Gas Induced Superheated Slurry: Industrial Applicability, Energy Savings and Sustainability in High Pressure Die Casting

Tommaso Botter; You Feng He; Jessada Wannasin; Davide Schiavon; Simone Paramento; Alessandro Mambretti

doi:10.4028/p-6z2FHP

Paper Titles

Microstructure Design of Semi-Solid Slurry for Metal Direct Writing
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A Study on Microstructure and Properties of Aluminum Alloy Bracket Produced by a New Semi-Solid Rheo-Diecasting Process
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On the Liquid Portion Composition Deviation in the RheoMetal Process
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New Addressable Applications for Rheocasting to Escape from an Oversupplied Market
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An Application of Injection Molding to Semisolid Processing of Metallic Alloys: A Role of SIMA in Feedstock Transformation
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Performance and Fundamental Differences between Rheocast and High-Pressure Vacuum Die Cast Al-Si-Mg Alloys
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Producing Structural High Integrity Castings with Minimum Carbon Footprint with the Comptech-Rheocasting Process
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Gas Induced Superheated Slurry: Industrial Applicability, Energy Savings and Sustainability in High Pressure Die Casting
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HomeSolid State PhenomenaSolid State Phenomena Vol. 348Gas Induced Superheated Slurry: Industrial...

Gas Induced Superheated Slurry: Industrial Applicability, Energy Savings and Sustainability in High Pressure Die Casting

Abstract:

Objective of the paper is to present the latest applications of GISS technology, a little more than six years since the launch in the die casting industry. Industrial applicability and robustness of the solution have been the main targets of GISSCO development which is focussed on providing a technology appliable to mass production with short lead time and cost effectiveness. Based on the concepts of viscosity control and feeding compensation the GISS technology can lead to reduction of production costs (energy, lubrication, waste disposal, die life extension) as well as increase of the casting quality. Life Cycle Inventory and Carbon Footprint calculation of a case study are presented.

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Periodical:

Solid State Phenomena (Volume 348)

Pages:

89-96

DOI:

https://doi.org/10.4028/p-6z2FHP

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Online since:

August 2023

Authors:

Tommaso Botter*, You Feng He, Jessada Wannasin, Davide Schiavon, Simone Paramento, Alessandro Mambretti

Keywords:

Cycle Time, Energy Savings, GISS Technology, Slurry Casting, Sustainability

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References

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