Tag Archives: Magnesium alloys

Figure 2. Use of magnesium-based materials in the automotive industry. Reproduced with permission from Sankaranarayanan, S. and M. Gupta (2021). “Emergence of god’s favorite metallic element: Magnesium based materials for engineering and biomedical applications.”; published by Elsevier, 2021 [54].

Applications of Magnesium and Its Alloys: A Review

This article introduces the paper [‘Applications of Magnesium and Its Alloys: A Review’] published by [‘Applied Sciences’]. 1. Overview: 2. Abstracts or Introduction Magnesium is highlighted as a promising material in this review, owing to its unique combination of mechanical and biomedical properties that render it suitable for a broad spectrum of applications. The abstract

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Life cycle environmental impact of magnesium automotive components

Life Cycle Environmental Impact of Magnesium Automotive Components

This article introduces the paper ‘Life Cycle Environmental Impact of Magnesium Automotive Components’ published by ‘TMS (The Minerals, Metals & Materials Society)’. 1. Overview: 2. Abstracts or Introduction The development of magnesium applications in the automotive sector is gaining considerable traction. A critical aspect of this growing interest is the evaluation of the environmental footprint

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Eco-sustainable lightweight automotive part manufacturing: GHGs-free die casting of brake leverage prototype made of AZ91D-1.5CaO magnesium alloy

Eco-sustainable lightweight automotive part manufacturing: GHGs-free die casting of brake leverage prototype made of AZ91D-1.5CaO magnesium alloy

This article introduces the paper [‘Eco-sustainable lightweight automotive part manufacturing: GHGs-free die casting of brake leverage prototype made of AZ91D-1.5CaO magnesium alloy’] published by [‘La Metallurgia Italiana’]. 1. Overview: 2. Abstracts or Introduction Employing non-flammable AZ91D-1.5CaO Eco-Magnesium® (Eco-Mg) alloy in the European project CRAL provides the lowest carbon footprint for the magnesium cast process. Non-flammable

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Fig. 9 Examples of automotive components made of Mg alloys (a: Engine block, b: Steering column module, c: Door frame / Key lock housing, d: Oil pan, e: Steering wheel, f: Transfer case/Transmission housing, g: Seat frame, h: Wheel)

Magnesium and its alloys applications in automotive industry

This article introduces the paper [‘Magnesium and its alloys applications in automotive industry’] published by [‘Springer-Verlag London Limited’]. 1. Overview: 2. Abstracts or Introduction The objective of this study is to review and evaluate the applications of magnesium in the automotive industry, highlighting its potential to significantly contribute to enhanced fuel economy and environmental conservation.

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Fig. 1. Microstructure of the AM60 die-casting Mg-alloy: (a) with low magnification picture shows the skin and the interior regions; a high magnification picture of (b) the interior region, and (c) the skin region

Utility of micro-indentation technique for characterization of the constitutive behavior of skin and interior microstructures of die-cast magnesium alloys

This article introduces the paper ‘Utility of micro-indentation technique for characterization of the constitutive behavior of skin and interior microstructures of die-cast magnesium alloys’ published by ‘Elsevier’. 1. Overview: 2. Abstracts There has been increasing thrust lately on the development of lightweight cast magnesium alloy components for structural automotive and other applications. The microstructure of

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Figure 2 Die dimension design of bicycle pedal forming and the final product [34].

Advancements in surface treatments for aluminum alloys in sports equipment

This article introduces the paper [‘Advancements in surface treatments for aluminum alloys in sports equipment’] presented at the [‘Reviews on Advanced Materials Science’] 1. Overview: 2. Research Background: Background of the Research Topic: Aluminum alloys are widely used in sports equipment due to their “exceptional properties, such as a high strength-to-weight ratio, good formability, and

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Figure 6, This casting, produced in ZE41, weighs 620 Ibs. and is the main gearbox for the Westland WG34 helicopter.

Mg Casting Alloys for the Aerospace Challenge

This article introduces the paper [‘Mg Casting Alloys for the Aerospace Challenge’] presented at the [‘JOURNAL OF METALS’] 1. Overview: 2. Research Background: Background of the Research Topic: The utilization of magnesium alloys in aerospace applications has been driven by their inherent advantages, coupled with continuous advancements in alloy development and foundry practices. Initially a

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Fig. 4 : Robotic friction stir welding of an AM60 component

AUTOMOTIVE APPLICATIONS OF MAGNESIUM AND ITS ALLOYS

This article introduces the paper “AUTOMOTIVE APPLICATIONS OF MAGNESIUM AND ITS ALLOYS”. 1. Overview: 2. Research Background: 3. Research Objectives and Research Questions: 4. Research Methodology: 5. Main Research Findings: 6. Conclusion and Discussion: 7. Future Research Directions: 8. References: 9. Copyright: This material is based on the paper: AUTOMOTIVE APPLICATIONS OF MAGNESIUM AND ITS

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Figure 1. Shock Tower Casting

Characterization of Magnesium Automotive Components Produced by Super-Vacuum Die Casting Process

This article introduces the paper “Characterization of Magnesium Automotive Components Produced by Super-Vacuum Die Casting Process”. 1. Overview: 2. Research Background: 3. Research Objectives and Research Questions: 4. Research Methodology: 5. Main Research Findings: 6. Conclusion and Discussion: 7. Future Follow-up Research: 8. References: [1] Brown, Z., Szymanowski, B., Musser, M., Saha, D. and Seaver,

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Fig. 1. Typical creep strain vs. time curve showing the three stages of creep.

Magnesium Diecasting Alloys for High Temperature Applications

This article introduces the paper “Magnesium Diecasting Alloys for High Temperature Applications”. 1. Overview: 2. Research Background: A new growth area for automotive use of magnesium is in powertrain applications such as transmission cases and engine blocks. These components operate in temperature ranges of 150-200°C under tensile and compressive loads of 50-70 MPa. Furthermore, they

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