helps users evaluate the optimal process conditions, such as packing time, cooling time, or mold temperature. Moldex3D Expert creates analysis variations and provides graphical summaries automatically.

brings a simulation-driven design environment. With its powerful analysis capabilities fully embedded in mainstream CAD software, CAD users can synchronize design changes and quickly validate plastic designs.

visualizes fiber orientation and calculates process-induced anisotropic thermo-mechanical properties for long and short fiber-reinforced plastics. Users can predict warpage distribution and evaluate part strength.

provides a series of FEA Interface modules integrated with industrial leading structural software, including ABAQUS, Ansys, LS-DYNA, Marc, Nastran, and Radioss. Users can export Fiber and Stress analysis results to calculate further structural performance.

allows users to output more material properties for nonlinear multi-scale material modeling with integration of Digimat and Converse before FEA software.

help users to correctly design their fiber reinforced plastic parts. Users can quickly get an accurate material model of reinforced plastics and apply to FEA model for structure analysis with a streamline workflow.

provides stress distribution for parts and part inserts. Users can set boundary conditions, such as stress or force, to evaluate the structure quality of plastics and predict potential breakage or deformation.

calculates viscosity and elasticity variations of plastic materials under different temperature conditions. Users can evaluate the effects on molecular orientation, residual stress, warpage, and optical properties.

visualizes the filling pattern and temperature distribution of hot runners and moldbase. Users can evaluate the heating efficiency and uniformity to optimize hot runner design.

analyzes flow- or thermally-induced optical performance of plastics, including birefringence, retardation, fringed orders, and fringed patterns. Moreover, the integration with CODE V provides non-uniform refractive index prediction.

simulates the compression molding process in which the polymer is squeezed into a preheated mold cavity. Moldex3D helps users check potential defects resulted from heat and pressure, decide appropriate materials, and optimize process conditions.

Simulates the injection compression molding process, generally applied to thin and flat plastics, such as light guide plates or compact discs. Users can observe the compression process over time in cavity and evaluate material properties and process conditions.

visualizes metal or ceramic molding process. Users can observe the fluid flow behavior of the feedstock, consisted of powder and binder, and predict potential defects. You also can evaluate the effects of shear rate and optimize process conditions.

visualizes the melt flow behavior when gas is injected into the mold cavity through the melt entrance or other specific gas entrance. Users can predict typical GAIM issues, such as fingering effect, blow-through, or corner effect.

visualizes the dynamics of water-assisted injection molding process for hollow plastics. With the visualization of fluid penetration behavior inside the mold cavity, users can define the overflow region and optimize process conditions.

visualizes the sequential injection molding process of skin and core plastic materials. Users can decide plastic material pair to optimize the combination of two material properties. You also can predict potential breakthrough on part surface.

visualizes the molding process of two materials being injected independently into a mold cavity. Users can define material type, set independent filling and packing parameters for each material, and observe the flow rate variation from two melt entrances.

simulates the nucleation and growth of microcellular bubbles when the melt flow is injected into a mold cavity. Moldex3D Foam Injection Molding helps users determine optimal processing parameters to eliminate potential defects and warpage problem.

Chemical Foaming Molding (CFM) is a molding process that full-fill the cavity with gas produced by chemical reactions.