Table 6.
A selection of research articles covering healthcare and human-centric digital twin research.
| Domain | Physical Asset | Sensors | Physical–Digital Data Flow | Form of Digital Asset | Research Objective | Ref. |
|---|---|---|---|---|---|---|
| Cardiology | Human Heart | ECG sensors | ECG data and medical records | Heart condition visualization and analysis available for local and remote diagnosis | Proof of concept version of the Cardio Twin | [46] |
| Cardiology | Human heart and cardiac electrophysiology | Clinical 12-lead ECG and magnetic resonance (CMR) imaging | ECG data and CMR imaging | Biophysically detailed cardiac twin including Purkinje networks and cardiac electrophysiology | Create personalized, multiscale biventricular heart models for in silico clinical trial | [47] |
| Rural health | Patients in rural areas | Healthcare IoT sensors and medical devices | Sensor readings | Blockchain-encrypted medical data and analysis | Integrate healthcare IoT data with blockchain for secure and efficient data management in rural healthcare | [48] |
| Space medicine | Medical training environment | Mixed reality (e.g., HoloLens) and haptic devices | Digitized real-world training scenarios and learner’s real-time input | Interactive training with virtual feedback integrated into real-world scenarios | Develop a mixed-reality-based medical training platform for astronauts | [49] |
| Education | Remote lab of a production cell | Onboard sensors for equipment control and monitoring | Sensor readings | Interactive interface with multimodal visualizations | Apply the digital twin concept in a hybrid remote laboratory for various learning scenarios | [50] |
| Human–robot collaboration | Battery pack assembly line | Force/torque sensor | Fusion of sensor readings and production data (e.g., idle times) | Visualization and analysis of the human–robot collaboration assembly line | Design, develop, and operate an agile, adaptable, and safe human–robot collaborative system | [51] |