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Valeo Secures Major Advanced Safety Contract With American EV Manufacturer
The global automotive technology leader will deploy its modular corner radar suite with embedded software to power L2+ and L3 autonomous driving functions.
www.valeo.com
Valeo has secured a contract with a North American electric vehicle manufacturer to deploy its next-generation corner radar suite. This cooperation focuses on integrating advanced hardware and embedded software to support Level 2+ and Level 3 autonomous driving functions, enhancing vehicle perception and digital infrastructure safety protocols.
Technical Challenges and Collaborative Rationale
Developing reliable Level 2+ and Level 3 autonomous systems requires high-resolution environmental sensing and processing capabilities that operate consistently under diverse conditions. Vehicle manufacturers face the challenge of scaling safety features across various trim levels without increasing hardware architecture complexity.
By collaborating, the vehicle manufacturer utilizes Valeo's specialized perception technology to implement advanced driver assistance systems. This integration resolves the engineering challenge of combining high-performance computing with low power consumption while ensuring the system remains compatible with future centralized artificial intelligence software stacks.
Radar Architecture and System Functionality
The technical solution consists of a modular radar platform that achieves 50 times the resolution of Valeo's previous generation. The system functions by combining high-sensitivity sensors with integrated artificial intelligence and high-performance computing.
- Front Radar Sensors: Utilize waveguide antenna technology and interference robustness to detect objects at ranges up to 250 meters, facilitating deep-learning-based data fusion for high-speed navigation.
- Corner Radar Sensors: Create a 360-degree situational awareness barrier around the vehicle perimeter to monitor blind spots and track lateral moving objects.
The system relies on high-performance compute architectures to process spatial data. It complies with global automotive standards, enabling vehicles to meet New Car Assessment Program five-star ratings and General Safety Regulation requirements.
Implementation and Infrastructure Integration
The radar suite is integrated directly into the electric vehicle's existing electrical and electronic architecture. The hardware configuration is scalable, allowing the manufacturer to adapt the sensors across entry-level to advanced autonomy tiers without altering the underlying vehicle frame.
Engineers designed the platform with over-the-air update capabilities. This framework allows the vehicle manufacturer to deploy subsequent software modifications and activate "eyes off" autonomous functions post-production, preserving infrastructure compatibility throughout the vehicle lifecycle.
Operational Use Cases and Safety Impact
The primary application areas include active safety and automated parking maneuvers in tight, low-speed scenarios. Configured within the vehicle, the corner and front radars power several distinct technical use cases:
Implementation and Infrastructure Integration
The radar suite is integrated directly into the electric vehicle's existing electrical and electronic architecture. The hardware configuration is scalable, allowing the manufacturer to adapt the sensors across entry-level to advanced autonomy tiers without altering the underlying vehicle frame.
Engineers designed the platform with over-the-air update capabilities. This framework allows the vehicle manufacturer to deploy subsequent software modifications and activate "eyes off" autonomous functions post-production, preserving infrastructure compatibility throughout the vehicle lifecycle.
Operational Use Cases and Safety Impact
The primary application areas include active safety and automated parking maneuvers in tight, low-speed scenarios. Configured within the vehicle, the corner and front radars power several distinct technical use cases:
- Automatic Emergency Braking and Lane Keeping Assist: Actively monitor deceleration and lane boundaries to prevent collisions.
- Safe Exit Protection and Blind Spot Detection: Warn occupants of approaching hazards via visual, acoustic, or haptic alerts before exiting or changing lanes.
- Rear Cross-Traffic Alerts: Detect intersecting traffic during reverse maneuvers to maintain process stability during autonomous operation.
