Auxetic Structure
In this grasshopper example file you can model an Auxetic structure using the native grasshopper Components.
In this grasshopper example file you can model an Auxetic structure using the native grasshopper Components.
In this grasshopper example file you can model a parametric joint using the Cocoon and meshplus plugin.
Rabbit by Morphocode is an open-source plug-in for McNeel’s Grasshopper that simulates biological and physical processes. Rabbit comes with a set of 13 components allowing you to model cellular automata and L-systems directly inside Rhino and Grasshopper 3D.
In this grasshopper example file by using a Delaunay mesh combined with the pipe variable component, you can model a parametric pattern.
In this grasshopper example file, you can divide a mesh based on the fibonacci sequence and stellate each face relative to their area.
Tension by StructureMode is a lightweight pavilion with a tensegrity ring and a tensile fabric membrane. The sinuous geometry used for Tension provides a minimal base on three points, formed of three arches and three valleys to support an anticlastic fabric surface.
In this grasshopper example file, Using a series of circles and moving them upwards, we have created a wall with graph component. In one part of the pipes, a semicircle has been removed.
This project by Elena Vazquez, proposes a digital framework for optimizing the environmental performance of masonry screen walls through shape configuration. The development of the proposed “smart” low-tech framework relies on several computational design methods.
In this grasshopper example file, you can voxelize a series of parametric random points which are based on some curves as their emitter sources.
In this grasshopper example file you can use the mesh+ plugin to model a series of random pattern in a simple facade.
In this grasshopper example file you can create a stellated mesh and split it with a parametric plane.
In this grasshopper example file you can model a laser-cut optimized 3D-Puzzle and also extract the joints, the final curves and the nesting 2D sheets.
Voronax_GH is a Grasshopper Component based on the existing eVe | voronax plug-in for Rhino by Programming Architecture. The Component was developed in cooperation with Lorenzo Greco.
In this grasshopper example file you can create a folding pattern by using the Crane plugin.
In this grasshopper example file, You can model a parametric truss by using the kangaroo physics plugin.
In this grasshopper example file, you can simulate a spin force on a conoid surface.
In this grasshopper example file you can model a series of random voronoi panels and extract the final curves for fabrication.
In this grasshopper example file, you can model a parametric mesh from the intersection of a box with random planes.
In this grasshopper example file, by using the kangaroo2 plugin, you can simulate random anchors in random positions on a sphere mesh.
In this grasshopper example file you can create parametric surfaces from intersecting circles.
In this python script you can create a parametric 2D elliptical pattern in grasshopper.
In this grasshopper example file you can create a parametric 3D delaunay mesh from random points.
In this grasshopper definition, first we model a parametric tower, then we use the Ladybug plugin and do a radiation analysis for the tower. The city we chose for this analysis is Chicago.
In this 2d pattern library example file you can create a series of parametric dividing ribbons in grasshopper.
In this grasshopper example file, you can simulate the wind force on a mesh surface by using the Kangaroo2 plugin.
This toolkit by joncorrod focuses on the versatile nature of meshes, providing various effective functionalities for working with and editing mesh topology.
In this 2d pattern library example file you can model a parametric strip-based pattern by defining two attractor points.
In this grasshopper example file you can model a parametric L-system based earing by using the Rabbit plugin.
In this research by Ehsan Bazafkan, Ladybug and Honeybee, two building performance simulation plugins for Grasshopper, were used within the context of scenarios that mimic real-world architectural design problems. The application of the plugins was analysed.
With this Master Thesis by Thomas Stephan Dirk Dührsen, author is showing how the power and benefits of reusable and interchangeable logic and algorithms can be applied to the workflow of designing membrane structures.