steel
Materials & Design
Quenching and partitioning
Microstructure
Mechanical properties
Retained austenite
title Effects of annealing and quenching temperature on microstructure evolution and mechanical properties in Fe-0.17C-2.10Mn-0.51Si steel
title_full Effects of annealing and quenching temperature on microstructure evolution and mechanical properties in Fe-0.17C-2.10Mn-0.51Si steel
title_fullStr Effects of annealing and quenching temperature on microstructure evolution and mechanical properties in Fe-0.17C-2.10Mn-0.51Si steel
title_full_unstemmed Effects of annealing and quenching temperature on microstructure evolution and mechanical properties in Fe-0.17C-2.10Mn-0.51Si steel
title_short Effects of annealing and quenching temperature on microstructure evolution and mechanical properties in Fe-0.17C-2.10Mn-0.51Si steel
title_sort effects of annealing and quenching temperature on microstructure evolution and mechanical properties in fe 0 17c 2 10mn 0 51si steel
topic Quenching and partitioning
Microstructure
Mechanical properties
Retained austenite
url http://www.sciencedirect.com/science/article/pii/S0264127524009298
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