CN215828350U - Full-automatic alignment fluid loading and unloading arm - Google Patents

Abstract

The utility model relates to the technical field of fluid loading and unloading arms, and discloses a full-automatic alignment fluid loading and unloading arm, which comprises a video guide system for guiding a tank car to move to the effective movement range of the fluid loading and unloading arm, a camera for identifying a notch on the tank car, a controller and a frame body arranged in a hollow shape; the frame body is provided with a vertical pipe which moves vertically and is communicated with the fluid pipeline, a transverse moving structure which drives the vertical pipe to move transversely and a longitudinal moving structure which drives the vertical pipe to move longitudinally, the vertical pipe is provided with an inserting section which is arranged downwards and is inserted into the groove opening, the tail end of the inserting section is provided with a liquid injection opening which injects fluid into the groove opening, and the periphery of the inserting section is annularly provided with a sealing cap which seals the groove opening; the full-automatic aligning fluid loading and unloading arm provided by the utility model realizes full-automatic unmanned operation, full-automatic pipe alignment, higher degree of automation, greatly improved operating efficiency, avoided occupational exposure and greatly reduced potential safety hazards.

Description

Full-automatic alignment fluid loading and unloading arm

Technical Field

The utility model relates to the technical field of fluid loading and unloading arms, in particular to a full-automatic alignment fluid loading and unloading arm.

Background

A fluid handling arm is a device used to effect the transfer of liquid or gaseous products between surface equipment and a liquid tanker (or other mobile container).

The traditional fluid loading and unloading arm is formed by combining a rotary joint with flexible rotation, good sealing performance and large load resistance with a pipeline, a pipeline accessory, a balancing device, a supporting mechanism and a control operation system, and is mainly used for conveying fluid materials among tank cars, tank ships and pipelines.

Conventional fluid handling arms suffer from the following drawbacks:

1) the fluid loading and unloading arm needs manual operation before the operation starts, the fluid loading and unloading arm is aligned, and the fluid loading and unloading arm is reset after the loading and unloading operation is finished, so that the alignment efficiency is low;

2) the fluid loading and unloading arm can be aligned and reset only by manual operation, so that an operator is easily exposed in the volatile gas environment of the loading and unloading medium, and serious occupational exposure exists;

3) the efficiency is low, the general manual operation time is about 3-5 minutes in the alignment and resetting steps of the traditional fluid loading and unloading arm in the operation process, and the efficiency is low.

4) The traditional fluid loading and unloading arm is generally carried out at the top of a tank car in the aligning and resetting operation processes, the height of the operation surface is generally 3-4 m, and when an operator carries out operation, the operator wears protective equipment such as a safety rope, but still has the risk of falling and falling injury.

SUMMERY OF THE UTILITY MODEL

The utility model aims to provide a full-automatic alignment fluid loading and unloading arm, and aims to solve the problem that the fluid loading and unloading arm cannot realize full-automatic alignment in the prior art.

The utility model is realized in this way, the fluid handling arm of full automatic alignment, including guide the tank wagon to move to the video guide system within the effective movement range of the fluid handling arm, discern the camera, controller and support body that the fretwork shape is arranged on the notch on the tank wagon;

be equipped with vertical movement on the support body and with the perpendicular pipe of fluid pipeline intercommunication, drive the lateral shifting structure of the perpendicular pipe lateral shifting and drive the longitudinal shifting structure of the perpendicular pipe longitudinal shifting, the perpendicular pipe has and arranges down and insert the intraoral male section of groove, the end of male section has toward the intraoral notes liquid mouth that pours into fluid into of groove, the periphery ring of male section is equipped with the sealing cap of sealed notch.

Further, a laser radar is arranged in the camera, and after the vertical pipe and the tank opening are coaxially arranged, the laser radar scans a three-dimensional image of the top of the tank car and transmits the three-dimensional image to the controller.

Furthermore, an emptying valve is arranged in the vertical pipe, and when the volume of fluid injected into the tank opening from the vertical pipe meets a set requirement, the controller controls the emptying valve to blow air from top to bottom so as to blow out residual fluid of the vertical pipe out of the vertical pipe.

Furthermore, the controller is electrically connected with a safety interlocking device, and in the process that the vertical pipe injects fluid into the tank opening, the controller monitors the state of the safety interlocking device and controls whether the vertical pipe continuously injects fluid into the tank opening or not according to the signal of the safety interlocking device.

Furthermore, the safety interlocking device comprises an electrostatic oil spilling protector for monitoring whether static electricity or oil spilling exists at the tank opening, a vertical pipe homing device for monitoring the position of a vertical pipe, an explosion-proof car stopper, a key manager for monitoring the key starting of the tank car, a vertical pipe connection detector for monitoring the connection state of the vertical pipe, a human body static electricity release alarm for monitoring the static electricity state of people around the tank car and a voice prompt controller.

Furthermore, longitudinal guide rails are arranged on two sides of the top of the frame body, the longitudinal moving structure comprises a longitudinal moving arm moving along the longitudinal guide rails, and two ends of the longitudinal moving arm are respectively connected to the longitudinal guide rails; the vertical movement arm is provided with a transverse guide rail, the transverse movement structure comprises a transverse movement head which moves along the transverse guide rail, the upper part of the vertical pipe is connected with a connecting plate, the connecting plate is connected with the transverse movement head, the vertical pipe penetrates through the rack body from top to bottom, and the insertion section of the vertical pipe extends to the lower part of the rack body.

Furthermore, a plurality of telescopic shafts which are vertically arranged and drive the vertical pipe to vertically move are arranged on the connecting plate, and the plurality of telescopic shafts are arranged around the periphery of the vertical pipe; the upper end of the telescopic shaft is connected to the connecting plate, and the lower end of the telescopic shaft is connected with the vertical pipe; the vertical displacement sensor 202 is arranged on the connecting plate and used for monitoring vertical movement of the vertical pipe, the upper end of the displacement sensor is connected to the connecting plate, the lower end of the displacement sensor extends downwards and is arranged, and the lower end of the displacement sensor is located above the insertion section.

Further, be equipped with the epitaxial plate that extends outwards on the pipe that hangs down, be connected with the motor on the epitaxial plate, the motor has the axis of rotation, the axis of rotation is connected with retrieves the interior raffinate recoverer of remaining fluid of hanging down, the raffinate recoverer has open-top's recovery chamber, the raffinate recoverer is located the below of annotating the liquid mouth of the pipe that hangs down, the controller control motor drive raffinate recoverer rotates, until the notes liquid mouth of the pipe that hangs down with the open-top of retrieving the chamber is the top opening of just aligning about being arranged or retrieves the open-top of chamber and the notes liquid mouth of the pipe that hangs down are the skew and arrange.

Further, the sealing cap comprises a ring plate which is connected to the periphery of the vertical pipe in a surrounding manner, the ring plate is provided with a lower end face which is arranged downwards, and a sealing rubber ring which is connected to the periphery of the vertical pipe in a surrounding manner is arranged on the lower end face of the ring plate; the sealing rubber ring is provided with a sealing surface which is arranged downwards, and the diameter of the sealing surface is gradually reduced along the direction that the vertical pipe is inserted into the tank opening.

Furthermore, a plurality of annular grooves are formed in the periphery of the sealing rubber ring, and the annular grooves are arranged around the periphery of the sealing rubber ring; the annular grooves are arranged at intervals in sequence along the axial direction of the vertical pipe, and annular sheets are formed between the adjacent annular grooves.

Compared with the prior art, the full-automatic alignment fluid loading and unloading arm provided by the utility model has the following beneficial effects:

1) the full-automatic unmanned operation is realized, the alignment and the reset of the vertical pipe are realized in a full-automatic manner, and the automation of higher degree is realized;

2) the working efficiency is greatly improved, the working time for realizing automatic alignment of the vertical pipe is shortened, and the working efficiency is greatly improved;

3) the occupational exposure is avoided, and the problem of occupational exposure can be well avoided due to the fact that full-automatic operation is achieved through vertical pipe alignment and resetting, manual intervention is not needed;

4) the potential safety hazard is greatly reduced, manual intervention is not needed, full-automatic operation can be realized, the risk that an operator falls and falls is avoided, and the potential safety hazard is greatly reduced.

Drawings

FIG. 1 is a perspective view of a fluid handling arm provided in accordance with the present invention;

FIG. 2 is a perspective view of a portion of a fluid handling arm provided in accordance with the present invention;

fig. 3 is a cut-away schematic view of an audible sealing cap of the present invention.

Detailed Description

In order to make the objects, technical solutions and advantages of the present invention more apparent, the present invention is described in further detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the utility model and are not intended to limit the utility model.

The following describes the implementation of the present invention in detail with reference to specific embodiments.

The same or similar reference numerals in the drawings of the present embodiment correspond to the same or similar components; in the description of the present invention, it should be understood that if there is an orientation or positional relationship indicated by the terms "upper", "lower", "left", "right", etc. based on the orientation or positional relationship shown in the drawings, it is only for convenience of describing the present invention and simplifying the description, but it is not intended to indicate or imply that the referred device or element must have a specific orientation, be constructed in a specific orientation, and be operated, and therefore, the terms describing the positional relationship in the drawings are only used for illustrative purposes and are not to be construed as limiting the present patent, and the specific meaning of the terms may be understood by those skilled in the art according to specific circumstances.

Referring to fig. 1-3, preferred embodiments of the present invention are shown.

The fluid handling arm of full automatic alignment, including guide the tank wagon to move to the video guide system within the effective movement range of the fluid handling arm, discern the camera 500 of the notch on the tank wagon, controller and present the support 100 that the fretwork is arranged; be equipped with vertical movement and with the perpendicular pipe 300 of fluid pipeline intercommunication, drive the lateral shifting structure that hangs down pipe 300 lateral shifting and drive the longitudinal shifting structure that hangs down pipe 300 longitudinal movement on the support body 100, hang down pipe 300 and have and arrange and insert intraoral inserting section 301 downwards, the end of inserting section 301 has the notes liquid mouth of annotating into fluid in going into the notch, and the peripheral ring of inserting section 301 is equipped with the sealing cap of sealed notch.

The fluid loading and unloading arm with the full-automatic alignment function realizes full-automatic alignment operation in actual operation, and comprises the following steps:

1) guiding the tanker by the video guidance system to within the effective movement range of the fluid handling arm; a tank car driver can move the tank car into a set area according to the guidance of the video guidance system, so that the coarse alignment effect is realized;

2) opening a tank cover on a tank opening of the tank car, wherein the tank opening is in an exposed state; the controller identifies the tank opening on the tank car through the camera 500, and the controller calculates the three-dimensional coordinate of the tank opening;

after rough alignment, a driver can manually open the tank cover of the tank opening after getting off, then presses a start button on the spot, and the controller can start to operate, so that the tank opening can be identified.

3) The fluid loading and unloading arm comprises a transverse moving structure, a longitudinal moving structure and a vertical pipe 300 which moves vertically and is communicated with the fluid pipeline, the transverse moving structure and the longitudinal moving structure can move the vertical pipe 300 to realize transverse and longitudinal movement in the horizontal direction, the vertical pipe 300 can realize vertical movement, and thus, the vertical pipe 300 can realize movement in a three-dimensional space;

the vertical pipe 300 is provided with an insertion section 301 which is arranged downwards, the tail end of the insertion section 301 is provided with a liquid injection port, the outer periphery of the insertion section 301 is annularly provided with a sealing cap, and the sealing cap is positioned above the liquid injection port; the controller controls the vertical pipe 300 to move to the position above the tank opening;

4) the controller controls the vertical pipe 300 to move downwards for alignment until the insertion section 301 of the vertical pipe 300 is inserted into the can opening, and the sealing cap covers the can opening;

5) the controller controls the vertical pipe 300 to inject fluid into the tank opening through the liquid injection opening until the volume of the injected fluid meets the set requirement;

6) and the controller controls the vertical pipe 300 to move upwards and reset until the insertion section 301 of the vertical pipe 300 is separated from the tank opening, and controls the vertical pipe 300 to move to the zero-point parking position.

The fluid loading and unloading arm with the automatic alignment function has the following beneficial effects:

1) the full-automatic unmanned operation is realized, the alignment and resetting of the vertical pipe 300 are realized fully automatically, and the automation of higher degree is realized;

2) the working efficiency is greatly improved, the working time of realizing the automatic alignment of the vertical pipe 300 is shortened, and the working efficiency is greatly improved;

3) occupational exposure is avoided, and the problem of occupational exposure can be well avoided due to the fact that full-automatic operation is achieved through the alignment and resetting of the vertical pipe 300 and manual intervention is not needed;

4) the potential safety hazard is greatly reduced, manual intervention is not needed, full-automatic operation can be realized, the risk that an operator falls and falls is avoided, and the potential safety hazard is greatly reduced.

In the step 3), after the controller controls the vertical pipe 300 to move above the tank opening, the controller controls the vertical pipe 300 to be coaxially arranged with the tank opening, so that the insertion section 301 of the vertical pipe 300 can be directly inserted into the tank opening of the tank car after the subsequent controller controls the vertical pipe 300 to move.

The camera 500 is provided with a laser radar, and after the vertical pipe 300 and the tank opening are coaxially arranged, the laser radar scans a three-dimensional image of the top of the tank car; the controller judges whether the position of the tank opening has a height difference meeting the set requirement or not according to the three-dimensional image scanned by the laser radar and judges whether the diameter of the tank opening meets the set requirement or not. Three-dimensional image scanning is carried out on the tank opening through the laser radar so as to prevent other round objects on the top of the tank car from being mistakenly identified as the tank opening

In the step 5), an emptying valve is arranged in the vertical pipe 300, when the volume of the fluid injected into the tank opening by the vertical pipe 300 meets the set requirement, the controller controls the emptying valve to blow air from top to bottom, so that the residual fluid in the vertical pipe 300 is blown out of the vertical pipe 300, and a large amount of residual liquid is prevented from existing in the vertical pipe 300.

The controller is electrically connected with a safety interlocking device, in the step 5), the controller monitors the state of the safety interlocking device in the process that the vertical pipe 300 injects the fluid into the tank opening, and controls whether the vertical pipe 300 continuously injects the fluid into the tank opening according to the signal of the safety interlocking device.

The vertical pipe 300 may be automatically and quantitatively filled or filled according to a predetermined requirement during the process of filling the liquid into the opening of the tank. A safety interlock is an automated device for safety purposes that provides interlocking safety by mechanically or electrically constraining the two actions in relation to one another.

The safety interlocking device comprises an electrostatic oil spilling protector for monitoring whether static electricity or oil spilling exists at a tank opening, a vertical pipe homing device for monitoring the position of a vertical pipe 300, an explosion-proof car stopper, a key manager for monitoring the starting of a key of a tank car, a vertical pipe 300 connection detector for monitoring the connection state of the vertical pipe 300, a human body static electricity release alarm for monitoring the static electricity state of people around the tank car and a voice prompt controller.

When the vertical pipe 300 is aligned with the tank opening successfully, the controller sends an alignment success signal, and at the moment, the driver presses the start button on the spot again to confirm manually, so as to start the vertical pipe 300 to perform liquid injection operation, such as quantitative filling process. The quantitative filling process is controlled by a quantitative loading control instrument, and the main structure of the quantitative loading control instrument comprises: industrial Programmable Logic Controller (PLC), industrial integrated liquid crystal screen operation terminal, built-in IC card reader, etc.

The main functions of the quantitative loading control instrument comprise: the intelligent card reader comprises a data acquisition function, a quantitative control function, a parameter setting function, a sequence control function, an oil spill linkage, a grounding linkage, an emergency stop linkage, a power failure protection function, a remote/on-site loading conversion function, a real-time monitoring function, an alarm function, a communication networking function, a device self-check function, a password protection function and an IC card swiping function.

The frame body 100 is provided with longitudinal guide rails 101 at both sides of the top thereof, the longitudinal moving structure includes a longitudinal moving arm 102 moving along the longitudinal guide rails 101, and both ends of the longitudinal moving arm 102 are respectively connected to the longitudinal guide rails 101, so that the longitudinal moving arm 102 can move longitudinally along the longitudinal guide rails 101 under the control of the controller.

The longitudinal moving arm 102 is provided with a transverse guide rail, the transverse moving structure comprises a transverse moving head 103 moving along the transverse guide rail, the upper part of the vertical pipe 300 is connected with a connecting plate 200, the connecting plate 200 is connected with the transverse moving head 103, and the transverse moving head 103 can transversely move along the transverse guide rail under the control of the controller.

Drop tube 300 passes through rack body 100 from top to bottom, and insertion section 301 of drop tube 300 extends to below rack body 100. Therefore, the vertical pipe 300 is convenient to align with the tank opening, and the liquid filling opening of the vertical pipe 300 is convenient to move vertically downwards to enter the tank opening of the tank car.

The connecting plate 200 is provided with a plurality of telescopic shafts 201 which are vertically arranged and drive the vertical pipe 300 to vertically move, and the plurality of telescopic shafts 201 are arranged around the periphery of the vertical pipe 300; the upper end of the telescopic shaft 201 is connected to the connecting plate 200, and the lower end of the telescopic shaft 201 is connected to the vertical pipe 300; the displacement sensor 202 which is vertically arranged and used for monitoring the vertical movement of the vertical pipe 300 is arranged on the connecting plate 200, the upper end of the displacement sensor 202 is connected to the connecting plate 200, the lower end of the displacement sensor 202 extends downwards and is arranged, and the lower end of the displacement sensor 202 is located above the insertion section 301.

The telescopic movement of the telescopic shaft 201 is controlled through the controller, so that the vertical movement of the vertical pipe 300 is driven, meanwhile, the displacement sensor 202 can monitor the vertical movement displacement of the vertical pipe 300, and when the vertical pipe 300 is aligned originally, the controller judges the distance between the liquid injection port of the vertical pipe 300 and the tank port, so that the telescopic distance of the telescopic shaft 201 can be accurately controlled.

The vertical pipe 300 is provided with an outward extending extension plate 203, the extension plate 203 is connected with a motor 400, the motor 400 is provided with a rotating shaft 401, the rotating shaft 401 is connected with a residual liquid recoverer 402 for recovering residual fluid in the vertical pipe 300, and a rotating shaft of the motor 400 can rotate so as to drive the whole residual liquid recoverer 402 to rotate.

The residual liquid recoverer 402 is provided with a recovery cavity 403 with an open top, the residual liquid recoverer 402 is positioned below the liquid injection port of the vertical pipe 300, so that the residual liquid recoverer 402 can be conveniently rotated to be right below the liquid injection port of the vertical pipe 300, and the residual liquid recoverer 402 can be conveniently rotated to be deviated from the liquid injection port of the vertical pipe 300. The controller controls the motor 400 to drive the residual liquid recoverer 402 to rotate until the liquid injection port of the vertical pipe 300 and the top opening of the recovery cavity 403 are vertically aligned or the top opening of the recovery cavity 403 and the liquid injection port of the vertical pipe 300 are arranged in a deviating manner.

In step 6), after the controller controls the vertical pipe 300 to move upwards and reset, the motor 400 drives the residual liquid recoverer 402 to rotate horizontally until the liquid injection port of the vertical pipe 300 and the top opening of the recovery cavity 403 are arranged in a vertically aligned manner, and until the vertical pipe 300 moves to the zero-point stop position, the motor 400 controls the residual liquid recoverer 402 to rotate, and the top opening of the recovery cavity 403 of the residual liquid recoverer 402 and the liquid injection port of the vertical pipe 300 are arranged in a deviating manner.

After the vertical pipe 300 finishes injecting liquid into the tank opening, the residual liquid in the vertical pipe 300 can be recovered in the residual liquid recoverer 402 in the process of resetting the vertical pipe 300, so that the dripping phenomenon is avoided, and the problem of environmental pollution is avoided.

In addition, after the vertical pipe 300 is reset, the residual liquid recoverer 402 can also be continuously positioned right below the liquid filling opening to continuously recover the residual liquid of the vertical pipe 300, and in the process of aligning the vertical pipe 300 with the tank opening, until the insertion section 301 of the vertical pipe 300 is inserted into the tank opening, the residual liquid recoverer 402 can be kept positioned right below the liquid filling opening until the next time, the insertion section 301 of the vertical pipe 300 is inserted into the position in the tank opening.

The sealing cap comprises a ring plate 600 connected around the periphery of the vertical pipe 300, the ring plate 600 is provided with a lower end face arranged downwards, and the lower end face of the ring plate 600 is provided with a sealing rubber ring 601 connected around the periphery of the vertical pipe 300; the sealing rubber ring 601 has a sealing surface disposed downward, and the diameter of the sealing surface is gradually reduced along the direction in which the drop tube 300 is inserted into the can opening. Thus, after the insertion section 301 of the drop tube 300 is inserted into the tank opening, the sealing rubber ring 601 of the sealing cap abuts against the tank opening, and the sealing surface of the sealing rubber ring 601 elastically abuts against the periphery of the tank opening, so that the tank opening can be better sealed.

In this embodiment, the periphery of the sealing rubber ring 601 is provided with a plurality of annular grooves 602, the annular groove 602 encircles the periphery of the sealing rubber ring 601 and is arranged, along the axial direction of the vertical pipe 300, a plurality of annular grooves 602 are arranged at intervals in sequence, an annular sheet 603 is formed between adjacent annular grooves 602, thus, after the sealing rubber ring 601 butt is in the tank opening, the periphery of the tank opening is butted with the annular sheet 603, because of the existence of the annular groove 602, the annular sheet 603 is deformed, so that the butt between the sealing rubber ring 601 and the tank opening is stable, meanwhile, the butt positioning can be carried out, and the phenomena such as butt inclination and the like of the vertical pipe 300 are avoided.

The annular sheet 603 is provided with a leakage hole 604, and the leakage hole 604 penetrates through the annular sheet 603 from top to bottom, so that when residual liquid appears in the sealant ring 601, the residual liquid is retained in the annular groove 602 and leaks downwards layer by layer along the leakage hole 604 until finally falling into the residual liquid recoverer 402, thereby avoiding the phenomenon of local residual liquid leakage.

The leakage holes 604 between the adjacent ring-shaped sheets 603 are arranged in a staggered manner from top to bottom, so that the residual liquid can better fall down along the leakage holes 604 of the ring-shaped sheets 603. In this embodiment, in order to better retain the residual liquid in the annular groove 602, thereby ensuring that all the residual liquid can fall down along the drain hole 604, and the annular piece 603 is bent upward and tilted in a direction away from the vertical pipe 300.

In this embodiment, the periphery of vertical pipe 300 is provided with guide ring 606, guide ring 606 encircles the periphery of vertical pipe 300 and arranges, guide ring 606 is located the below of sealed rubber ring 601, guide ring 606 has the last anchor ring face of arranging towards sealed rubber ring 601, go up the anchor ring and be just to arranging with the small opening 604 of guide ring 606 top, the periphery at the top of guide ring 606 is equipped with and caves in inwards and has a plurality of breachs, a plurality of breachs encircle the periphery interval arrangement of vertical pipe 300.

Thus, after the residual liquid leaks downwards layer by layer along the leakage hole 604 of the ring piece 603, the residual liquid falls on the upper ring surface of the guide ring 606, and the residual liquid falls along the gap of the upper ring surface, flows down along the insertion section 301, and falls into the residual liquid recoverer 402.

In this embodiment, the diversion ring 606 is provided with a diversion trench 607 on its periphery, the diversion trench 607 extends along the axial direction of the vertical pipe 300, the top of the diversion trench 607 is communicated with the notch, and the bottom of the diversion trench 607 circulates to the periphery of the vertical pipe 300, so that the residual liquid on the upper ring surface overflows through the notch, flows to the periphery of the vertical pipe 300 along the diversion trench 607, and falls into the residual liquid recoverer 402 along the periphery of the vertical pipe 300.

The diversion trench 607 may be provided in plural, a plurality of diversion trenches 607 are arranged around the periphery of the vertical pipe 300, and a plurality of diversion trenches 607 are arranged corresponding to a plurality of notches respectively.

The upper ring surface is provided with a notch section formed between adjacent notches, a sunken channel is arranged in the notch section, the channel extends between the two notches, and two ends of the channel are respectively communicated to the notches, so that residual liquid on the upper ring surface can flow to the notches conveniently.

Along the direction at the middle part of channel to the both ends of channel, the degree of depth of channel increases gradually, and the raffinate in the channel of being convenient for is drained to the breach.

The above description is only for the purpose of illustrating the preferred embodiments of the present invention and is not to be construed as limiting the utility model, and any modifications, equivalents and improvements made within the spirit and principle of the present invention are intended to be included within the scope of the present invention.

Claims (10)

1. The full-automatic alignment fluid loading and unloading arm is characterized by comprising a video guide system for guiding the tank car to move within the effective movement range of the fluid loading and unloading arm, a camera for identifying a notch on the tank car, a controller and a frame body which is arranged in a hollow manner;

be equipped with vertical movement on the support body and with the perpendicular pipe of fluid pipeline intercommunication, drive the lateral shifting structure of the perpendicular pipe lateral shifting and drive the longitudinal shifting structure of the perpendicular pipe longitudinal shifting, the perpendicular pipe has and arranges down and insert the intraoral male section of groove, the end of male section has toward the intraoral notes liquid mouth that pours into fluid into of groove, the periphery ring of male section is equipped with the sealing cap of sealed notch.

2. The fully automated alignment fluid handling arm of claim 1 wherein a lidar is disposed in said camera and scans a three-dimensional image of the top of said tank car after said drop tube is coaxially disposed with the tank opening and transmits said three-dimensional image to the controller.

3. The full-automatic alignment fluid handling arm of claim 1, wherein an evacuation valve is disposed in the vertical pipe, and when the volume of the fluid injected into the tank port from the vertical pipe meets a set requirement, the controller controls the evacuation valve to blow air from top to bottom, so as to blow the residual fluid in the vertical pipe out of the vertical pipe.

4. The fully automatic alignment fluid handling arm of any of claims 1 to 3 wherein the controller is electrically connected to a safety interlock device, and wherein the controller monitors the status of the safety interlock device during the process of injecting fluid into the tank opening from the drop tube and controls whether the drop tube continues to inject fluid into the tank opening based on a signal from the safety interlock device.

5. The fully automatic aligning fluid handling arm of claim 4 wherein said safety interlock device comprises an electrostatic oil spill protector for monitoring whether static electricity or oil spill is present at the tank opening, a drop tube homing device for monitoring the position of the drop tube, an explosion-proof car stopper, a key manager for monitoring the key start of the tank car, a drop tube connection detector for monitoring the connection state of the drop tube, a human body static electricity discharge alarm for monitoring the static electricity state of people around the tank car, and a voice prompt controller.

6. The fully automatic aligning fluid handling arm of any one of claims 1 to 3 wherein longitudinal guide rails are provided on both sides of the top of the frame body, and the longitudinal moving structure comprises a longitudinal moving arm moving along the longitudinal guide rails, and both ends of the longitudinal moving arm are respectively connected to the longitudinal guide rails; the vertical movement arm is provided with a transverse guide rail, the transverse movement structure comprises a transverse movement head which moves along the transverse guide rail, the upper part of the vertical pipe is connected with a connecting plate, the connecting plate is connected with the transverse movement head, the vertical pipe penetrates through the rack body from top to bottom, and the insertion section of the vertical pipe extends to the lower part of the rack body.

7. The fully automatic aligning fluid handling arm of claim 6 wherein said connecting plate has a plurality of vertically disposed telescoping shafts for driving vertical movement of a drop tube, said plurality of telescoping shafts being disposed around the periphery of said drop tube; the upper end of the telescopic shaft is connected to the connecting plate, and the lower end of the telescopic shaft is connected with the vertical pipe; the vertical displacement sensor 202 is arranged on the connecting plate and used for monitoring vertical movement of the vertical pipe, the upper end of the displacement sensor is connected to the connecting plate, the lower end of the displacement sensor extends downwards and is arranged, and the lower end of the displacement sensor is located above the insertion section.

8. The fully automatic aligning fluid handling arm of claim 7 wherein an outward extending extension plate is disposed on the drop tube, a motor is connected to the extension plate, the motor has a rotating shaft, the rotating shaft is connected to a raffinate recovery device for recovering residual fluid in the drop tube, the raffinate recovery device has a recovery chamber with an open top, the raffinate recovery device is disposed below the liquid injection port of the drop tube, and the controller controls the motor to drive the raffinate recovery device to rotate until the liquid injection port of the drop tube is vertically aligned with the top opening of the recovery chamber or the top opening of the recovery chamber is offset from the liquid injection port of the drop tube.

9. The fully automated alignment fluid handling arm of any of claims 1 to 3 wherein the seal cap comprises a ring plate attached around the periphery of the drop tube, the ring plate having a downwardly disposed lower end surface, the lower end surface of the ring plate being provided with a ring of sealant attached around the periphery of the drop tube; the sealing rubber ring is provided with a sealing surface which is arranged downwards, and the diameter of the sealing surface is gradually reduced along the direction that the vertical pipe is inserted into the tank opening.

10. The fully automated registered fluid handling arm as recited in claim 9, wherein the sealant ring has a plurality of annular grooves disposed around its periphery; the annular grooves are arranged at intervals in sequence along the axial direction of the vertical pipe, and annular sheets are formed between the adjacent annular grooves.

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