Development and Characterisation of a New Die-Casting Die Cooling System Based on Internal Spray Cooling

Against the backdrop of climate policy goals and the EU’s aim for a resource-efficient economy, the foundry industry must rethink product range, energy consumption, and production technologies. Light metal casting, which is performed through processes like gravity die casting and high-pressure die casting, requires effective thermal management, which is crucial for optimising mould filling, solidification, cycle times, and part quality. Against this background, this study presents the development and characterisation of a cooling system that completely dispenses with energy-intensive heating/cooling devices. The system is based on a mask shape combined with internal spray cooling. This paper shows the simulation workflow for developing the mould mask and the design of the cooling system and compares the performance with conventional temperature control using channels. In the tests, an 82% higher cooling rate was achieved with Cool-Spray than with conventional temperature control, which was approx. 2.5 mm below the cavity surface. In addition to the more dynamic temperature control, the potential for process control was utilised, and the component quality of the test part was significantly improved compared to conventional temperature control.

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Publication Details

Journal
Metals
Published
2024-08-23
DOI
https://doi.org/10.3390/met14090956
Primary Topic
Fluid Dynamics and Heat Transfer
Type
article
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Development and Characterisation of a New Die-Casting Die Cooling System Based on Internal Spray Cooling

Stefanie Felicia Kracun, Martin Fehlbier, Alexander Haban, Danny Noah Rohde
Metals
Fluid Dynamics and Heat Transfer
article

Development and Characterisation of a New Die-Casting Die Cooling System Based on Internal Spray Cooling

Stefanie Felicia Kracun, Martin Fehlbier, Alexander Haban, Danny Noah Rohde
article en

Abstract

Against the backdrop of climate policy goals and the EU’s aim for a resource-efficient economy, the foundry industry must rethink product range, energy consumption, and production technologies. Light metal casting, which is performed through processes like gravity die casting and high-pressure die casting, requires effective thermal management, which is crucial for optimising mould filling, solidification, cycle times, and part quality. Against this background, this study presents the development and characterisation of a cooling system that completely dispenses with energy-intensive heating/cooling devices. The system is based on a mask shape combined with internal spray cooling. This paper shows the simulation workflow for developing the mould mask and the design of the cooling system and compares the performance with conventional temperature control using channels. In the tests, an 82% higher cooling rate was achieved with Cool-Spray than with conventional temperature control, which was approx. 2.5 mm below the cavity surface. In addition to the more dynamic temperature control, the potential for process control was utilised, and the component quality of the test part was significantly improved compared to conventional temperature control.

MetalsVol. 14(9)
University of Kassel (DE)
Climate action
Openalex Percentile: Top 85%
Fluid Dynamics and Heat Transfer
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Development and Characterisation of a New Die-Casting Die Cooling System Based on Internal Spray Cooling — Stefanie Felicia Kracun, Martin Fehlbier, et al. · Metals (2024) | TGRS Research Map | TGRS