Demonstrators
From single to multi-vehicle: integrated SDV demos in the lab.
OSxCAR enables realistic, integrated SDV demonstrators — from a single ECU all the way to complete multi-vehicle scenarios. The globally configurable SDVA-Bench makes it possible to replicate vehicle architectures in software and orchestrate multiple virtual or physical vehicles simultaneously.
Thanks to identical binaries across all development and test stages (MIL → SIL → HIL → VIL → production), functions can be executed in the lab exactly as they would run in the vehicle fleet — without physical rebuilds or separate porting efforts.
Proof of Technology
Same Binary across MIL→SIL→HIL→production, WebAssembly sandboxing, and Rust/C++ interoperability via WIT interfaces.
AvailableSystem-Level
Shadow Mode for risk-free A/B validation, end-to-end toolchain walkthrough, and secure cross-ECU networking.
In ProgressSDVA-Bench
Globally configurable test environment for multi-domain and multi-vehicle scenarios with remote orchestration.
In ProgressAI Optimisation
GNN-based latency control and autonomous software placement through AI models trained on bench measurement data.
PlannedSingle Function & Proof of Technology
Demonstrating the technological foundations: the “Same Binary” approach, WebAssembly sandboxing, and interoperability across language ecosystems.
- Anti-Pinch / Actuator Demo — Identical binary across MIL, SIL, HIL, VIL through to production; demonstrates hardware agnosticism and safety suitability. Interactive Demo →
- Adaptive AUTOSAR + Rust/WASM — Rust and C++ components interoperate via WIT interfaces; a practical fusion/radar pipeline as a live demonstrator.
- WebAssembly Hardware Agnosticism — The same components run on Bare Metal, Zephyr, Linux, VxWorks, and QNX — without any code changes.
System-Level & Cross-ECU
Interaction between multiple components, end-to-end workflow, and secure execution in an integrated setup.
- Shadow Mode / A/B Testing — Risk-free validation of new functions running in parallel with production software, without modifications to the live system.
- wrStudio + OSxCAR Workflow — Full SDV toolchain walkthrough: from development (ComponentForge) through runtime (LightWeave) to automated testing (RapidTest).
- Low Latency Networking — 10G Ethernet, CAN, LIN, and USB defined in software and reconfigurable in seconds; latency and throughput measurement included.
SDVA-Bench
Making virtual and physical vehicle architectures dynamically and remotely reconfigurable.
- Single Vehicle — Remotely reconfigurable, OTA-capable, reproducible test environment from MIL to VIL; granular access controls for globally distributed teams.
- Multi-Domain Integration — Integration of AUTOSAR, ACF, ROS2/DDS, and Zenoh within a shared bench environment.
Multi-Vehicle & Distributed Demos
Interaction between multiple vehicles — simulated or physical in the lab — built on the SDVA-Bench.
- Multi-Vehicle Interaction — Multiple vehicles or ECU clusters act in a synchronised manner; foundation for V2X-like scenarios in the lab.
- Shadow Mode Fleet — A/B comparison across multiple vehicles with consistent data capture; fleet-wide software validation without production risk.
AI-Driven Optimisation
Automated optimisation of network load, software placement, and latencies through AI models trained directly on bench measurement data.
- GNN-Based SDN Optimisation — Graph Neural Networks predict latencies and optimise software placement within the SDV network.
- AI-Driven Architecture Optimizer — Uses bench measurement data, SDN rules, and topology analyses for autonomous configuration of the vehicle architecture.
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