Chemical & Materials Processing

Physics Intelligence for Chemical and Materials Processing

Model flow, mixing, heat transfer, and material response across process conditions. Connect your computational models and experimental data with Physics Intelligence to estimate material properties and explore conditions for target responses.

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Physics Intelligence

Shared Foundation Across Industries

One common input arrow connects geometry and discretization, material laws, operating conditions, and design objectives to SolverX Physics Intelligence. Governing equations, constitutive models, and physical constraints support application-specific physical response models across 4 illustrated applications. An inverse-design loop connects response to design decisions. Conceptual illustration, not simulation results.Chemical & Materials ProcessingGeometry & DiscretizationPhysical domains · CAD · MeshesMaterial Laws & PropertiesConstitutive behavior · ParametersLoads & Operating ConditionsBoundary · Initial · Drive conditionsObjectives & ConstraintsTarget responses · Design limitsSolverX Physics IntelligenceGoverning equations · Constitutive models · Physical constraints01Flow, Mixing &TransportFlow · Mixing · Distribution02Thermal ProcessResponseHeat flux · Thermal gradients03Rheology &Material BehaviorViscosityShear rateViscosity · Material response04Material Identification& Inverse DesignObservedModelMeasured response → material lawMaterial law · Target responsePredict response · Compare designs · Work backward from targetsCONCEPTUAL PHYSICS SCHEMATIC

Applications

Explore process and material behavior through flow, mixing, heat transfer, and material response. Combine your computational models and experimental data with Physics Intelligence in a solution customized for repeated evaluation, material identification, and exploration of conditions that produce target responses.

01

Flow, Mixing & Transport

Evaluate flow, pressure, material distribution, and mixing behavior across geometries, material properties, and operating conditions. Compare transport performance, uniformity, and flow resistance to explore how target performance can be maintained as scale and conditions change.

02

Thermal Process Response

Evaluate temperature distributions, heat transfer, and thermal history across heating, cooling, and circulation conditions. Compare process conditions while considering energy transfer, temperature uniformity, and thermally driven material changes.

03

Rheology & Material Behavior

Evaluate viscous, viscoelastic, and nonlinear material responses as temperature, shear, loading, and time change. Compare material properties and process conditions to understand flow, deformation, and behavior after processing.

04

Material Identification & Inverse Design

Identify material parameters that reproduce experimentally observed responses and connect them to predictive physics models. Work backward from target behavior to explore promising material properties and process conditions.

SolverX: Faster Simulations,
Smarter Optimization,
Competitive Advantage

Accelerate Simulations
Reduce simulation times dramatically, allowing for rapid exploration of design options.
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Optimize Designs Efficiently
Utilize AI-driven topology optimization to find the most efficient designs quickly.
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Leverage Existing Data
Turn accumulated simulation data into a competitive advantage with AI solvers.
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Ready to transform your chemical engineering processes and boost innovation?
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