Evolution of hot metal gas forming (HMGF) technologies and its applications: a review

Hot metal gas forming (HMGF) of tubular profiles enables intricate designs for lightweight material production. HMGF showed an immense manufacturing potential, due to the excellent strength and toughness of the formed parts, better material formability, and better dimensional accuracy of the final p...

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Veröffentlicht in:International journal of advanced manufacturing technology 2024-04, Vol.131 (7-8), p.3441-3466
Hauptverfasser: Blala, Hamza, Pengzhi, Cheng, Shenglun, Zhang, Khan, Shahrukh
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container_issue 7-8
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container_title International journal of advanced manufacturing technology
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creator Blala, Hamza
Pengzhi, Cheng
Shenglun, Zhang
Khan, Shahrukh
description Hot metal gas forming (HMGF) of tubular profiles enables intricate designs for lightweight material production. HMGF showed an immense manufacturing potential, due to the excellent strength and toughness of the formed parts, better material formability, and better dimensional accuracy of the final product. Existing part production methods, such as weld-assembly of stampings and hydroforming, have significant problems in terms of residual tensile stresses, which can affect the formability and negatively affect the performance capability of the structural components. Due to the lack of a detailed review report, the primary focus of this review article is to provide in-depth analysis of recent developments, innovations, and challenges in HMGF while comparing it to existing manufacturing methods. This examination includes different essential aspects, such as the process principle, material applications, deformation mechanisms, process parameter optimization, and microstructure modeling. Additionally, the article explores future research directions and the potential of HMGF in the manufacturing industry. Our review underscores the critical importance of optimizing process parameters and conducting microstructural analysis to meet evolving challenges. Further research on material models and the interplay of microstructural variables is essential for advancing the field and facilitating precise predictions in HMGF processes.
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subjects Advanced manufacturing technologies
Aeronautics
Aircraft
Aluminum
CAE) and Design
Computer-Aided Engineering (CAD
Critical Review
Deformation
Deformation mechanisms
Ductility
Engineering
Formability
Gases
Hydroforming
Industrial and Production Engineering
Magnesium
Manufacturing
Mathematical models
Mechanical Engineering
Media Management
Microstructural analysis
Microstructure
Process parameters
Production methods
Stampings
Technological change
Temperature
Titanium alloys
title Evolution of hot metal gas forming (HMGF) technologies and its applications: a review
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