Generative AI for Sustainable and Efficient Layout Designs
Abstract
Generative Artificial Intelligence (GenAI) is emerging as a transformative tool in industrial design, offering novel pathways to optimize functionality, resource efficiency, and sustainability. This paper explores the application of generative AI in 2D layout optimization through the development and evaluation of a specialized tool: the EcoStorage Architect. EcoStorage Architect leverages a Conditional Tabular GAN (ctGAN) to generate optimized layout configurations that not only enhance spatial efficiency and accessibility but also integrate sustainability constraints from the outset. By embedding eco indicators—such as energy efficiency and resource optimization—directly into the generation process, the model ensures that environmental performance is a core driver of design outcomes. The tool is evaluated on a dedicated dataset, with results demonstrating the feasibility of integrating generative AI into early stages of the industrial design process. Quantitative and qualitative assessments highlight gains not only in layout efficiency but also in key sustainability indicators. This work showcases how generative models can drive more adaptive, sustainable, and intelligent design practices in industrial contexts, and proposes a path forward toward AI-driven optimization in facility planning aligned with circular economy principles.
Keywords: Artificial Intelligence, Sustainable Design, Generative AI, Layout Optimization
DOI: 10.54941/ahfe1006700
Cite this paper
More from this volume
- User experience evaluation of an AI-based decision-support tool for power grid congestion management
- Applying Job Design Criteria for Effective Human-AI Collaboration
- Exploring and Understanding Neurodiverse Sensory Experiences and Management Through Digital Intervention
- User-Centered Design and Usability Evaluation of a Floodwater Depth Estimation Mobile Application
- Designing with ‘Intelligence’? Exploring the Limits of AI-Based UX Tools
- Multibody Simulation Framework for Human-Machine Interaction in Impact Wrench Fastening: Enabling Reliability and Work-Related Health Risk Assessment
- Machine Learning for User-Dependent Ankle Joint Torque Estimation: An Application of XGBoost
- Commute time analysis using mobile location information
- Creating Safer Learning Environments Through Universal Design for Learning Framework
- Integrating Model-Based Systems Engineering and Stakeholder-Driven Design Exploration: A Virtual Reality Approach for Early-Stage System Development
- Digital vulnerabilities and the oldest-old
- Emotion-Based Memory and Decision System for Non-Humanoid AI Agents


AHFE Open Access