Learn how LiDAR enables precise 360° scanning, high-speed sampling, long-range detection, and simple integration for robotics and maker projects.

Design precise yet flexible fixed-in-place robotics using advanced control, imaging, sensing, and communications technologies.

To handle multiple satellite constellation frequency bands, a GNSS receiver employs a multiband antenna to realize higher accuracy and reliability.

Combine advanced IMUs and other sensor types with sensor fusion for precise autonomous mobile robot (AMR) navigation in challenging environments.

A GNSS module and associated development resources offer a path to rapid deployment of centimeter-scale precision positioning in diverse applications.

Use a compact dual-band (L1/L5) patch antenna for GNSS receivers to reduce size without compromising performance.

Electro-optical components are at the core of LiDAR, which uses laser pulses to create a three-dimensional “point cloud” rendition of the surroundings.

Learn the essentials of radar, including the science of electromagnetic waves, the Doppler effect, and the impact of noise and interference on radar systems.

Learn how LiDAR technology is used to measure distances with precision, and discover its applications in fields like autonomous vehicles and mapping.

Learn how a team of engineering students designed and built a robot beehive mover, complete with GPS, Bluetooth, and PCB design using OrCAD.

Learn how the ADI 78002 MCU can support the design of edge AI applications with low power consumption, high performance, and robust security features.

With telematics, lawn mowers can provide fleet managers solutions to monitor and manage their entire fleet, including vehicles, drivers, and assets.

Use integrated time-to-digital converters to simplify time-of-flight measurements for radar, lidar, sonar, and flow meters.

This robot allows one to build coding skills from a beginner's level to an advanced level. It allows hands-on experience and important problem-solving skills.

Power-efficient Wi-Fi® companion ICs can overcome GNSS and cellular device performance limitations with high accuracy geographic positioning.

Learn how to build a Mecanum wheel frame for your XRP robot. Discover the design process, software setup, & assembly tips to enhance your robot's functionality.

A discussion of the three primary techniques used in SLAM algorithms to create maps of unknown areas for robot navigation.

The concept of Simultaneous Localization and Mapping (SLAM) is discussed along with how to incorporate it into your application.

Smart agriculture GNSS improves with resolutions reaching the centimeter level for position accuracy and Real-Time Kinematics which corrects common GNSS errors.

Developers can use precision data acquisition modules and highly integrated IMUs to implement sophisticated and cost-effective avionics systems.