Navya
Integrations
- CAN bus
- ROS2
- V2X Infrastructure
- Edge Computing Platforms
- Smart City APIs
Pricing Details
- Pricing is structured via enterprise partnership agreements or software licensing models for vehicle OEMs.
- Specific per-unit or fleet-wide subscription costs are not publicly disclosed.
Features
- Navya Driver Software Stack
- ISO 26262 Functional Safety Compliance
- Multi-Modal Sensor Fusion (LiDAR, Radar, Vision)
- ROS2-Compatible Modular Architecture
- Signal-based SLAM for Degraded Visibility
- V2X Urban Infrastructure Connectivity
- Hub Orchestrator for Mixed Fleet Management
- Privacy-Aware Distributed Data Mediation
Description
Navya Driver: Software-Defined Mobility Stack Review
Navya, operating under Gaussin Macnica Mobility as of 2026, has pivoted to a software-centric model. The Navya Driver stack utilizes a Containerized Modular Core to orchestrate autonomous mobility across diverse vehicle form factors, from passenger shuttles to industrial cargo tugs 📑. The architecture balances reactive local sensing with strategic path planning through a layered reasoning engine 🧠.
Core Autonomous Components
The system's operational integrity relies on a deterministic processing framework designed for low-latency environment perception and decision-making.
- Sensor Fusion Engine: Integrates multi-modal data from LiDAR, radar, and computer vision. The implementation of signal-based SLAM allows for positioning in degraded visibility conditions such as heavy fog or snow 📑. Technical Constraint: Specific sensor hardware abstraction layers (HAL) for third-party LiDAR providers are not publicly specified 🌑.
- Safety Protocols: Built to meet IEC 61508 and ISO 26262 standards for functional safety 📑. The stack utilizes a dual-channel monitoring architecture to ensure fail-operational performance 🧠.
- Modular Runtime: Built on a ROS2-compatible framework, allowing for modular component orchestration and dynamic task adaptation 📑.
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Fleet Orchestration & Connectivity
Beyond individual vehicle control, the architecture extends to infrastructure-level coordination via the Hub Orchestrator.
- V2X Infrastructure: Employs Vehicle-to-Everything (V2X) connectivity for synchronization with smart traffic lights and urban sensors 📑. Integration Detail: Support for specific 5G-V2X vs. DSRC protocols is implementation-dependent 🌑.
- Privacy-Aware Mediation: Distributed processing architecture limits centralized data exposure, processing high-bandwidth telemetry at the edge 🧠.
- Hub Orchestrator: Coordinates mixed fleets within structured environments like airports and seaports ⌛.
Evaluation Guidance
Technical evaluators should verify the following architectural characteristics:
- ROS Distribution & LTS: Identify the specific ROS2 version and check middleware security support for 2026 standards 🌑.
- HIL Validation: Request Hardware-in-the-Loop testing documentation to validate functional safety claims and real-world edge case handling 📑.
- Orchestrator Latency: Benchmark Hub Orchestrator response times in high-density mixed-traffic scenarios 🌑.
Release History
Year-end update: Enhanced lidar-independent positioning. High-reliability navigation in fog and heavy snow using signal-based SLAM.
Released the Hub Orchestrator. AI now coordinates mixed fleets of passenger shuttles and cargo tugs in airports and seaports.
Full integration with Smart City APIs. Real-time fleet re-routing based on urban crowd density and traffic flow.
Navya was acquired by Gama (Gaussin Macnica Mobility). Shifted focus towards software-defined autonomous driving (Navya Driver).
Introduced ATES and V2X. Shuttles began communicating with smart traffic lights and urban infrastructure.
Launch of the Arma platform for logistics. Focused on autonomous goods transportation in closed industrial sites.
Initial functional prototype. Established the concept of the first-and-last mile autonomous shuttle.
Tool Pros and Cons
Pros
- Efficient short-distance transport
- Sustainable electric vehicles
- Controlled environment focus
- First/last-mile solutions
- Advanced autonomy
Cons
- Limited operational space
- Scalability limitations
- Niche market competition