CHROMA III
Kim ist bekannt für seine mechanischen Skulpturen, die wissenschaftliche und mathematische Theorien einbeziehen, und auch als Komponist elektroakustischer Musik. Für diese Triennale präsentiert Kim Chroma III, das die Knotentheorie in der Mathematik anwendet, um Hunderte von Polymerzellen […]
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Kim is known for his mechanical sculptures that incorporate scientific and mathematical theories and also as a composer of electroacoustic music. For this Triennale, Kim presents Chroma III, which applies knot theory in mathematics to structure hundreds of polymer cells […]

Phantom Geometry
“We are developing a system of moving streaming information through space, in the form of light, to generate material form. This system is a full-scale, generative fabrication process that is innately non-linear, is interruptible and corruptible at any time, and does not rely on periodic flattening to 2D. Light is the medium for data in our system. There resident data can be drawn through physical space, at full scale, to generate a photographic artifact, or to instantiate material form through the selective polymerization of proximal photo-responsive resin. This thesis, then, begins to investigate a design paradigm centered on the material reification of light. That paradigm questions the supremacy of the digital model, and the static flattening and stacking logics inherent to typical fabrication workflows. It is part of a conversation about representation, about the role of the designer, and about the way we make.”

Marsha
Marsha is a AI SpaceFactory’s NASA-award-winning design and prototype for a 3D printed Mars habitat. The prototype was printed nearly autonomously in 2019 within a 30-hour construction window. “Our 3D print technology uses a recyclable biopolymer composite which outperformed concrete in NASA’s strength, durability, and crush testing. ASTM lab tested and certified to be two to three times stronger than concrete in compression, our space-grade material is also five times more durable than concrete in freeze-thaw conditions.” Ai-Spacefactory

Neri Oxman: Material Ecology

Vespers

“Vespers is a collection of 15 3-D-printed masks that explore the idea of designing with live biological materials. The collection consists of three distinct series, each reinterpreting the concept of the death mask—traditionally a wax or plaster impression of a corpse’s face. Taken as a whole, the three series form a narrative arc from death to rebirth. In the first series, Oxman and The Mediated Matter Group looked at the death mask as a cultural artifact. Fabricated using an algorithm that deconstructed polyhedral meshes into subdivided surfaces, the masks were 3-D printed with photopolymers, as well as with bismuth, silver, and gold, and rendered in color combinations that recur in religious practices around the world.” Rachel Morón

Attachment
This poetic machine prints your message and a code on a sheet A6, slips it into a biopolymer cylinder attached to a balloon, which is finally released into the air. Then, the balloon will travel haphazardly to a potential recipient.
Where did the idea come from? The basic idea was to take a stand against the current use of «smart» technologies by creating a poetic concept, using current technology that allows us to communicate differently and rediscover expectation, the random, and the unexpected.
For the record, I have always been attracted by what is in the air and remember having won a balloon release contest when I was about ten years old. My balloon flew from Switzerland to Austria, this definitely left an impression on me and perhaps influenced the idea of this project.

Death mask
Similar to the group’s previous collection of masks – which although released prior to Lazarus are later in concept – the pieces were formed using a Stratasys Objet500 Connex3 multi-material 3D printer, which constructs 3D forms by depositing polymer droplets in layers.

bionic research pavilion

The Institute for Computational Design (ICD) and the Institute of Building Structures and Structural Design (ITKE) of the University of Stuttgart have constructed another bionic research pavilion. The project is part of a successful series of research pavilions which showcase the potential of novel design, simulation and fabrication processes in architecture. The project was planned and constructed within one and a half years by students and researchers within a multi-disciplinary team of architects, engineers and biologists.
The focus of the project is a parallel bottom-up design strategy for the biomimetic investigation of natural fiber composite shells and the development of novel robotic fabrication methods for fiber reinforced polymer structures. The aim was the development of a winding technique for modular, double layered fiber composite structures, which reduces the required formwork to a minimum while maintaining a large degree of geometric freedom. Therefore, functional principles of natural lightweight structures were analyzed and abstracted in cooperation with the University of Tübingen and the Karlsruhe Institute of Technology. Through the development of a custom robotic fabrication method, these principles were transferred into a modular prototype pavilion.