Motion Simulation is for users who would like to become productive quickly in using SOLIDWORKS Motion. This 2-day course will teach you how to use the SOLIDWORKS Motion simulation package to study your SOLIDWORKS assembly models’ kinematics and dynamic behavior. In addition, the course provides an in-depth session on the basics of building, simulating, and refining a mechanical design system.
This course teaches the essential skills you will need to start performing fundamental computational fluid dynamics (CFD) simulations on your own using SOLIDWORKS Flow Simulation. This two-day training program provides an in-depth session on the basics of fluid flow analysis, covering meshing concerns, modeling concerns, analysis, post-processing, available options, and preferences.
Topics covered are: sketching, multi-contour sketching, reference geometry creation, design intent, feature creation, shelling, configurations, assemblies, drawings/detailing, editing, parent-child relationships, relations, rudimentary top-down design, and advanced
mating techniques.
Advanced Part Modeling teaches you how to use multibody solids, sweeping and lofting features, and the more advanced shaping capabilities of SOLIDWORKS.
Motion Simulation is for users who would like to become productive quickly in using SOLIDWORKS Motion. This 2-day course will teach you how to use the SOLIDWORKS Motion simulation package to study your SOLIDWORKS assembly models’ kinematics and dynamic behavior. In addition, the course provides an in-depth session on the basics of building, simulating, and refining a mechanical design system.
Topics covered in this course are: heat transfer analysis, steady state, and transient; frequency analysis; effect of in-plane loading on thin-walled structures; structural failure under compressive loads; buckling of elastic structures; meshing options; drop testing; fatigue; optimization.
Topics covered in this course are: introduction to FEA; FEA principles and theory; element quality; linear static analysis of parts; gap/contact and advanced assembly analysis; analysis setup and post-processing; evaluating FE convergence; limitations of linear analysis; load and boundary condition application; stress analysis with thermal loading; model and result validation; automatic report generation.
This course is designed for users who would like to become productive in analyzing structures subjected to various types of dynamic loading. The material covered includes the time-dependent analysis (force loads and motion shock loading examples), harmonic analysis and random vibration analysis (MILS-STD-810F example), response spectrum analysis, and introduction to nonlinear dynamics simulation.
