EIEIOTECHNOVATION
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EIEIO / AUTOMATION & EMERGING TECHNOLOGY

SOLIDWORKS MOTION

Course outline

2 days

Duration

2 days

Methodology

Practical case study models using computers, lecturing, discussions and case studies

Prerequisite

To ensure a consistent learning experience for all students, participants should have:

  • Mechanical Design Experienced
  • Experience with the Windows™ Operating System.
  • Attended both SolidWorks Essentials

Target Audience

R&D engineer

Product designer or engineer

Objective

This course will introduce the participants to fundamental design validation tool for conducting static analysis. This will include: -

  • Learning the difference between kinematic and dynamic mechanical system.
  • Learn and apply different joint constraints to demonstrate how components are move relative to each other.
  • Add common mechanism component such as spring, damper, bushing and etc to evaluate the required force input.
  • Learn to evaluate the both the mechanism inputs and outputs such as torque, displacement, velocity, acceleration and etc with respect with time.

Lesson 1: Introduction to Motion Simulation and Forces

  • Use Assembly Motion to animate the motion of a car jack assembly.
  • Use SolidWorks Motion to simulate physical behavior of the car jack and determine the torque required to lift a vehicle.

Lesson 2: Building a Motion Model and Postprocessing

  • Build proper SolidWorks Motion models for kinematic simulation.
  • Create and modify plots for post-processing.
  • Create local mates for a SolidWorks Motion study.

Lesson 3: Introduction to Contacts, Springs and Dampers

  • Check interference of components.
  • Specify solid bodies contact friction.
  • Apply contact to components.
  • Add a spring with damper to the assembly.

Lesson 4: Advanced Contact

  • Understand the definition as well as the description of contacts.
  • Analyze some causes of the incorrect solution or a contact solutions failure.
  • Use expressions to prescribe the magnitude of forces and motors.
  • Use alternative numerical integrators.

Lesson 5: Curve to Curve Contact

  • Understand the definition as well as the description of contacts.
  • Analyze some causes of the incorrect solution or a contact solution failure.
  • Use expressions to prescribe the magnitude of forces and motors.
  • Use alternative numerical integrators.

Lesson 6: CAM Synthesis

  • Use of a spline curve to control the motor.
  • Create a SolidWorks part with this CAM profile.
  • Create a trace path of a point to get the CAM profile.

Lesson 7: Motion Optimization

  • Define sensors to monitor the results of a motion study.
  • Design parameters to be used in a design study.
  • Define a design study to optimize the features of a motion study.

Lesson 8: Flexible Joints

  • Learn about Flexible connectors (Bushings).
  • Create Advanced Plots.

Lesson 9: Redundancies

  • Understand Redundancies and how they affect the simulation.
  • Assign the stiffness to each mate individually.
  • Understand how to build assemblies without redundancies.
  • Use Flexible mates to automatically remove redundancies in a mechanism.

Lesson 10: Export to FEA

  • Create an Action Only Moment.
  • Export loads from SolidWorks Motion to FEA Simulation.
  • Run the structural analysis in SolidWorks Simulation.

Lesson 11: Event Based Simulation

  • Understand and run event based simulation.
  • Create events with specific timing and logic.
  • Apply servo motors.

Lesson 12: Design Project (Optional)

  • Create a function based force.
  • Complete an analysis project from motion to FEA.
  • Export loads to SolidWorks Simulation.

Programme scope, delivery arrangements and suitability are confirmed during enquiry.