Journal Entry For
Module 5 - Flex Your Form
Link to Student
Stage 1: Creating Forms with Revit Conceptual Masses (for 2 or more units)
Part 1 - Test One of the Example Conceptual Mass Forms by Flexing One Input
For the initial testing phase, I utilized the Rectangular Mass example.
- Parameters Flexed: I tested varying combinations of the building's base dimensions (width and depth) and overall height, ensuring the gross floor area remained within the target range while respecting the 230m height limit.
- Design Observations: Flexing these simple parameters provided a strong baseline for understanding how dimensional changes linearly affect total gross volume and surface area.

Part 2 - Create Your Own Conceptual Mass Form and Test It
For my original conceptual form, I developed an Elliptical Mass to explore a softer, more aerodynamic profile for the Dubai skyline.
- Parameters Flexed: This form was built with independent, dynamic controls, including:
- Top and Bottom Major Axis Lengths
- Top and Bottom Minor Axis Lengths
- Top and Bottom Depths
- Top and Bottom Rotations


Stage 2: Creating Forms with Dynamo or Grasshopper Geometry (for 3 or more units)
My initial design intent in Dynamo was to create a Teardrop/Airfoil profile.
- Initial Logic: Theoretically, this shape is highly optimized for the Dubai site. The aerodynamic profile minimizes wind resistance (a major structural concern for high-rises) and efficiently reduces the building envelope surface area relative to the internal volume.
- The Pivot: During the modeling process, the "sharp" trailing edge of the airfoil created geometric singularities. When Dynamo attempted to loft the surfaces across these sharp points, it resulted in self-intersections and surface errors.
- The Solution: To resolve this while maintaining the core design philosophy, I smoothed the profile to create an Egg-Shaped Tower. This maintained the aerodynamic benefits and organic aesthetic of the teardrop while ensuring the Dynamo logic could reliably loft the profiles into a clean, manifold geometry for accurate volume and surface area evaluations.

