One Chip.
Complete Autonomy.
Multi-modal sensor fusion, AI inference, and real-time control—all in a single SoC. Built for drones, robots, and autonomous fleets.
Multi-modal sensor fusion, AI inference, and real-time control—all in a single SoC. Built for drones, robots, and autonomous fleets.
The complexity of autonomous vehicle systems—with separate units for perception, decision-making, and control—creates integration challenges, increases power consumption, and introduces latency. SteadyBeat’s Autonomous Vehicles AI Module consolidates multi-modal AI inference and vehicle control into a single, power-efficient Edge AI SoC, enabling real-time decision-making with simplified system architecture.
Understanding the technical and operational challenges facing autonomous vehicle manufacturers
Traditional autonomous vehicle systems require separate processing units for perception, decision-making, and control, leading to complex integration, high power consumption, and increased latency.
Autonomous vehicles must process massive amounts of multi-modal sensor data (camera, LiDAR, radar, acoustic) in real-time to make split-second decisions.
High-performance computing platforms consume significant power and generate heat, challenging for battery-powered autonomous vehicles with limited cooling capacity.
SteadyBeat’s Autonomous Vehicles AI Module integrates multi-modal sensor processing, AI inference, and vehicle control into a single, power-efficient SoC designed specifically for autonomous vehicle applications.
Real-time analysis and adaptive noise cancellation algorithms
Acoustic, visual, physiological, and environmental sensors
On-chip inference with <10ms latency, privacy-preserving
Integrated Edge AI SoC combines multi-modal sensor fusion, AI inference, and vehicle control in a single chip, eliminating the need for multiple processing units and simplifying system architecture.
Single-chip solution with integrated NPU, DSP, and control interfaces
Optimized edge computing architecture achieves high-performance AI processing while consuming less than 10W, extending vehicle range and reducing thermal management requirements.
Advanced power management with dynamic voltage/frequency scaling
Sub-10ms latency from sensor input to control output ensures safety-critical decisions are made instantly, even in complex urban environments.
Hardware-accelerated AI inference with deterministic real-time OS
Flexible, modular design supports various autonomous vehicle platforms—from delivery robots to passenger vehicles—accelerating time-to-market and reducing development costs.
Standardized interfaces with scalable processing capabilities
See how our unified AI module powers different autonomous vehicle platforms
Last-mile delivery robots navigate crowded sidewalks and crosswalks, requiring real-time obstacle detection, path planning, and decision-making in unpredictable urban environments.
Extended operational hours per charge, safer navigation in complex environments, and reduced system cost through integrated architecture.
Low-speed autonomous shuttles in campuses, airports, and business parks require reliable perception and decision-making while maintaining passenger comfort and safety.
Enhanced safety through redundant perception, smooth ride quality, and predictable behavior that builds passenger trust.
Autonomous tractors and harvesters operate in challenging outdoor environments with varying lighting, weather, and terrain conditions.
Reliable operation in all conditions, proactive maintenance through acoustic monitoring, and improved operational efficiency.
Discover how SteadyBeat’s unified AI module can simplify your system architecture and accelerate time-to-market.