Parakeet by Esmaeil is a collection of components focusing in Algorithmic Pattern Generation; it offers a Unique and easy-to-use approach that Generates Geometrical and Natural Patterns/Networks.
For now, Parakeet has 8 Categories: Tilings, Primitives, Pattern Generation, Curve, Mesh, Surface, M.C. Escher and utilities.
Cellular Complexity “EVOLVE” is an installation, which exhibits the potential of cellular geometries at a spatial architectural scale. The complex, twisted geometry was generatively designed and digitally fabricated.
This research by Ramon Elias Weber aims to create architectural geometries that are driven by performance -- in light, energy, and structure.
Oribotics is a field of research concerned with the aesthetic, biomechanic, and morphological connections among nature, origami, and robotics. In this research by Matthew Gardiner, the focus is on the actuation of fold- programmed materials such as paper and synthetic fabrics.
The objective of this study by Christine Pedersen is to investigate the efficiencies of using ‘parametric design’ for landscape designs and in the practice of landscape architecture.
This paper focuses on the impact and possibilities of folding principles from origami for the digital design process in using parametric software to generate integral and adaptive systems within an experimental and intuitive design approach.
This thesis by Grace Melcher considers the design of a topology optimized hemisphere, a hemispherical continuous shell, and a hemispherical grid shell, and compares the structural performance of these three shells under asymmetric loads.
To make a way toward the design of transformable structure for temporary applications, the authors have developed a new type of adaptable structures according to natural forms.
In this thesis by Molly Mason, author proposes the integration of robotic fabrication and assembly constraints into the design process to use as drivers for form-finding. The framework for this is created through codifying material processes and assembly logics.
In this paper, authors present a study of the generation of branching structures and their application to the development of façade support systems. They investigate two types of branching structures, a recursive bifurcation model and an axial tree.
The workflow presented in this thesis by Madeleine Johanson introduces data interoperability and interdisciplinary practices to produce informed preliminary design, and therefore better urban outcomes.
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.
This paper by Andrei Gheorghe, Philipp Hornung, Sigurd Reiss and Robert Vierlinger provides insight into a new robotic plastic forming process through the prototypical construction of a full scale structure.
This dissertation by Inês Alexandra do Côrro Caetano discusses the development of a framework for the design of facades. This work started with an analysis of a large corpus of contemporary facades, which were classified into different categorical dimensions.
This article by Ajla Aksamija, Todd Snapp, Michael Hodge and Ming Tang discusses a research/teaching collaboration between Perkins+Will and the University of Cincinnati and a unique design studio that was initiated as part of this collaboration.
This thesis by Philipp Eisenbach examines the contradiction of the possibility to reduce cross-section dimensions, and the complexity of the discontinued homogeneity arising from segmentation.
This paper investigates the potential for combining standard building materials with customised nodes that are individually optimised in response to local load conditions in non- standard, irregular, or doubly curved frame structures.
This thesis by Michael Ramirez focuses on using optimization to computationally construct doubly-curved configurations of the Spin-Valence pattern logic from input surfaces. To accomplish this, optimization in Rhinoceros v6 and Python v3.7 is used.
This paper presents methodology and implementation of parametric architectural design of bricklaying walls fabricated by industrial robotic arm. As a design tool Grasshopper is used, a visual programming editor that runs within the Rhinoceros 3D CAD application.
This thesis by Diego Alfonso Rivera advances a recent work on the optimization of patterned surface structures used for architecture and structural engineering.
This paper by Salma El Ahmar, Antonio Fioravanti and Mohamed Hanafi, attempts to link biological principles with computational design in order to present a design methodology that aids interested architects within the preliminary design phase.
In this master thesis by Henrik Green & Daniel Lauri a form finding algorithm for grid shells has been developed. The algorithm is based on dynamic relaxation with kinetic damping coupled with a structural evaluation by the finite element method.
This paper by Irina Miodragovic Vella and Toni Kotnik reassesses stereotomy at its fundamental levels, as a material system based on generative processes that assimilate structure and construction through parameterization.
This paper by Samuel Leder, Ramon Weber, Lauren Vasey, Maria Yablonina and Achim Menges presents Voxelcrete, a discrete, voxel-based, reconfigurable slip formwork system for the creation of non-standard concrete structures.
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