This module dives into the procedural construction of a rounded cube in Unity, expanding on basic mesh generation to include curved surfaces, segmented geometry, and structured triangle definitions. Learners will construct a rounded cube from scratch using scripting, generate top and bottom faces using programmatic logic, and refine visual accuracy through vertex manipulation and triangle orientation. By mastering the concepts in this module, learners will be equipped to develop visually sophisticated and structurally correct 3D meshes using procedural techniques.

This module focuses on enhancing procedural mesh systems by introducing vertex-level manipulation, mesh segmentation, and custom shader integration. Learners will implement techniques to programmatically assign vertex data, split complex meshes into manageable sections, and develop custom shaders that enhance the visual presentation of procedural geometry. The module also covers the application of realistic colliders to curved meshes, enabling physically accurate interactions in a game environment. By the end, learners will have the tools to create structured, optimized, and visually stylized procedural meshes.

This module focuses on the transformation of cube geometry into a sphere-like structure through procedural techniques in Unity. Learners will begin by generating a base cube sphere and scripting its structure, then progress to refining individual faces and applying accurate mapping for smooth curvature. The module also explores geometric challenges associated with spherical mapping and how to visually validate the results. By the end of this module, learners will be equipped to construct and verify dynamic, mathematically generated sphere meshes optimized for real-time rendering.

This module explores advanced methods for dynamically altering mesh geometry in real time. Learners begin by constructing uniform vertex grids as the foundation for consistent deformation, and progress to implementing systems that respond to user input to modify mesh shapes. The module covers force-based deformation, raycasting for interaction detection, and managing vertex transformations with precision. By the end of this module, learners will be equipped to build responsive, deformable meshes that enhance interactivity and realism in 3D applications.