Read and repair meshes and extremely challenging IGES files.Compatibility with all your other design, drafting, CAM, engineering, analysis, rendering, animation, and illustration software.Accuracy needed to design, prototype, engineer, analyze, and manufacture anything from an airplane to jewelry.Uninhibited free-form 3D modeling tools like those found only in products costing 20 to 50 times more.

There are no limits on complexity, degree, or size beyond those of your hardware. The output of geometries in still and animate forms.Rhino can create, edit, analyze, document, render, animate, and translate NURBS curves, surfaces and solids, subdivision geometry (SubD), point clouds, and polygon meshes. The application of Procedural Logics - the structuring of coding systems to produce variable geometric form. The understanding and application of Rhinoscriptsyntax, a native coding language in Rhinoceros that’s imported into Python, which allows one to create and control geometries through authoring code. By the end of the course students will be familiar with the basic structure and syntax of this language. The fundamentals of coding in the Python scripting language. An introduction to Design Computing as a subject and why designers should learn to code.

So, by the end of this course, you will know the fundamentals of Python and Rhino script, but importantly, through the lens of their application in geometrically focused design lessons and exercises. Structured around a series of fundamental design problems, this course will show you Python code in terms of its rules and syntax, and what we can do with it in its application and design. Designers must go beyond the narrowly focused use of computers in the automation of simple drafting/modeling tasks and instead explore the extraordinary potential digitalization holds for design culture/practice. As our world is increasingly impacted by the use of algorithms, designers must learn how to use and create design computing programs.

Rhino view in 3d