Leverages a six-axis Bricklaying Robot to automate complex assembly.
Employs voussoir vaulting to create self-supporting masonry.
Utilizes Grasshopper definitions to ensure cohesion.
The Parametric Brick Estate represents a convergence of traditional materiality and cutting-edge computational logic.
By leveraging the algorithmic power of **Rhino and Grasshopper**, the project utilizes a dynamic, rule-based system to translate complex environmental data into high-resolution architectural form.
This approach allows for the real-time modulation of individual elements—controlling rotation, scaling, and deformation to create a facade that functions as a living, rule-based sculpture.
[ PHASE_01 ]
The robot calibrates its spatial orientation to ensure absolute accuracy before beginning the lay.
[ PHASE_02 ]
Precise pick-and-place movement based on parametric rotation and scaling values defined in the code.
[ PHASE_03 ]
The specialized gripper rotates dynamically to create the graduated “twist” in the final geometry.
[ PHASE_04 ]
The arm returns to a moving position to clear the structure before starting the next course.
By employing this robotic system, the Parametric Brick Estate achieves a level of architectural detail that is mathematically impossible to execute by hand. The system allows for real-time modulation of the facade’s porosity and texture, effectively turning a traditional heavy material into a lightweight, rule-based sculpture.
LOG_TYPE: SPIRAL_STAIR
Every tread and riser is an output of a complex visual script, allowing for a perfect mathematical ascent that replaces traditional drafting with rule-based geometry.
The script manages the structural transition from the heavy masonry of the estate to the light, sweeping lines of timber and steel, ensuring total material cohesion.
Each component is calculated to interact with the surrounding architecture, creating a centerpiece that bridges two floors with surgical, data-driven accuracy.
// DATA_SET: GRASSHOPPER_DEFINITIONS
DEF_01
High-performance simulation used to create a self-supporting, compression-based masonry masterpiece. This definition manages gravity loads and structural equilibrium in real-time.
DEF_02
A computational framework that automates the geometry of the estate’s boundary elements, ensuring total site cohesion through adaptive algorithmic repetition.
DEF_03
Built upon research and definitions from the University of Virginia School of Architecture to bridge academic theory with robotic reality.
“The project stands as a testament to the intersection of robotic precision and architectural intuition—where the digital script meets the physical weight of masonry.”
