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RADIOSS Non-Linear
A Proven Transient, Dynamic Solver to Simulate Real-World Performance

RADIOSS is a comprehensive transient, dynamic finite-element solver to simulate impact, safety-related performance,
manufacturing processes and fluid-structure interaction problems.
Over the past 20 years, RADIOSS has become the nonlinear solver of choice of leading manufacturers,
government agencies and researchers.
From consumer product drop testing to vehicle crash analysis, from terminal ballistics to explosions,
RADIOSS provides a world-class solution to solve today's most complex physics problems.
RADIOSS Benefits
A Long Standing and Proven Technology to Efficiently and Accurately Solve the Most Complex Contact Problems:
Structural Simulation
Easily simulate dynamic loading events including crash, shock, impact, earthquake, wave propagation, etc.
Linear and nonlinear vibration analysis (modal and frequency domain)
Linear and nonlinear static analysis
Preferred Crash and Safety Performance Solution
RADIOSS includes a broad, correlated set of barriers, impactors, and occupant models. Coupled with HyperCrash,
RADIOSS provides a highly-tuned and automated crash simulation environment.

Cutting-Edge Biomechanics Technology
To predict human injury mechanisms to improve product safety and prostheses design.
Multi-Physics Capabilities
Fluid-structure interaction
Aero-acoustics analysis
External aerodynamics

Workload Management Solution Interface
PBS Professional can efficiently schedule and manages RADIOSS
compute workload on server infrastructures to minimize job turn-around-time.
Automated Robustness Studies and Design Optimization
Tightly integrated with HyperStudyDSS, optimization and design robustness studies can be performed quickly.
Comprehensive Material Library
Correlated material laws and rupture models include definitions for concrete,
foam, rubber, steel, composites, biomaterials, and more.
Highly Parallelized and Linearly Scalable for Computation Efficiency
Unlike other solver solutions, RADIOSS results do not vary with number
of processors used to solve explicit analysis problems.
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