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Technical scope

Digital twin core technologies

  • Fundamental principles and architectures: Digital twin concepts, theories, frameworks, rules, strategies and surveys
  • Data governance: Scalable data pipelines, data cleaning and fusion, database management, and semantic modelling
  • Key enabling technologies: AI integration, ICT/IoT connectivity, edge-cloud computing, big data analytics, blockchain, and AR/VR
  • Modelling and simulation: Physics-based, data-driven, and hybrid modelling techniques for dynamic system representation, model validation and verification
  • Control and optimisation: Closed-loop control strategies, predictive maintenance, and decision-support systems
  • Safety and security: Cyber-physical security protocols, anomaly detection, and risk mitigation in digital twin ecosystems
  • Smart services: Location-based services, real-time monitoring, fault diagnosis, product lifecycle management, personnel training, etc
  • Platforms and Tools: Platform architectures, open-source vs. proprietary solutions, standards and practices (e.g., ISO 23247).

Digital twin industry-specific applications

Power and energy systems

  • Grid resilience: digital twins for fault prediction, grid restoration, and black-start scenarios
  • Renewable integration: twin-based optimisation of hybrid systems and grid synchronisation
  • Substation automation: Virtualisation of protection schemes, condition monitoring, and cyber-secure communication architectures
  • Energy transition: impact of EVs, heat pumps, and microgrids on digital twin design.


Process system engineering

  • Process modelling and simulation: modelling and simulation of batch processes, continuous manufacturing, and transient operations in chemical, petrochemical, and pharmaceutical industries
  • Process optimisation and control: real-time optimisation (RTO), closed-loop model predictive control (MPC), AI-driven anomaly detection
  • Safety and risk management: leak detection, hazard simulation, and emergency response planning.


Mechanical engineering

  • Smart manufacturing: Twin-enabled production line optimisation, robotic assembly, and quality control
  • Heavy machinery: Vibration analysis, fatigue prediction, and remanufacturing strategies
  • Energy systems: Turbine performance monitoring and hydrogen infrastructure simulation.

Transportation and logistics

  • Logistics and supply chains: Twin-driven inventory management, route optimisation, real-time visibility and traceability, and warehouse automation.
  • Civil and construction engineering
  • Smart buildings: HVAC optimisation, energy efficiency, and occupant behaviour modelling.


Environmental monitoring

  • Emission tracking, carbon footprint analysis, and disaster response.