Moldex3D Material Characterization Services


Reliable Material Data for Accurate Moldex3D Simulation

Moldex3D Material Characterization Services

Obtain accurate rheological, thermal, mechanical, kinetic and interfacial material properties required for reliable injection-molding, thermoset, composite, fabric and IC-packaging simulations.

Better Material Data Produces Better Simulation

Generate material data suitable for Moldex3D analysis.

Characterize thermoplastics, thermosets and fibre-reinforced materials.

Improve filling, packing, cooling and warpage accuracy.

Support composite, fabric and IC underfill simulations.

From Material Sample to Simulation Database

Convert physical material behaviour into reliable Moldex3D-ready data for engineering analysis.

What Is Material Characterization?

Material characterization is the process of measuring how a polymer or composite material behaves under different temperatures, pressures, shear rates and loading conditions.

Moldex3D simulation accuracy depends strongly on the quality of the material data used in the analysis. Generic or incomplete data may not represent the actual behaviour of a specific grade, compound, filler level or supplier formulation.

Material characterization services generate the rheological, thermal, mechanical and kinetic properties required for filling, packing, cooling, curing, fibre orientation, stress and warpage simulations.

Reliable Simulation Input
Grade-Specific Material Data
Improved Warpage Prediction
Better Process Optimization

Why Is Material Characterization Important?

Accurate material properties help the simulation reproduce actual production behaviour and improve confidence in engineering decisions.

Accurate Flow Prediction

Proper viscosity data improves filling-pressure, flow-front, weld-line and air-trap predictions.

PVT

Reliable Shrinkage Results

PVT properties help predict volumetric shrinkage, packing behaviour and dimensional changes.

T

Better Cooling Analysis

Thermal conductivity and heat capacity improve temperature and cooling-time calculations.

Improved Warpage Accuracy

Mechanical, thermal-expansion and anisotropic data improve deformation prediction.

Materials Supported by Characterization Services

Testing requirements can be selected according to the molding process and Moldex3D analysis objectives.

Thermoplastic Materials

For filling, packing, cooling, fibre orientation and warpage simulations.

  • Rheology: high-shear viscosity, low-shear viscosity and fluid viscoelasticity.
  • Thermal: PVT, thermal conductivity and heat capacity.
  • Mechanical: tensile modulus, Poisson ratio and coefficient of thermal expansion.
  • Fibre-Reinforced Properties: anisotropic modulus, anisotropic Poisson ratio, anisotropic CTE and in-plane shear modulus.
  • Kinetic Properties: crystallization information for applicable semi-crystalline materials.

Thermoset Materials

For filling, curing, post-mold curing and warpage simulations.

  • Rheology: reactive viscosity behaviour during processing.
  • Curing Kinetics: cure reaction rate and degree-of-cure behaviour.
  • Thermal: PVTC, thermal conductivity and heat capacity.
  • Mechanical: tensile modulus, Poisson ratio and coefficient of thermal expansion.
  • Viscoelasticity: partially cured structural viscoelastic behaviour.

Composite Fabric Materials

For resin transfer molding and composite infiltration simulations.

  • Permeability: resistance to resin flow through the fibre preform.
  • Porosity: available void volume inside the fabric structure.
  • Supports RTM, vacuum-assisted RTM and related composite manufacturing studies.
  • Helps predict resin filling time, pressure and dry-spot risk.

IC Packaging Underfill Materials

For capillary-flow and advanced semiconductor underfill analysis.

  • Contact Angle: evaluates wetting behaviour between the underfill resin and package surfaces.
  • Surface Tension: supports capillary-flow calculations.
  • Helps predict underfill progression around solder bumps and fine package structures.
  • Supports filling-time, void-risk and dispensing strategy evaluation.

Important Material Properties for Simulation

Each material property contributes to a different stage of filling, curing, cooling, shrinkage or deformation prediction.

01

Rheological Properties

Measure how viscosity changes with shear rate, temperature and curing conditions to predict material-flow behaviour.

02

Thermal Properties

Characterize thermal conductivity, heat capacity and PVT or PVTC behaviour for cooling and shrinkage analysis.

03

Mechanical Properties

Determine elastic modulus, Poisson ratio and thermal expansion for stress and warpage prediction.

04

Anisotropic Properties

Measure directional properties of fibre-reinforced plastics to improve composite warpage analysis.

05

Kinetic Properties

Characterize crystallization or curing reactions as functions of temperature and processing time.

06

Interfacial Properties

Measure contact angle, surface tension, permeability and porosity for underfill and fabric-flow simulations.

Thermoplastic Material Data Matrix

The required test scope depends on whether the simulation includes filling, packing, cooling, fibre orientation or warpage analysis.

Property Group Material Property Fill, Pack, Cool Fill, Pack, Cool, Warp Enhanced Analysis
Rheology High-Shear Viscosity
Rheology Low-Shear Viscosity
Rheology Fluid Viscoelasticity
Thermal PVT
Thermal Thermal Conductivity
Thermal Heat Capacity
Mechanical Tensile Modulus
Mechanical Poisson Ratio
Mechanical Coefficient of Thermal Expansion
Mechanical Anisotropic Mechanical Properties*
Mechanical Structural Viscoelasticity
Kinetic Crystallization Data
● Essential property    ○ Optional or advanced property. Anisotropic properties are applicable to fibre-reinforced plastic materials. The exact test scope should be selected according to the analysis type and Moldex3D configuration.

From Material Sample to Moldex3D Simulation

A structured workflow helps ensure that the testing programme matches the required simulation objectives.

1

Requirement Review

Identify material type, process and required Moldex3D analyses.

2

Sample Preparation

Confirm sample quantity, conditioning and specimen requirements.

3

Laboratory Testing

Conduct the selected rheological, thermal, mechanical and kinetic tests.

4

Data Fitting

Process the measured values and generate suitable simulation material models.

5

Simulation Validation

Apply the data in Moldex3D and review its suitability for the intended analysis.

Benefits of Material Characterization

Use grade-specific material data to improve the quality of simulation results and reduce uncertainty during manufacturing development.

Improve Simulation Accuracy

Use measured material behaviour instead of relying only on approximate or generic database values.

Improve Warpage Prediction

Mechanical, PVT, CTE and anisotropic properties help produce more realistic deformation results.

Reduce Mold Trials

More reliable virtual validation helps reduce repeated physical testing and process adjustment.

Compare Material Grades

Evaluate how different formulations, filler contents or suppliers influence molding behaviour.

Support New Material Development

Create simulation-ready data for newly developed or proprietary polymer formulations.

Improve Process Optimization

Develop more reliable processing windows based on measured material behaviour.

Industries That Can Use Material Characterization

Suitable for companies developing, supplying or processing thermoplastics, thermosets, composites and electronic encapsulation materials.

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Material Suppliers

Create Moldex3D-ready data for commercial material grades.

🚘

Automotive and EV

Validate engineering plastics and fibre-reinforced parts.

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Electrical Products

Characterize flame-retardant and insulation materials.

📱

Electronics

Support electronic enclosures and precision molded parts.

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Semiconductor Packaging

Characterize molding compounds and underfill materials.

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Aerospace

Study high-performance polymers and composites.

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Medical Devices

Improve simulation of precision medical components.

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Injection Molders

Improve process simulation for customer-specific grades.

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Composite Manufacturers

Characterize resin, thermoset and fabric properties.

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Mold Manufacturers

Improve filling, cooling and warpage validation.

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Consumer Products

Validate new colours, fillers and material formulations.

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Research Institutions

Support polymer research and material model development.

Why Choose Rheologist Gaze & Solutions?

Rheologist Gaze & Solutions helps customers identify the correct material tests for their Moldex3D application and supports the complete workflow from requirement assessment to simulation use.

  • Material characterization requirement assessment
  • Test selection based on Moldex3D analysis objectives
  • Thermoplastic and thermoset testing coordination
  • Composite fabric and underfill data support
  • Material model and database preparation guidance
  • Moldex3D material-data implementation support
  • Simulation validation and result interpretation
  • Local technical and application assistance

Requirement Assessment

We identify the properties required for filling, packing, cooling, curing or warpage simulation.

Test Scope Selection

Avoid unnecessary tests by selecting a scope aligned with your analysis requirements.

Sample Guidance

Receive assistance with material quantity, sample conditioning and specimen preparation requirements.

Data Implementation

Obtain support for applying characterized material information within Moldex3D projects.

Simulation Validation

Review filling, cooling, curing or warpage results using the generated material data.

Continued Technical Support

Receive ongoing assistance for material selection, simulation setup and engineering interpretation.

Improve Your Moldex3D Simulation Accuracy

Contact Rheologist Gaze & Solutions to discuss material characterization for thermoplastic, thermoset, composite, fabric or IC-packaging applications.

Request a Characterization Proposal Contact Our Engineering Team
Material testing requirements depend on material type, simulation objectives, Moldex3D version and selected analysis modules. Test availability, sample quantity and delivery time should be confirmed during the requirement-review stage.