AerospaceDigitalTwins: Physik-informierte Zwillinge & strukturelle Echtzeit-Telemetrie
AerospaceDigitalTwins verbindet Multiphysik-FEA/CFD-Modelle mit Echtzeit-Telemetrieströmen für vorausschauende Strukturüberwachung und Flugbereichssimulation.
AerospaceDigitalTwins High-Fidelity In-Flight Synchronization Mesh
Coupled boundary element modeling, kalman filtering, and edge state estimation
Central System: Fiber Bragg Grating Array - Distributed optical strain and temperature sensing
Network Nodes
- Fiber Bragg Grating Array
- Onboard State Estimator
- Distributed High-Performance Twin
- Remaining Useful Life (RUL) Core
Architectural Protocol Layers
- Spaceborne PHY/MAC Layer (3GPP Rel-17 TS 38.300): Doppler compensation, HARQ disabling, and timing advance extension.
- Orbital Mesh Routing (CCSDS / Delay-Tolerant Networking): Dynamic topology routing over intermittent laser crosslinks.
- Regenerative Core Processing (OpenRAN / 3GPP CU-DU Split): Onboard user plane function (UPF) local breakout.
Key Metrics: < 18ms (LEO Orbit-to-Ground Roundtrip) | 100 Gbps (Optical Crosslink Throughput) | ±48 kHz (Doppler Shift Compensation) | 99.999% (Orbital Constellation Availability)
Physikbasierte digitale Zwillinge für die Luft- und Raumfahrt, Echtzeit-Telemetrie & Prognose
Core Engineering Areas
Technical Articles
Related Cluster Architecture Specifications
- NonTerrestrialNetwork — 3GPP 5G/6G NTN Satellite Architecture, Direct-to-Cell & Non-Terrestrial Infrastructure
- NonTerrestrialNetworks — Multi-Orbit Heterogeneous Constellation Interworking (LEO / MEO / GEO / HAPS)
- AirspaceSync — Doppler Compensation, Relativistic Timing & Airspace-Space Synchronization
- FSOComm — Free Space Optics, High-Bandwidth Space Laser Communications & Atmospheric Mitigation