The primary objective of this project was the conceptualization and design of a multifunctional 3D printed resin module within a confined space. The aim was to create a dynamic and fluid parametric organic structure that facilitates four fundamental human activities. This innovative approach sought to optimize spatial efficiency while promoting versatility, thus providing a solution that seamlessly integrates functionality with a sophisticated parametric design.

This formal proposal originates from a foundational circular shape, serving as the basis for the incorporation and creation of the central container space. The distribution of activities unfolds during the rotation of the module, strategically aligning with key structural nodes at the junction of each branch. This intentional arrangement aims to efficiently distribute primary structural loads, managed by 3D printed resin members capable of responding to the module's principal stresses through controlled variations in matter density. The design thus embodies a sophisticated interplay between form and function, ensuring optimal structural integrity and performance.

The foundational concept of geometric and material generation within this project is realized through a meticulously crafted coding script utilizing the 3ds Max MAXScript programming language. This innovative script encapsulates the intricate integration of 3D printed resin and collagen composite materials. The construction process is facilitated by a robot controller, precisely executing instructions from a computer. The interactivity and customization of this cutting-edge system are achieved through intuitive and customizable software, highlighting a seamless synergy between advanced programming, material science, and robotic precision in construction.