This paper by Daniel Baerlecken, Matthew Swarts, Russell Gentry and Nixon Wonoto, presents a concept of origami as a form-generator for a structural system that allows deployability for structures with large spans.
This study by Allison Jean Isaacs forms a set of principles, methodologies and tools for structuring a full-scale form-finding inquiry through the self-organization of pattern in nature.
The purpose for the thesis has been to advance SMART Form by implementing beam elements and explore how bending action can be used in the form finding process, allowing for a compromise between initial geometry and fully form found geometry.
The purpose of this thesis by Louise Pedersen and Jonas Täljsten is to make a connection between architect students and engineers, to find the differences between them and to try to collaborate.
the main focus of this work by Seiichi Suzuki is to develop a comprehensive approach for enabling topologic transformations with real-time physics named topology-driven form-finding.
This paper by Gernot Riether, Andrew Wit and Steven T Putt will show how architects can gain the ability to design tensegrity structures digitally utilizing physics engines that simulate these form finding processes in real time.
The goal of this research by Florian Chéraud is to introduce, within the Grasshopper environment, a tensile parameter, the Young Modulus, into the Kangaroo model.
In this thesis by Giorgio Piscitelli, a new form-finding method is developed for system combining arches, membranes, cables, ties and struts. First the whole mathematical theory is elaborated then digital tools are created in the Grasshopper.
This project by Eric Giragosian was part of a research studio conducted by Yasushi Ishida to investigate various methods in finding forms of vaulting shell structures.
In this paper by Andrea E. Del Grosso and Paolo Basso, the behavior and purpose of deployable structures are considered to be quite specific, focusing on the change of shape, which is usually obtained by a single degree of freedom transformation.
This paper by Efilena Baseta and Klaus Bollinger presents a construction system which offers an efficient materialization method for double-curved gridshells. This results in an active-bending system of controlled deflections.
This paper by Jorge Christie introduces a novel approach for generating self-forming textile hybrid structures based on the actuation of pre-stressed textiles with in-space robotic 3D printing.
This article by Simon Schleicher, Andrew Rastetter, Riccardo La Magna, Andreas Schönbrunner, Nicola Haberbosch and Jan Knippers, investigates the form-ﬁnding and design potentials of bending-active plate structures.
In this article by Asli Agirbas which presents a particular course, it was intended that all stages should be experienced, from the modeling in the virtual environment to the digital fabrication.
Voussoir Cloud by American architects IwamotoScott explores the structural paradigm of pure compression coupled with an ultra-light material system. The overall design draws from the work of engineer/architects such as Frei Otto and Antonio Gaudi, who used hanging chain models to find efficient form.
Addressing both architects and engineers, this dissertation by Matthias Rippmann presents a new framework for the form ﬁnding and design of fabrication geometry of discrete, funicular structures in the early design phase. It introduces a new methodology for structurally-informed design of curved surface architecture.
This master thesis by Sebastian de Wit is the result of a graduation project where research is conducted on parametric design of segmental timber shell structures. Throughout this report, the design process as well as the development of a parametric model to design, analyze and fabricate segmental timber shell structures is described.
This pavilion by Milad Showkatbakhsh, Chritopher Testa, Chris Yu and Shayna Cooper explores the limits of composite aluminum panels. With the use of parametric modelling and digital fabrication, a unitized panel system was designed that aggregates to operate as a larger system of surfaces.