Water tunnel underwater detection and disposal robot and use method thereof
A technology for water conveyance tunnels and robots, which is applied in the fields of underwater operation equipment, transportation and packaging, ships, etc., can solve the problems that robots do not have the ability to repair, do not have the ability to detect and repair operations, and do not have the function of underwater damage repair.
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Embodiment 1
[0036] Such as figure 1 and figure 2 As shown in the figure, an underwater detection and disposal robot for a water conveyance tunnel includes a main body 1, a hydraulic rod 2, a distance measuring module 3 in the middle, an upper cover plate 4 of an operation compartment, a power system 5, an operation compartment 6, and a forward-looking detection and navigation system. Module 7, umbilical cable 8, in-cabin lighting module 9, in-cabin binocular stereo vision module 10, operating tool storehouse 11, water purification system 12, and underwater robotic arm 13. The fuselage body 1 adopts a natural transition low-resistance shape, and the lower surface of the fuselage body 1 is designed in an arc-shaped transition. The radius of the arc is the same as that of the water delivery tunnel, which can be seamlessly attached to the wall. To promote system control, detection and operation module control, data processing and communication.
[0037] The operation chamber 6 is installed...
Embodiment 2
[0051] Such as Figure 8 As shown, the force of the underwater robot in this case is analyzed when it is still operating in the water, and the maximum water flow speed that the robot can adapt to when it is operating statically can be calculated from the force analysis diagram.
[0052] Figure 8 middle, P It is the resultant force generated by two hydraulic rods, the angle between the push rods is 30°, that is, P is the resultant force of the downward pressure on the robot body, P’ for its reaction force, f s is the static friction between the robot and the tunnel wall, F D is the water flow resistance suffered by the robot in the water, and the quality of the robot itself is not considered in this embodiment.
[0053] According to common sense, the single hydraulic rod thrust is actually taken as 1500 ( N ), calculate the maximum downforce P =1500*COS(15°)*2≈2898( N ); the formula for static friction is f s = μ*P, (μ In the case of water, the friction coefficien...
Embodiment 3
[0058] A detection and disposal method for a detection and disposal robot, comprising the following steps:
[0059] S1. Lift the robot into the water from the upstream hole or branch hole, and the ground operator uses the umbilical cable 8 to remotely start the power system 5, the middle ranging module 3, and the forward-looking detection and navigation module 7 to start the detection operation. If the water quality is turbid, use sonar to detect and avoid obstacles; if the water quality is clear, use sonar and camera to detect and avoid obstacles at the same time. During detection, the Doppler strapdown inertial navigation integrated navigation device can measure the driving speed and distance for positioning.
[0060] S2. After the robot enters the water, it recognizes the opening through the image scanned by the forward-looking obstacle avoidance radar and enters the tunnel. Then set the detection length, start from the tunnel entrance, start the automatic detection of the...
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