Cost-Optimized Autonomous Flight:
NexusV2 Flight Controller

AI-Assisted Navigation for Production-Ready UAV Platforms.

NexusV2 Flight Controller
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SOC-BASED ARCHITECTURE High-Speed Parallel Processing, Real-Time Data Handling.
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AI ACCELERATED Onboard Machine Learning & Perception.
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GNSS-DENIED NAVIGATION Autonomous Flight in GPS-Obstructed Environments.
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ROS2 NATIVE SUPPORT Advanced Robotic Integration, Modular Software Development.
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PX4 COMPATIBLE Industry-Standard Autopilot Software, Wide Community Support.
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MODULAR DESIGN Flexible Sensor & Hardware Integration, Customizable.

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Inside NexusV2:
A Technical Overview

Cost-Optimized AI-Assisted Autonomous Flight Platform

Integrated SoC Architecture

The NexusV2 FC is a cost- and power-optimized autonomous flight platform designed for production-ready UAV programs. It consolidates flight control, mission autonomy, and onboard AI perception into a single heterogeneous compute SoC, eliminating the need for external companion computers while achieving 40–60% lower BOM cost compared to FPGA-centric designs.

AI-Powered Navigation & Perception

  • Visual Localization: Offline map-based localization using cameras, visual feature extraction, and map tile matching with 10–15ms end-to-end latency.
  • Object Detection: Integrated Neural Processing Engine (NPU) running INT8 quantized models at 30–40 FPS for target detection and obstacle recognition.
  • Multi-Object Tracking: Concurrent tracking of 4–6 objects using Kalman filters and optical flow assistance.

Cost & Power Advantages

  • 40–60% Lower BOM Cost: Heterogeneous SoC architecture eliminates expensive FPGA components.
  • Reduced Power Consumption: Integrated NPU consumes significantly less power per inference than FPGA-based solutions.
  • Simplified Manufacturing: Lower PCB complexity and reduced thermal requirements.
  • Faster Development: Software-driven AI model iteration without hardware redesign.

Safety & Reliability

  • Sensor Redundancy: Dual or triple IMU support with multiple camera inputs.
  • Fault Handling: Automatic transition from GNSS to vision-inertial navigation with graceful AI degradation.
  • Certification Ready: Architecture aligns with DO-178C and DO-254 principles for aerospace standards.

Key Specifications

Feature Specification
Primary Compute Heterogeneous Application SoC
AI Acceleration Integrated Neural Processing Engine (NPU)
Primary OS Linux + ROS 2 (Mission & AI)
RTOS PX4-compatible (Flight Control)
Navigation GNSS, Visual-Inertial (GNSS-Denied)
AI Latency 10–15ms (End-to-End Visual Localization)
Sensor Redundancy Dual/Triple IMU, Multiple Cameras

Use Cases

🎯 Medium-High Volume UAV Programs
🏙️ Urban Canyon Navigation
🏢 Indoor/Underground Flight
🚁 Long-Endurance UAVs
📍 Autonomous Landing
💰 Cost-Sensitive Defense & Civil Applications