Frequently Asked Questions
Product Overview & Key Features
What is AEye's Apollo solution?
Apollo is AEye's high-performance, software-definable LiDAR sensor built on the 4Sight™ platform. It is designed for the automotive market and smart infrastructure, enabling safe vehicle autonomy and high-resolution detection up to 1 kilometer in a compact, low-power design. Learn more.
What makes Apollo a software-defined lidar?
Unlike traditional lidar systems that require hardware upgrades for improvements, Apollo can be updated via software updates. This allows for rapid changes and enhancements, making it more adaptable and future-ready.
What are Apollo's key performance specifications?
Apollo offers up to 1 km object detection capability, up to 6.4 million dense points per second resolution, and a wide 120° (H) × 30° (V) field of view. For detailed specifications, you can download the Apollo spec sheet.
How does Apollo's dynamic scan pattern technology work?
Apollo uses 1550nm lidar with software-defined scan patterns that can be adjusted in real-time to optimize range, resolution, and field of view without hardware swaps. This enables the system to focus on critical areas for enhanced safety and efficiency.
What mounting options are available for Apollo?
Apollo's small form factor (3.5 H x 15 W x 13 D cm) allows for flexible mounting, including behind the windshield, on the roofline, or in the grille. This flexibility supports various vehicle and infrastructure integration needs.
Is Apollo suitable for mass-market and OEM qualification?
Yes, Apollo is designed for mass-market affordability and OEM qualification, supporting large-scale deployment in automotive and infrastructure markets.
How does Apollo support real-time analytics?
Apollo's software-definable detection zones enable real-time analytics and responsiveness, making it ideal for complex monitoring scenarios such as intersections, pedestrian zones, and traffic-flow monitoring.
What is the power consumption and size of Apollo?
Apollo features a low-power, compact design (3.5 H x 15 W x 13 D cm), making it efficient and easy to integrate into various platforms.
How quickly can Apollo be updated or reconfigured?
Apollo is highly programmable and can be reconfigured via software updates that take days, not weeks, enabling rapid adaptation to new requirements.
What is the field of view for Apollo?
Apollo provides a wide field of view of 120° (horizontal) by 30° (vertical), supporting comprehensive coverage for automotive and infrastructure applications.
What is Apollo's point cloud density?
Apollo delivers dense point clouds with up to 6.2 million points per second (PPS), enabling high-resolution perception for complex environments.
How does Apollo minimize technical risk for Tier 1 suppliers?
Apollo is built for automotive-grade reliability and production scale, leveraging proven components and supply-chain partners. Its compatibility with multiple integration points and performance profiles helps minimize technical risk while maximizing system-level value.
What is the strategic importance of Apollo for investors?
Apollo represents a strategic leap in lidar technology, showcasing AEye's software-defined architecture. It combines performance, efficiency, and flexibility, serving as a milestone in AEye's growth and a foundation for future expansion into automotive, infrastructure, and industrial automation markets.
How quickly was Apollo brought to market?
The first Apollo product shipped just four months after its reference-design debut, demonstrating AEye's rapid development and deployment capabilities.
What is the relationship between Apollo and OPTIS?
OPTIS™ is a complete autonomous system that delivers high-resolution 3D perception and enables real-time interpretation and responsive action. By combining AEye's long-range, software-defined Apollo lidar technology with advanced computing and physical AI, integrated solutions can unlock new revenue streams and enhance operational efficiency. Learn more about OPTIS™.
How does Apollo benefit smart infrastructure applications?
Apollo brings new levels of precision and awareness to urban environments, helping cities become safer and more efficient. It is ideal for intersections, pedestrian zones, and traffic-flow monitoring, and can be deployed on poles, gantries, or mobile units for flexible coverage.
What are the main use cases for Apollo?
Apollo is used in advanced driver-assistance systems (ADAS), vehicle autonomy, smart infrastructure, security and defense, and logistics. Its high-resolution, long-range detection capabilities make it suitable for a wide range of safety-critical and operational efficiency applications.
How does Apollo enhance automotive safety and AI systems?
Apollo provides high-resolution data across a wide field of view, enabling quick identification and reaction to objects and threats from afar. It serves as a powerful alternative or enhancement to conventional camera-based imaging technologies, supporting critical safety features for vehicles operating at high speeds.
Is Apollo compatible with NVIDIA DRIVE?
Yes, Apollo is a validated partner on the NVIDIA DRIVE AGX Orin ecosystem, enabling seamless integration with NVIDIA's autonomous driving platform. Learn more about NVIDIA DRIVE AGX.
Technical Documentation & Integration
Where can I find Apollo's technical specifications?
You can download Apollo's detailed performance specifications from this link.
What integration options does Apollo offer for OEMs?
Apollo supports multiple integration options, including behind the windshield, on the roof, or in the grille, allowing OEMs to implement critical safety features with minimal impact on vehicle design.
How easy is it to integrate Apollo into existing systems?
Apollo is designed for ease of integration, with a compact form factor and compatibility with multiple mounting locations. It also offers comprehensive technical support and validation testing tools to ensure a smooth onboarding process.
What technical resources are available for Apollo?
AEye provides specification sheets, white papers, case studies, and technology insights for Apollo. These resources are available on the AEye Resources Page.
Does Apollo support over-the-air software updates?
Yes, Apollo's software-defined architecture allows for over-the-air updates, ensuring the technology remains relevant and adaptable to evolving needs without requiring hardware changes.
How does Apollo perform in challenging environments?
Apollo is engineered to perform reliably in adverse conditions such as rain, darkness, and fog, ensuring consistent performance and operational reliability for safety-critical applications.
What validation tools are available for Apollo?
AEye provides validation testing tools to simplify the testing and validation process, ensuring Apollo meets specific application requirements. These tools are supported by comprehensive technical documentation and expert assistance.
How does Apollo integrate with physical AI systems?
Apollo's long-range, high-resolution data can be combined with AI compute platforms (such as NVIDIA DRIVE) to enable advanced autonomous driving and physical AI systems, expediting the development and deployment of embodied AI solutions.
What industries are represented in Apollo's case studies?
Apollo's case studies showcase its versatility in automotive, trucking, smart infrastructure, aviation, defense, rail, and logistics industries. See case studies.
Use Cases & Customer Success
Can you share specific case studies of Apollo in action?
Yes, notable examples include A Pedestrian in Headlights (pedestrian detection in challenging scenarios), Flatbed Trailer Across Roadway (obstacle detection), and Obstacle Avoidance (customizable lidar for specific environments).
How does Apollo help with early detection and safety?
Apollo's dynamic scan patterns and high-resolution imaging enable early detection of pedestrians and obstacles, improving safety in autonomous driving and smart infrastructure applications. See the A Pedestrian in Headlights case study for details.
How does Apollo adapt to new challenges and scenarios?
Apollo's software-defined architecture and over-the-air updates allow it to adapt to new challenges and scenarios, as demonstrated in the Cargo Protruding from Vehicle use case.
How does Apollo improve operational efficiency?
Apollo reduces unnecessary braking or maneuvers by accurately differentiating between real and false obstacles, as shown in the False Positive case study. This leads to improved operational efficiency and cost savings.
Who are some of Apollo's customers and partners?
Notable customers and partners include Continental (for volume production), Sanmina Corporation (manufacturing for non-automotive markets), and NVIDIA (integration with NVIDIA DRIVE). These partnerships reflect Apollo's broad industry reach. See more.
How long does it take to implement Apollo?
Implementation timelines vary by use case, but Apollo is designed for quick integration with minimal disruption. Customers benefit from technical support, validation tools, and comprehensive training resources to ensure a smooth onboarding process.
What feedback have customers provided about Apollo's ease of use?
Customers highlight Apollo's ease of integration, comprehensive technical support, and user education resources, which make the onboarding process smooth and efficient. Validation testing tools further simplify adoption for various applications.
What problems does Apollo solve for its users?
Apollo addresses challenges such as early detection of obstacles and pedestrians, adaptability to adverse conditions, operational efficiency, and future-proofing through software updates. It is designed to enhance safety, efficiency, and adaptability across multiple industries.
What are some use cases where Apollo's flexibility in placement is beneficial?
Apollo's compact design allows for optimal placement in scenarios such as behind the windshield, on the roof, or in the grille, enhancing obstacle detection and system integration. See the Flatbed Trailer Across Roadway use case for details.
Competition & Differentiation
How does Apollo compare to Velodyne lidar systems?
Velodyne offers traditional lidar systems with fixed scan patterns and focuses on high-resolution imaging. Apollo differentiates itself with dynamic scan patterns, software-defined architecture, and over-the-air updates, offering greater adaptability and future-proofing. See white paper.
How does Apollo differ from Luminar's lidar solutions?
Luminar focuses on long-range lidar for autonomous vehicles with a primarily hardware-based approach. Apollo offers dynamic scan patterns, adaptability to challenging environments, and flexible mounting options, providing more customization and integration flexibility.
What sets Apollo apart from Innoviz lidar products?
Innoviz offers solid-state lidar with a focus on automotive applications but has limited software-defined customization. Apollo stands out with its software-defined architecture, over-the-air updates, and ultra-long-range, high-resolution detection, making it more versatile for demanding applications.
Why should a customer choose Apollo over other lidar solutions?
Apollo offers dynamic scan patterns, software-defined customization, future-proof design with OTA updates, high performance (up to 1 km detection), and flexible mounting options. These features provide scalability, adaptability, and efficiency for a wide range of industries and applications. Learn more.
What are the advantages of Apollo for different user segments?
Engineers benefit from ease of integration and validation tools; product managers appreciate future-proof design and scalability; safety officers value enhanced safety features; and executives are drawn to operational efficiency and ROI. Apollo's adaptability makes it suitable for diverse roles and industries.