Gyroscope-stabilized monitoring pan-tilt and control method thereof
A gyro stabilization and pan/tilt technology, which is applied to the control using feedback, machine/stand, supporting machine, etc., can solve the problems of normal observation, inability to achieve gyro stabilization control, and difficulty in improving motion accuracy, and achieve high-precision gyro Effect of stabilization function
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Embodiment 1
[0045] In order to enable the conventional monitoring pan / tilt to realize the high-precision gyro stabilization function on the moving carrier and keep the optical axis stable, this embodiment discloses a gyro-stabilized monitoring pan / tilt, that is, the photoelectric cabin of the conventional monitoring pan / tilt adds A set of gyro-stabilized gimbals that can rotate in a small angle range. Because the gyro-stabilized gimbals are directly driven by brushless motors, they can achieve high stabilization accuracy.
[0046] The gyro-stabilized monitoring pan / tilt provided in this embodiment mainly includes: a monitoring pan / tilt, a gyro-stabilized pan / tilt, and a photoelectric load.
[0047] The photoelectric load described in this embodiment may be a visible light surveillance camera or a thermal imager.
[0048] See figure 1 , the monitoring pan-tilt described in this embodiment is a T-shaped vehicle-mounted pan-tilt. The monitoring pan / tilt includes two photoelectric equipment...
Embodiment 2
[0080] The control method of the gyro-stabilized monitoring pan / tilt provided in this embodiment, its core content is: the gyro-stabilized pan / tilt works within a small angle range, senses the deflection angle through the angle sensor, and then controls the step in the monitoring pan / tilt through the angle deflection amount The motor moves to achieve a large angle range of rotation, while keeping the camera direction of the small-angle stabilized gyro-stabilized gimbal near the neutral position.
[0081] See Figure 4 , a control method for a gyro-stabilized monitoring platform provided in this embodiment, comprising:
[0082] Step 400: Acquiring the monitoring pan-tilt rotation command transmitted from the external console.
[0083] Step 410: Calculate the angular velocity data of the photoelectric load according to the three-axis angular velocity data and the three-axis acceleration data collected by the six-axis inertial sensor.
[0084] Step 420: According to the monitorin...
Embodiment 3
[0096] This embodiment provides a control method for a gyro-stabilized monitoring platform, such as Figure 5 shown, including:
[0097] Step 1. Design the stabilization function of the gyro-stabilized gimbal: when shaking occurs, it can ensure the inertial stability of the camera.
[0098] The gyro stabilization control function is realized by the single-chip microcomputer program in the gyro stabilization control circuit board. First, the three-axis angular velocity and three-axis acceleration data in the six-axis inertial sensor are collected, and then fusion filtering and attitude calculation are performed, and the external control is obtained through the communication interface. The monitoring pan / tilt rotation instruction transmitted by the platform is used as the target value of the angular velocity feedback control. Finally, the angular velocity feedback control algorithm is used to calculate the control amount of each axis motor, and the azimuth axis motor and the pit...
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