Transforming Construction and Communities: AI and ML for Sustainable Development

A new study published in the journal Buildings presented an expansive multi-dimensional analysis of the multifaceted applications of artificial intelligence (AI) and machine learning (ML) in enhancing construction processes and developing sustainable communities. The study provided a comprehensive categorization and investigation of the existing and emerging roles of these transformative technologies across the complete architecture, engineering, construction, and operations (AECO) domain.

Study: Transforming Construction and Communities: AI and ML for Sustainable Development.  Image credit: Pavlo Glazkov/Shutterstock
Study: Transforming Construction and Communities: AI and ML for Sustainable Development. Image credit: Pavlo Glazkov/Shutterstock

Background

While the adoption of AI/ML solutions is rapidly increasing across the AECO ecosystem, research into their specialized applications for enabling sustainable construction and communities remains in nascent stages. As such, this review aimed to thoroughly map out and categorize the broad existing and potential roles that AI and ML techniques could play in facilitating data-driven sustainable development.

A key focus was delineating how these technologies are leveraged across indoor and outdoor community settings for continual real-time monitoring of sustainability factors and providing actionable recommendations to optimize efficiency. Their applications were also analyzed across construction lifecycles, from conceptual design, planning, and engineering to post-project completion facility management and retrofits. A major goal of the study was to illuminate high-potential future directions for AI/ML in driving sustainability across the built environment.

Indoor Sustainability Enhancements Using AI/ML

The analysis explored major indoor applications, including automated energy management, thermal comfort improvements, and intelligent automation. AI and ML optimize energy usage by detecting inefficiencies in usage patterns, creating accurate short and long-term consumption forecasts, and recommending targeted data-driven efficiency improvements to minimize environmental impacts. In terms of comfort, ML helps overcome simulation limitations by bridging gaps between building design factors and occupant thermal experience through predictive modeling. Smart automation applications ranged from optimized elevator control to edge AI-powered home monitoring and automation.

Outdoor Sustainability Planning and Development with AI/ML

In outdoor environments, AI helps with rigorous real-time monitoring and mitigation of pollution, optimized urban planning, recommendations for infrastructure improvements, and forecasting of environmental impacts. Through continuous analysis of live sensor data relating to air quality, noise pollution, waste generation, water quality, and emissions, AI/ML can promptly identify and address emerging pollution concerns. The technology's scope also extends to predicting rainfall, estimating crop yields, assessing land use proposals, suggesting infrastructure enhancements, planning transportation networks, and coordinating emergency responses. In essence, these technologies facilitate data-driven sustainable planning and development by facilitating comprehensive real-time monitoring, simulation, and predictive insights.AI/ML Applications Across Complete Construction Lifecycles

In the pre-construction phases, AI/ML applications included risk analysis, cost estimation, materials detection in images, automated regulatory compliance checking, carbon footprint optimization, and selecting green materials. During active construction, predominant uses were in safety management, including recognizing PPE compliance, auditory hazard detection, accident root cause analysis, injury forecasting, and robotic automation for tasks like bricklaying and 3D printing. AI and ML also assisted in optimized construction planning, scheduling, progress monitoring, equipment telematics, and worker health and fatigue evaluation.

Post-construction applications focused on automated tasks, including facility management, predictive maintenance, renovation planning using digital twins, energy retrofit optimization, service life forecasting, and automated code compliance.

Blockchain, Digital Twins, and Robotic Integration

The review highlighted emerging opportunities for integrating AI/ML with blockchain, digital twins, and robotics. Blockchain provides immutable records of construction activities and enhances smart contract automation. Digital twins support lifecycle simulation and decision-making. Robotic automation for construction tasks leverages environmental perception, mobility, and coordination capabilities enabled by AI.

Detailed Overview of Key Application Areas

The study provided an expansive analysis of key indoor application areas:

  • Energy Management: ML techniques like artificial neural networks and deep learning are applied to model complex energy consumption patterns in buildings. Advanced forecasting enables the optimization of renewables integration, demand response, and dynamic pricing.
  • Thermal Comfort: Physics-based modeling is combined with ML to correlate building factors like envelope materials with occupant comfort levels. This supports design enhancements and smart HVAC control strategies.
  • Automation: AI planning algorithms enable autonomous navigation and optimization for robots and vehicles in indoor environments. Edge AI allows real-time automation responsive to users and environments.

For outdoor settings, detailed focus areas were as follows:

  • Pollution Monitoring: Continuous AI analysis of urban pollution data enables rapid alerts and identification of mitigation strategies. Traffic optimization reduces transport-related emissions.
  • Infrastructure Planning: Algorithms evaluate proposals for alignments, materials, and capacities across water, transportation, and energy networks. Models simulate component lifecycles and interaction effects.
  • Emergency Response: ML rapidly processes incoming disaster damage and resource availability data for triage. Simulation assists in logistics coordination between agencies.

Across construction, prominent examples were as follows:

  • Safety Management: Object and activity recognition in video and images pinpoints PPE compliance issues and unsafe scenarios. Hazard warnings are dispatched to workers.
  • Progress Monitoring: Computer vision and NLP track completion status across construction sites. Blockchain verifies status updates between stakeholders.
  • Equipment Management: Unsupervised ML analyzes telemetry from heavy equipment to predict failures, optimize fuel usage, and schedule maintenance.

Future Outlook

The study concluded that AI and ML are indispensable catalysts for accelerating sustainability across the built environment, construction processes, and communities. Key recommendations included enhancing automation, optimizing decision-making, reducing waste, lowering environmental impacts, and improving construction efficiency, safety, and sustainability. Advanced techniques like deep learning, digital twins, and AI-enabled robotics are expected to continue transforming the AECO sector.

Overall, the review provided an indispensable multi-dimensional analysis of the remarkably vast and varied applications of AI/ML techniques for holistically enabling sustainable development across communities and entire construction lifecycles. It offers construction professionals and researchers actionable insights on adopting these potentially transformative technologies based on technical maturity, documented use cases, and domain-specific challenges to maximize sustainability benefits.

Journal reference:
Aryaman Pattnayak

Written by

Aryaman Pattnayak

Aryaman Pattnayak is a Tech writer based in Bhubaneswar, India. His academic background is in Computer Science and Engineering. Aryaman is passionate about leveraging technology for innovation and has a keen interest in Artificial Intelligence, Machine Learning, and Data Science.

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