A robot for underwater detection and disposal of water tunnel and its application method
A technology for water conveyance tunnels and robots, which is applied to underwater operation equipment, transportation and packaging, hulls, etc., and can solve problems such as lack of cable-free autonomous detection capabilities, underwater damage repair capabilities, and robots lack of repair capabilities.
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Embodiment 1
[0036] like figure 1 and figure 2 FIG An underwater tunnel testing and disposal of water robot, comprising a frame body 1, a hydraulic rod 2, the central distance measuring module 3, the cover plate 4, power system 5, the job positions 6, the front view of the detector navigation operations on the cartridge module 7, the umbilical 8, the lighting module 9, the cartridge within the cartridge binocular stereo vision module 10, work tool magazine 11, water purification systems 12, 13 underwater robot arm. The frame body 1 using a natural transition low resistance profile, the lower surface of the frame body 1 over curved design, the radius of the arc with the same radius as water tunnel, seamless wall surface adhesion, control systems fitted inside the fuselage, with to control the propulsion system, and detects the job control module, data processing and communication.
[0037] The cartridge 6 is mounted on the front working a frame body, the cartridge 6 can be automatically control...
Embodiment 2
[0051] like Figure 8 , The force of the case AUV underwater work at rest is analyzed, when the robot is calculated from the stress analysis map may still work to adapt the maximum water flow rate.
[0052] Figure 8 middle, P Force is generated by the two hydraulic rod, the angle between the pusher 30 °, i.e. P is a pressure force of the robot body, P’ Its reaction force, f s Robot with a tunnel wall static friction, F D Robot suffered flow resistance in the water, the present embodiment not consider the quality of the robot itself.
[0053] According to common sense, single actual hydraulic thrust rod takes 1500 ( N ), Calculate the maximum pressure P = 1500 * COS (15 °) * 2≈2898 ( N ); Static friction is calculated as f s = μ * p, (μ For the case of water, the surface friction coefficient of steel and cement, the general value 0.6), thereby calculating the maximum static friction f s = 0.6 * 2898 ( N ) ≈1739 ( N .
[0054] Object suffered water resistance is calculated as: F D =...
Embodiment 3
[0058] A method of detecting and disposal disposal inspection robot, comprising the steps of:
[0059] Sl, the robot from the upstream openings or adit dipping into water, the ground handling staff by umbilical 8, the remote power system 5 is turned on, the central distance measuring module 3, the front view of the detector 7 navigation module starts testing operations. If the water turbidity, using sonar detection and obstacle avoidance, if the water is clear, the use of sonar and camera simultaneous detection and obstacle avoidance. Detection, Doppler SINS navigation device can measure the speed and distance of travel for positioning.
[0060] S2, when the robot into the water, prior to the image recognition by the visual obstacle avoidance radar scanned hole, into the tunnel. After setting the length of detecting time, starting at the entrance tunnel, opener robot automatic detection, real-time detection data returned by an umbilical, the defect is detected, the recording posit...
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