According to the mechanical arm control method based on multi-scale dynamic state
estimation and error compensation, high-frequency and high-precision
estimation of the state of a mechanical arm
system is achieved through multi-sensor data fusion and an extended
Kalman filtering algorithm, and the accuracy and reliability of state
estimation are remarkably improved; on the basis, a multi-
scale error analysis method combining a
time domain and a
frequency domain is provided, and an autoregressive
moving average model is utilized to dynamically predict
system errors, so that the sensing and pre-judging capability of the
system on the errors is enhanced; a comprehensive control strategy including multiple links of feedforward, self-adaption and feedback is designed, a dynamic compensation and adjustment mechanism of errors is introduced, meanwhile, a real-time execution framework based on three-layer task scheduling is constructed, cooperative operation of all functional modules is coordinated, and the real-time performance and high efficiency of a
control system are ensured. The method is suitable for multiple fields of industrial manufacturing,
intelligent robots and the like, and provides
technical support for precise control of mechanical arms in complex scenes.