Project: Computational Design for Renewable Energy Integration – LAGI 2022

Overview

This project was part of the LAGI 2022 Mannheim competition, where our team secured 2nd place. The challenge focused on designing aesthetically pleasing renewable energy solutions that could be seamlessly integrated into urban environments, making energy production a functional, yet beautiful, part of the cityscape.

Technologies and Tools

• Rhino 3D  for 3D modeling and design iteration.
• Grasshopper to develop parametric models and automate the creation of complex geometries.
• Autocad & Twinmotion for drafting and rendering.

Computational Design Approach

At the core of our proposal was a modular system designed to generate clean energy while celebrating the relationship between humans and light. We developed an innovative structure using dovetail joints, combined with a mirror system and an IFCS (Integrated Focused Solar Concentration System), which concentrates solar energy to produce electricity.

To optimize the design and ensure structural integrity, we used Grasshopper for computational modeling. Through parametric design, we created and refined the modules with precise control over geometry, enabling rapid iterations of the mirror and joint systems. Grasshopper also allowed us to automate the arrangement and configuration of the modules, ensuring the design was scalable and adaptable to different structural requirements.

Additionally, we conducted structural studies directly within Grasshopper, using custom scripts to simulate load-bearing capacities and optimize the module geometry for both strength and efficiency.

Key Features

• Parametric Design: Leveraged Grasshopper to create an adaptable modular system with dovetail joints for structural stability.
• Energy Integration: Developed a mirror system coupled with an IFCS to harness solar energy and generate electricity efficiently.
• Structural Optimization: Conducted real-time structural analysis through Grasshopper, ensuring that the design could be both functional and aesthetically pleasing.

Impact

This project demonstrates how computational design and parametric tools can be harnessed to create sustainable, energy-producing structures that blend technology, art, and functionality. By integrating renewable energy into an urban setting in a visually appealing way, we aim to make energy production not just efficient, but also an enriching part of the environment.