Tinkercad Design Course

Lesson 1 • Understanding Design Units and Scale

Explains measurement units, grid snapping, and real-world scale relationships. Accurate units prevent costly errors in physical prototypes.

Lesson 2 • Exploring the 3D Workspace

Introduces the main 3D editor layout, toolbars, and panels. Orients students to the spatial environment used throughout the course.

Lesson 3 • Navigating the Viewport Efficiently

Covers mouse, keyboard, and touch controls for moving around the 3D scene. Efficient navigation reduces friction in all design tasks.

Lesson 1 • Using the Shape Library

Surveys built-in shape categories including basic solids, text, and community shapes. Knowing available shapes speeds up the modelling process.

Lesson 2 • Placing Shapes on the Workplane

Demonstrates how to drag shapes from the panel onto the workplane. Correct placement is the first step in every 3D model.

Lesson 3 • Moving and Rotating Objects

Covers translation along axes and rotation around pivot points. Accurate positioning and orientation underpin all assembly work.

Lesson 4 • Lifting Objects off the Workplane

Explains how to raise objects vertically and use the elevation handle. Vertical positioning is critical for stacking and layering shapes.

Lesson 1 • Grouping Objects Together

Explains how grouping merges selected shapes into a single editable unit. Grouping is the foundation of all Boolean operations in Tinkercad.

Lesson 2 • Aligning Objects Precisely

Uses the Align tool to position objects relative to each other along any axis. Alignment ensures clean Boolean results and professional aesthetics.

Lesson 3 • Creating Holes with Hole Shapes

Introduces the hole property that converts any shape into a subtractive cutter. Holes enable precise cutouts and recesses in solid models.

Lesson 4 • Designing with Negative Space

Explores strategic use of holes to create channels, slots, and decorative cutouts. Negative space adds function and visual interest to designs.

Lesson 1 • Entering Exact Numeric Dimensions

Focuses on typing precise values into dimension fields for all transforms. Numeric input is compulsory for engineering-grade accuracy.

Lesson 2 • Verifying Model Dimensions

Reviews methods for checking and validating all critical dimensions before export. Verification catches errors before physical production begins.

Lesson 3 • Snapping and Grid Configuration

Configures snap increments and grid density to match project requirements. Fine-tuned snapping prevents misalignment in detailed assemblies.

Lesson 4 • Adjusting and Repositioning the Workplane

Teaches how to place the workplane on any face of an existing object. A repositioned workplane simplifies building on angled or elevated surfaces.

Lesson 1 • Reviewing and Iterating Designs

Establishes a review workflow for identifying and correcting design flaws. Iteration is the core professional practice in product development.

Lesson 2 • Building Multi-Part Assemblies

Guides students through designing separate parts that fit together as a system. Assembly thinking develops spatial reasoning and planning skills.

Lesson 3 • Understanding Tolerances and Fit

Explains clearance, interference, and transition fits for mating parts. Correct tolerances ensure parts assemble and move as intended.

Lesson 4 • Adding Functional Features

Introduces bosses, ribs, gussets, and mounting holes as structural features. Functional features improve strength and usability of printed parts.

Lesson 1 • Creating Curved and Organic Forms

Techniques for approximating curves using sphere, torus, and cylinder combinations. Curved forms improve ergonomics and visual appeal of designs.

Lesson 2 • Using the Shape Generator

Introduces parametric shape generators for organic and complex geometry. Generators expand modelling capability far beyond standard primitives.

Lesson 3 • Working with Community Shapes

Explores the community shape library for specialised and decorative geometry. Community shapes accelerate niche design tasks significantly.

Lesson 4 • Optimising Geometry for Fabrication

Addresses wall thickness, overhangs, and mesh integrity for printability. Optimised geometry reduces failed prints and post-processing time.

Lesson 1 • Exporting Designs for 3D Printing

Explains STL and OBJ export settings for slicing software compatibility. Correct export settings prevent mesh errors in fabrication.

Lesson 2 • Importing SVG and STL Files

Covers importing vector outlines and existing 3D meshes into Tinkercad. Imported files extend design possibilities beyond built-in shapes.

Lesson 3 • Managing and Sharing Design Files

Covers copying, renaming, and sharing designs via links or collaboration. Organised file management supports team workflows and version control.

Lesson 1 • Building an Architectural or Decorative Model

Uses Boolean operations and symmetry to construct a detailed decorative piece. Architectural models reinforce precision and aesthetic judgment.

Lesson 2 • Creating a Custom Wearable or Accessory

Applies organic shaping and precision sizing to a body-worn design. Wearables demand ergonomic accuracy and lightweight geometry.

Lesson 3 • Designing a Functional Enclosure

Guides students through modelling a lidded box with snap-fit closure. Enclosures integrate tolerances, joints, and functional features simultaneously.

Lesson 4 • Presenting and Critiquing Finished Designs

Teaches how to share, screenshot, and verbally present a completed design. Presentation skills translate technical work into professional communication.