Material and Geometry
One-week workshop in computational design and digital fabrication

This Expertise course held over one week was a deep dive into creation and construction. A group of Master students from the Dessau Department of Design and the Detmold School of Architecture and Interior Architecture embarked on an adventure to parametrically design and digitally fabricate 1:1 pavilions, structures and installations using corrugated cardboard. The three teams delved into the exploration of material and geometry-driven form creation, employing algorithmic thinking and design tools like Rhino and Grasshopper. Large-scale digital fabrication was achieved using cutting-edge laser-cutting technology. Finally each group designed and produced stable, self-standing, and visually striking structural systems. These were subsequently installed and exhibited on campus in Dessau.

Off the Wall
Synonymous with the concepts of the net, slits, and foldability, “Off the Wall” embodies an intricate structure that revolves around a central axis. This axis, represented by a column, forms the backbone of the structure, which expands according to a pattern grounded in structural stability and branching. The individual modules possess both a top and bottom, with large and small slits designed to align with the central locking mechanisms of adjacent modules. This design creates a captivating maze of openings that seamlessly traverse the vertical axis.

Visitors are treated to a diverse array of formations provided by the structure, thanks to the constructivist openings and subtle corner tints. These variations offer unique perspectives and interpretations of the structure from different vantage points. The net – a meticulously arranged collection of lines that compose the envelope’s line graphics – is the outcome of rigorous experimentation in pursuit of a stable, proportional module. Each rectangular cardboard segment is folded inward and temporarily secured with a U-shaped mechanism. This is later replaced by other modules as they are added to the central axis. By using a stacking-based methodology, material usage is optimized due to the high net-to-volume ratio of the modules. This results in an overall structure that is remarkably lightweight, illustrating the ingenious use of materials and design principles in the creation of “Off the Wall”.

Institute
Dessau Department of Design
Detmold School of Architecture and Interior Architecture

Students
Luis Alfonso Gutirrez, Muny-Roth Chev, Tom Esdar, Chris Busch, Vatsapol Nanta, Lando Schumpich, Isabella Sanches Previti, Aram Badr, Mehrbod Pakbaz, Mohamed Khaled, Gökalp Yigit Denktas, Maximilian Bohnhorst, Hebba Massoud, Fadi Khemam, Juan Hernandez, Sarbani Ghosh, Mohammed Soheilli

Supervision
Prof. Dr. Manuel Kretzer
Prof. Hans Sachs


Diamond Grid
Corrugated cardboard has proven its worth as a surprisingly versatile building material. Despite being fundamentally composed of paper, it exhibits exceptional stability due to its inherent structural design. This fascinating attribute has encouraged many designers to use it in creative explorations, culminating in stunning works ranging from furniture to full-scale pavilions. In our journey, we aimed to push the boundaries of what this material could accomplish. Our objective was to devise a generator capable of segmenting any given shape into panels, each with its own unique cut and fold pattern. The hope was to bolster stability through surface triangulation and the intrinsic tensile and compressive forces acting upon the structure.

Our plan was to maintain panel cohesion by implementing a stretching mechanism with re-hooks, thereby eliminating the need for other connecting elements. However, our efforts did not yield the results we aspired to. The corrugated cardboard’s stability was significantly compromised by the buckling process and the consequent disruption of its corrugated structure, rendering our structure’s individual components overly flexible.

As a result, it is now crucial to evaluate whether the fundamental logic of our generator could be applied successfully to a smaller pavilion and/or used with other materials like sheet metal. Despite the setback, we remain optimistic about the potential of corrugated cardboard and continue to explore ways of harnessing its unique properties for innovative design applications.

Platonic Crystals
The project “Platonic Crystals” is a meticulously designed rule-based play system, comprising two primary modules. It is fine-tuned for an intuitive production process while maintaining a single pattern across all modules. By skillfully folding and connecting this pattern, three platonic solids are created.

Our design approach honed in on Tetrahedrons and Octahedrons, an ideal pair for space-filling. The process of joining these solids is remarkably straightforward; it merely requires clips at each corner to secure the elements together. The assembly of the solids adheres to a specific rule-based system: each Octahedron connects to a maximum of four Tetrahedrons. This systematic growth is inspired by nature, emulating the aggregation logic seen in salt crystals. By leveraging this system, the builder or user can construct an array of shapes, varying from dense to delicate and intricate designs.

For our 1:1 scale model, we opted to explore a linear growth pattern to push the boundaries of our design proposition and ascertain its full potential. Through this experiment, we delved deeper into the limitless possibilities of this unique design system.

Institute
Dessau Department of Design
Detmold School of Architecture and Interior Architecture

Students
Luis Alfonso Gutirrez, Muny-Roth Chev, Tom Esdar, Chris Busch, Vatsapol Nanta, Lando Schumpich, Isabella Sanches Previti, Aram Badr, Mehrbod Pakbaz, Mohamed Khaled, Gökalp Yigit Denktas, Maximilian Bohnhorst, Hebba Massoud, Fadi Khemam, Juan Hernandez, Sarbani Ghosh, Mohammed Soheilli

Supervision
Prof. Dr. Manuel Kretzer
Prof. Hans Sachs


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