The New Structuralism

Summary

The issue introduces New Structuralism as an approach to architectural design that combines spatial, structural and material ordering with digital modeling, materialization and fabrication technologies.
Rivka Oxman and Robert Oxman bring together contributions from architects, engineers and researchers exploring how computational design and engineering collaboration can produce complex architectural forms and innovative construction systems.
Major themes include evolutionary design processes, structural strategies for complex geometries, architectural geometry, heterogeneous materials, digital fabrication, timber structures informed by textile principles, robotic construction and form-finding. Contributors include Werner Sobek, Hanif Kara, Helmut Pottmann, Neri Oxman, Fabio Gramazio, Matthias Kohler and others.

The issue challenges the conventional separation of architectural form, structural engineering and material selection. Instead, it presents design as an integrated process in which structural behaviour, material properties and fabrication constraints can actively generate architectural solutions.

Key takeaways

• Architectural form, structural systems, material properties and fabrication methods can be developed as an integrated design process.
• Structural engineering can contribute to architectural concept development rather than merely verify a completed design.
• Computational tools enable the exploration of complex geometries and structural configurations.
• Parametric modeling helps coordinate changes across geometry, structure and material systems.
• Architectural geometry can serve as a source of design knowledge rather than simply a formal representation.
• Form-finding methods can help generate structures responsive to forces, materials and boundary conditions.
• Digital fabrication expands the range of geometries and components that can be manufactured.
• Material properties can actively influence the generation of architectural form.
• Heterogeneous materials offer opportunities to vary material properties according to changing functional requirements.
• Structural optimization can help balance performance, material use, cost and architectural expression.
• Robotic construction can support precise fabrication and the assembly of complex building components.
• Timber systems can incorporate principles derived from textiles, weaving and flexible material assemblies.
• Engineering collaboration is most effective when introduced early in the architectural design process.
• Complex geometry requires careful coordination between modeling, engineering analysis, fabrication and assembly.
• Digital models should connect design intent with the physical realities of material production.
• Structural expression can contribute to the identity and spatial character of architecture.
• Computational design should be evaluated through technical performance and buildability, not visual complexity alone.
• Integrated design methods can create new relationships between architecture, engineering and manufacturing.

Practical application

1. Define a design problem in which structural behaviour or material performance influences the architectural concept.
2. Develop a parametric model to explore alternative geometries and configurations.
3. Coordinate architectural geometry with structural grids, spans, support locations and load paths.
4. Investigate appropriate form-finding methods for shells, gridshells, lightweight roofs or other complex systems.
5. Compare material options according to structural performance, availability, durability and construction cost.
6. Explore digital fabrication for façade panels, modular components, timber assemblies or complex joints.
7. Test physical prototypes to evaluate assembly, tolerances, connections and material behaviour.
8. Coordinate computational models with structural analysis and fabrication requirements.
9. Evaluate design alternatives against performance, material consumption, cost and maintainability.
10. Document the transition from conceptual geometry to engineered and buildable components.
For projects in Bangladesh, these principles can inform lightweight roofs, modular shading systems, engineered timber applications and computationally designed façades. Consider local fabrication capacity, material availability, humidity, monsoon conditions, fire safety, corrosion and long-term maintenance before adopting complex systems.

Good to know

Who it's for: Architecture students, practicing architects, structural engineers, computational designers, digital fabrication specialists, architectural researchers and building technology professionals

ISBN: 978-0-470-74032-9

Topics

New Structuralism Design Engineering Structural Systems Computational Design Architectural Geometry Parametric Design Material Systems Digital Fabrication Robotic Construction Form-Finding Complex Geometry Materialization Performance-Based Design Structural Optimization Textile Structures Architecture–Engineering Collaboration