Our project explores the After Gaudí vision through the lens of an Interpretation Center—not by simply copying forms, but by deeply understanding his geometry and structural logic.

Project Framing: A 2026 Centenary Monument in the Born District.

The monument site is strategically located in the Born District, deeply connected to the urban fabric between the Sagrada Familia Basilica and the Cathedral.

Figure 1: The Four Stages of Project Framing by Author.

The Interpretation Center: Defining the Cultural Program

An Interpretation Center is not just an exhibition space; it is a spatial narrative and a new kind of interactive museum. in our case, it specifically communicates the cultural and architectural importance of the sacristy, honoring the 100th anniversary of Antoni Gaudí’s death. it becomes a device to translate his complex logic and architectural intelligence to the public.

Figure 2: Peter Rich Architects, “Mapungubwe Interpretation Centre,” Peter Rich Architects, accessed 2 Feb. 2026.
Figure 3: Luis Machuca & Associates, “Interpretation Center of the Andalusian Prehistory,” ArchDaily, accessed 2 Feb. 2026.

Nature as Algorithm: Morphological Elements of Nature

Morphological elements derived from nature, such as water dynamics, airflow patterns, and the adaptive behavior of vegetation in response to environmental forces were systematically correlated.

Figure 4: Morphological Elements of Nature – Water and Air.
Figure 5: Morphological Elements of Nature – Vegetation.

In parallel, the structure of the human body was examined, and its proportions were translated into a spiral, circular system that served as the foundational framework for the project’s structural elements. This biomimetic investigation ultimately functioned as the underlying algorithm guiding the generative design process.

Figure 6: Morphological Elements of the Human Body – Bone Structure.

Tower Concept and Initial Sketches

Through abstraction and iterative sketching, a highly systematized “morphological catalogue” was developed. This system allowed us to generate specific, parametric components that we believe best align with gaudí’s logic and the structural integrity of the Sagrada Família.

Figure 7: Sketches of the Interpretation Center by Author.

Spatial Narrative

Figure 8: Narrative GIF by Author.

The narrative of the center follows a vertical ascent from the tactile foundations of Gaudí’s craft to the digital ether of his modern legacy. It begins in The Roots & The Material, where the raw textures of the natural world and traditional craftsmanship serve as the primary architectonic language. This evolves into The Analogue Gravity, a phase dedicated to his radical structural laboratories where physical forces were tamed through empirical, hanging models. As the journey moves past the architect’s life, The Digital Decoding explores the transition from fragmented physical archives to the aeronautical software required to finally map his complex ruled surfaces. The path culminates in The Dematerialized Legacy, illustrating how Gaudí’s geometric DNA continues to propagate through contemporary computational design, proving that his work is not a static history, but a living, generative framework.

Schematic Design

Figure 9: Schematic Design GIF by Author.

Form and Structure Catalogue

The design catalogues begin with column variations as a fundamental structural element, exploring how simple geometries can express directional force and transformation. The column evolves through bifurcation, allowing forces to split and redistribute, inspired by Gaudí’s branching logic where structure behaves as growth. At the core of this system, the node acts as the point of convergence, resolving transitions between vertical and horizontal elements through geometry rather than decoration.

Figure 10: Catalogue GIF by Author.

Morphogenetic Seed

The exploration begins with a single morphogenetic node understood as a geometric system. The focus lies on how one element can generate complexity through variation, and on the development of an initial fabrication strategy derived from this process.

Figure 11: Selected Module Diagram by Author.

Module Exploration

In this phase, text-to-image models were employed to explore the potential applications of the geometry across multiple architectural elements, including ceiling systems, handrails, screen walls, and column capitals.

Figure 12: Architectural concept exploring parametric tessellation and natural light interaction. Image generated by Author via xFigura accessed 20 April  2026 .

Decoding the Morphogenetic Seed

For fabrication, the geometry was subdivided into 16 pieces. The splitting strategy was based on the innermost hyperboloid-like regions, allowing cleaner segmentation along areas of higher curvature. This approach reduced fabrication complexity and improved tool accessibility, particularly in areas with steep geometries and restricted machining angles. The system results in two types of pieces, each with distinct dimensions: smaller modules, approximately matching 293 mm in length; and larger modules reaching depths of 392 mm. This differentiation optimizes both assembly logic and machining feasibility.

Figure 13: Fabrication Diagrams by Author.

From Computation to Fabrication

Figure 14: Fabrication Diagrams by Author.

The fabrication process began with a solid foam block, which was progressively milled using a robotic arm. The workflow started by machining the lateral faces on both sides, followed by the back surface, and finally the top surface during the roughing phase. All roughing operations were carried out using a 6 mm flat end mill, ensuring efficient material removal. For the finishing stage, the tool was switched to a 6 mm ball end mill, allowing for smoother transitions across the faceted surfaces and a more precise definition of edges and folds.

Figure 15: Fabrication Process Animation by Author.
Figure 16: Photo of the Fabricated Piece by Author.
Figure 17: Assembly Animation of the Fabricated Piece by Author.

Form and Structure Catalogue

The process shifts from cataloguing isolated elements to defining a generative system rooted in a morphogenetic seed a compact geometry containing both structural and spatial potential. Through decomposition, its logic is revealed by analyzing edges, vertices, and directional forces, establishing the rules for growth, transformation, and continuity.

Figure 18: Catalogue GIF by Author.

Module variations are explored to maintain a consistent identity while allowing controlled differentiation. Section and elevation studies evaluate structural and spatial performance beyond form. Openings are introduced strategically to regulate light, reduce weight, and maintain continuity, while geometric refinement removes noise and reinforces clarity.

Figure 19: Catalogue GIF by Author.
Figure 20: Catalogue GIF by Author.
Figure 21: Catalogue GIF by Author.
Figure 22: Selected Column Design Diagram by Author.
Figure 23: Ceiling Paramorph Diagram by Author.
Figure 24: Image of 3D-Printed Ceiling Paramorph by Author.

Figure 25: Ceiling Paramorph GIF by Author.

Inspired by the Sacristy of the Sagrada familia, the design evolves from the base of the column, with morphic design and defines itself to crate intersection between the ceiling connection, and spreads as beams which converges into the ceiling design, and carefully crafted paraboiloids are then are fabricated as ceiling design completing the frame.

Architectural Strategy – Schematic Design

Figure 26: Schematic Design Diagram by Author.

Process Overview – Progress and Methodology

The system is consolidated across scales, integrating columns, slabs, and nodes into a continuous framework. Redundancies are removed to improve efficiency and structural legibility, while preserving adaptability. The result is a unified architectural system where form, structure, and space operate as a cohesive, inhabitable whole.

Figure 27: Architectural concept exploring parametric tessellation. Images generated by Author via xFigura accessed 20 April  2026 .
Figure 28: Architectural concept exploring parametric tessellation. Image generated by Author via xFigura accessed 20 April  2026 .
Figure 29: Architectural concept exploring parametric tessellation. Image generated by Author via xFigura accessed 20 April  2026 .
Figure 30: Architectural concept exploring parametric tessellation. Images generated by Author via xFigura accessed 20 April  2026 .
Figure 31: Architectural concept exploring parametric tessellation. Images generated by Author via xFigura accessed 20 April  2026 .
Figure 32: Architectural concept exploring parametric tessellation. Images generated by Author via xFigura accessed 20 April  2026 .
Figure 33: Architectural concept exploring parametric tessellation. Images generated by Author via xFigura accessed 20 April  2026 .

Process Overview – Material Selection

Before a single render was produced, the project demanded something deeper a thorough investigation into materials and how they would truly read in space. Every surface was chosen deliberately, rooted in extensive research and directly inspired by the material language of the Sagrada Família itself.

Red granite, Montjuïc limestone, and Catalan marble ground the palette in the sacred textures of Gaudí’s masterwork. The custom tiles designed and crafted in collaboration with Ceràmica Cumella, the same atelier behind the iconic pieces of the Jesus Tower, carry that same spirit of artisanal precision into this project.

Figure 34: Architectural concept exploring Materiality. Images generated by Author via xFigura accessed 20 April  2026 .
Figure 35: Architectural concept exploring Materiality. Images generated by Author via xFigura accessed 20 April  2026 .

The Interpretation Center – Ground Floor Double Height

The project enters its most defining phase yet, the finalized interior spaces. The Ground Floor Double Height is where the architecture truly reveals itself. Rendered through xFigura’s AI platform, this space becomes a study in light and mass: daylight pierces through the intricate screen walls, casting ever-shifting patterns that animate every surface. Not simply illuminated, alive.

Figure 36: Architectural concept interior rendering. Image generated by Author via xFigura accessed 20 April  2026 .
Figure 37: Architectural concept interior rendering. Image generated by Author via xFigura accessed 20 April  2026 .

The Interpretation Center – First Floor Triple Height with Mezzanine Floors

Ascending the tower brings visitors to the First Floor Triple Height space, offering sweeping, multi-level views from the mezzanines.

Figure 38: Architectural concept interior rendering. Image generated by Author via xFigura accessed 20 April  2026 .

The Interpretation Center – Amphitheatre

The space seamlessly incorporates an Amphitheatre, fulfilling our goal of providing a dedicated zone for programming and education, as well as the resting area before someone enters the Mirador of the tower.

Figure 39: Architectural concept interior rendering. Image generated by Author via xFigura accessed 20 April  2026 .

The Interpretation Center – Animation

Ultimately, After Gaudi stands as the final output: successfully translating a highly complex architectural vision into a beautiful, accessible public experience.

Figure 40: Architectural concept interior rendering. Videos generated by Author via xFigura accessed 20 April  2026 .