The research team at the Institute for Computational Design (ICD) and the Institute of Building Structures and Structural Design (ITKE) have taken morphological inspiration from the structure of the sea urchin and the sand dollar, both sea-bed invertebrates, to create what almost bears semblance to a floating bee hive, in a team combining architects, engineers, biologists, and palaeontologists.
The subject of this article by Katia Bertoldi, Vincenzo Vitelli, Johan Christensen and Martin van Hecke is Flexible Mechanical Metamaterials. Mechanical metamaterials exhibit properties and functionalities that cannot be realized in conventional materials.
Katia Bertoldi of Harvard held a holey plastic metamaterial that looked like a pink Connect Four board, with a regularly repeating arrangement of holes. When squeezing the material, some holes became horizontal ovals, as you would expect in an ordinary material.
Conduit is an open source plug-in authored by Proving Ground. Conduit enables designers to create custom data visualizations and heads up displays that update with your parametric models.
In this Rhino Grasshopper tutorial, we will model a parametric facade based on the Kieran Timberlake’s “crystalline cube” for the US Embassy in London. First, we will model a series of base polylines for the modules and then we will define three different sections and loft them together.
In this Paracourse Lesson, we are going to model a series of hexagons which scale based on point attractors. We are also going to study how to fix the cells on the closed Nurbs surface seam.
In this video by Boss Laser you can see how to make a rigid material flexible using your laser cutter. There is a way to use laser cutting to create 3D objects from flat materials, and it uses a clever design element called a Lattice or Living Hinge.
In this definition, you can use the Weaverbird’s Dodecahedron component and smooth it with Catmull-Clark Subdivision. We will also use the Picture Frame component to change the faces offset distance.
Ahmad Rafsanjani and Damiano Pasini of McGill University in Montreal, set out to create a new class of futuristic materials that grow when stretched and get their abilities from the geometries of ancient Islamic art. They could be useful in medical devices and satellites.
The Splop component Wraps geometry onto a surface. Basically, you can distribute a geometry on a surface by using the Splop component. The Geometry will not be deformed as it is transformed if You activate the Rigid option.
A completely new geometric shape has been discovered by a group of researchers looking into the dynamics of cells that contribute toward the embryonic development and lead to the formation of human organs. Lehigh University professor, Javier Buceta, helped discover this geometric shape— the scutoid.
By using the Subdivide Triangle component of Lunchbox Pluging you can model a simple Sierpinski Triangle in Grasshopper3d. Basically, this component Subdivides a triangle into self-similar cells. First, you have to give a closed triangular curve or surface to subdivide then by defining four different Booleans you can control the divisions. The first one controls the center triangle and the rest control the 3 adjacent triangle areas.
In this article the authors, Sebastien J.P.Callens and Amir A.Zadpoor review recent origami and kirigami techniques that can be used for this purpose, discuss their underlying mechanisms, and create physical models to demonstrate and compare their feasibility.
In this Rhino Grasshopper tutorial, we will model a series of triangular panels and change their thickness as their height increases. First, we will define the base pattern by connecting the centroid to the corner of the triangles and then we will use their center’s Z component to define the offset pattern.
A team of MIT researchers has designed a breathable workout suit with ventilating flaps that open and close in response to an athlete’s body heat and sweat. These flaps, which range from thumbnail- to finger-sized, are lined with live microbial cells that shrink and expand in response to changes in humidity.
1:1 prototypes (Spring 2012) conducted by Jelle Feringa at the Hyperbody research group of the Faculty of Architecture, TU Delft, Netherlands, invited Matthias Rippmann to teach about designing funicular shells with RhinoVAULT. rV was used for the design of the exciting cut-foam pavilion resulting from the 2 week design-build digital fabrication workshop.
This is a 4D printing video by Pranavee M of 4D printing in action. 5 videos put together showing tests from MIT Self assembly laboratory demonstrating the functionality of shape transformation. Flat-printed structures that, once placed in hot water, slowly folds themselves into another structure.
A multidisciplinary team of Wyss Institute scientists, engineers, and architectural designers at Harvard University are developing Origami Organs that could function like artificial kidneys.
In this video by NOVA PBS Official you can see that biology and the physical world around us appear to be governed by origami-like patterns. Throughout our natural world, patterns are incredibly pervasive — whether they be spirals, fractals, tessellations, stripes, or even simple symmetry, they can be seen in nearly all living or nonliving things on Earth.
What is Tessellation? An educational video animation by M. C. Escher inspired Tessellation Art, which explains the basic principles behind tessellating shapes and patterns. It shows a simple visual demonstration of tessellating triangles, squares and hexagons.
Fold finding – a novel approach to folded structures – This project, created by Architect Tal Friedman, describes the design and fabrication process of the first self supported folded cantilever made entirely by folding sheets into their final position.
This video is a lesson by Eric Broug, animation by TED-Ed. Geometric pattern design is arguably the most recognizable form of Islamic art — it shows up everywhere, from mosques to government buildings to paper.
Quadrature is a audio/visual performance project by Griduo* in collaboration with Due3* that interacts with the perception of santralistanbul Art and Culture Center’s Main Gallery building located in Istanbul/Turkey.
A team of researchers from the Georgia Institute of Technology has developed a way to use 3-D printers to create objects capable of expanding dramatically that could someday be used in applications ranging from space missions to biomedical devices.
Polish designer Oskar Zieta has created a public sculpture in Wrocław using an inflated steel technique he plans to use for larger works of architecture. The Nawa pavilion is installed on Daliowa, one of many small islands in the Oder River where it runs through Wrocław.
This video from Two Minute Papers is about auxetic materials. Auxetic materials are materials that when stretched, thicken perpendicular to the direction we’re stretching them. In other words, instead of thinning, they get fatter when stretched.
Things aren’t always what they seem . . . or are they? Extreme close-ups often obscure the full picture. Cloaked in mystery, this new video introduces a variety of objects and moments — found at MIT — that invite you to take a second look.
Sebastian Errazuriz Studio is creating a series of kinetic sculptures that focus on interactive furniture. With his functional sculpture projects, Errazuriz is rethinking the everyday and “breaking open the box.”
A team at the Wyss Institute and Harvard SEAS has developed a new microscale printing method to create transformable objects. These “4D-printed” objects go a step beyond 3D printing to incorporate a fourth dimension–time.
Hyundai Motorstudio Goyang is the largest automobile theme park in Korea, located about 40min northwest of Seoul. The highlight of the exhibition is the Design Area featuring a beautifully designed kinetic sculpture and a spectacular 360 degree film presentation for which designers have created multichannel sound and music.