Welcome to HyperA!
As we navigate the complexities of urban living, our design strives to create spaces that not only cater to functional needs but also enrich community connections. Through integrative modeling, we aim to challenge conventional architectural norms and present a bold vision for the future.
Concept of Neighborhoods
HyperA is centered around the concept of eight distinctive neighbourhoods, each defined by a dominant theme that encapsulates the essence of a dynamic city. Every neighbourhood possesses its own unique identity, yet they all house essential functions to support everyday life.
What truly sets this concept apart is its human-scale approach. The design transforms even expansive areas into places where community life can flourish, fostering interaction and connection. By seamlessly integrating neighbourhoods into a vibrant social network, the building becomes a hub of activity. The principle of space exchange ensures a constant evolution of openness and adaptability, unlocking possibilities for innovative spatial usage.
Additionally, circulation is envisioned as more than mere movement—it becomes an engaging experience. Thoughtfully designed proximity between spaces connects people and functions in fluid ways. Underpinning this vision are sustainable movement systems, tailored spatial arrangements, and energy-efficient solutions, balancing energy-demanding, neutral, and producing systems harmoniously.
Project Vision
At the core of our project is the aspiration to craft a building that operates as a “city within a city.” This living organism is designed to thrive 24/7, adapting fluidly to the ever-changing needs of residents. Spaces are dynamic and multifunctional, adjusting seamlessly across different times of the day. Each neighborhood is purposefully designed to house areas that enable a variety of activities, embodying versatility and forward-thinking urban design.
Macro Adjacency and Spatial Planning
Using a macro adjacency matrix, we meticulously planned the placement of neighbourhoods within the building’s structure. Considerations such as distances, light, and airflow informed our decisions, ensuring optimal functionality and harmony. To define the specific spatial requirements for each neighbourhood, data-driven insights were derived from detailed Excel sheets that accounted for programmatic needs.
Micro Adjacency for Internal Functions
When it comes to internal organization, a micro adjacency matrix provided the framework for arranging functions within neighbourhoods. Each function was represented as a sphere, with its volume calculated based on spatial demands. This meticulous approach ensured efficiency and adaptability at a granular scale.
Voxelization of the Structure
Once all functions were strategically placed, we proceeded to voxelize the structure on a neighbourhood-by-neighbourhood basis. Residential zones were predominantly positioned along the façade, while a carefully devised color-coding system served to distinguish functions throughout the building.
Visualization in Revit
To enhance clarity, we used Revit to represent all geometries as spheres. This unique representation offered a site plan that appeared abstract, resembling an artistic painting. The unconventional approach added a layer of creativity to the visualization, aiding in comprehending the complex spatial relationships.
Placing Elements via Rhino.Inside
With the integration of Rhino.Inside.Revit, we seamlessly imported spheres into the model, accompanied by legends and visualizations. This process allowed us to clearly delineate the connections between various functions, adding depth to the overall representation.
Developing the Model Further
To refine the model, we assigned colors to corresponding functions, ensuring each had an appropriate volume. Transparency was employed to distinguish neighbourhoods from specific functions, allowing for a layered understanding of spatial composition. Neighbourhoods and functions were modeled as separate Revit families for enhanced adaptability.
Sectional Views and Filtering
Sections provided a glimpse into the spatial arrangement and the diverse volumes occupied by various functions within the building. Transparency was also applied to isolate single neighbourhoods, highlighting functional volumes and their interconnections.
Highlighting Shared Functions
A systematic application of color-coded filters helped identify functions that repeat across all neighbourhoods, adding clarity to the shared aspects of the design. This approach emphasized how the neighbourhoods collectively contribute to the building’s overarching functionality.
Time-Based Adaptive Model
Flexibility was further enhanced by introducing shared and global parameters for time-based variations. This allowed spaces to adapt dynamically to three predefined time settings—day, evening, and night—by adjusting the size of spheres and connecting tubes. The result was a responsive representation of space usage over time.
Activity and Circulation Flows
Throughout the day, the building evolves to reflect shifting usage patterns. Spheres depict how functions are utilized, while tubes map circulation flows between spaces, embodying the principle of dynamic adaptability.
Deconstructing a Neighborhood
Lastly, we isolated the top neighborhood to dissect its composition. By breaking it down into its functions, we showcased the evolution of these elements across time settings, demonstrating the versatility and adaptability of the design.
This comprehensive approach to integrative modeling emphasizes both functionality and community interaction, redefining how spaces can serve urban living. HyperA’s neighborhoods represent not just architectural innovation but also a commitment to creating environments that inspire and connect people.
