신속한 형식 증명 획득을 위한 실시간 항공전자 디지털 트윈 시스템
AvionicsTwins는 항공기 항공전자 스위트 전체의 비트 단위, 클록 사이클 정밀 디지털 복제본을 생성하여 실제 활주로 주행 전에 수천 시간의 모의 비행, 극한 경계 조건 결함 주입 및 기단 예측 정비를 완벽하게 수행합니다.
AvionicsTwins Virtual Iron Bird Architecture
Cycle-Accurate Processor Emulation, Virtual ARINC Switches & Fleet Telemetry Ingestion
Central System: Virtual Iron Bird Core - Distributed Co-Simulation Engine
Aviation Architecture Nodes
- Cycle-Accurate DAL A Core Models
- Simulated AFDX / CAN Bus Matrix
- Automated Fault Injection Engine
- 6-DOF Aerodynamic Flight Model
- Fleet Health Predictive Analytics
Architectural Layers & Protocol Stacks
- Processor & Bus Emulation Layer (QEMU-based Core Emulation / SystemC / Virtual AFDX Fabric): Microsecond-synchronized emulation of flight computer SoCs and ARINC 664 switches executing unchanged binary machine code.
- High-Fidelity Flight Dynamics Simulation (Nonlinear Aerodynamic Co-Simulator / FMI / FMU 3.0 Standard): Physics-based 6 Degrees of Freedom (6-DOF) aerodynamic equations, atmospheric turbulence, and actuator load simulations.
- Automated Fault & Anomaly Injection (Safety Fault Injection Harness / DO-178C Tool Qualification): Exhaustive generation of edge-case scenarios: frozen Pitot tubes, hydraulic pressure drops, lightning strikes, and crossbar deadlocks.
- Fleet-Wide Predictive Maintenance Analytics (Digital Shadow Sync / Kalman Filtering / Residual Analysis): Continuous telemetry synchronization comparing real-world airborne flight data against twin predictions to detect mechanical wear.
Flight Telemetry Metrics: < 50 µs (Co-Simulation Time-Sync Skew) | 100x (Faster-than-Real-Time Regression Speed) | 10,000+ (Automated Edge Failure Scenarios Run) | 99.4% (Physical Flight Data Correlation Accuracy)
사이버물리 트윈으로 항공기 개발 혁신하기
Traditional iron bird test rigs cost tens of millions of dollars, occupy vast hangars, and create scheduling bottlenecks for flight test engineers. AvionicsTwins replaces physical wiring looms and hardware boxes with cloud-native, real-time hardware-in-the-loop (HIL) simulators capable of running automated regressions across hundreds of virtual aircraft simultaneously.
Core Engineering Areas
- Virtual Iron Bird HIL — Replacing massive hangar-scale mechanical rigs with distributed cyber-physical software emulators.
- Bus & Network Emulation — Simulating complex deterministic airborne networks with bit-level timing precision and buffer modeling.
- Predictive Fleet Health — Streaming aircraft telemetry into cloud twins to forecast actuator failures and optimize airline turnaround times.
Technical Publications
Related Cluster Architecture Specifications
- AirspaceGateway — Advanced Air Mobility (AAM), Low-Altitude UTM Gateways & 4D Flight Corridor Deconfliction
- AAVDelivery — Autonomous Aerial Vehicle (AAV) Last-Mile Delivery, Automated Tethered Winch Drops & Urban Parcel Logistics
- AAVPort — Automated Vertiport Infrastructure, Final Approach Guidance & Megawatt eVTOL Fast-Charging
- AAVSwarm — Autonomous Cargo Drone Swarms, Distributed Consensus & Mesh Formation Flight