Published September 29, 2015
Simon Schleicher is going to present his collaborative research on “Form-finding and Design Potentials of Bending-active Plate Structures” at this year Design Modelling Symposium in Copenhagen 09/30/2015. For more information please visit https://www.design-modelling-symposium.de or check the conference book on “Modelling Behaviour” http://goo.gl/anVVih.
Schleicher, S., Rastetter, A., La Magna, R., Schönbrunner, A., Haberbosch, N., Knippers, J. (2015). Form-finding and Design Potentials of Bending-active Plate Structures, In: Modelling Behaviour, Design Modelling Symposium 2015, Ed. by Thomsen, M.R. et al., Springer, ISBN: 978-3-319-24206-4
Published April 7, 2015
PhD Research , UC Berkeley
Upcoming presentation at the MRS Conference on “Adaptive Architecture and Programmable Matter” in SF. Stop by if you are around. My presentation will be on Wednesday, April 8th at 2:30pm. Looking forward to seeing you there.
Published March 9, 2015
Tags: UC Berkeley
Congratulations to my seminar students Jianjia, Yawen, Dairan, Shima, Eleanna, Kyle, and Andrew for presenting their exciting work at this years Berkeley Circus! And special thanks to our Distinguished Visiting Fellows Mary Comerio, Stefanie Hickl, Caitlin Brostrom, Mauricio Soto, Björn Hartmann, Guy Morrow, and David Friedman for your inspiring and constructive feedback, we will definitely build up on it for this semester’s “Bending and Folding Structures 2” seminar.
Published February 17, 2015
UC Berkeley , Uncategorized
If you happen to be near the College of Environmental Design (CED) on March 6th, stop by the Berkeley Circus. It will be a great opportunity to see current work of students and faculty. In addition, I will be giving a lecture at 12pm in room 104 Wurster Hall.
For more information visit the official website.
Published February 14, 2015
This follow-up course continues in explorations of the formal and structural possibilities of designing bending and folding structures. The flexural mechanisms and bending-active plate constructions that we envisioned during the winter semester will be pushed to the next level by developing a more holistic design approach, which aims to ensure their feasibility and practical implementation. This time, the class will have a closer look at topics like material bending, construction detailing, digital fabrication and assembly of elastically bent and curved-folded structures. We want to find out how these aspects could positively affect the functional morphological relationships that we discovered in our previously developed design proposals. The aim is to bundle different levels of information and to integrate this knowledge into one informed design framework. Once again, we will be using digital simulation tools like Kangaroo Physics and Sofistik® to playfully form-find and systematically optimize our structures. Additionally, we will pay particular attention to the structure’s unique material properties and fabrication constraints. We want to explore, for example, the possibility to control and gear the global deformation of a plate structure by superimposing a compliant texture that can adjust the structure’s flexibility locally. In this context, various manufacturing techniques could be used to generate differentiated structural patterns that have the power to affect the structure’s global and local compliance by creating zones of higher, lower, or even adaptable stiffness. The final goal for this class will be to show that our initial ideas for novel bending and folding structures can be pushed in scale to the size of functional mock-ups and larger scale demonstrations. The class is open for students who have already attended the previous course and are eager to further develop their ideas as well as to new students who are interested in technical implementation and digital fabrication.
Published February 12, 2015
if you are around, stop by my lecture at the University of Southern California, USC School of Architecture,
02/13/2015 – 5pm
Published August 24, 2014
“Bending & Folding Structures 1”
Folding structures have fascinated architects and craftsmen at least since the Bauhaus era. Origami techniques have been thoroughly investigated for their aesthetic qualities and used to better understand the interaction between form, structure, and movement in a playful way. Folding structures train the spatial imagination and stimulate one’s own geometrical and material experimentation. While bending and folding principles have long been implemented in many other areas such as fashion, product design, medicine, aviation, and space technology; their application in architecture has remained mainly theoretical until now as they were either too difficult or expensive to construct. Nowadays however, deployable or adaptive structures for architectural purposes have become more and more feasible, which has resulted in first built case studies. Importantly, two developments have triggered this change. With the application of modern computational design tools, it has become much easier to simulate complex transformations. And with the rise of high-performing elastic materials like fiber composites, a real alternative to common rigid-link mechanics is becoming available which creates the possibility for flexible and reversible motions in large-scale architectural applications. These developments shed new light on an old topic and enable a great starting point for new discoveries.
While the traditional goal for deployable structures is to achieve the smallest packing size, this course will investigate how the information of complex motion sequences can be embossed into the characteristics of initially planar surfaces such that a variety of controlled spatial transformations can be performed. In this context the class will push the boundaries by studying not only conventional straight-line folding, but also explore curved-line folding. This application combines bending with folding and thus offers the opportunity for promising hybrid structures. Since a purely geometrical, kinematical abstraction is no longer sufficient for their design, this class will look into new kinetic simulation techniques that also take external forces and material stresses into account. By using tools like Kangaroo and Sofistik® it will be possible to form-find and optimize new types of bending and folding structures.
This class will emphasize two research modalities. The first will focus on collecting and processing existing knowledge on bending and folding principles in nature and technology. The second will focus on gathering experience through hands-on physical models and digital simulations. The development and analysis of basic folding mechanisms will act as a starting point from which more complex movable tessellations will be developed. The final goal will be a small design proposal of a transformable facade cladding system.
for more information check CED’s website.