Tag Archives: Mechanical Property

Figure 1. Structure of the vacuum die-cast equipment

Study on Microstructures and Properties of Al. Alloy Vacuum Die-Cast Parts

This article introduces the paper “Study on Microstructures and Properties of the Al. Alloy Vacuum Die-Cast Parts of TL117 and C611” presented in the Journal of Physics: Conference Series. 1. Overview: 2. Research Background: 3. Research Purpose and Research Questions: 4. Research Methodology: 5. Main Research Results: 6. Conclusion and Discussion: 7. Future Follow-up Research:

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Figure 13. The schematic diagrams of the ACSR Rheo-HPDC process (reprinted with permission from ref. [36], 2022, Elsevier).

Research Progress on Thermal Conductivity of High-Pressure Die-Cast Aluminum Alloys

This article introduces the paper “Research Progress on Thermal Conductivity of High-Pressure Die-Cast Aluminum Alloys” presented at the Metals, MDPI 1. Overview: 2. Research Background: 3. Research Purpose and Research Questions: 4. Research Methodology 5. Main Research Results: 6. Conclusion and Discussion: 7. Future Follow-up Research: 8. References: 9. Copyright: This material is Yixian Liu

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Figure 1. Sampling region on the plate manufactured by HPDC.

Phase-Field Modelling of Bimodal Dendritic Solidification During Al Alloy Die Casting

This article introduces the paper “Phase-Field Modelling of Bimodal Dendritic Solidification During Al Alloy Die Casting” presented in Metals. 1. Overview: Title: Phase-Field Modelling of Bimodal Dendritic Solidification During Al Alloy Die CastingAuthors: Maryam Torfeh, Zhichao Niu and Hamid AssadiPublication Year: 2025Publishing Journal: MetalsKeywords: phase-field modelling; HPDC; interface behaviour 2. Research Background: High-pressure die casting

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Figure 5. Results of constrained rod casting: (a) AA7075; (b) AA7068; (c) AA7055.

Development of Low-Pressure Die-Cast Al–Zn–Mg–Cu Alloy Propellers—Part I: Hot Tearing Simulations for Alloy Optimization

This article introduces the paper “Development of Low-Pressure Die-Cast Al–Zn–Mg–Cu Alloy Propellers—Part I: Hot Tearing Simulations for Alloy Optimization” presented in Materials Journal. 1. Overview: High-Strength Aluminum Alloy Propellers, Addressing Hot Tearing Issues Through Alloy Optimization Research 2. Research Background: Demand for High-Performance Leisure Boat Propellers, Hot Tearing Challenges in 7xxx Series Alloys 3. Research

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Figure 2. EPMA micrograph and chemical element distribution maps of crept AA365 alloy at 373 K: Al, Mg, Fe, Si, Mn

Evaluation of Corrosion Behavior on Crept AlSi10MnMg (AA365) Alloy Produced by High-Pressure Die-Casting (HPDC)

This article introduces the paper “Evaluation of Corrosion Behavior on Crept AlSi10MnMg (AA365) Alloy Produced by High-Pressure Die-Casting (HPDC)”. 1. Overview: 2. Research Background: 3. Research Purpose and Research Questions: 4. Research Methodology: 5. Main Research Results: 6. Conclusion and Discussion: 7. Future Follow-up Research: 8. References: 9. Copyright: This material was summarized based on

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Figure 1. Schematic illustration of the rheodiecasting (RDC) process.

Development of the Rheo-Diecasting Process for Mg-Alloys

This article introduces the paper “Development of the Rheo-Diecasting Process for Mg-Alloys” by Z. Fan, S. Ji, and G. Liu, published in Materials Science Forum Vols. 488-489 (2005), pages 405-412. 1. Overview: 2. Research Background: 3. Research Purpose and Research Questions: 4. Research Methodology 5. Main Research Results: 6. Conclusion and Discussion: 7. Future Follow-up

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Fig. 1. Design comparison with steel armrest and magnesium armrest design.

Development of a bus armrest fabrication process with a high-vacuum, high-pressure die-casting process using the AM60 alloy

This article introduces the paper “Development of a bus armrest fabrication process with a high-vacuum, high-pressure die-casting process using the AM60 alloy”. 1. Overview: 2. Research Background: 3. Research Purpose and Research Questions: 4. Research Methodology: 5. Main Research Results: 6. Conclusion and Discussion: 7. Future Follow-up Research: 8. References: 9. Copyright: This material was

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Fig. 2 Subframe shape (top view)

Front Aluminum Subframe of High Level Vacuum Die-casting

This article introduces the paper “Front Aluminum Subframe of High Level Vacuum Die-casting,” published in Transactions of KSAE, Vol. 20, No. 4, pp.52-59 (2012). This paper details the development of an aluminum subframe using high level vacuum die casting to reduce weight and enhance performance compared to traditional steel subframes. 1. Overview: 2. Research Background:

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Figure 1. Developed hollow aluminum subframe

Development of Aluminium Hollow Subframe Using High-Pressure Die Casting

This article introduces the paper “Development of Aluminium Hollow Subframe Using High-Pressure Die Casting”. 1. Overview: 2. Research Background: 3. Research Objectives and Research Questions: 4. Research Methodology: 5. Key Research Findings: 6. Conclusion and Discussion: 7. Future Follow-up Research: 8. References: 9. Copyright: This material is based on the paper by [Akihiko Asami, Tomoyuki

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Fig 1. Microstructure alloy MCMgAl6Zn1: a) without heat treatment – 0, b) after heat treatment – 2, c) after heat treatment – 3, d) after heat treatment – 4

Heat Treatment Impact on the Structure of Die-Cast Magnesium Alloys

This article introduces the paper “Heat treatment impact on the structure of die-cast magnesium alloys” published in the Journal of Achievements in Materials and Manufacturing Engineering in 2007. 1. Overview: 2. Research Background: 3. Research Purpose and Research Questions: 4. Research Methodology: 5. Major Research Findings: 6. Conclusion and Discussion: 7. Future Follow-up Research: 8.

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