Performance-Driven Generative Design with MODSIM

MODSIM supports a wide range of multidisciplinary simulations, allowing engineers to validate product performance under different conditions. The key simulation types include:

• Structural Analysis: Evaluates mechanical strength, stress, deformation, and fatigue of materials.
• Fluid Dynamics (CFD): Simulates airflow, fluid interactions, cooling, and aerodynamics.
• Thermal Analysis: Assesses heat distribution, thermal conductivity, and cooling strategies.
• Electromagnetic Simulation: Analyzes electromagnetic interference (EMI) and compatibility.
• Multibody Dynamics: Simulates motion, forces, and interactions between moving components.
• Generative Design Optimization: Uses AI-driven algorithms to generate lightweight and high-performance designs.

• Transportation & Mobility: Enhancing aerodynamics, crashworthiness, and electric vehicle (EV) battery performance.
• Aerospace & Defense: Optimizing aircraft structures, reducing weight, and improving fuel efficiency.
• Industrial Equipment: Designing robust machinery, improving manufacturability, and ensuring durability.
• Life Sciences & Healthcare: Simulating medical devices, prosthetics, and patient-specific implants.
• High-Tech: Evaluating thermal performance, optimizing circuit board layouts, and ensuring electromagnetic compatibility.
• Consumer-packaged-goods-retail: Creating sustainable packaging, improving product durability, and enhancing supply chain efficiency.

MODSIM integrates simulation-driven development, allowing engineers to validate designs early, make better decisions and reduce late-stage modifications. By enabling virtual testing of multiple design options, it minimizes physical prototyping, reducing costs and iterations. Automated workflows streamline repetitive tasks, while collaboration tools ensure data consistency across teams. This approach eliminates delays, improves efficiency, and speeds up product innovation cycles, leading to faster market entry.

MODSIM helps companies achieve sustainability goals by optimizing material usage while aligning with performance objectives, reducing waste, enhancing energy efficiency, and supporting recyclability. AI-driven generative design creates lightweight structures that minimize raw material consumption, while thermal and fluid simulations improve energy performance. Additionally, early manufacturability analysis ensures production efficiency, reducing waste and enabling products to align with circular economy principles.

Yes, MODSIM is designed for accessibility, allowing non-experts to leverage simulation insights through predefined templates, automated optimization tools, and an intuitive user interface. Engineers without deep simulation expertise can easily set up and analyze results, reducing dependency on specialists. This democratization of simulation empowers cross-functional teams to validate designs efficiently and make informed decisions.

MODSIM enhances collaboration by providing a centralized data environment within the 3DEXPERIENCE platform where design and simulation teams can work seamlessly. This platform eliminates the need for scattered file storage, as all data is securely stored in a shared database. Key benefits include:

• Unified data model: Eliminates the need for separate tools, reducing errors and miscommunication.
• Real-time collaboration: Teams can access and update simulation results within the same platform, ensuring version control and data consistency.
• Traceability and compliance: Engineers can track design changes, link them to simulation results, and generate audit-ready documentation.
• Cross-functional integration: Teams from design, simulation, manufacturing, and sustainability can work together to optimize product performance.