Tag Archives: Die casting

Fig. 2: Different specimens after tests

Modeling of Damage Behavior of Cast Aluminum Components Taking into Account Porosity Effects

Beyond Standard Simulation: A New Porosity Damage Model for Predicting Failure in Aluminum Die Castings This technical summary is based on the academic paper “Modeling of Damage Behavior of Cast Aluminum Components Taking into Account Porosity Effects” by Dong-Zhi Sun, Andrea Ockewitz, Florence Andrieux, and Herbert Klamser, published in Proceedings of the 12th International Conference

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Fig. 3. Effects of Fe and Mn content on soldering layer.

Mechanical and Die Soldering Properties of Al-Si-Mg Alloys with Vacuum HPDC Process

Unlocking T6 Heat Treatment: How Vacuum HPDC and Alloy Control Eliminate Defects in Automotive Aluminum Castings This technical summary is based on the academic paper “Mechanical and Die Soldering Properties of Al-Si-Mg Alloys with Vacuum HPDC Process” by Chang-Yeol Jeong, Yu-Seok Kim, Jun-Hyung Ryu, and Heon-Joo Kim, published in Proceedings of the 12th International Conference

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Review of Microstructures and Properties of Felled Metal Alloy Composites (Al-17Sі-Gr-Cf )

Review of Microstructures and Properties of Felled Metal Alloy Composites (Al-17Si-Gr-Cf)

A Deep Dive into Zinc Alloy Composites: A Review of Microstructures and Properties of Felled Metal Alloy Composites (Al-17Si-Gr-Cf) This technical summary is based on the academic paper “Review of Microstructures and Properties of Felled Metal Alloy Composites (Al-17Si-Gr-Cf)” by Manas Mayank and Dr. Manish Gangil, published in Research Journal of Engineering Technology and Medical

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Fig.1. (a) Mechanical properties: (a1) Tensile stress-strain curveandcorresponding mechanical property values of AMbased alloys. (a2) YS, UTS and EL of various die-casting Mg alloys. (b)Corrosion property: (b1) hydrogen evolution volume-time curves; (b2) corrosion rate bar chart. (c)Macro-view photographs of fluidity test sample of AMbasedalloys: (c1) AM60; (c2) AM61; (c3) AM60-0.2Ce; (c4) AM60-0.2La.

Low Cost High Performance HPDC AM60 Based Alloys for Super-Sized Integrated Automotive Components

Unlocking Super-Sized Automotive Castings: How a Pinch of Lanthanum Transforms AM60 Alloy Performance This technical summary is based on the academic paper “Low Cost High Performance HPDC AM60 Based Alloys for Super-Sized Integrated Automotive Components” by Jing Wang, Jiangfeng Song, Bin Jiang, and Fusheng Pan, presented at The 75th World Foundry Congress (2024). Keywords Executive

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Table 2. The most characteristic results from the first round of trials.

Establishing Guidelines to Improve the High-Pressure Die Casting Process of Complex Aesthetics Parts

[WordPress Blog Post Template] Eliminating Finishing Costs in HPDC: New Guidelines for Complex Aesthetic Parts This technical summary is based on the academic paper “Establishing Guidelines to Improve the High-Pressure Die Casting Process of Complex Aesthetics Parts” by F.J.G. SILVA, Raul D.S.G. CAMPILHO, Luís Pinto FERREIRA and Maria Teresa PEREIRA, published in Transdisciplinary Engineering Methods

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Fig. 1 Gating system of casting and experimental tempering system [17]

Temperature Conditions Change in the High Pressure Die Casting mold Volume Depending on the Gating System Volume

This introduction paper is based on the paper “Temperature Conditions Change in the High Pressure Die Casting mold Volume Depending on the Gating System Volume” published by “Archives of Foundry Engineering”. 1. Overview: 2. Abstract: The high pressure die casting technology is characterized by high efficiency, which is given by pressing the liquid metal into

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Fig.1. Cause and effect diagram (Ishikawa diagram) for casting porosity

Optimization of process parameters of High Pressure Die Casting process for ADC12 Aluminium alloy using Taguchi method

Unlocking Flawless Castings: A Taguchi-Based Guide to ADC12 Porosity Reduction This technical summary is based on the academic paper “Optimization of process parameters of High Pressure Die Casting process for ADC12 Aluminium alloy using Taguchi method” by Veeresh G Balikai, I G Siddlingeshwar, and Mahesh Gorwar, published in the International Journal of Pure and Applied

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Fig. 5 Reference die

Determination of heat transfer coefficients using a 1-D flow model applied to irregular shaped cooling channels in pressure diecasting

Unlocking Higher Production Rates: A New Model for Irregular Cooling Channel Design in HPDC This technical summary is based on the academic paper “Determination of Heat Transfer Coefficients Using a 1-D Flow Model Applied to Irregular Shaped Cooling Channels in Pressure Diecasting” published by L. D. Clark, K. Davey, I. Rosindale, and S. Hinduja in

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Fig. 2. Microstructure of Al-Si-Mg-Mn and Al-Mg-Si-Mn alloys in the initial state and after chemical modification of eutectic (developed based on: www.alurheinfelden.com)

Microstructure Formation and Grain Refinement of Al-Mg-Si-Mn Casting Alloys

Optimizing Al-Mg-Si-Mn Casting Alloys: The Dual Role of Titanium in Grain Refinement and Microstructure Control This technical summary is based on the academic paper “Microstructure formation and grain refinement of Al-Mg-Si-Mn casting alloys” by Viktoriya Boyko, Edward Czekaj, Małgorzata Warmuzek, and Kostiantyn Mykhalenkov, published in Transactions of the Foundry Research Institute (2018). Keywords Executive Summary

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Figure 2 Dependence of die material service life at pressure die casting on pouring temperature

MATERIALS ON DIES FOR PRESSURE DIE CASTING

Unlocking Die Longevity: A Technical Guide to Selecting Die Casting Die Materials for Thermal Fatigue Resistance This technical summary is based on the academic paper “MATERIALS ON DIES FOR PRESSURE DIE CASTING” by E. RAGAN, J. DOBRÁNSKY, P. BARON, T. OLEJÁR, published in METALURGIJA (2012). Keywords Executive Summary The Challenge: Why This Research Matters for

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