Underwater section monitoring robot controller and automatic trajectory tracking controlling method

An underwater robot, profile monitoring technology, applied in the directions of adaptive control, general control system, control/regulation system, etc., can solve the problems of increasing the weight of the umbilical cable, adverse effects of the attitude control of the underwater robot, shortening the transmission distance, etc.

Active Publication Date: 2014-10-08
OCEANOGRAPHIC INSTR RES INST SHANDONG ACAD OF SCI
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Problems solved by technology

[0002] The underwater robot controller generally adopts a centralized control method. There is only one controller in the instrument cabin of the underwater robot, and the control commands on the shore are sent to the underwater controller for collection through the multi-core umbilical cable. Corresponding to the number of cores, this will increase the weight of the umbilical cable and bring adverse effects on the attitude control of the underwater robot
On the other hand, the power supply method mostly adopts the direct power supply method of ship-borne 220VAC power supply, and the underwater robot is powered through the umbilical cable, and a voltage conversion module is installed in the instrument cabin of the underwater rob...

Method used

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  • Underwater section monitoring robot controller and automatic trajectory tracking controlling method
  • Underwater section monitoring robot controller and automatic trajectory tracking controlling method
  • Underwater section monitoring robot controller and automatic trajectory tracking controlling method

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Embodiment

[0026] The underwater profile monitoring robot controller in the embodiment of the present invention includes two parts: the controller A placed in the shipboard control box and the controller B placed in the instrument cabin of the underwater robot, both of which are connected through the armored umbilical cable communicate, such as figure 1 shown. Such as figure 2 The shown controller A collects the remote control commands of the control panel of the shipboard controller in real time, encodes and assembles the control commands into frames according to the custom communication protocol, and sends them to the underwater controller B through the communication module. Such as image 3 The underwater controller B shown in the figure receives the protocol frame sent by the shipboard controller A in real time, and decodes the protocol, parses the control command according to the protocol format, and then controls the switching action of the corresponding relay on the relay drive...

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Abstract

The invention relates to an underwater section monitoring robot controller which includes a controller A arranged in a ship-loaded control box and a controller B arranged in an underwater robot instrument cabinet. The two controllers communicate through an armored umbilical cable. The controller A acquires a remote-control control instruction of a control panel of the ship-loaded controller in a real-time manner and carries out coding and assembled framing on the control instruction according to a customer-defined communication protocol and then sends the control instruction to the underwater controller B via a communication module. The underwater controller B receives a protocol frame, which is sent by the ship-loaded controller A, in a real-time manner and carries out protocol decoding and analyzing out the control instruction according to a protocol format so as to control a switch of a corresponding relay on a relay driving plate to move and thus control of motion postures of the underwater robot is realized. The underwater section monitoring robot controller and the automatic trajectory tracking controlling method adopt a limited-time trajectory tracking control technology to realize tracking of a preset trajectory point by an underwater robot so that wide-range and high-precision motion and posture control of the underwater section monitoring robot can be realized.

Description

technical field [0001] The invention relates to an underwater profile monitoring robot controller and an automatic trajectory tracking control method, belonging to the technical field of underwater monitoring robot controller design. Background technique [0002] The underwater robot controller generally adopts a centralized control method. There is only one controller in the instrument cabin of the underwater robot, and the control commands on the shore are sent to the underwater controller for collection through the multi-core umbilical cable. Corresponding to the number of cores, this will increase the weight of the umbilical cable, which will adversely affect the attitude control of the underwater robot. On the other hand, the power supply method mostly adopts the direct power supply method of 220VAC on board the ship, and the underwater robot is powered through the umbilical cable, and a voltage conversion module is installed in the instrument cabin of the underwater ro...

Claims

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Application Information

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IPC IPC(8): G05D1/10G05B13/04
Inventor 袁健周忠海金光虎徐娟王越姚璞玉李俊晓王起维牟华臧鹤超
Owner OCEANOGRAPHIC INSTR RES INST SHANDONG ACAD OF SCI
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