CN212968820U - Explosion-proof type inspection robot - Google Patents
Explosion-proof type inspection robot Download PDFInfo
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- CN212968820U CN212968820U CN202022787363.8U CN202022787363U CN212968820U CN 212968820 U CN212968820 U CN 212968820U CN 202022787363 U CN202022787363 U CN 202022787363U CN 212968820 U CN212968820 U CN 212968820U
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Abstract
The application relates to an explosion-proof type inspection robot, which comprises a first explosion-proof shell, a first electric push rod, a transmission part, a first gear, a rotating shaft and a first driving assembly. The transmission component is connected with an output shaft of the first electric push rod. The transmission component is used for converting the linear motion of the output shaft of the first electric push rod into rotary motion. The first gear is connected with the transmission component. The first driving assembly is fixed with a camera device. The first gear is used for driving the camera device to move around the third axis through the rotating shaft. The first driving assembly is used for driving the camera device to rotate around the second axis. The rotation angle of the camera device is increased, the detection range of the camera device is enlarged, and the monitoring dead angle is reduced. Transmission part, first gear and axis of rotation all set up in first explosion-proof housing, and first explosion-proof housing effectively avoids explosion-proof type to patrol the piece or the part after the robot takes place accidental explosion and destroys the tunnel cable, has improved the security of tunnel cable.
Description
Technical Field
The application relates to the technical field of cable detection, in particular to an explosion-proof inspection robot.
Background
Cable tunnel refers to a corridor or tunnel-like structure for accommodating a large number of cables laid on cable supports. The cable tunnel can protect the cable better and also can facilitate the inspection and maintenance of the cable by people. Industrial high voltage cables are used for transporting 220kW of electricity. The underground cable tunnel is sealed, and air circulation is poor, has dangerous gas gathering deposit hidden danger, adopts explosion-proof robot to carry out cable tunnel and patrols and examines and can avoid the inside components and parts of robot to discharge and arouse tunnel implosion risk. The explosion-proof robot comprises a plurality of explosion-proof components. Compared with a conventional inspection robot, the explosion-proof robot is heavy and large in size, and the displacement and the visual angle of a camera device of the inspection robot are limited.
How to ensure the detection range of the cable tunnel inspection is an urgent problem to be solved.
SUMMERY OF THE UTILITY MODEL
Therefore, it is necessary to provide an explosion-proof inspection robot for the problem of how to ensure the detection range of cable tunnel inspection.
An explosion-proof type inspection robot comprises a first explosion-proof shell, a first electric push rod, a transmission part, a first gear, a rotating shaft and a first driving assembly. The first electric push rod is fixed on the first explosion-proof shell. The transmission component is arranged on the first explosion-proof shell. The transmission component is connected with an output shaft of the first electric push rod. The transmission component is used for converting the linear motion of the output shaft of the first electric push rod into rotary motion. The first gear is arranged in the first explosion-proof shell. The first gear is connected with the transmission part, and the rotating shaft is arranged on the first explosion-proof shell and is coaxial with the rotating shaft. The first driving assembly is fixed with a camera device. The first driving assembly is fixed to the rotating shaft. The axis of the rotating shaft is a third axis. The first gear is used for driving the first driving assembly and the camera device to move around the third axis through the rotating shaft. The first driving assembly is used for driving the camera device to rotate around a second axis. The second axis is perpendicular to the third axis.
In one embodiment, the transmission member includes a guide structure, a first link, and a second gear. The guide structure is connected with an output shaft of the first electric push rod. The first connecting rod is rotatably connected with the guide structure. The second gear is arranged on the first explosion-proof shell. One end of the first connecting rod, which is far away from the first electric push rod, is connected with the edge of the second gear. The second gear is engaged with the first gear.
In one embodiment, the guide structure includes a second slide rail and a slider. The second slide rail is arranged on the first explosion-proof shell, and the extending direction of the second slide rail is parallel to the first axis. The first axis is perpendicular to the third axis and perpendicular to the second axis. The slider is arranged on the second slide rail. The sliding block is connected with the first electric push rod and the first connecting rod respectively.
In one embodiment, the diameter of the second gear is greater than the diameter of the first gear.
In one embodiment, the second gear is a partial circumferential structure. In one embodiment, the first drive assembly includes a first drive motor. The first driving motor is fixed to the rotating shaft. And the output shaft of the first driving motor is connected with the camera device. The first driving motor is used for driving the camera device to rotate around the axis of the output shaft of the first driving motor. The axis of the output shaft of the first drive motor is the second axis.
In one embodiment, the explosion-proof type inspection robot further includes a second driving device. The first explosion-proof shell is fixed at the output end of the second driving device. The second driving device is used for driving the first explosion-proof shell to move along a first axis. The first axis is perpendicular to the third axis and perpendicular to the second axis.
In one embodiment, the second drive means comprises an explosion-proof electric push rod. The first explosion-proof shell is fixed on an output shaft of the explosion-proof electric push rod. The axis of the output shaft of the explosion-proof electric push rod is the first axis. The explosion-proof electric push rod is used for driving the first explosion-proof shell to move along the first axis.
In one embodiment, the explosion-proof type inspection robot further includes a third driving device. The second driving device is arranged on the third driving device. The third driving device is used for driving the second driving device to move along the first sliding rail in the tunnel. The first axis is perpendicular to a straight line where the extending direction of the first slide rail is located.
In one embodiment, the third driving device includes a traveling assembly, a third driving motor, and a driving wheel. The walking assembly is arranged on the first sliding rail in the tunnel. The third driving motor is arranged on the walking assembly. And the driving wheel is connected with an output shaft of the third driving motor. The driving wheel is used for driving the third driving motor and the walking assembly to move along the first sliding rail in the tunnel.
The embodiment of the application provides robot is patrolled and examined to explosion-proof type includes first explosion-proof casing, first electric putter, drive disk assembly, first gear, axis of rotation and first drive assembly. The first electric push rod is fixed on the first explosion-proof shell. The transmission component is arranged on the first explosion-proof shell. The transmission component is connected with an output shaft of the first electric push rod. The transmission component is used for converting the linear motion of the output shaft of the first electric push rod into rotary motion. The first gear is connected with the transmission part, and the rotating shaft is arranged on the first explosion-proof shell and is coaxial with the rotating shaft. The first driving assembly is fixed with a camera device. The first driving assembly is fixed to the rotating shaft. The axis of the rotating shaft is a third axis. The first gear is used for driving the first driving assembly and the camera device to move around the third axis through the rotating shaft. The first driving assembly is used for driving the camera device to rotate around a second axis. The second axis is perpendicular to the third axis.
Robot has been patrolled and examined to explosion-proof type through first explosion-proof casing, first electric putter, transmission part, first gear, axis of rotation and first drive assembly realize camera device winds the rotary motion of third axis and the rotary motion around the second axis. And the rotation angle of the camera device is increased, so that the detection range of the camera device is increased, and the monitoring dead angle is reduced. The transmission part first gear with the axis of rotation all set up in the first explosion-proof housing, first explosion-proof housing effectively avoids piece or part destruction tunnel cable after the explosion-proof type patrols and examines the robot and takes place unexpected explosion has improved tunnel cable's security.
Drawings
In order to more clearly illustrate the technical solutions in the embodiments or the conventional technologies of the present application, the drawings used in the descriptions of the embodiments or the conventional technologies will be briefly introduced below, it is obvious that the drawings in the following descriptions are only some embodiments of the present application, and for those skilled in the art, other drawings can be obtained according to the drawings without creative efforts.
Fig. 1 is a schematic structural diagram of the explosion-proof inspection robot provided in an embodiment of the present application;
fig. 2 is a side view of the explosion-proof inspection robot provided in one embodiment of the present application;
fig. 3 is a schematic structural diagram of the first driving assembly provided in an embodiment of the present application.
Reference numerals:
10. an explosion-proof inspection robot; 101. a first slide rail; 20. a camera device; 30. a first driving device; 40. a first drive assembly; 410. a first drive motor; 411. an output shaft of the first drive motor; 412. a second axis; 420. a second link; 50. a second drive assembly; 510. a first explosion-proof housing; 520. a first electric push rod; 530. a transmission member; 531. a guide structure; 5311. a second slide rail; 5312. a slider; 532. a first link; 533. a second gear; 540. a rotating shaft; 541. a third axis; 550. a first gear; 60. a second driving device; 601. a first axis; 70. a third driving device; 710. a walking assembly; 711. a second explosion-proof housing; 712. a traveling wheel; 720. a third drive motor; 730. a drive wheel; 80. and a control device.
Detailed Description
In order to make the aforementioned objects, features and advantages of the present application more comprehensible, embodiments accompanying the present application are described in detail below with reference to the accompanying drawings. In the following description, numerous specific details are set forth in order to provide a thorough understanding of the present application. This application is capable of embodiments in many different forms than those described herein and those skilled in the art will be able to make similar modifications without departing from the spirit of the application and it is therefore not intended to be limited to the embodiments disclosed below.
The numbering of the components as such, e.g., "first", "second", etc., is used herein for the purpose of describing the objects only, and does not have any sequential or technical meaning. The term "connected" and "coupled" when used in this application, unless otherwise indicated, includes both direct and indirect connections (couplings). In the description of the present application, it is to be understood that the terms "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", and the like, indicate orientations or positional relationships based on those shown in the drawings, and are used only for convenience in describing the present application and for simplicity in description, and do not indicate or imply that the devices or elements referred to must have a particular orientation, be constructed in a particular orientation, and be operated, and thus, are not to be considered as limiting the present application.
In this application, unless expressly stated or limited otherwise, the first feature "on" or "under" the second feature may be directly contacting the first and second features or indirectly contacting the first and second features through intervening media. Also, a first feature "on," "over," and "above" a second feature may be directly or diagonally above the second feature, or may simply indicate that the first feature is at a higher level than the second feature. A first feature being "under," "below," and "beneath" a second feature may be directly under or obliquely under the first feature, or may simply mean that the first feature is at a lesser elevation than the second feature.
Referring to fig. 1, 2 and 3 together, an explosion-proof inspection robot 10 according to an embodiment of the present disclosure includes a first explosion-proof housing 510, a first electric push rod 520, a transmission part 530, a first gear 550, a rotation shaft 540 and a first driving assembly 40. The first electric push rod 520 is fixed to the first explosion-proof housing 510. The transmission member 530 is disposed at the first explosion-proof housing 510. The transmission member 530 is connected with an output shaft of the first electric putter 520. The transmission member 530 is used for converting the linear motion of the output shaft of the first electric putter 520 into a rotational motion. The first gear 510 is disposed in the first explosion-proof housing 510. The first gear 550 is connected to the transmission member 530, and the rotation shaft 540 is disposed in the first explosion-proof housing 510 and is disposed coaxially with the rotation shaft 540. The first driving unit 40 is fixed with the image pickup device 20. The first driving assembly 40 is fixed to the rotating shaft 540. The axis of the rotating shaft 540 is a third axis 541. The first gear 550 is used for driving the first driving assembly 40 and the image capturing device 20 to move around the third axis 541 through the rotating shaft 540. The first driving assembly 40 is configured to drive the image capturing device 20 to rotate around a second axis 412. The second axis 412 is perpendicular to the third axis 541.
The explosion-proof inspection robot 10 provided in the embodiment of the present application realizes the rotational movement of the camera device 20 around the third axis 541 through the first explosion-proof housing 510, the first electric push rod 520, the transmission component 530, the first gear 550 and the rotation shaft 540; and rotational movement of the camera device 20 about the second axis 412 is effected by the first drive assembly 40. When the rotation angle of the camera device 20 is increased, the detection range of the camera device 20 is increased, and the monitoring dead angle is reduced. The transmission part 530 the first gear 550 with the axis of rotation 540 all set up in the first explosion-proof housing 510, first explosion-proof housing 510 effectively avoids the piece or the part destruction tunnel cable after the unexpected explosion of explosion-proof type patrolling and examining robot has improved tunnel cable's security.
When the first driving assembly 40 rotates around the third axis 541, the movable track of the first driving assembly 40 covers a track circle which takes the axis of the third axis 541 as the center of a circle and the length of the first driving assembly 40 as the radius. The first driving assembly 40 drives the moving range of the image capturing device 20 to be a track circle, so that the moving range and the detection angle of the image capturing device 20 are increased. Compared with a push rod structure having the same length as the first driving assembly 40, the first driving assembly 40 forms a rotating structure having a wider range of motion. If the moving range of the camera device 20 is fixed, compared with a push rod structure, the size of the first driving assembly 40 is smaller, and the installation and the use of the explosion-proof inspection robot 10 in a cable tunnel are changed.
The camera device 20 is used for shooting images of the space inside the tunnel, so that workers can judge whether the tunnel is damaged or whether organisms enter the tunnel according to the images. The image pickup device 20 includes a camera, a video recorder, a video camera, or the like.
The camera 20 may be replaced by a hazardous gas detection device. The explosion-proof inspection robot 10 is used for detecting the content of hazardous gas inside a tunnel.
In one embodiment, the first drive arrangement 30 includes a first drive assembly 40 and a second drive assembly 50. The image pickup device 20 is provided to the first driving unit 40. The first driving assembly 40 is configured to drive the image capturing device 20 to rotate around a second axis 412, where the second axis 412 is parallel to the first axis 601. The second driving assembly 50 is disposed on the second driving device 60. The first driving assembly 40 is disposed on the second driving assembly 50. The second driving assembly 50 is used for driving the first driving assembly 40 to rotate around the third axis 541. The third axis 541 is perpendicular to the first axis 601 and the second axis 412, respectively.
The first driving assembly 40 drives the image capturing device 20 to rotate 360 ° around the second axis 412. The second driving assembly 50 drives the first driving assembly 40 and the image capturing device 20 to rotate 360 ° around the third axis 541, so that the first driving assembly 40 and the second driving assembly 50 increase the shooting range of the image capturing device 20. In one embodiment, the second driving assembly 50 includes a first explosion-proof housing 510, a first electric push rod 520, a transmission member 530, a rotation shaft 540, and a first gear 550.
The first explosion-proof housing 510 is used to provide a mounting platform for the first electric push rod 520, the transmission member 530 and the rotating shaft 540. The first explosion-proof housing 510 may be a cylinder structure, a rectangular parallelepiped structure, a cube structure, or other combined structures. The first electric putter 520 is used to convert electric energy into kinetic energy. The axis of the output shaft of the first electric putter 520 is parallel to the third axis 541.
The transmission member 530 converts the linear motion of the output shaft of the first electric putter 520 into the rotational motion of the first gear 550. The first gear 550 drives the rotating shaft 540 to rotate. When the output shaft of the first electric putter 520 is extended toward the ground, the first gear 550 is rotated counterclockwise. The first gear 550 drives the rotating shaft 540 to rotate counterclockwise. The rotating shaft 540 drives the first driving assembly 40 to move around the third axis 541. The transmission component 530, the rotating shaft 540 and the first gear 550 are all arranged inside the first explosion-proof housing 510, and the first explosion-proof housing 510 effectively prevents the cable from being endangered when the transmission component 530, the rotating shaft 540 and the first gear 550 are damaged or exploded, thereby improving the safety of the cable.
The outside of first drive assembly 40 sets up third explosion prevention casing 401, third explosion prevention casing 401 can effectively protect second connecting rod 420 with first driving motor 410 splashes when avoiding the explosion of inner structure and influences the cable.
In one embodiment, the transmission member 530 includes a guide structure 531, a first link 532, and a second gear 533. The guiding structure 531 is connected with an output shaft of the first electric putter 520. The first link 532 is rotatably connected to the guide 531. The second gear 533 is disposed on the first explosion-proof housing 510. One end of the first link 532 remote from the first electric push rod 520 is connected to an edge of the second gear 533. The second gear 533 is engaged with the first gear 550. The housing of the first electric push rod 520 adopts an explosion-proof grade housing to reduce the splashing of explosive fragments.
The center of the second gear 533 is fixedly disposed on the first explosion-proof housing 510. The output shaft of the first electric push rod 520 moves to drive the guide structure 531 to move. The guide structure 531 pushes the first link 532 to rotate. The first link 532 drives the second gear 533 to rotate. The second gear 533 rotates the first gear 550.
The second gear 533 and the first gear 550 may be engaged with each other internally or externally.
In one embodiment, the second gear 533 is in external mesh with the first gear 550. When the output shaft of the first electric push rod 520 moves downward, the second gear 533 moves clockwise, and the first gear 550 moves counterclockwise.
In one embodiment, the guide structure 531 includes a second slide rail 5311 and a slider 5312. The second slide rail 5311 is disposed on the first explosion-proof housing 510, and an extending direction of the second slide rail 5311 is parallel to the first axis 601. The first axis 601 is perpendicular to the third axis 541 and perpendicular to the second axis 412. The sliding block 5312 is disposed on the second sliding rail 5311. The sliding block 5312 is connected to the first electric push rod 520 and the first link 532, respectively.
When the output shaft of the first electric push rod 520 moves towards the ground, the output shaft of the first electric push rod 520 pushes the sliding block 5312 to move towards the ground along the second sliding rail 5311. The first link 532 rotates around the connection point with the slider 5312 and drives the second gear 533 to move clockwise. The second gear 533 drives the first gear 550 to move counterclockwise.
In one embodiment, the first explosion proof housing 510 has a rectangular parallelepiped structure. One end of the second slide rail 5311 is arranged on the surface of the inner wall of the cuboid far away from the ground. The second slide rail 5311 is arranged parallel to the side wall of the cuboid.
The diameter of the second gear 533 is greater than, less than, or equal to the diameter of the first gear 550.
In one embodiment, the diameter of the second gear 533 is larger than the diameter of the first gear 550.
The linear rotational speed of the first gear 550 is the same as the linear rotational speed of the second gear 533. The angular velocity of the first gear 550 is greater than the angular velocity of the second gear 533, and the first gear 550 can drive the rotating shaft 540 and the first driving assembly 40 to change the angle faster, so that the shooting sensitivity of the camera device 20 is improved. In one embodiment, the second gear 533 has a partial circumference structure, and a partial gear structure is removed to reduce the weight of the second gear 533.
In one embodiment, the first drive assembly 40 includes a first drive motor 410. The first driving motor 410 is fixed to the rotation shaft 540. The output shaft 411 of the first drive motor 410 is connected to the image pickup device 20. The first driving motor 410 is used for driving the camera device 20 to rotate around the axis of the output shaft 411 of the first driving motor 410. The axis of the output shaft 411 of the first driving motor 410 is the second axis 412.
The housing portion of the first driving motor 410 is fixed to the rotation shaft 540. The rotating shaft 540 drives the first driving motor 410 to rotate around the third axis 541.
In one embodiment, the first drive assembly 40 further includes a second link 420. One end of the second link 420 is fixedly connected to the rotating shaft 540, and the other end of the second link 420 is connected to the first driving motor 410. The second link 420 is perpendicular to the axis of the rotation shaft 540. The rotating shaft 540 drives the first driving motor 410 to move circularly around the third axis 541 through the second connecting rod 420.
When the second link 420 rotates around the rotation shaft 540, the moving track of the second link 420 covers a track circle which takes the axis of the rotation shaft 540 as the center of a circle and the length of the second link 420 as the radius. The first driving motor 410 drives the camera device 20 to have a moving range which is also a track circle, so that the moving range and the detection angle of the camera device 20 are increased. The range of motion of the rotation structure formed by the second link 420 and the rotation shaft 540 is wider than that of a push rod structure having the same length as the second link 420. If the moving range of the camera device 20 is fixed, compared with a push rod structure, the volume of the rotating structure formed by the second connecting rod 420 and the rotating shaft 540 is smaller, and the installation and the use of the explosion-proof special track robot in a cable tunnel are changed.
In one embodiment, the output shaft of the first driving motor 410 has a T-shaped structure. The vertical end of the T-shaped structure is connected to the rotor of the first drive motor 410. The horizontal ends of the T-shaped structure are respectively provided with two of the camera devices 20 to increase the camera range.
In one embodiment, the explosion-proof type inspection robot 10 further includes a second driving device 60. The first explosion-proof housing 510 is fixed to an output end of the second driving device 60. The second driving device 60 is used for driving the first explosion-proof housing 510 to move along the first axis 601. The first axis 601 is perpendicular to the third axis 541 and perpendicular to the second axis 412, so that the moving range of the camera is expanded, the detection range of the camera 20 is expanded, and the monitoring dead angle is reduced.
The first axis 601 may extend in any direction. In one embodiment, the first axis 601 is perpendicular to the ground, and the camera device 20 can move in the direction perpendicular to the ground on the second driving device 60.
In one embodiment, the second drive device 60 comprises an explosion-proof electric push rod. The first explosion-proof housing 510 is fixed to an output shaft of the explosion-proof electric putter. The axis of the output shaft of the explosion-proof electric push rod is the first axis 601. The explosion-proof electric push rod is used for driving the first explosion-proof shell 510 to move along the first axis 601.
The output shaft of the explosion-proof electric push rod is connected with the first driving device 30. The axis of the output shaft of the explosion-proof electric push rod is the first axis 601. The explosion-proof electric push rod is used for driving the first driving device 30 to move along the first axis 601.
In one embodiment, the end of the output shaft of the explosion-proof electric push rod is fixedly connected to the first explosion-proof housing 510 to drive the first explosion-proof housing 510 to move along the first axis 601. The first explosion-proof housing 510 is configured to drive the second slide rail 5311, the second gear 533, and the rotating shaft 540 to move along the first axis 601. The first explosion-proof housing 510 drives the first driving assembly 40 to move along the first axis 601 through the rotating shaft 540.
In one embodiment, the explosion-proof type inspection robot 10 further includes a third driving device 70. The second driving device 60 is disposed on the third driving device 70. The third driving device 70 is used for driving the second driving device 60 to move along the first sliding rail 101 in the tunnel. The first axis 601 is perpendicular to a straight line along which the first slide rail 101 extends. The third driving device 70 drives the second driving device 50 and the first driving device 30 to move, so that the moving range of the camera device 20 is expanded, the detection range of the camera device 20 is expanded, and monitoring dead angles are reduced.
In one embodiment, the first axis 601 extends in the direction of gravity. The first slide rail 101 extends in a horizontal direction. The first slide rail 101 is laid inside the tunnel and extends together with the tunnel. The first axis 601 is perpendicular to the extending direction of the first slide rail 101, so as to ensure that the displacement variation range of the camera device 20 can cover the axial tangent plane of the whole tunnel, and increase the camera range of the camera device 20.
In one embodiment, the third driving device 70 includes a traveling assembly 710, a third driving motor 730, and a driving wheel. The walking assembly 710 is disposed on the first slide rail 101 in the tunnel. The third driving motor 730 is disposed on the traveling assembly 710. The driving wheel is connected to an output shaft of the third driving motor 730. The driving wheel is used for driving the third driving motor 730 and the traveling assembly 710 to move along the first slide rail 101 in the tunnel.
In one embodiment, the first sliding rail 101 is provided with serrations. The driving wheel 730 is provided with saw teeth matched with the first slide rail 101. When the output shaft of the third driving motor 720 rotates, the driving wheel 730 is driven to rotate. The driving wheel 730 is engaged with the first slide rail 101 to drive the third driving motor 720 and the traveling assembly 710 to move along the first slide rail 101.
In one embodiment, the walking assembly 710 includes a second explosion proof housing 711 and a walking wheel 712. The traveling wheel 712 is disposed on the second explosion-proof housing 711. The third driving motor 720 is disposed in the inner space of the second explosion-proof housing 711. The travelling wheel 712 is only used for rolling along the first sliding rail 101 and belongs to a passive moving wheel. In consideration of static electricity prevention, the travelling wheel 712 adopts a rubber wheel added with carbon powder, and meets the requirement of explosion-proof design.
In one embodiment, the explosion-proof type inspection robot 10 further includes a control device 80. The control device 80 is accommodated in the inner space of the second explosion-proof housing 711. The control device 80 is respectively connected to the first driving motor 410, the first electric push rod 520, the explosion-proof electric push rod and the third driving motor 720. The control device 80 is used for driving the first driving motor 410 and the first electric push rod 520 to move so as to adjust the shooting angle of the camera device 20. The control device 80 is used for driving the movement of the explosion-proof electric push rod and the third driving motor 720 so as to adjust the position of the camera device 20.
In a specific embodiment, when the upper layer of the tunnel needs to be detected, the explosion-proof electric push rod is at the uppermost end of the stroke, and the camera device 20 can detect the cable joint at the upper layer.
When the middle-layer cable needs to be detected, the explosion-proof electric push rod extends downwards, pushes the first driving device 30 and the camera device 20 to move downwards, descends by a stroke of 200mm-300mm to a proper position, and detects the middle-layer cable joint.
When the lower layer cable joint needs to be detected, the stroke of the explosion-proof electric push rod returns to the zero position. The first electric push rod 520 fixedly installed in the first explosion-proof housing 510 moves to push the lower slider to move, and pushes the second gear 533 to rotate 90 ° through the first link 532, so that the first gear 550 rotates 180 ° to drive the rotating shaft 540 to rotate, and thus the first driving assembly rotates 180 ° to drive the camera device 20 to rotate downward, so as to detect a lower layer cable. On the basis, the extending stroke of the explosion-proof electric push rod is controlled to reach the maximum 300mm, the camera device 20 is enabled to pitch downwards by 40 degrees and left and right, the position of the tunnel wall root can be observed, and the infrared camera of the camera device 20 can shoot any position at the bottom of the tunnel by matching with 360-degree horizontal rotation of the first driving device 30.
The control device 80 is disposed inside the second explosion-proof housing 711. The control device 80 obtains electric energy through the power supply, and when the related lines of the control device 80 are short-circuited or the power supply is overcharged and aged to cause explosion, the second explosion-proof housing 711 can prevent explosion fragments from damaging the cable, so that the safety of the cable is improved.
The power adopts explosion-proof lithium cell, and battery powered once charge duration is not less than 5 hours, carries out explosion-proof design to battery unit and controlling means 80 on the robot body, second explosion-proof housing 711 adopts aluminum plate welding to form, and weight is lighter when guaranteeing intensity.
In the description herein, references to the description of "some embodiments," "other embodiments," "desired embodiments," etc., mean that a particular feature, structure, material, or characteristic described in connection with the embodiment or example is included in at least one embodiment or example of the invention. In this specification, a schematic description of the above terminology may not necessarily refer to the same embodiment or example.
The technical features of the above embodiments can be arbitrarily combined, and for the sake of brevity, all possible combinations of the technical features in the above embodiments are not described, but should be considered as the scope of the present specification as long as there is no contradiction between the combinations of the technical features.
The above-mentioned embodiments only express several embodiments of the present application, and the description thereof is more specific and detailed, but not construed as limiting the scope of the utility model. It should be noted that, for a person skilled in the art, several variations and modifications can be made without departing from the concept of the present application, which falls within the scope of protection of the present application. Therefore, the protection scope of the present patent shall be subject to the appended claims.
Claims (10)
1. The utility model provides an explosion-proof type inspection robot which characterized in that includes:
a first explosion-proof housing;
the first electric push rod is fixed on the first explosion-proof shell;
the transmission component is arranged in the first explosion-proof shell, is connected with an output shaft of the first electric push rod and is used for converting the linear motion of the output shaft of the first electric push rod into rotary motion;
a first gear arranged in the first explosion-proof shell, the first gear is connected with the transmission component,
the rotating shaft is arranged in the first explosion-proof shell and is coaxial with the rotating shaft;
first drive assembly is fixed with camera device, first drive assembly is fixed in the axis of rotation, the axis of rotation is the third axis, first gear is used for passing through the axis of rotation drives first drive assembly with camera device winds the motion of third axis, first drive assembly is used for driving camera device is rotary motion around the second axis, the second axis perpendicular to the third axis.
2. The explosion-proof inspection robot according to claim 1, wherein the transmission part includes:
the guide structure is connected with the output shaft of the first electric push rod;
the first connecting rod is rotatably connected with the guide structure;
the second gear is arranged on the first explosion-proof shell, one end, far away from the first electric push rod, of the first connecting rod is connected with the edge of the second gear, and the second gear is meshed with the first gear.
3. The explosion-proof inspection robot according to claim 2, wherein the guide structure includes:
the second sliding rail is arranged on the first explosion-proof shell, the extending direction of the second sliding rail is parallel to a first axis, and the first axis is perpendicular to the third axis and perpendicular to the second axis;
the sliding block is arranged on the second sliding rail and is connected with the first electric push rod and the first connecting rod respectively.
4. The explosion-proof inspection robot according to claim 3, wherein the diameter of the second gear is greater than the diameter of the first gear.
5. The explosion-proof inspection robot according to claim 4, wherein the second gear is a partial circumferential structure.
6. The explosion-proof inspection robot according to claim 1, wherein the first drive assembly includes:
the first driving motor is fixed on the rotating shaft, an output shaft of the first driving motor is connected with the camera device, the first driving motor is used for driving the camera device to rotate around the axis of the output shaft of the first driving motor, and the axis of the output shaft of the first driving motor is the second axis.
7. The explosion-proof inspection robot according to claim 3, further comprising:
the first explosion-proof shell is fixed at the output end of the second driving device, the second driving device is used for driving the first explosion-proof shell to move along a first axis, and the first axis is perpendicular to the third axis and the second axis.
8. The explosion-proof inspection robot according to claim 7, wherein the second driving device includes:
the explosion-proof electric push rod, first explosion-proof casing is fixed in explosion-proof electric push rod's output shaft, explosion-proof electric push rod's output shaft's axis does first axis, explosion-proof electric push rod is used for driving first explosion-proof casing is followed the first axis motion.
9. The explosion-proof inspection robot according to claim 7, further comprising:
and the third driving device is used for driving the second driving device to move along the first sliding rail in the tunnel, and the first axis is perpendicular to the straight line where the extending direction of the first sliding rail is located.
10. The explosion-proof inspection robot according to claim 9, wherein the third driving device includes:
the walking assembly is arranged on the first sliding rail in the tunnel;
the third driving motor is arranged on the walking assembly;
and the driving wheel is connected with an output shaft of the third driving motor and is used for driving the third driving motor and the walking assembly to move along the first sliding rail in the tunnel.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
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| CN113335419A (en) * | 2021-07-15 | 2021-09-03 | 东营天润石化科技有限公司 | Explosion-proof intelligent control system of oil |
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