Fusion 360 Course

Lesson 1 • Understanding the Fusion 360 Interface

Introduces the toolbar, browser panel, timeline, and canvas layout. Provides the spatial awareness required to locate tools efficiently throughout the course.

Lesson 2 • Installing and Configuring Fusion 360

Covers account creation, software installation, and initial preferences setup. Establishes the working environment needed for all subsequent exercises.

Lesson 3 • Navigating the 3D Workspace

Teaches orbit, pan, zoom, and view cube controls for 3D navigation. Fluent navigation reduces friction in every modeling task ahead.

Lesson 1 • Adding Dimensions and Parameters

Explains dimensional constraints and the use of named parameters for driven dimensions. Parametric dimensions enable rapid design iteration without redrawing geometry.

Lesson 2 • Advanced Sketch Tools

Introduces offset, mirror, pattern, trim, and extend tools for efficient sketch editing. These tools accelerate complex profile creation and reduce repetitive drawing.

Lesson 3 • Applying Sketch Constraints

Teaches geometric constraints such as coincident, parallel, perpendicular, and tangent. Constraints lock sketch intent and prevent unintended geometry changes.

Lesson 4 • Sketch Environment Basics

Introduces the Sketch workspace, origin planes, and sketch activation workflow. Understanding the sketch environment is prerequisite to all parametric modeling.

Lesson 1 • Sweep and Loft Features

Teaches Sweep and Loft to create complex geometry along paths or between profiles. These features handle organic and transitional shapes that extrude cannot produce.

Lesson 2 • Hole, Shell, and Draft Features

Introduces Hole, Shell, and Draft commands for manufacturing-ready geometry. These features add functional detail and prepare models for real-world fabrication.

Lesson 3 • Extrude and Revolve Features

Covers the Extrude and Revolve commands to generate solids from closed profiles. These are the most frequently used feature creation tools in parametric modeling.

Lesson 4 • Pattern and Mirror Features

Covers rectangular, circular, and path-based feature patterns plus mirroring. Patterns dramatically reduce modeling time for repetitive geometry.

Lesson 1 • Editing and Redefining Features

Teaches double-click editing, sketch redefinition, and feature suppression workflows. Efficient feature editing is the core skill for iterative parametric design.

Lesson 2 • Understanding the Parametric Timeline

Explains how Fusion 360 records feature history and how the timeline drives model updates. A clear understanding of timeline order prevents regeneration errors.

Lesson 3 • Design Configurations and Variants

Introduces change parameters workflows to generate multiple design variants from one model. Configurations reduce file duplication and streamline product family management.

Lesson 1 • Applying Joints and Constraints

Covers rigid, revolute, slider, and planar joints to define component motion. Joints replace traditional mate constraints and drive motion studies.

Lesson 2 • Inserting and Positioning Components

Teaches inserting existing designs and positioning them using Move and Align tools. Accurate initial placement simplifies joint application and reduces constraint conflicts.

Lesson 3 • Components vs. Bodies in Assemblies

Clarifies the distinction between bodies and components and when to use each. Correct component structure is essential for joints, motion, and bill-of-materials output.

Lesson 4 • Bill of Materials and Assembly Output

Introduces BOM generation, component numbering, and assembly export workflows. Structured output connects design data to procurement and manufacturing processes.

Lesson 1 • Stitching and Patching Surfaces

Explains Stitch, Patch, and Boundary Fill commands to close surface bodies. Watertight closure is required before converting surfaces to solid geometry.

Lesson 2 • Creating Basic Surfaces

Covers Extrude, Revolve, Sweep, and Loft applied to open profiles to generate surfaces. Open-profile operations produce the thin-shell geometry central to surface design.

Lesson 3 • Curvature Analysis and Quality Control

Introduces zebra stripe, curvature map, and draft analysis tools for surface quality. Visual analysis ensures continuity and manufacturability before finalizing designs.

Lesson 4 • Introduction to Surface Modeling

Distinguishes surface bodies from solid bodies and explains when surface modeling is preferred. This context guides tool selection throughout the surface modeling workflow.

Lesson 1 • Dimensioning and Tolerancing

Explains linear, angular, radial, and ordinate dimensioning plus tolerance annotation. Accurate dimensions and tolerances define acceptable part variation for manufacturing.

Lesson 2 • Geometric Dimensioning and Tolerancing

Introduces GD&T symbols, feature control frames, and datum references in drawings. GD&T communicates functional tolerances more precisely than coordinate dimensions alone.

Lesson 3 • Setting Up a Drawing Template

Covers title block configuration, sheet size selection, and drawing standard settings. A properly configured template ensures consistent, professional documentation output.

Lesson 4 • Annotations, Notes, and Output

Covers surface finish symbols, weld symbols, text notes, and PDF or DXF export. Complete annotations ensure drawings are self-contained manufacturing instructions.

Lesson 1 • Design Validation and Final Review

Covers mass properties analysis, interference checks, and design checklist workflows. A structured final review catches errors before files are released for production.

Lesson 2 • CAM Basics and Toolpath Setup

Introduces the Manufacture workspace, stock setup, and basic 2D milling toolpaths. CAM preparation connects digital models directly to CNC machining operations.

Lesson 3 • Static Stress Simulation

Introduces finite element analysis setup, material assignment, loads, and constraints. Simulation results identify stress concentrations before physical prototypes are built.

Lesson 4 • Rendering with Fusion 360 Render

Covers appearance assignment, environment lighting, and cloud rendering workflows. Photorealistic renders communicate design intent to stakeholders and clients.