algorithmic modeling for Rhino
Planar Quadrilateral meshes (and particularly the special cases of Circular and Conical meshes) have numerous advantages for architecture and fabrication (see the work of Bobenko or Pottmann for details).
I am developing ways of optimizing meshes within Kangaroo in a way that allows the user to interact during the process. A balance can be set between factors such as how tightly the mesh is pulled onto the NURBS surface, planarity, panel size etc.
Because they are integrated directly into the physics engine it is possible to combine these geometric constraints with any of the other force-based form finding methods I have shown earlier.
It's time to move beyond post-rationalization of 'free-form' surfaces. 'Construction-aware-design' here we come!
Tags:
Comment
Hi Daniel,
Super interesting work. I'm curious if there is a way to deform the surface at points within the circles which could vary the diameter with your spring-particle solver? I'm thinking this could allow "pressure" to be determined at certain points given a certain weft-warp tension.
Hi Daniel,
It is a great job. I am very interested in what are you doing in particular PQ meshes.
I would be appreciated it if you could share the GH file of this example.
Thank you very much,
Amir
Welcome to
Grasshopper
Added by Parametric House 0 Comments 0 Likes
Added by Parametric House 0 Comments 0 Likes
Added by Parametric House 0 Comments 0 Likes
Added by Parametric House 0 Comments 0 Likes
© 2024 Created by Scott Davidson. Powered by
You need to be a member of Grasshopper to add comments!