The research described in this paper by Sean Ahlquist et al. embeds properties of both elastic textile and bending-resistant composites within a single material structure. This is accomplished through a composite forming process.

This paper by Achim Menges et al. examines the framework of computational design methodologies incorporating material, structure, fabrication and morphogenetic principles for design and digital fabrication of lightweight fiber composite components.

In this paper by integrating specialized expertise across disciplines of architecture, engineering, and material science, authors propose an algorithmic toolset to generate PolyBrick geometries that can be applied to various architectural typologies.

This paper by Ionuţ Anton and Daniela Tănase will discuss the implications of parametric modeling and energy analysis in architectural design and will present the authors research in developing architectural forms using computational design tools.

This paper by Hanaa Dahy, Piotr Baszyński and Jan Petrš presents a process of realizing an experimental structure made from biocomposites which were synthesized from lignocellulosic flexible core reinforced by 3D-veneer layers.

In this article by Kenneth Tracy et al. a design framework is presented for creating self-supporting membrane tensegrity shell structures with spatial openings, enabled by novel reciprocally tessellated strut configurations.

This research by Hong-Cing Tung and Pei-Hsien Hsu is to compile an algorithm for creating origami forms with developability and flat-foldability on the target surface by generating a Miura-ori tessellation from the geometric of the target surface.

This paper presents a novel generative model that can create functional and expressive geometries by evolving volumetric gradient patterns. Using three case studies, authors demonstrate the key advantages of their approach.

Although initially intended for academic purposes, this paper by Roberto Narváez-Rodríguez and José Antonio Barrera-Vera was finally led towards the development of hollow lightweight conical components to materialise rotational parabolic domes.

This paper by Achim Menges, Jan Knippers et. al. pursues the development and construction of a robotically fabricated, lightweight timber plate system through a biologically informed, integrative computational design method.

Curved-line folding is the act of folding a flat sheet of material along a curved crease pattern in order to create a three-dimensional shape. The pavilion presented in this paper by Stijn Brancart et al. integrates this principle in a kit-of-parts system.

This paper by Gernot Riether and Knox Jolly is about the fabrication process of the DesCours pavilion. The construction process will be used to show how parametric software, such as Grasshopper can inform fabrication and material systems.

The first part of this paper by Achim Menges focuses on the explanation of the theoretical framework of ICD’s approach to design computation, which finds its conceptual roots in the integrative processes of biological becoming.

This research by David Stephen Panya, Taehoon Kim and Seungyeon Choo aims to analyze the motion aspect of interactive facades design and simplify the conceptual and performance design process through parametric strategies.