Simulation Courses – CADVision Systems SOLIDWORKS https://www.cad-vision.com.my Preferred SOLIDWORKS Partner Thu, 02 Mar 2023 08:23:27 +0000 en-US hourly 1 CADVision Systems is now a member of NAFEMS! https://www.cad-vision.com.my/cvs-joins-nafems/ Wed, 26 Jan 2022 07:42:17 +0000 https://www.cad-vision.com.my/?p=19614

 

CADVision Systems is proud to announce that we are now a member of NAFEMS and is honored to be part of the International Association for the Engineering Modelling, Analysis and Simulation Community.

As modelling and simulation has become increasingly important to develop the next generation of sustainable technologies, we have faith that our movement and involvement with NAFEMS is part of our commitment to develop not only world-class capabilities in CAE, but also to deepen our knowledge in the latest CAE applications and methods across industry sectors.

As NAFEMS member, we believe this allows us to develop our competency and keep up with the ever-advancing world of engineering simulation technology to better serve local engineers, company and the industry in meeting their engineering challenges.

Want to know more about simulation? Click here

 

 

]]> SOLIDWORKS Simulation Premium: Nonlinear & Dynamics Course https://www.cad-vision.com.my/solidworks-simulation-premium-nonlinear-dynamics/ https://www.cad-vision.com.my/solidworks-simulation-premium-nonlinear-dynamics/#respond Thu, 07 Jan 2021 05:48:22 +0000 https://www.cad-vision.com.my/?p=16667 .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98{ background-repeat:no-repeat; background-image:url(https://www.cad-vision.com.my/storage/2019/04/training-hero-banner-1030x343-1.png); background-position:50% 50%; background-attachment:scroll; } .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98 .av-section-color-overlay{ opacity:0.3; background-color:#383838; }

Training

SOLIDWORKS Simulation premium: nonlinear & dynamics Course

SOLIDWORKS Simulation Premium: Nonlinear & Dynamics Course. The best value for what you get! This 4-day class, created for SOLIDWORKS Simulation Premium users, will raise FEA skills to the next level! The first part of the course will teach you the basic and advanced topics in non-linear stress analysis. You will learn how to deal with models that exhibit large displacements and/or yielding, discuss and practice the use of many material models available in SOLIDWORKS Simulation Premium, and, most importantly, how to drive a non-linear analysis to successful completion. The second part of the course will expose you to various advanced topics in Dynamics. The material covered includes the time-dependent analysis, harmonic analysis, and random vibrations. (Note, this course is a combination of the SOLIDWORKS Simulation Premium: Nonlinear and SOLIDWORKS Simulation Premium: Dynamics courses).

Prerequisites: Must have attended the basic SOLIDWORKS Simulation class, or must have an experience with SOLIDWORKS + working basic knowledge of finite elements and of basic mechanical principles. The knowledge of basic principles in Vibrations is strongly recommended, but not required.

Length: 4 days

  • Nonlinear elasticity
  • Hyperelasticity (Mooney-Rivlin, Ogden)
  • Plasticity (von Mises, isotropic/kinematic/mixed hardening rules)
  • Visco-elasticity and creep
  • 3D nonlinear gap/contact analysis (with or without material nonlinearities).
  • Solution control techniques (force, displacement, and Arc-Length controls)
  • Equilibrium Iterations schemes (Newton-Raphson, modified Newton-Raphson)
  • Termination schemes (convergence and divergence criteria)
  • Adaptive automatic stepping algorithm
  • Prescribed non-zero displacements associated with time curves
  • Deformation dependent loading
  • Analysis stabilization techniques
  • Deflected shape plots
  • Displacement and stress color filled contour plots
  • Animation of deflected shape, displacement, and stress contour plots
  • X-Y plots for response quantities Isoplanes and sectioning
  • Modal time history analysis
  • Steady-state harmonic analysis
  • Random vibration
  • Response spectrum analysis
  • Introduction to nonlinear dynamic simulation
  • Rayleigh damping, modal damping, composite damping
  • Load vs. time data for nodal forces, pressure loads
  • Uniform and nonuniform base excitations in the time or frequency domain for displacement, velocity and acceleration
  • Harmonic excitation for nodal forces, pressure loads, uniform and nonuniform ground motions and varied phase angles
  • Power spectral density (PSD) excitation curves for nodal forces, pressure loads, uniform and nonuniform ground motions

Interested in our Training Courses?

Book a Course Now
]]> https://www.cad-vision.com.my/solidworks-simulation-premium-nonlinear-dynamics/feed/ 0 SOLIDWORKS Simulation & SOLIDWORKS Simulation Professional Course https://www.cad-vision.com.my/solidworks-simulation-solidworks-simulation-professional-course/ https://www.cad-vision.com.my/solidworks-simulation-solidworks-simulation-professional-course/#respond Thu, 07 Jan 2021 05:40:07 +0000 https://www.cad-vision.com.my/?p=16664 .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98{ background-repeat:no-repeat; background-image:url(https://www.cad-vision.com.my/storage/2019/04/training-hero-banner-1030x343-1.png); background-position:50% 50%; background-attachment:scroll; } .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98 .av-section-color-overlay{ opacity:0.3; background-color:#383838; }

Training

SOLIDWORKS Simulation & SOLIDWORKS Simulation Professional Course

SOLIDWORKS Simulation & SOLIDWORKS Simulation Professional is designed to make SOLIDWORKS users productive more quickly with the SOLIDWORKS Simulation Professional analysis package. The 4-day training class provides in-depth coverage on the basics of Finite Element Analysis (FEA), covering the entire process from meshing to evaluation of results for parts and assemblies. It discusses linear stress analysis covering the entire analysis process from meshing to evaluation of results for parts and assemblies, gap/contact analysis, and best practices. 4th day covers heat transfer analysis, frequency analysis, fatigue, stability analysis based on linear buckling concepts, 2D simulations (plane stress, strain, and axisymmetry), and pressure vessel modulus. Examples of parts and assemblies including those with various gap/contact conditions are reviewed.

Prerequisites: Knowledge of SOLIDWORKS and basic mechanical engineering concepts is recommended.

Length: 4 days

  • Key concepts and principles
  • FEA and CAD modeling approaches
  • Boundary Conditions
  • Loads
  • Elements
  • Linear vs non-linear analysis
  • Preprocessing
  • Analysis set up, Results visualization, and post-processing
  • Meshing options
  • Mixed Meshing options
  • Adaptive Meshing
  • Loads and Restraints
  • Small vs. Large displacement
  • Linear static analysis of parts
  • Gaps/Contact and Advanced Assembly Analysis
  • Assemblies with special connectors and bolts
  • Frequency Analysis
  • Effect of In-plane loading on thin-walled structures
  • Linear Buckling Analysis
  • Heat Transfer: Conduction, Convection, and Radiation
  • Thermal Stress Analysis with contacts
  • Drop Test
  • Optimization
  • Fatigue analysis (S-N curves, single/multiple invent formulations)
  • 2D Simulations (plane stress, plane strain, and axisymmetry)
  • Pressure vessel modulus

Interested in our Training Courses?

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]]> https://www.cad-vision.com.my/solidworks-simulation-solidworks-simulation-professional-course/feed/ 0 SOLIDWORKS Plastics Course https://www.cad-vision.com.my/solidworks-plastics-course/ https://www.cad-vision.com.my/solidworks-plastics-course/#respond Thu, 07 Jan 2021 04:29:08 +0000 https://www.cad-vision.com.my/?p=16658 .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98{ background-repeat:no-repeat; background-image:url(https://www.cad-vision.com.my/storage/2019/04/training-hero-banner-1030x343-1.png); background-position:50% 50%; background-attachment:scroll; } .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98 .av-section-color-overlay{ opacity:0.3; background-color:#383838; }

Training

SOLIDWORKS Plastics Course

SOLIDWORKS Plastics teaches you how to use specialized simulation software tools to predict how melted plastic flows during the injection molding process. Predicting how the plastic will flow enables you to predict manufacturing defects such as weld lines, air traps, short shots, and sink marks. By predicting these defects, you can change the part or mold geometry, the processing conditions, or the plastic material itself to eliminate or minimize them, saving energy, material, time, and money. The SOLIDWORKS Plastics course covers all the features and functions of both SOLIDWORKS Plastics Professional (for part designers) and SOLIDWORKS Plastics Premium (for mold designers).

Prerequisites: SOLIDWORKS Essentials and fundamental knowledge of plastic materials, plastic part design, and/or injection mold design

Length: 3 days

  • Basic Flow Analysis
  • Stages in the Process
  • New Study
  • Injection Process
  • Element Types
  • Units
  • User Interface
  • Injection Units
  • Material
  • Boundary Conditions
  • Injection Location
  • Create Mesh
  • Running a Flow Analysis
  • Flow Results
  • Exercise 1: Basic Flow Analysis
  • Detecting Short Shots
  • Stages in the Process
  • Fill Properties
  • Flow Front Central Temperature
  • Configurations
  • Exercise 2: Short Shots
  • Automation Tools
  • Stages in the Process
  • Duplicate Study
  • Plastics File ManagementBatch Manager
  • Summary and Report
  • Exercise 3: Design Changes
  • Injection Locations and Sink Marks
  • Stages in the Process
  • Injection Location Rules
  • Visibility Commands
  • Sink Marks
  • Exercise 4: Minimizing Sink Marks (1)
  • Exercise 5: Minimizing Sink Marks (2)
  • Material Properties
  • Stages in the Process
  • User-defined Database
  • Resin Properties
  • Temperature Properties
  • Heat Transfer Properties
  • Viscosity
  • PVT Data
  • Mechanical Properties
  • Mesh Manipulation
  • Stages in the Process
  • Local Mesh Refinement
  • Edit/Review
  • Element Issues
  • Leader Lines
  • Edit Study
  • Solid Mesh
  • Solid mesh size
  • Exercise 6: Mesh Repairs
  • Detecting Air Traps
  • Stages in the Process
  • Air Traps
  • Venting
  • Exercise 7: Air Traps
  • Gate Blush
  • Stages in the Process
  • Runner Elements
  • Gate Blush
  • Packing and Cooling
  • Stages in the Process
  • Flow/Pack Switch
  • Pack Stage
  • Pack Analysis
  • Pack Results
  • X-Y Plot
  • Clipping Plane Mode
  • Isosurface Mode
  • Cooling Times
  • Exercise 8: Packing and Cooling Times
  • Exercise 9: Optimizing Cooling Time
  • Multiple Injection Locations
  • Multiple Cavity Molds
  • Stages in the Process
  • Mold Layouts
  • Runner System
  • Runner Channel Design
  • Clamping Force
  • Runner Wizard Channel Design
  • Family Mold Layout
  • Using Runner-Balancing
  • Exercise 10: Multiple Cavity Molds
  • Exercise 11: Runner-Balancing
  • Exercise 12: Clamp Force
  • Symmetry Analysis
  • Stages in the Process
  • Symmetrical Runner
  • Symmetry Face
  • Exercise 13: Half Symmetry
  • Valve Gates and Hot Runners
  • Stages in the Process
  • Hot Runners
  • Valve Gates
  • Reaction Injection Molding
  • Stages in the Process
  • Reaction Injection Molding
  • Using Inserts
  • Stages in the Process
  • Inserts
  • Metal Material Database
  • Multi-Material Overmolding
  • Stages in the Process
  • Multi-Material Overmolding
  • Domain Order
  • Co-Injection Molding
  • Stages in the Process
  • Thick Parts
  • Bi-Injection Molding
  • Stages in the Process
  • Thick Parts
  • Copy and Paste
  • Bi-Injection
  • Injection Start Value
  • Cooling Analysis
  • Stages in the Process
  • Cooling
  • Cooling Channels and Mold Bodies
  • Baffle
  • Bubbler
  • Cooling Simulations
  • Coolant
  • Mold
  • Cool Parameters
  • Cool Analysis
  • Cool Results
  • Exercise 14: Cooling Analysis
  • Warpage Analysis
  • Stages in the Process
  • Shrinkage
  • Warpage
  • Warp Parameters
  • Warp Results
  • Reducing and Fixing Warped Parts

Interested in our Training Courses?

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]]> https://www.cad-vision.com.my/solidworks-plastics-course/feed/ 0 SOLIDWORKS Simulation Professional Course https://www.cad-vision.com.my/solidworks-simulation-professional-course/ https://www.cad-vision.com.my/solidworks-simulation-professional-course/#respond Thu, 11 Apr 2019 06:15:51 +0000 https://www.cad-vision.com.sg/?p=398 .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98{ background-repeat:no-repeat; background-image:url(https://www.cad-vision.com.my/storage/2019/04/training-hero-banner-1030x343-1.png); background-position:50% 50%; background-attachment:scroll; } .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98 .av-section-color-overlay{ opacity:0.3; background-color:#383838; }

Training

SOLIDWORKS Simulation Professional Course

This course is designed to make SOLIDWORKS Simulation users productive with the SOLIDWORKS Simulation Professional extension. This one day course will provide an in-depth coverage on the advanced topics in Finite Element Analysis (FEA) including heat transfer analysis, frequency analysis, fatigue, stability analysis based on the linear buckling concepts, 2D simulations (plane stress, strain and axisymmetry) and pressure vessel modulus. Example or parts and assemblies including those with various gap contact conditions are reviewed.

Prerequisites: Students must have attended the introductory SOLIDWORKS Simulation course (3 days) or must have working knowledge of the SOLIDWORKS Simulation software. Knowledge of SOLIDWORKS and basic mechanical engineering concepts is recommended.

Length: 1 day

  • About This Course
  • What is SolidWorks Simulation?
  • Limitations of SolidWorks Simulation
  • Professional
  • Modal Analysis Basics
  • Case Study: The Tuning Fork
  • Frequency Analysis With Supports
  • Frequency Analysis Without Supports
  • Frequency Analysis with Load
  • Case Study: The Engine Mount
  • All Bonded Contact Conditions
  • Remote Mass
  • Mass Properties
  • Bonded and Allow Penetration Contacts
  • Buckling Analysis
  • Linear vs. Nonlinear Buckling Analysis
  • Buckling Factor of Safety (BFS)
  • Buckling Analysis Considerations
  • Case Study: Particle Separator
  • Project Description
  • Objectives
  • Load Cases
  • Case Study: Scaffolding
  • Submodeling
  • Case Study: Scaffolding
  • Part 1: Parent Study
  • Parent Load Cases in Submodeling Study
  • Part 2: Child Study
  • Selecting Components for Submodeling
  • Submodel Fixtures
  • Case Study: Rear Bike Shock Link
  • Goals and Constraints
  • Manufacturing Controls
  • Mesh Effects
  • Load Cases in Topology Studies
  • Export Smoothed Mesh
  • Objectives
  • Thermal Analysis Basics
  • Case Study: Microchip Assembly
  • Project Description
  • Steady-State Thermal Analysis
  • Transient Thermal Analysis
  • Transient Analysis with Time Varying Load
  • Transient Thermal Analysis using a
  • Thermostat
  • Case Study: Spot Light Assembly
  • Steady State Analysis
  • Review of Analysis Parameters
  • Heat Flux Singularities
  • Simplification
  • Objectives
  • Thermal Stress Analysis
  • Case Study: Metal Expansion Joint
  • Project Description
  • Thermal Analysis
  • Thermal Stress Analysis
  • 3D model
  • Microchip Testing Assembly
  • Thermoelectric Cooler
  • Fatigue
  • Stress-life (S-N) Based Fatigue
  • Case Study: Pressure Vessel
  • Thermal Study
  • Thermal Stress Study
  • Fatigue Terminology
  • Fatigue Study
  • Fatigue study with Dead Load
  • Objectives
  • Case Study: Suspension
  • Project Description
  • Fatigue Study
  • Drop Test Analysis
  • Case Study: Camera
  • Project Description
  • Rigid Floor Drop Test
  • Elastic Floor, Elasto-Plastic Material
  • Elasto-Plastic Material Model
  • Drop Test with Contact
  • Objectives
  • Optimization Analysis
  • Case Study: Press Frame
  • Project Description
  • Static and Frequency Analyses
  • Optimization Analysis
  • Design Study
  • Objectives
  • Case Study: Pressure Vessel
  • Membrane and Bending Stresses (Stress
  • Linearization)
  • Pressure Vessel Analysis
  • Manhole Nozzle Flange and Cover

Interested in our Training Courses?

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]]> https://www.cad-vision.com.my/solidworks-simulation-professional-course/feed/ 0 SOLIDWORKS Simulation Premium: Nonlinear https://www.cad-vision.com.my/solidworks-simulation-premium-nonlinear/ https://www.cad-vision.com.my/solidworks-simulation-premium-nonlinear/#respond Thu, 11 Apr 2019 06:07:00 +0000 https://www.cad-vision.com.sg/?p=395 .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98{ background-repeat:no-repeat; background-image:url(https://www.cad-vision.com.my/storage/2019/04/training-hero-banner-1030x343-1.png); background-position:50% 50%; background-attachment:scroll; } .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98 .av-section-color-overlay{ opacity:0.3; background-color:#383838; }

Training

SOLIDWORKS Simulation Premium: Nonlinear

This class will raise your SOLIDWORKS Simulation FEA skills to the next level! It offers hands-on experience on the use of SOLIDWORKS Simulation Premium nonlinear module. The 2-day course provides an overview on a wide range of nonlinear structural/mechanical analysis topics. You will learn how to deal with models that exhibit large displacements and/or yielding, discuss and practice the use of many material models available in SOLIDWORKS Simulation and, most importantly, how to drive a non-linear analysis to successful completion.

Prerequisites: Must have attended the basic SOLIDWORKS Simulation class, or must have an experience with SOLIDWORKS + working basic knowledge of finite elements and of basic mechanical principles.

Length: 2 days

  • Case Study: Hose Clamp
  • Linear Static Analysis
  • Auxiliary Boundary Conditions
  • Geometrically Linear Analysis: Limitations
  • Nonlinear Static Study
  • Linear Static Study (Large Displacement)
  • Techniques
  • Incremental Control Techniques
  • Case Study: Trampoline
  • Linear Analysis
  • Membrane Structures
  • Nonlinear Analysis – Force Control
  • Nonlinear Analysis – Displacement Control
  • Analysis
  • Case Study: Cylindrical Shell
  • Linear Buckling
  • Linear Static Study
  • Nonlinear Symmetrical Buckling
  • Nonlinear Asymmetrical Buckling
  • Case Study: Paper Clip
  • Linear Elastic
  • Nonlinear – von Mises
  • Nonlinear – Tresca’s
  • Stress Accuracy
  • Mesh Sectioning
  • Stress Analysis of a Beam Using Nonlinear
  • Elastic Material
  • Hardening Rules
  • Case Study: Crank Arm
  • Isotropic Hardening
  • Kinematic Hardening
  • Case Study: Rubber Pipe
  • Two Constant Mooney-Rivlin (1 Material Curve)
  • Coefficient of Determination
  • 2 Constant Mooney-Rivlin (2 Material Curves)
  • 2 Constant Mooney-Rivlin (3 Material Curves)
  • 6 Constant Mooney-Rivlin (3 Material Curves)
  • Case Study: Rubber Tube
  • Instability in Assemblies
  • Stabilization
  • Releasing Prescribed Displacement
  • Validity and Limitations of Static
  • Analysis
  • Bending
  • Case Study: Sheet Bending
  • Plane Strain
  • Large Strain Formulation Option
  • Convergence Problems
  • Automatic Stepping Problems
  • Small Strain Vs. Large Strain
  • Formulations

Interested in our Training Courses?

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]]> https://www.cad-vision.com.my/solidworks-simulation-premium-nonlinear/feed/ 0 SOLIDWORKS Simulation Premium – Dynamics Course https://www.cad-vision.com.my/solidworks-simulation-premium-dynamics-course/ https://www.cad-vision.com.my/solidworks-simulation-premium-dynamics-course/#respond Thu, 11 Apr 2019 05:59:53 +0000 https://www.cad-vision.com.sg/?p=392 .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98{ background-repeat:no-repeat; background-image:url(https://www.cad-vision.com.my/storage/2019/04/training-hero-banner-1030x343-1.png); background-position:50% 50%; background-attachment:scroll; } .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98 .av-section-color-overlay{ opacity:0.3; background-color:#383838; }

Training

SOLIDWORKS Simulation Premium – Dynamics Course

This course is targeted for the 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 as well as motion shock loading examples), harmonic analysis and random vibration analysis (MIL-STD-810F example is included), response spectrum analysis, and introduction to nonlinear dynamics simulation.

Prerequisites: Must have attended the basic SOLIDWORKS Simulation class, or must have an experience with SOLIDWORKS + working basic knowledge of finite elements and of basic mechanical principles. The knowledge of basic principles in Vibrations is strongly recommended, but not required.

Length: 2 days

  • Static Analysis
  • Frequency Analysis
  • Dynamic Analysis (Slow Force)
  • Linear Dynamic Analysis
  • Dynamic Analysis (Fast Force)
  • Mass Participation Factor
  • Cumulative Mass Participation Factor
  • Damping
  • Viscous Damping
  • Time Step
  • Model with Remote Mass
  • Harmonic Analysis Basics
  • Single DOF Oscillator
  • Harmonic Study Properties
  • Response Spectrum Analysis Procedure
  • Response Spectrum Input
  • Mode Combination Method
  • Distributed Mass
  • Random Vibration Analysis
  • Power Spectral Density Function
  • Overall Level of Acceleration PSD
  • Decibels
  • Random Study Properties
  • Random Vibration Fatigue
  • Material Properties, S-N Curve
  • Random Vibration Fatigue Options
  • Linear Dynamic Analysis
  • Nonlinear Dynamic Analysis
  • Linear vs. Nonlinear Dynamic Analysis
  • Rayleigh Damping
  • Time Integration Methods

Interested in our Training Courses?

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]]> https://www.cad-vision.com.my/solidworks-simulation-premium-dynamics-course/feed/ 0 SOLIDWORKS Flow Simulation Course https://www.cad-vision.com.my/solidworks-flow-simulation-course/ https://www.cad-vision.com.my/solidworks-flow-simulation-course/#respond Wed, 10 Apr 2019 09:54:38 +0000 https://www.cad-vision.com.sg/?p=361 .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98{ background-repeat:no-repeat; background-image:url(https://www.cad-vision.com.my/storage/2019/04/training-hero-banner-1030x343-1.png); background-position:50% 50%; background-attachment:scroll; } .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98 .av-section-color-overlay{ opacity:0.3; background-color:#383838; }

Training

SOLIDWORKS Flow Simulation Course

The two-day training program provides an in-depth session on the basics of fluid flow analysis, in addition to covering meshing concerns, modeling concerns, analysis, post-processing, available options and preferences.

Prerequisites: Some experience in using SOLIDWORKS

Length: 2 Days

  • Simulation Project
  • Internal Flow Analysis
  • External Flow Analysis
  • Manifold Analysis
  • Model Preparation
  • Computational Domain
  • Post-processing
  • Discussion
  • Case Study: Chemistry Hood
  • Computational Mesh
  • Basic Mesh
  • Initial Mesh
  • Geometry Resolution
  • Optimize Thin Wall Resolution
  • Result Resolution/Level of Initial Mesh
  • Control Planes
  • Boundary Conditions
  • Case Study: Electronics Enclosure
  • Fans
  • Perforated Plates
  • Material with Orthotropic Thermal
  • Conductivity
  • Case Study: Flow around a Cylinder
  • Reynolds Number
  • External Flow
  • Transient Analysis
  • Turbulence Intensity
  • Solution Adaptive Mesh Refinement
  • Two Dimensional Flow
  • Computational Domain
  • Calculation Control Options
  • Time Animation
  • Case Study: Heated Cold Plate
  • Conjugate Heat Transfer
  • Real Gases
  • Goal Plot in the Solver Window
  • Heat Exchanger with Multiple Fluids
  • Case Study: Electronics Enclosure
  • EFD Zooming
  • EFD Zooming – Computational Domain
  • Case Study: Catalytic Converter
  • Porous Media
  • Porosity
  • Permeability Type
  • Resistance
  • Dummy Bodies
  • Design Modification
  • Channel Flow
  • Rotating Reference Frame
  • Part 1: Averaging
  • Case Study: Table Fan
  • Noise Prediction
  • Part 2: Sliding Mesh
  • Case Study: Blower Fan
  • Problem Description
  • Tangential Faces of Rotors
  • Time Step
  • Case Study: Piston Valve
  • Parametric Analysis
  • Steady State Analysis
  • Goal Optimization
  • Design Scenario
  • Multi Parameter Optimization
  • Variable Geometry Dependent Solution
  • Case Study: Dam-Break Flow
  • Free Surface
  • Volume of Fluid (VOF)
  • Experimental Data
  • Heat Exchanger with Multiple Fluids
  • Case Study: Cone Valve
  • Problem Description
  • Cavitation
  • Objectives
  • Relative Humidity
  • Case Study: Cook House
  • Case Study: Hurricane Generator
  • Particle Trajectories – Overview
  • Particle Study – Physical Settings
  • Particle Study – Wall Condition
  • Objectives
  • Supersonic Flow
  • Case Study: Conical Body
  • Drag Coefficient
  • Shock Waves
  • Objectives
  • Case Study: Billboard
  • Problem Description
  • Summary

Interested in our Training Courses?

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]]> https://www.cad-vision.com.my/solidworks-flow-simulation-course/feed/ 0 SOLIDWORKS Simulation Course https://www.cad-vision.com.my/solidworks-simulation-course/ https://www.cad-vision.com.my/solidworks-simulation-course/#respond Wed, 10 Apr 2019 05:50:31 +0000 https://www.cad-vision.com.sg/?p=388 .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98{ background-repeat:no-repeat; background-image:url(https://www.cad-vision.com.my/storage/2019/04/training-hero-banner-1030x343-1.png); background-position:50% 50%; background-attachment:scroll; } .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98 .av-section-color-overlay{ opacity:0.3; background-color:#383838; }

Training

SOLIDWORKS Simulation Course

This course is designed to make SOLIDWORKS users productive more quickly with the SOLIDWORKS Simulation Bundle. This course will provide an in-depth coverage on the basics of Finite Element Analysis (FEA), covering the entire analysis process from meshing to evaluation of results for parts and assemblies. The class discusses linear stress analysis, gap/contact analysis, and best practices.

Prerequisites: Knowledge of SOLIDWORKS and basic mechanical engineering concepts is recommended.

Length: 3 days

  • About This Course
  • What is SOLIDWORKS Simulation?
  • What Is Finite Element Analysis
  • Build Mathematical Model
  • Build Finite Element Model
  • Solve Finite Element Model
  • Analyze Result
  • Errors in FEA
  • Finite Elements
  • Degrees of Freedom
  • Calculations in FEA
  • Interpretation of FEA Results
  • Units of Measurement
  • Limitations of SOLIDWORKS Simulation
  • Objectives
  • The Analysis Process
  • Case Study: Stress in a Plate
  • Project Description
  • SOLIDWORKS Simulation Options
  • Preprocessing
  • Meshing
  • Postprocessing
  • Multiple Studies
  • Reports
  • Concentrations and Boundary Conditions
  • Objectives
  • Mesh Control
  • Case Study: The L Bracket
  • Project Description
  • Case Study: Analysis of Bracket with a Fillet
  • Case Study: Analysis of a Welded Bracket
  • Understanding the Effect of Boundary
  • Conditions
  • Objectives
  • Contact Analysis
  • Case Study: Pliers with Global Contact
  • Pliers with Local Contact
  • Objectives
  • Shrink Fit Parts
  • Case Study: Shrink Fit
  • Project Description
  • Analysis with Soft Springs
  • Objectives
  • Connecting Components
  • Connectors
  • Mesh Control in an Assembly
  • Case Study: Cardan Joint
  • Draft Quality Coarse Mesh Analysis
  • High Quality Mesh Analysis
  • Compatible / Incompatible Meshing
  • Case Study: Rotor
  • Compatible Mesh
  • Incompatible Mesh
  • Automatic Switch to Incompatible Mesh
  • Incompatible Bonding Options
  • Cyclic Symmetry
  • Thin Components
  • Case Study: Pulley
  • Mesh with Solid Elements
  • Refined Solid Mesh
  • Solid vs. Shell
  • Creating Shell Elements
  • Shell Elements – Mid-plane Surface
  • Results Comparison
  • Case Study: Joist Hanger
  • Mixed Meshing Solids and Shells
  • Bonding Shells and Solids
  • Mixed Mesh: Supported Analysis Types
  • Case Study: Pressure Vessel
  • Bonding Entities with Clearance
  • Shell Face to Shell Face Bonding
  • Failure Diagnostics
  • Meshing Small Features
  • Incremental Meshing
  • Beam Elements
  • Truss Elements
  • Slenderness Ratio
  • Section Properties
  • Connected and Disconnected Joints
  • Beam Join Types
  • Render Beam Profile
  • Bending Moment and Shear Force Diagrams
  • Mixed Meshing
  • Case Study: Particle Separator
  • Beam Imprint
  • Case Study: Suspension Design
  • Multiple Load Cases
  • Design Study
  • Parameters
  • Geometry Modification
  • Design Study Graph
  • Thermal Stress Analysis
  • Case Study: Bimetallic Strip
  • Importing Temperature
  • Averaging Stress
  • Examining Results in Local Coordinate
  • Systems
  • Saving Model in its Deformed Shape
  • Adaptive Meshing
  • Case Study: Support Bracket
  • h-Adaptivity Study
  • Convergence Graph
  • p-Adaptivity Study
  • h vs. p Elements – Summary
  • Small vs. Large Displacement Analysis
  • Case Study: Clamp
  • Small Displacement Linear Analysis
  • Large Displacement Nonlinear Analysis

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]]> https://www.cad-vision.com.my/solidworks-simulation-course/feed/ 0 SOLIDWORKS Motion Course https://www.cad-vision.com.my/solidworks-motion-course/ https://www.cad-vision.com.my/solidworks-motion-course/#respond Wed, 10 Apr 2019 05:00:36 +0000 https://www.cad-vision.com.sg/?p=376 .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98{ background-repeat:no-repeat; background-image:url(https://www.cad-vision.com.my/storage/2019/04/training-hero-banner-1030x343-1.png); background-position:50% 50%; background-attachment:scroll; } .avia-section.av-ju9gq53a-63250e2490b124886cdc542fb6ba6a98 .av-section-color-overlay{ opacity:0.3; background-color:#383838; }

Training

SOLIDWORKS Motion Course

Designed for users who would like to become productive quickly in using SOLIDWORKS Motion. This 2-days course will teach you how to use the SOLIDWORKS Motion simulation package to study the kinematics and dynamic behavior of your SOLIDWORKS assembly models.

Prerequisites: Knowledge of SOLIDWORKS and the basics of the MotionManager is required. If you are not familiar with the basics of the MotionManager, the class manager will send you a self- paced lesson that should be completed before class begins. Knowledge of basic mechanical engineering concepts is recommended.

Length: 2 days

  • Simulation and Forces
  • Basic Motion Analysis
  • Case Study: Car Jack Analysis
  • Forces
  • Results
  • Creating Local Mates
  • Case Study: Crank Slider Analysis
  • Mates
  • Local Mates
  • Power
  • Plotting Kinematic Results
  • Contact and Friction
  • Case Study: Catapult
  • Contact
  • Contact groups
  • Contact Friction
  • Translational Spring
  • Contact Forces
  • Case Study: Latching Assembly
  • STEP Function
  • Contact: Solid Bodies
  • Geometrical Description of Contacts
  • Instability Points
  • Modifying Result Plots
  • Precise Contact
  • Integrators
  • Contact Forces
  • Case Study: Geneva Mechanism
  • Curve to Curve Contact
  • Solid bodies vs. curve to curve contact
  • Solid Bodies Contact Solution
  • CAMs
  • Case Study: CAM Synthesis
  • Trace Path
  • Exporting Trace Path Curves
  • Motion Optimization
  • Case Study: Medical examination chair
  • Sensors
  • Optimization Analysis
  • Flexible Joints
  • Case Study: System with Rigid Joints
  • System with Flexible Joints
  • Redundancies
  • Case Study: Door Hinges
  • How to Check for Redundancies
  • Typical Redundant Mechanisms
  • Exporting Results
  • Case Study: Drive Shaf
  • Export of Loads
  • Direct Solution in SOLIDWORKS Motion
  • Event Based Simulation
  • Case Study: Sorting Device
  • Servo motors
  • Sensors
  • Task
  • Design Project
  • Case Study: Surgical Shear – Part 1
  • Self-Guided Problem – Part 1
  • Self-Guided Problem – Part 2
  • Creating the Force Function
  • Force Expression
  • Case Study: Surgical Shear – Part

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