The vision of the Cluster of Excellence Integrative Computational Design and Construction for Architecture (EXC IntCDC) is to harness the full potential of digital technologies in order to rethink design, fabrication and construction based on integration and interdisciplinarity, with the goal of enabling game-changing innovation in the building sector as it can only occur through highly integrative fundamental research in an interdisciplinary, large-scale research undertaking.

The Cluster aims to lay the methodological foundations for a profound rethinking of the design and building process and related building systems by adopting an integrative computational approach based on interdisciplinary research encompassing architecture, structural engineering, building physics, engineering geodesy, manufacturing and system engineering, computer science and robotics, social sciences and humanities. We aim to bundle the internationally recognised competencies in these fields of the University of Stuttgart and the Max Planck Institute for Intelligent Systems to accomplish our research mission.

The Cluster’s Industry Consortium will ensure direct knowledge exchange, transfer and rapid impact. Taking into account the significant difference between the building industry and other industries, we will tackle the related key challenges of achieving a higher level of integration, performance and adaptability, and we will address the most important building typologies of multi-storey buildings, long-span buildings, and the densification of urban areas.

The Cluster’s broad methodological insights and interdisciplinary findings are expected to result in comprehensive approaches to harnessing digital technologies, which will help to address the ecological, economic and social challenges that current incremental approaches cannot solve.

We envision IntCDC to significantly shape the future of architecture and the building industry through a higher-level integration of computational design and engineering methods, effective cyber-physical (tightly interlinked computational and material) robotic construction processes and new forms of human-machine collaboration, efficient and sustainable next-generation building systems, and socio-cultural and ethical reflection. Thus, the Cluster will have significant impact on creating the conditions required for a liveable and sustainable future built environment, high-quality yet affordable architecture and a novel digital building culture.
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1,191 to 1,200 of 1,261 Results
EXC IntCDC Research Project 19 'Co-Design Methods for Developing Distributed Cooperative Multi-Robot Systems for Construction' logo
Jul 5, 2022
RP19-1: Leveraging the building material as part of the robotic kinematic system for parallel construction. RP19-2: Co-design methods for developing distributed cooperative multi-robot systems for construction.
Adobe PDF - 63.3 KB - MD5: fab0a77dff2b51e37f8412644edce141
EXC IntCDC Research Project 12 'Computational Co-Design Framework for Fibre Composite Building Systems'(University of Stuttgart, Max Planck Institute for Intelligent Systems)
EXC IntCDC Research Project 12 'Computational Co-Design Framework for Fibre Composite Building Systems' logo
Jun 14, 2022
RP12-1: Computational co-design for fibre composite building systems including visual analytics and simulation interfaces. RP12-2: Computational co-design framework for fibre composite building systems.
EXC IntCDC Research Project 10 'Co-Design from Architectural, Social and Computational Perspectives'(University of Stuttgart, Max Planck Institute for Intelligent Systems)
EXC IntCDC Research Project 10 'Co-Design from Architectural, Social and Computational Perspectives' logo
Jun 13, 2022
RP10-1: Co-design from architectural, historical and social science perspectives. RP10-2: Co-design from architectural, social and computational perspectives: methods for the integrative exploration of design spaces for future timber buildings within existing urban contexts.
EXC IntCDC Research Project 4 'Cyber-Physical Wood Fabrication Platform'(University of Stuttgart, Max Planck Institute for Intelligent Systems)
EXC IntCDC Research Project 4 'Cyber-Physical Wood Fabrication Platform' logo
Jun 13, 2022
RP4-1: Cyber-physical fabrication platform for wood building system utilizing human-machine collaborations including immersive analytics for augmented reality. RP4-2: Cyber‐physical fabrication platform: fluid fabrication – extending the adaptivity of island-based fabrication and the design-to-fabrication reciprocity through multi-unit collaboratio...
Apr 12, 2022 - IntCDC
Tapia Camú, Cristóbal; Claus, Marian, 2021, "Experimental data for: A finger-joint based edge connection for the weak direction of CLT plates", https://doi.org/10.18419/DARUS-1344, DaRUS, V2, UNF:6:3YMGPmWE9BG0uaF+T4A8HQ== [fileUNF]
This repository contains the experimental data collected for the newly developed plate-to-plate connection during the Master's Thesis of Marian Claus. The data corresponds to the two different connection geometries, tested under two different loading conditions: (i) pure bending and (ii) shear bending conditions. For all the experiments, global and...
Tabular Data - 127.7 KB - 22 Variables, 356 Observations - UNF:6:Pnb0KQjIP7752u3uC9OVew==
Shear/Moment configuration, connection A, first loading cycle. Force units: [kN]; Displacements: [mm]; Strains: [--]. The force given corresponds to a single loading piston.
Tabular Data - 116.2 KB - 22 Variables, 323 Observations - UNF:6:lsFmoHhY2NjcjIu2BG08lQ==
Shear/Moment configuration, connection A, second loading cycle. Force units: [kN]; Displacements: [mm]; Strains: [--]. The force given corresponds to a single loading piston.
Tabular Data - 289.3 KB - 22 Variables, 812 Observations - UNF:6:PJDg+/XHtIGoA9eESv5R5g==
Shear/Moment configuration, connection A, third loading cycle. Force units: [kN]; Displacements: [mm]; Strains: [--]. The force given corresponds to a single loading piston.
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