
Toray Industries has integrated material data for its Tremil PPS resin powders into the Digimat-MX database, a platform managed by Hexagon's MSC Software.
Materials
Originally reported by ShareLab
Toray Industries has integrated material data for its Tremil PPS resin powders into the Digimat-MX database, a platform managed by Hexagon's MSC Software. This update provides high-fidelity mechanical properties for both unreinforced and glass-fiber reinforced PPS grades used in powder bed fusion (PBF) additive manufacturing. The dataset includes comprehensive anisotropic characterization, accounting for variations in tensile strength across different build orientations, specifically X, Y, and Z axes. This implementation allows engineers to perform structural simulations that predict part performance based on specific fiber orientation and layer deposition patterns without requiring extensive physical trial-and-error testing.
Integrating material-specific simulation data is a critical step in transitioning PBF processes from prototyping to series production, particularly for high-performance engineering plastics like PPS. In the automotive and electronics sectors, where PPS is favored for its thermal stability, chemical resistance, and low moisture absorption, the ability to predict anisotropic behavior is essential for meeting stringent safety and reliability standards. By embedding these parameters into the Digimat ecosystem, Toray reduces the reliance on empirical testing, which has historically been a bottleneck for adopting high-performance polymers in structural AM applications. This move aligns with broader industry efforts to standardize digital twins and simulation-driven design workflows for industrial-grade polymer AM.
For users, this integration enables more accurate structural optimization during the design phase, reducing the need for iterative physical prototyping. Manufacturers should utilize these validated material cards to refine their simulation models, ensuring that predicted stress-strain curves align with the actual mechanical performance of PBF-produced PPS components. The primary value here lies in the reduction of development cycles for complex, high-load parts by leveraging reliable, manufacturer-provided material data within established CAE environments.
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