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SOLIDWORKS
PREMIUM
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SOLIDWORKS SIMULATION PROFESSIONAL
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SOLIDWORKS SIMULATION PREMIUM
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Liner Static Simulation for Part & Assembly
Tooltip: Test the performance of assembly in terms of stress, strain, displacements or Factor of safety. Compare product behavior under static loads to determine critical uses cases and to ensure adequate design strength
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Time Based Mechanism Motion Simulation
Tooltip: Test the motion of assembly under time based real-world operating conditions. Visualize the calculated force, velocity, accelerations during the assembly motion to ensure adequate behavior of product. Use results as a loading for a structural assembly simulation.
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Event-Based Motion Simulation
Tooltip: Test the motion of assembly with a simulation based on process not time. Actions can be triggered by the completion of a previous task, on time or the activation of a new motion sensor.
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Design comparison with parametric Simulation
Tooltip: Determine the best design option by comparing strengths, design life and weight for SOLIDWORKS Simulation or by comparing fluid flow results for SOLIDWORKS Flow Simulation
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Design optimization Simulation
Tooltip: Optimize the design by automatically modifying parametric model geometry to seek a design goal
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Frequency Simulation
Tooltip: Predict and control products natural modes of vibration (frequencies) to avoid potential damaging resonant frequencies. Study the effects of both loads and material choices on product performance
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Buckling or Collapse Simulation
Tooltip: Determine the effect of forces, pressures, gravity and centrifugal loads on thin and slender components maximum buckling strength. Study the effects of material choices on product performance
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Thermal Simulation
Tooltip: Study the impact of thermal loads on designs. Compare temperatures, temperature gradients, and heat flow based on heat generation, conduction, convection, and radiation conditions to ensure the best design option and avoid undesirable thermal conditions like overheating
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Pressure Vessel Design Simulation
Tooltip: Test the performance of Pressure Vessel designs combining the results of static studies with the desired factors.
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Drop Test Simulation
Tooltip: Test the performance of a product dropped on a rigid or flexible floor. Define drop height, surface type and orientation to reduce the number of physical prototypes with the virtual drop test simulation.
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Fatigue Simulation
Tooltip: Evaluate the consumed life of a design submitted to repeated loading (phenomenon known as fatigue). Consider cycles of stress fluctuation which weaken products to ensure adequate design quality
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Submodeling Simulation
Tooltip: Analyse the structural performance of critical parts within an assembly with Submodeling Principles. Focus the simulation on a group of bodies in a larger assembly structural analysis by refining the properties of those bodies and ensure a precise performance simulation.
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Plastic and Rubber Components Simulation
Tooltip: Capture the real world behavior of your plastic and rubber parts. Compare the impact of different non linear material choices on design performance. Reduce material costs while still ensuring overall product compliance
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Large Displacement Structural Simulation
Tooltip: Test product performance taking into account geometrical non linearities, large displacements effect on the overall geometric configuration of the structure
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Plastic Deformation And Residual Stresses Simulation
Tooltip: Predict and control residual stresses and deformation for non linear material models
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Composites Components Simulation
Tooltip: Investigate the application and performance of composite materials to design. Compare strength, weight and life or product made of composites
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Forced Vibrations Simulation
Tooltip: Predict and control vibrations or dynamic responses of products. Determine maximum load cases using a choice of integrated studies, including Transient, Harmonic response, Random Response and Response Spectrum Analysis
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Nonlinear Dynamics
Tooltip: Test the performance of products under real world conditions coupling non linear assumptions (displacement, buckling, material) with dynamic response analysis.
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