Rhino for Computational Design
Rhino stands as a versatile 3D modelling software known for its adaptability and precision across a spectrum of creative applications. While its utility spans architecture, marine design, and engineering, it also finds a distinctive niche in computational design.
Rhino’s intricate surface manipulation tools allow designers to craft complex parametric forms that can be algorithmically generated and manipulated.
What sets Rhino apart for computational design is its support for scripting and programming interfaces. This enables designers to leverage visual programming languages like Grasshopper, which is integrated with Rhino. Grasshopper helps users create parametric models using a node-based approach, facilitating the exploration of design alternatives and the generation of complex geometries driven by algorithms.
Rhino’s adaptability to integrate with external plugins and scripting languages enhances its computational design capabilities. Designers can develop custom tools and algorithms, enabling the creation of designs that respond dynamically to changing parameters or environmental inputs.
Rhino is based on NURBS (Non-Uniform Rational B-Spline) modelling, which allows for the creation of smooth and precise curves and surfaces. This makes it well-suited for producing accurate and high-quality 3D models.
3D Modelling Tools
Rhino offers a wide range of tools for creating, editing, and manipulating 3D geometry. These tools include options for drawing curves, surfaces, solids, and more.
While Rhino’s interface is user-friendly, it can have a learning curve just like any 3D application. However, you’ll find many helpful tutorials, online resources, and communities available to help users learn and improve their skills.
Rendering and Visualisation
While Rhino itself is primarily a modelling software, it also supports various rendering plugins or integrations that allow you to create realistic visualisations of your models.