We have developed an advanced tool for calculating distortions in densification processes, applicable to the manufacturing of metallic parts through HIP, Binder Jetting, MIM, and other processes. Its ability to predict and minimize deformations improves dimensional accuracy, reduces material waste, and optimizes manufacturing parameters.

Thanks to its versatility, the tool can be applied across different sectors, including steelmaking, additive manufacturing, aerospace, and automotive, providing rigorous analysis of process effects on the final geometry of the parts.

Problem it Solves

In metallic part densification processes such as HIP, Binder Jetting, and MIM, distortions and dimensional variations often occur due to differential shrinkage, internal stresses, and material heterogeneities. These deformations can compromise the final quality of the parts, causing out-of-tolerance deviations, higher material waste, and costly rework. Currently, predicting such distortions usually requires extensive experimental testing, which increases development time and costs. This tool enables anticipation and correction of these deformations through advanced simulation, optimizing the process and ensuring greater precision in the final part geometry.