Blog

In the previous blog, we explored the communication system built into the mainboard of an RTK GNSS receiver — detailing how it supports data transmission through various wireless and wired interfaces. Continuing this series, today's blog will focus on the main functional modules integrated into the receiver's mainboard. These components are crucial for achieving high-precision positioning and enabling smart field applications.

Have you ever encountered challenges when staking out due to a failing controller compass? In such situations, finding the desired point becomes frustratingly difficult despite multiple calibration attempts. However, with SingularXYZ's latest SingularPad software and X1 receiver, this problem is now effectively resolved. This blog will guide you through utilizing the receiver's IMU as a compass for stakeout, ensuring accurate navigation even when traditional compasses fail.

As the popularity of IMU tilt functions rises in the realm of RTK surveying, the undeniable convenience they offer becomes increasingly apparent. However, real-world applications often encounter challenges that can impact the accuracy and stability of IMU tilt surveys, such as complex environments, improper usage, or poor satellite tracking during IMU initialization. In this blog, we address these challenges and introduce a practical solution – Pole Calibration – to enhance the reliability and stability of tilt survey measurements.

In past blogs, we've introduced what IMU is and how it works on our Y1 GNSS receiver. Nowadays, more and more GNSS receivers integrate IMU module for greater convenience and higher efficiency. So to judge the performance of the IMU function become a focus. Today, we will introduce a conventional method of testing the accuracy of IMU, so that you can test your own equipment.