Course Outline
Module 1: Introduction to SolidWorks Interface and Basic Part Modeling
•    Overview of SolidWorks user interface and navigation
•    Basic sketching techniques and constraints
•    Part modeling fundamentals: extrude, revolve, and sweep
•    Hands-on exercise: Creating a basic mechanical part
•    Case Study: Designing a bracket with specific load requirements

Module 2: Advanced Part Modeling Techniques in SolidWorks
•    Advanced features: lofts, patterns, and multi-body parts
•    Working with complex geometries and surfaces
•    Parametric modeling and design intent
•    Hands-on exercise: Modeling a complex mechanical part
•    Real-Life Project: Design optimization of a mechanical lever for strength and weight reduction

Module 3: Assembly Creation and Management in SolidWorks
•    Basics of assembly creation: mating parts and managing assemblies
•    Detecting interference and resolving constraints
•    Assembly configurations and exploded views
•    Hands-on exercise: Assembling a mechanical device
•    Case Study: Assembly analysis of a gearbox for optimal component placement

Module 4: Technical Drawings and Detailing in SolidWorks
•    Creating 2D drawings from 3D models
•    Detailing parts and assemblies: dimensions, tolerances, and annotations
•    Drafting standards and best practices
•    Hands-on exercise: Generating detailed drawings of parts and assemblies
•    Real-Life Project: Producing manufacturing-ready drawings for a pump assembly

Module 5: Introduction to Simulation in SolidWorks
•    Overview of simulation capabilities in SolidWorks
•    Setting up a basic static analysis: meshing, loads, and constraints
•    Interpreting results and understanding stress distribution
•    Hands-on exercise: Analyzing stress in a simple beam
•    Case Study: Stress analysis of a mounting bracket under different load conditions

Module 6: Advanced Simulation Techniques: Static and Dynamic Analysis
•    Performing dynamic analysis: motion study and time-based simulations
•    Advanced meshing techniques and convergence criteria
•    Design optimization based on simulation results
•    Hands-on exercise: Simulating a moving assembly
•    Real-Life Project: Dynamic analysis of a suspension system to assess performance

Module 7: Thermal and Fluid Flow Simulation in SolidWorks
•    Basics of thermal analysis: conduction, convection, and radiation
•    Fluid flow simulation using SolidWorks Flow Simulation
•    Practical applications: cooling systems and heat exchangers
•    Hands-on exercise: Thermal analysis of a heat sink
•    Case Study: Simulating airflow through a fan assembly for optimized cooling

Module 8: Design for Manufacturability and Assembly (DFMA)
•    Principles of DFMA and its importance in design
•    Evaluating design for ease of manufacturing and assembly
•    Applying DFMA guidelines in SolidWorks designs
•    Hands-on exercise: Redesigning a product for manufacturability
•    Real-Life Project: DFMA analysis of an industrial component to reduce manufacturing costs

Module 9: Simulation of Real-World Scenarios and Optimization
•    Combining multiple simulation types: structural, thermal, and fluid
•    Using optimization tools to refine designs based on performance criteria
•    Case studies on integrating simulations into the design process
•    Hands-on exercise: Multi-physics simulation of a mechanical assembly
•    Field Visit: Tour of a manufacturing plant to observe design and simulation in practice

Module 10: Capstone Project: Comprehensive Design and Simulation Challenge
•    Participants will work on a comprehensive project, incorporating all learned skills
•    Focus on the complete design process: from concept to simulation and optimization
•    Project presentations and peer review sessions
•    Discussion on further learning opportunities and career applications
•    Final Project Presentation: Showcase of individual projects demonstrating full design and simulation capabilities