Curve Growth
In this grasshopper example file you can create a parametric curve growth simulation by using the kangaroo plugin.
Now that you have learned how to scale a series of voronoi cells you can use this example file to design a parametric pavilion with more control over the final shape.
In this Grasshoper Heteroptera example file , you can use the random vector component to generate random lines from a point.
In this Grasshopper Pufferfish Example File, you can use the Pufferfish plugin to create a series of interpolated curves on a Nurbs surface .
In this Grasshopper Script, You can add details to your plan by providing lines for the wall, doors, and windows.
In this grasshopper kangaroo example file, you can design a parametric tensile structure with Kangaroo 2 and then use the Leopard Plugin to have more control over the anchor points.
In this Grasshopper Kangaroo example file, you can use the region union component to create a parametric pavilion.
In this Grasshopper Lunchbox example file, you can design a smooth space truss structure.
In this grasshopper example file, you can design a parametric modular waffle structure using polygonal shapes.
In this Grasshopper Anemone Example File, you can design a parametric bridge similar to the Rolling Bridge by Thomas Heatherwick.
In this Grasshopper weaverbird Example File, you can design a parametric facade by deforming a series of quads and smoothing the final results.
In this Grasshopper Example File, you can design a parametric building similar to the new loop-shaped research centre in Hangzhou, China.
In this grasshopper example file, you can design a parametric Bench by defining a series of section curves.
In this Grasshopper Example File, You can model a triangulated lamp shade using the Fennec ,Mesh+ and Kangaroo Plugins.
In this grasshopper Parakeet example file, you can model a parametric Chair by using the differential growth algorithm.
In this Grasshoper Lunchbox example file, you can create a 3d bump pattern on a Nurbs surface.
In this grasshopper example file you can design a series of parametric random shelves.
In this grasshopper parametric joint example file, you can design a mesh as a 3d Joint from a series of Lines
in this grasshopper OpenNest example file, you can put every two peices of sections side to side to reduce the cutting length and optimize it.
In this Grasshopper Kangaroo example file, you can split the edges of a mesh into 2 groups of warp and weft.
In this Grasshopper Voronoize example file, you can convert Any surface ,polySurface, brep or mesh into voronoi cells.
In this Grasshopper Heteroptera example file, you can create regions from a list of curves by using the Geometric Region component.
In this Grasshopper Kangaroo example file, you can generate 3d Patterns on a surface by defining point attractors.
In this grasshopper Lunchbox example file, you can design a parametric facade using triangular panels.
Comments
dmttran
I’m running Rhino 7, was able to unblock and install all the plug ins but am still having trouble getting this to run. The “explode tree bang!” node reads “1. Tree contains more branches than this component has output parameters.” and the wbCatmullClark node reads “1. Subdivision level is 0, which returns the original mesh”. Do you think you can post some more step by step instructions and/or video?
rezae
Hi,
Those are warnings and in this case the warnings are Ok.
There is another problem, please send screen shout from your grasshopper screen.
Did you turn toggle to True on “Solver” (like attached image) or reset the component at first because it’s necessary.
rezae
Attachment toggle-on.png
—-
rezae
Attachment toggle-on-1.png
—–
dmttran
Yes! Thank you for clarifying the need to switch from false to true! Now it runs the simulation. Can you tell me how/where to bake the model?
Cfeldman
/To ‘cook’ just touch the button BAKE AT THE END,
turn to render, and you will see it in Rhino.
…………………….
Hello
Sometimes it seems necessary to be able to ‘clarify’ some more things
when one sees a tutorial like these, …
just change to “true”, and gh, the curve begins to grow covering the sphere, until completion, ok.
That’s not difficult, ok, but “try to write the definition yourself”.
Much more difficult if each step is not fully understood.
It seems to me that to understand a definition like this / s,
–when it becomes somewhat difficult to write oneself–,
It would be better explained, to be able to understand how to get there,
more than always being a spectator of what someone else does.
It seems to me that if I should write this definition myself,
I would do it completely differently ….., I think.
Do not ?.Thanks
Greetings