Digital Twins
Explore the Infinite Possibilities of Future Buildings
We took the lead in introducing the digital twin framework into the construction industry, creating a fast and precise digital twin simulation engine for buildings. Our system encompasses all data throughout a building’s lifecycle. By inputting physical data such as building materials, spatial design, and environmental factors, customers can visualize the entire lifecycle of the building, from conceptual design to end-of-life phases. The integrated AI models enable rapid deployment and pre-training, allowing customers to predict future events and proactively prevent incidents through carbon reduction assessment, analytics, and long-term building energy-efficiency strategies and suggestions.
The Benefits of Digital Twins
Enhanced Customer Experience
Optimized Operational Processes
Reduced Time Expenditure
Optimized AI-driven Energy Efficiency
Identify Embodied Carbon in Buildings
Embodied carbon refers to the carbon emissions throughout the lifecycle of a building, from the production of building materials, manufacturing, construction to the final demolition and recycling stages. It is worth-noting that embodied carbon emissions account for 28% of a building’s total carbon footprint.
The Carbon Emission Process throughout a Building's Lifecycle
Decarbonize Buildings with Digital Twins
Implementing Real-world Physical Simulation
Develops a dedicated digital twin model using real-world physical data for fast calculations and analysis of various outcomes
Optimizing Design and Management Processes
Simulating building heat transfer and analyzing airflow during the building design phase to meet high performance and comfort indicators
Predicting Building Operational Risks
Forecasting equipment failures and maintenance needs and using AI to detect anomalies to provide early warning alerts
Predictive Control of HVAC Equipment to Achieve Near-Zero Carbon Emissions
Integrating real-time weather conditions into calculation to determine the best equipment operation strategies. Connecting the equipment directly to the central control system for large-scale calculations and control to enable long-term energy efficiency and near-zero carbon management for buildings
Enhanced Decision-Making and Reduced Additional Costs
Integrating smart building data with environmental monitoring devices to improve management efficiency and save time and costs
Applications of Digital Twins
Fault Detection and Diagnosis (FDD) of Equipment /
Evaluating equipment’s environmental control efficiency and energy performance while predicting potential equipment issues such as aging, failures, and other issues
Smart Control (Spatial Comfort, Pre-Cooling, Fresh Air Intake) /
Creating AI-specific models for scenario-based calculations and optimizing control through remote management of HVAC, outdoor air, and shading equipment
Carbon Management System (Future Carbon Emissions) /
Calculating past, current, and future carbon emissions in various areas of a building by inputting its historical data, including predicting carbon emissions related to materials, activities and energy consumption.
