Curved beams along freeform skins pose many challenges, not least on the level of basic geometry. A prototypical instance of this is presented by the glass facades of the Eiffel tower pavilions, and the interrelation between the differential geometric properties of the glass surface on the one hand, and the layout of beams on the other hand.
Architectural designs are frequently represented digitally as plane-faced meshes, yet these can be challenging to translate into built structures. Offsetting operations may be used to give thickness to meshes, and are produced by offsetting the faces, edges, or vertices of the mesh in an appropriately defined normal direction.
This paper presents a methodology to assist design decisions regarding the building envelope shape considering its implications on energy performance.
This paper investigates the identification of the PV blinds’ optimal design parametersbased on a cost-benefit approach. A methodology, that encompasses thermal comfort, visual comfort,and energy savings requirements while resolving the conflicting issues resulting from the fulfillment ofthese requirements, is highlighted.
In this grasshopper example we will use the Parakeet’s Quadrilateral Tiling component. This component Generates a Tiling (Grid) based on any irregular/regular Quadrilateral Curve (any Closed Polyline with 4 points and 4 edges).
In this Paracourse lesson, we will model a series of rotating panels which extrude until they reach their neighboring surface. We will use three different techniques
In this Paracourse Lesson, we will use the Kangaroo plugin to show you how to planarize a series of panels. First, we will use Lunchbox to model the panels and then we will use Kangaroo’s goals to planarize.
In this Paracourse lesson, we will model a parametric table in Grasshopper. First, we will make a parametric surface and then start to model the walls and ribs of the table. Finally, we will extract the boundaries of the walls.
In this Rhino Grasshopper tutorial, we will model a parametric pattern based on squares. First, we will scale & rotate the square and connect the center to the mid-edges.
In this Grasshopper Lesson, I will explain a complete technique about producing parametric Louvers on freeform NURBS surfaces. First, we will study the basics and how we can twist a series of surfaces and then we will use Point attractors to complete the tutorial.
In this rhino grasshopper tutorial, we will model the Isenberg School Of Management Business Innovation Hub / BIG . First, we will model the base surface in Rhino and then we will use Grasshopper to model the rotating structure.
In this Paracourse lesson, we will use the Paneling Tools plugin to cover a Nurbs surface with a series of modules. We will use point attractors to distribute the modules and at the end, we will count each module and export them in different layers.
In this Paracourse Lesson, we will use the Spatial Deformation (Custom) in Grasshopper to deform a surface by defining points with zero deformations and points with vector deformation. We will also control a mathematical function called “Falloff Function” to change the smoothness of the deformation.
In this Rhino Grasshopper tutorial, we will remodel the Kinetic Rain by ART+COM Studios (2012). First, we will model a rectangular array of points and then we will use the point attractor technique to move the points down. Finally, we can connect the lines and show the points with a cloud display.
In this Paracourse Lesson, we will model a smooth mesh on a surface and control the results by changing the defining parameters. You will also learn how to make a complete seamless mesh for one way closed Nurbs Surfaces.
In this ParaCourse Lesson, we will study a simple circle packing technique by using the sphere collide component (Kangaroo plugin) and make a series of circles fit onto a surface.
In this Paracourse lesson, we are going to model a multi-pipe connection in Grasshopper. First, we will study how the connection can be modeled and then we will use advanced techniques to model it.
In this Paracourse lesson, we will study how to model origami in Grasshopper by using the Kangaroo plugin. First, we will study a simple hinge simulation in Grasshopper and then take it to the logic behind negative/positive bending hinges in Origami by modeling the folding model of Albahar Tower module.
In this ParaCourse lesson, we will study the Pinch n Spread component of the Pufferfish plugin and how we can use it to morph a series of strips on a Nurbs surface.
In this Paracourse Lesson, we will model a Geodesic Dome in Grasshopper. First, we will use a Plugin to make the Baselines and then we will use advanced techniques to make the lines into polygons and thicken the dome.
In this Paracourse Lesson we will study the Field component in Grasshopper and how it works. First we will talk about different charges and then how you can use different components in the field tab to visualize your field
In this Paracourse lesson we will study how to make a weaving pattern on a closed nurbs surface. First we will study the problem of non closed meshes and how we can fix it by a joining technique. Then we will smooth the mesh and give it thickness.
In this Paracourse lesson, we will use advanced logic to model the Cairo tesselation from scratch. First, we will Study the pattern and then we will use several data management components to model the final mesh and give it thickness.
In this Paracourse lesson, we will model a parametric pattern. First, we will study the pattern and how we can recreate it with arcs. Then we will use a technique to give the base curves some thickness and get it ready for CNC or Laser Cut.
In this exercise, you will learn how to use point attractors for scaling and moving a series of rectangles. First, we will define the attractors and then we will use a remap to move and scale them and finally Loft the results
In this ParaCourse Lesson, we ware going to model a parametric Islamic star pattern in Grasshopper. First, we are going to study the basics and how polygons in contact work and then we will make the stars inside the polygons.
In this lesson, I will talk about flipping a matrix for data management and how partition can handle data into groups. First, we will take a look at grids and how they are in groups of data and why we need to flatten, flip matrix and partition our data
in this grasshopper tutorial, I will model the RoundSquare Clock designed by Žiga Gorjup and show you how you can model the curves. First I will explain the steps you should take to produce the curves and then I will model the center hole of the clock.
In this Laser cut design video, I have made a definition to produce a parametric pattern for laser cutting. First I will explain the inputs and how you can change them to change the base pattern and in the end, you can give thickness to your design.
In this lesson, I will show how grafting can help you to model parametric hexagons and use point attractors to change the height and scale of them. First, we will talk about grids and then we will step into the point attractor technique and move the hexagons based on their distance from centers.
