Transforming Built Environment Performance through AI-Driven and Physics-Based Simulations

A special issue of Architecture (ISSN 2673-8945).

Deadline for manuscript submissions: 3 March 2025 | Viewed by 1196

Special Issue Editors


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Guest Editor
Department of Architecture, College of Built Environments, University of Washington, Seattle, WA 98105, USA
Interests: building performance simulation; urban building energy modeling; urban computing; artificial intelligence (AI); machine learning (ML)

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Guest Editor
School of Architecture, Southern Illinois University, Carbondale, IL 62901, USA
Interests: environmental performance and computing; human health and environmental justice; artificial intelligence (AI); machine learning (ML); large language models (LLMs); big data

Special Issue Information

Dear Colleagues,

As the built environment faces increasing demands for energy efficiency, sustainability, and occupant health and well-being, the convergence of artificial intelligence (AI), machine learning (ML), and physics-based methods provides a powerful computational toolkit for advancing performance modeling and assessment. By leveraging the strengths of AI/ML alongside the interpretability and precision of physics-based models, this approach enhances predictive accuracy, improves design processes, and streamlines operations. This Special Issue explores how these emerging technologies can be applied to optimize design, improve operational efficiency, and contribute to the development of smarter, more sustainable built environments across various scales, from individual buildings to urban environments.

Suggested Themes

The Special Issue invites contributions on a wide range of topics, including but not limited to the following:

  • AI/ML and Physics-Based Simulations—hybrid models combining AI/ML with physics-based simulations for enhanced accuracy and adaptability.
  • Energy Efficiency—optimizing energy consumption and building performance through AI-driven and physics-based models.
  • Indoor Environmental Quality (IEQ) – assessing and optimizing design to enhance occupant comfort, health, and overall well-being.
  • Model Predictive Control—AI/ML techniques for adaptive predictive control systems in dynamic building conditions.
  • Reinforcement Learning—applying reinforcement learning to enhance building control systems' autonomy and intelligence.
  • Occupant-Centric Control—integrating occupant behavior to optimize real-time building performance.
  • Fault Detection and Diagnosis—AI/ML-driven methods for identifying faults, enhancing reliability, and reducing costs.
  • Building Grid Integration—facilitating energy flexibility and sustainability through AI and physics-based simulations.
  • Computer Vision—using computer vision for visual data analysis and performance monitoring in building systems.
  • Natural Language Processing (NLP)—utilizing NLP to extract insights from textual data related to building performance and management.
  • Large Language Models (LLMs)—harnessing LLMs to analyze and generate human-like insights from large volumes of context-aware, complex, and domain-specific textual data.
  • Big Data—leveraging big data analytics to improve decision making, predictive modeling, and operational efficiency in buildings.
  • Urban Building Energy Modeling (UBEM)—urban-scale modeling to optimize energy use and sustainability within and across cities.
  • Lifecycle Assessment and Sustainability—employing AI and physics-based simulations to assess and enhance building sustainability throughout their lifecycle.
  • Digital Twin—integrating digital twin technology for real-time monitoring and performance optimization of urban building systems.

Dr. Narjes Abbasabadi
Dr. Mehdi Ashayeri
Guest Editors

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Keywords

  • artificial intelligence (AI)
  • machine learning (ML)
  • physics-based simulations
  • performance modeling
  • predictive accuracy
  • building design optimization
  • operational efficiency
  • energy efficiency
  • model predictive control
  • occupant-centric control
  • fault detection and diagnosis
  • building-grid integration
  • reinforcement learning
  • computer vision
  • natural language processing (NLP)

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Published Papers (1 paper)

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Research

18 pages, 3904 KiB  
Article
Parametric BIM and Machine Learning for Solar Radiation Prediction in Smart Growth Urban Developments
by Seongchan Kim and Jong Bum Kim
Architecture 2025, 5(1), 4; https://doi.org/10.3390/architecture5010004 - 27 Dec 2024
Viewed by 564
Abstract
Urban energy simulation research has been explored to forecast the impact of urban developments on energy footprints. However, the achievement of accuracy, scalability, and applicability is still unfulfilled in addressing site-specific conditions and unbuilt development scenarios. This research aims to investigate the integration [...] Read more.
Urban energy simulation research has been explored to forecast the impact of urban developments on energy footprints. However, the achievement of accuracy, scalability, and applicability is still unfulfilled in addressing site-specific conditions and unbuilt development scenarios. This research aims to investigate the integration method of urban modeling, simulation, and machine learning (ML) predictions for the forecasting of the solar radiation of urban development plans in the United States. The research consisted of a case study of Smart Growth development in the southern Kansas City metropolitan area. First, this study analyzed Smart Growth regulations and created urban models using parametric Building Information Modeling (BIM). Then, a simulation interface was created to perform simulation iterations. The simulation results were then used to create ML models for context-specific solar radiation prediction. For ML model creation, four algorithms were compared and tested with several data diagnosis techniques. The simulation results indicated that solar radiation levels are associated with block and building configurations, which are specified in the Smart Growth regulations. Among the four ML models, XGBoost had higher predictability for multiple urban blocks. The results also showed that the performance of ML algorithms is sensitive to data diagnosis and model selection techniques. Full article
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