Abbas Razavykia, Cristiana Delprete
Cryogenic treatment is a supplemental structural and mechanical properties refinement process to conventional heat treatment processes, quenching, and tempering. Cryogenic treatment encourages the improvement of material properties and durability by means of microstructural alteration comprising phase transfer, particle size, and distribution. These effects are almost permanent and irreversible; furthermore, cryogenic treatment is recognized as an eco-friendly, nontoxic, and nonexplosive process. In addition, to encourage the application of sustainable techniques in mechanical and manufacturing engineering and to improve productivity in current competitive markets, cryo-treatment can be considered as a promising process. However, while improvements in the properties of materials after cryogenic treatment are discussed by the majority of reported studies, the correlation between microstructural alteration and mechanical properties are unclear, and sometimes the conducted investigations are contradictory with each other. These contradictions provide different approaches to perform and combine cryogenic treatment with pre-and post-processing. The present literature survey, mainly focused on the last decade, is aimed to address the effects of cryogenic treatment on microstructural alteration and to correlate these changes with mechanical property variations as a consequence of cryo-processing. The conclusion of the current review discusses the development and outlines the trends for the future research in this field.
@article{1bd9393c-1494-43fb-97b6-e301c41faaaa,
title={Correlation between Microstructural Alteration, Mechanical Properties and Manufacturability after Cryogenic Treatment: A Review},
author={Abbas Razavykia and Cristiana Delprete},
year={2019},
language={English}
}TY - JOUR TI - Correlation between Microstructural Alteration, Mechanical Properties and Manufacturability after Cryogenic Treatment: A Review AU - Abbas Razavykia AU - Cristiana Delprete PY - 2019 LA - English ER -
Ewan Lordan, Yijie Zhang
This article provides an overview of high-pressure die casting (HPDC)-related research undertaken at the EPSRC Future LiME Hub between 2015–2022. The
Manuel de J. Barrena‐Rodríguez, Francisco A. Acosta‐González
This review presents an analysis and discussion about heat transfer phenomena during quenching solid steel from high temperatures. It is shown a descr
Oleksandr Kapustynskyi, Nikolaj Višniakov
This paper focuses on the microstructural characteristics of non-alloy structural steels with carbon contents below 0.3% (further—Low-Carbon Steel—LCS
Michele Maria Tedesco, Daniele De Caro
In this review, we compared nine different chemical compositions and several heat treatments applied on quenching and partitioning steels investigated
Kaniza Islama, Noriko Katsubea
Solid-state batteries (SSBs) with solid electrolytes (SEs) are attracting substantial investment from the automotive industry because of their potenti
Mirjana Filipović, Željko Kamberović, Marija Korać
Experimental results indicate that the volume fraction of the carbide phase, carbide size and distribution had an important influence on the wear resi