Ansys Multiphysics
Multiphysics in real life
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PRODUCT OVERVIEW

In real life, physics don’t happen one at a time. Fluid, structural, thermal, and electromagnetic forces are constantly interacting. It’s where these domains collide that phenomena such as heat transfer, deformation, and mass transport occur. Multiphysics is the analysis of the complex interactions between physical forces through computer simulation. By bringing individual physics solvers together into a single computational framework, multiphysics workflows help engineers accurately

Product Features

Fluid-structure Interaction

Modeling how airflow (fluid dynamics) affects the deformation and shock absorption (structural mechanics) of landing gear.

Thermal-optics Coupling

Modeling how outdoor temperatures (thermal effects) affect the clarity of projected images in vehicles (optics).

Structural-acoustic Coupling

Modeling how aural feedback (acoustics) in vehicles is caused by tire-to-surface friction (structural mechanics).

Electromagnetic-thermal Coupling

Modeling how a motor’s energy fields (electromagnetics) produce heat (thermal dynamics) to optimize heat exchangers and fans.

MODULES

Ansys Lumerical FDTD Aerospace Elite Channel Partner 3D Engineering Automation LLP

Aerospace

Fluid-structure interaction analysis to determine optimal weight, shape, and structure of aircraft wings.

Ansys Lumerical FDTD Automotive Elite Channel Partner 3D Engineering Automation LLP

Automotive

Simulating thermal expansion and deformations in headlamps to predict optical performance.

Ansys Lumerical FDTD Healthcare Elite Channel Partner 3D Engineering Automation LLP

Healthcare

Modeling interactions between human tissue and medical device structures such as implants and stents.

Ansys Lumerical FDTD Industrial Elite Channel Partner 3D Engineering Automation LLP

Industrial

Reducing wear and tear on motors by identifying vibration sources through magnetic, structural, and acoustic analysis.

Multiphysics Simulation

Realistic modeling

Accurately capture real-world scenarios where multiple physics domains interact simultaneously.

System-level analysis

Gain insights into how physics couplings influence overall system performance.

Time efficiency

Analyze entire systems at the same time, instead of in domain silos.

Data congruency

Different physical domains have different timescales, spatial scales, and mesh resolutions.

User expertise

Interpreting multiphysics simulations requires knowledge from experts across disciplines.

Computational cost

The processing intensity of multiphysics simulations require significant resources and time.

What’s New

Single-solver Multiphysics

Performs cross-domain analysis within one solver for a specific set of coupled physics equations. Provides simple setup in which interactions are tightly coupled.

System coupling multiphysics

Coordinates and exchanges data between specialized solvers in one computational framework. Provides greater flexibility in modeling complex situations that require coordination of independent solvers to capture the interactions between the physics models.