Large industrial ladle pouring molten metal in foundry environment.

Why Rheocasting?

Rheocasting has the advantage of a high solid fraction that enables:

— Very long flow length by its thixotropic characteristics.

— Castings with very low porosity levels due to the laminar flow.

— Easier after feeding to avoid shrinkage porosity.

— Use of non-eutectic allows to reach higher properties in castings from a high pressure die cast process.



Advantages With Rheocasting

— High thermal conductivity

— Extreme thin-walled castings

— Excellent flowability

— Weldable

— Smaller HPDC machines

— Laminar flow gives minimal amount of defects

— Decreased CO2 footprint

Semi-solid aluminum slurry surrounding ladle in Dynatool rheocasting process.


Sustainable Castings

In today’s business, CO2 footprint is an essential part towards the global net-zero target.

Silicon is the major CO2 contributor (approx 40%) in production of secondary alloys.

Rheocasting allows the use of a new set of alloys that contain less Si.

Due to the thixotropic behaviour of a slurry, Rheocasting does not require Si inside the alloy to have a good castability as conventional HPDC does.

With Rheocasting, you can reduce the CO2 footprint by using a secondary alloy with low Si content for a low CO2 emission or design a lighter part with a more competent alloy.

So, by using alloys with lesser Si, we will contribute in the work to reach the global targets.

High Conductivity Rheocasting

— Heat sinks

— Housings

— EV Power Electronics

Applications

— High thermal conductivity

— Extreme thin-walled castings

— Excellent flowability

— Weldable 

— Smaller HPDC machines

— Decreased CO2  footprint

Advantages with Rheocasting

Metalworker in high-heat protective suit overseeing industrial forging process.