Integrated intelligent monitoring barrel cover

By integrating ultrasonic radar sensors, embedded power distribution compartments, charging compartments, and oil pipe diameter reducers into the oil drum lid, the problems of discontinuous liquid level, poor sealing, insufficient adaptability, and inconvenient charging and maintenance in oil drum monitoring systems are solved, achieving efficient liquid level monitoring and equipment protection.

CN223575071UActive Publication Date: 2025-11-21黄雍杰
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Patent Information

Application Number
CN202423241328.0
Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
Filing Date
2024-12-27
Publication Date
2025-11-21
Estimated Expiration
2034-12-27

AI Technical Summary

Technical Problem

Existing oil drum monitoring systems suffer from problems such as discontinuous liquid level monitoring, poor sealing, insufficient compatibility with oil delivery pipes, inadequate oil leakage prevention measures, and inconvenient charging and maintenance, leading to monitoring failure, pollution, and equipment damage.

Method used

The system employs ultrasonic radar sensors for liquid level monitoring, and features an embedded power distribution compartment, a charging bay with waterproof design, and variable diameter oil pipe components and a one-way valve structure to ensure sealing and compatibility, preventing oil leakage and equipment damage.

Benefits of technology

It enables continuous monitoring and early warning of oil tank levels, improves equipment sealing and adaptability, reduces equipment damage and oil leakage, and enhances management efficiency and reliability.

✦ Generated by Eureka AI based on patent content.

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Patent Text Reader

Abstract

The utility model relates to an integrated intelligent monitoring barrel cover which comprises a barrel cover body, an ultrasonic radar sensor and a monitoring terminal body, and the ultrasonic radar sensor is connected with the monitoring terminal body through a communication cable. A power distribution bin with an outward opening is formed in the barrel cover body, the power distribution bin is provided with a first mounting area and a second mounting area, and a sensor mounting hole is formed in the bottom of the second mounting area; the monitoring terminal body is installed in the first installation area, the ultrasonic radar sensor is installed in the second installation area, the lower portion of the ultrasonic radar sensor is arranged on the sensor installation hole in a penetrating mode, and sealing and fixing of the ultrasonic radar sensor are achieved by pouring glue into the second installation area. And a cover plate is mounted on the power distribution bin. According to the utility model, the monitoring terminal main body and the barrel cover are integrally designed, so that the protection performance of the equipment is greatly improved; and meanwhile, the ultrasonic radar sensor is adopted, so that the original single-node monitoring function of the liquid level is improved into a continuous node change monitoring function.
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Description

TECHNICAL FIELD

[0001] The utility model relates to the field of oil drum oil intelligent management equipment, concretely relates to an integrated intelligent monitoring bucket cover. BACKGROUND

[0002] In the traditional oil-water separation oil liquid post-processing application scene, the oil liquid separated by the oil-water separator is discharged into the oil drum. This type of oil drum is usually equipped with an intelligent monitoring bucket cover for monitoring.

[0003] Liquid level monitoring: the existing bucket cover adopts a liquid level float ball switch to determine whether the liquid level reaches the preset height value. When the preset liquid level height is reached, the float ball switch triggers an open or closed signal, which is transmitted to the intelligent monitoring terminal through a communication cable. The intelligent monitoring terminal then feeds back to the information management centralized processing platform through a remote transmission system, thereby realizing the collection and judgment of the corresponding liquid level height when the liquid level height reaches the preset value, determining whether the oil liquid is overflowing, and making a warning judgment.

[0004] However, the float ball switch has a single function of changing the switch trigger signal, lacks continuous monitoring of the continuous change in liquid level height, and cannot obtain real-time liquid level height information. In addition, low temperature or long-term accumulation of impurities can cause the oil liquid to change from a liquid state to a semi-solid state of oil, and the oil in the oil state can seep into the space between the float ball and the float ball rod, causing the resistance between the shaft sleeve and the shaft rod on the inner wall of the float ball switch to increase, the float ball cannot freely slide along the shaft rod in the liquid state, and the switch signal fails and the warning information cannot be transmitted in time.

[0005] Intelligent monitoring terminal installation method: the existing bucket cover installs the intelligent monitoring terminal on the back of the bucket cover by hanging it outside and connecting it with fastening screws. The main body of the intelligent monitoring terminal circuit board is usually wrapped in a protective box such as a distribution box for sealing and protection. The sealing connection between the box and the cover and the connection between the cables often use silicone sealing pads and sealing rings for protection. However, due to long-term temperature changes in the drum and repeated erosion of the oil liquid on the sealing connection part, the sealing protection of the distribution box is easily damaged, causing the main board of the intelligent monitoring terminal to short circuit and the device to burn out due to the infiltration of liquid into the main board.

[0006] Oil pipeline connection method: the existing bucket cover usually has a pre-drilled hole or a pre-fabricated flange hole, and the oil pipeline is inserted into the oil drum through the pre-fabricated hole or connected to the flange hole to form a pipeline passage. However, in actual application scenarios, there are many different specifications and different pipe diameters of oil pipelines. When the pipe diameter is too large, the oil pipeline cannot pass through the pre-fabricated hole or cannot be smoothly connected to the pre-fabricated flange to complete the normal oil transfer process; when the pipe diameter is too small, the gap between the oil pipeline and the pre-fabricated hole increases, and external impurities can easily enter the oil drum through these gaps and contaminate the oil liquid.

[0007] In addition, since the oil pipe extends into the oil drum, there is a lack of effective guide and positioning device, and when the oil pipe extends too long, it will touch the float ball switch due to the unstable direction and position, causing the float ball switch to be stuck and unable to work normally. Or, when the float ball switch is accidentally touched, the float ball will slide due to external force, causing an error trigger signal to be sent. In addition, due to the lack of effective positioning of the oil pipe, there is also a risk that the oil pipe will fall off from the opening of the drum cover during the oil delivery process.

[0008] The working posture of the oil drum: usually the oil drum is placed horizontally on the working plane, but when the oil drum is tilted due to external force, the oil will leak out of the opening of the drum cover due to the lack of oil leakage prevention device of the existing oil drum, causing a large amount of oil loss. At the same time, the tilted oil drum also destroys the preset working condition of the float ball switch, and the oil level cannot rise smoothly to the area where the float ball is located in the normal monitoring state, causing the float ball switch to fail to alarm in time when the oil leaks, and a large amount of lost oil also causes serious pollution to the on-site environment.

[0009] The endurance maintenance of the intelligent monitoring terminal: usually, low-power intelligent monitoring terminals use rechargeable batteries to power to improve the recyclability and maintenance convenience of the equipment. The existing intelligent monitoring terminals are sent to the maintenance site for charging, and the protective shell of the intelligent monitoring terminal needs to be opened manually, the charger is connected to the power supply to recharge the rechargeable battery. However, during the charging process, the mainboard is in an exposed state, which is easy to cause other foreign matters to enter the mainboard area, causing accidental short circuit or damage of the mainboard circuit, and the pulling of the charging cable has the potential risk of being pulled off. In addition, it is time-consuming and laborious to reseal the power distribution box after charging. Practical new type content

[0010] In view of the above problems, the utility model provides an integrated intelligent monitoring drum cover which can effectively monitor the liquid level change in the oil drum.

[0011] To achieve the above purpose, the technical scheme adopted by the utility model is:

[0012] An integrated intelligent monitoring drum cover, which comprises a drum cover body and an oil delivery pipe matching structure arranged on the drum cover body, and further comprises an ultrasonic radar sensor and a monitoring terminal main body, wherein the ultrasonic radar sensor is connected to the monitoring terminal main body through a communication cable;

[0013] An opening outward power distribution bin is formed on the drum cover body, the power distribution bin is provided with a first installation area and a second installation area, and a sensor installation hole is arranged at the bottom of the second installation area; the monitoring terminal main body is installed in the first installation area, the ultrasonic radar sensor is installed in the second installation area, and the lower part of the ultrasonic radar sensor is arranged in the sensor installation hole, and the ultrasonic radar sensor is fixed and sealed by glue filling in the second installation area; a cover plate is installed on the power distribution bin.

[0014] The cover plate is provided with a charging base connected to the monitoring terminal body through a power cable; the cover plate is provided with a charging base compartment, and the bottom of the charging base compartment is provided with a mounting hole; a charging base cover is mounted in the charging base compartment, and the charging base cover comprises a cover body and a cover cap; the cover body is located at the bottom of the charging base compartment, and the charging base is fixed in the mounting hole after passing through the cover body; one end of the charging base provided with a charging port is located in the charging base compartment, and the other end of the charging base provided with a power cable is located in the power distribution compartment; the cover cap is hinged to the cover body and covers the charging base compartment.

[0015] The side wall of the charging base compartment is provided with a half-moon-shaped groove, and the half-moon-shaped groove is away from the hinged position of the cover cap and the cover body.

[0016] The monitoring terminal body is externally provided with a communication antenna, an audible and visual alarm, and a waterproof cable fixing head; the power cable of the charging base and the communication cable of the ultrasonic radar sensor enter the monitoring terminal body through the waterproof cable fixing head and are connected to the corresponding terminal.

[0017] The barrel cover body is further provided with a waterproof groove, which is arranged at the edge of the power distribution compartment and has a ring structure; a cover plate sealing strip is mounted on the waterproof groove.

[0018] A waterproof silica gel plug is detachably mounted on the charging port of the charging base.

[0019] The oil delivery pipe cooperation structure comprises an oil delivery pipe cavity formed on the barrel cover body, a reducing piece, a valve pressing plate, and a one-way valve.

[0020] The upper part of the oil delivery pipe cavity is a pipe mounting cavity, and the lower part is a valve mounting cavity; the bottom of the valve mounting cavity is provided with an oil inlet; the one-way valve is mounted in the valve mounting cavity, and the lower part of the one-way valve extends into the oil inlet; the valve pressing plate is located in the pipe mounting cavity and presses against the upper end of the one-way valve; and the reducing piece is detachably mounted in the pipe mounting cavity.

[0021] The valve pressing plate is provided with a first oil passing hole; the reducing piece comprises an outer pipe, and the outer diameter of the outer pipe is smaller than the inner diameter of the pipe mounting cavity; the upper end of the outer pipe is expanded outward to form a cooperation part connected to the inner side of the pipe mounting cavity; the upper end of the outer pipe is further formed with a hand holding part, and the hand holding part is located inside the cooperation part and has a spacing with the cooperation part.

[0022] The reducing piece further comprises an inner pipe, and the inner pipe is located in the outer pipe and has a spacing with the outer pipe; the bottom end of the outer pipe and the bottom end of the inner pipe are connected through a connecting part, and the connecting part is provided with a second oil passing hole.

[0023] The inner side surface of the top of the outer pipe and the inner side surface of the top of the oil delivery pipe cavity are formed with inclined surfaces; and the upper end of the variable diameter piece is matched with a pipeline dustproof cover.

[0024] The one-way valve comprises an outer shell, a valve arranged in the outer shell and a check spring, the outer shell is provided with an inlet and an outlet, one end of the check spring is abutted at the outlet, the other end is abutted at the lower end of the one-way valve, and the valve is blocked below the inlet.

[0025] After the above scheme is adopted, the utility model has the following beneficial effects:

[0026] Firstly, the barrel cover of the utility model adopts an ultrasonic radar sensor, which can effectively and continuously monitor the liquid level height change of the oil barrel, early warning of liquid overflow and the like.

[0027] Secondly, the utility model is designed with an embedded power distribution bin on the barrel cover, so that the monitoring terminal main body and the ultrasonic radar sensor can be installed in the power distribution bin in an embedded manner and will not be soaked by the oil in the barrel.

[0028] Thirdly, the utility model is also designed with a charging seat bin integrated with the barrel cover, and the charging seat bin is assembled with a charging seat.

[0029] Fourthly, the utility model is designed with an oil delivery pipe cavity and a variable diameter piece detachably installed in the oil delivery pipe cavity, so that the variable diameter piece can be assembled or not to flexibly adapt to oil pipes of different specifications and sizes.

[0030] Five, the oil conveying pipe cavity is provided with a one-way valve, when the oil liquid enters the oil tank from the outside, the oil liquid reaches a certain flow pressure or the gravity of the oil liquid can make the one-way valve open, and the oil liquid flows into the oil tank from the outside smoothly. When the oil liquid flows reversely, the one-way valve is closed under the action of the reverse stopping spring, so that the oil conveying port is effectively blocked to avoid the oil liquid from flowing out from the inside of the oil tank. BRIEF DESCRIPTION OF DRAWINGS

[0031] Figure 1 It is a structural schematic diagram of the utility model;

[0032] Figure 2 It is a power distribution bin structural schematic diagram;

[0033] Figure 3 It is a charging seat structural schematic diagram;

[0034] Figure 4 It is a schematic diagram of the oil conveying pipe matching structure;

[0035] Figure 5 It is a large-diameter oil conveying pipe adaptation structure schematic diagram;

[0036] Figure 6 It is a small-diameter oil conveying pipe adaptation structure schematic diagram.

[0037] Label explanation:

[0038] Bucket cover body 10;

[0039] Power distribution bin 11; first installation area 111; second installation area 112; waterproof groove 113;

[0040] Cover plate 12; cover plate sealing strip 121; charging seat bin 123; mounting hole 124; half-moon-shaped groove 125;

[0041] Oil conveying pipe cavity 13; pipe installation cavity 131; valve installation cavity 132; oil inlet 133; first inclined surface 134;

[0042] Ultrasonic radar sensor 20;

[0043] Monitoring terminal body 30; communication antenna 31; audible and visual alarm 32; waterproof cable fixing head 33;

[0044] Charging seat 40; charging seat shield 41; shield body 411; shield cover 412; waterproof silica gel plug 42;

[0045] Variable diameter piece 50; outer pipe 51; matching part 511; handshake part 512; second inclined surface 513; inner pipe 52; connecting part 53; second oil passing hole 531; pipeline dust cover 54;

[0046] Valve pressing plate 60; first oil passing hole 61;

[0047] One-way valve 70; housing 71; valve 72; check spring 73;

[0048] Barrel body 80. Detailed Implementation

[0049] like Figure 1 As shown, this utility model discloses an integrated intelligent monitoring barrel lid, which includes a barrel lid body 10, an oil delivery pipe fitting structure disposed on the barrel lid body 10, an ultrasonic radar sensor 20, and a monitoring terminal body 30. The ultrasonic radar sensor 20 is connected to the monitoring terminal body 30 via a communication cable. In use, the integrated intelligent monitoring barrel lid of this utility model is closed onto the barrel body using a sealing gasket.

[0050] Combination Figure 1 and Figure 2 As shown, a power distribution compartment 11 with an outward opening is formed on the barrel lid body 10. The power distribution compartment 11 has a first mounting area 111 for mounting the monitoring terminal body 30 and a second mounting area 112 for mounting the ultrasonic radar sensor 20. The bottom of the second mounting area 112 has a sensor mounting hole, on which the ultrasonic radar sensor 20 is mounted and sealed and fixed by applying glue to the second mounting area 112. A cover plate 12 is installed on the power distribution compartment 11. A charging base 40 is installed on the cover plate 12, and the charging base 40 is connected to the monitoring terminal body 30 through a power supply cable.

[0051] The lid of this invention uses an ultrasonic radar sensor 20, which can effectively and continuously monitor changes in the liquid level of oil drums and provide early warnings of liquid overflow. Simultaneously, when the drum is tilted, monitoring the ultrasonic radar sensor 20 for jump signals can determine whether the oil drum is in an abnormal operating position. Alarm information can be quickly fed back to the digital management backend based on the jump signal, allowing the backend to notify maintenance personnel to promptly address the abnormal operating status of the oil drum.

[0052] Furthermore, this invention incorporates an embedded power distribution compartment 11 on the barrel lid, allowing the monitoring terminal and ultrasonic radar sensor 20 to be installed within the compartment without being submerged in the oil inside the barrel. Sealing with sealant in the second mounting area 112 corresponding to the ultrasonic radar sensor 20 effectively creates a protective seal, preventing oil from entering the power distribution compartment 11 from inside the barrel.

[0053] The lid body 10 is also provided with a waterproof groove 113, which is located at the edge of the power distribution compartment 11 and has a ring structure. A cover sealing strip 121 is installed on the waterproof groove 113. This utility model provides a cover plate 12 on the upper part of the power distribution compartment 11, which can prevent liquid from entering the power distribution compartment 11 from the external environment. At the same time, by setting the waterproof groove 113 and the cover sealing strip 121, it is more effective to prevent liquid from entering the power distribution compartment 11 from the outside.

[0054] This utility model also features a charging compartment 123 integrated with the bucket lid. The charging compartment 123 is equipped with a charging base 40, which allows for rapid charging of the rechargeable battery without removing the protective shell of the monitoring terminal or pulling the cable.

[0055] like Figure 3 As shown, a charging base 40 is mounted on the cover plate 12, and the charging base 40 is connected to the monitoring terminal body 30 via a power supply cable. A charging compartment 123 is provided on the cover plate 12, and a mounting hole 124 is provided at the bottom of the charging compartment 123. A charging base cover 41 is installed inside the charging compartment 123. The charging base cover 41 includes a cover body 411 and a cover cover 412. The cover body 411 is located at the bottom of the charging compartment, and the charging base 40 passes through the cover body 411 and is fixed in the mounting hole 124. One end of the charging base 40 with a charging port is located inside the charging compartment 123, and the other end with a power supply cable is located inside the power distribution compartment 11. The cover cover 412 is hinged to the cover body 411 and movably covers the charging compartment 123. A waterproof silicone plug 42 is detachably installed on the charging port of the charging base 40. In this utility model, the charging base 40 is designed with an independent protective cover and the charging port is equipped with a waterproof silicone plug 42, which can effectively improve the sealing and protection performance of the charging port.

[0056] To facilitate quick and easy opening of the charging base cover 41 when charging is needed, the side wall of the charging base compartment 123 of this invention is provided with an ergonomically designed crescent-shaped groove 125 to avoid finger movement. This crescent-shaped groove 125 is located away from the hinge point between the cover 412 and the cover body 411. The crescent-shaped groove 125 allows for flexible finger operation when opening or closing the cover, enabling quick maintenance of the device. When maintenance is complete and charging is not required, a matching waterproof silicone plug 42 is fitted at the charging port, providing a good seal and protection. Combined with the charging base cover 41, this provides double protection, better preventing malfunctions caused by external liquids entering the circuitry during use.

[0057] A communication antenna 31, an audible and light alarm 32 and a waterproof cable fixing head 33 are installed on the monitoring terminal body 30, and the power supply cable of the charging seat 40 and the communication cable of the ultrasonic radar sensor 20 enter the monitoring terminal body 30 through the waterproof cable fixing head 33 and are connected with corresponding terminal connectors. The audible and light alarm 32 can be used for alarming when an abnormality occurs. The waterproof cable fixing head 33 is used for preventing liquid from entering the monitoring terminal body 30.

[0058] For different pipe diameters of the oil conveying pipe, an integrated pipeline cavity is designed on the bucket cover, and the pipeline cavity is provided with a reserved connecting thread of the butt joint reducing piece 50, so that different specifications of the oil pipe can be matched by assembling or not assembling the pipeline cavity reducing piece 50.

[0059] As shown in Figure 4 The oil conveying pipe matching structure comprises an oil conveying pipe cavity 13 formed on the bucket cover body 10, a reducing piece 50, a valve pressing plate 60 and a one-way valve 70. The upper part of the oil conveying pipe cavity 13 is a pipe mounting cavity 131, and the lower part is a valve mounting cavity 132, and the bottom of the valve mounting cavity 132 is provided with an oil inlet 133. The one-way valve 70 is installed in the valve mounting cavity 132, and the lower part of the one-way valve 70 extends into the oil inlet 133. The valve pressing plate 60 is located in the pipe mounting cavity 131 and presses against the upper end of the one-way valve 70. The reducing piece 50 is detachably installed in the pipe mounting cavity 131. The valve pressing plate 60 is provided with a first oil passing hole 61. The reducing piece 50 comprises an outer pipe 51, and the outer diameter of the outer pipe 51 is smaller than the inner diameter of the pipe mounting cavity 131. The upper end of the outer pipe 51 is expanded outwardly and forms a matching part 511 connected with the inner side of the pipe mounting cavity 131. The upper end of the outer pipe 51 is also formed with a hand holding part 512, and the hand holding part 512 is located on the inner side of the matching part 511 and is spaced apart from the matching part 511.

[0060] In the utility model, the reducing piece 50 is screwed in the pipe mounting cavity 131. In actual use, the matching part 511 of the reducing piece 50 can be screwed with the upper part of the pipe mounting cavity 131 by rotating the hand holding part 512, so that the reducing piece 50 is installed to a predetermined installation position, and the assembly and disassembly of the reducing piece 50 can be realized without tools. The inner side of the top of the oil conveying pipe cavity 13 is formed with a first inclined surface 134, and the inner side of the top of the outer pipe 51 is formed with a second inclined surface 513, so as to provide guidance for the installation of the oil conveying pipe. The first inclined surface 134 and the second inclined surface 513 also play the role of an oil collecting bin. When the oil conveying pipe is not aligned with the pipeline, the inclined surface of the oil collecting bin can collect the excess oil dripping and flow into the bucket, so as to avoid the accumulation of oil on the top.

[0061] The upper end of the reducing piece 50 is matched with a pipeline dust cover 54. The pipeline dust cover 54 is in interference fit with the matching part 511 and the handshake part 512 of the upper end of the reducing piece 50, so that the pipeline dust cover 54 is reliably installed on the upper end of the reducing piece 50, and foreign matters cannot enter the oil drum during transportation and storage.

[0062] As shown in FIG. 2, when the large-diameter oil pipeline L1 is installed, at this time, the oil pipeline cavity 13 is not installed in the reducing piece 50. The large-diameter oil pipeline L1 is guided into the pipe installation cavity 131 along the inclined surface formed on the inner wall of the pipe installation cavity 131, and when the front end of the oil pipeline reaches the upper end surface of the valve core pressing plate 13, the oil pipeline L1 reaches the predetermined position, thereby effectively positioning the oil pipeline L1. Figure 5 As shown in FIG. 3, when the medium-diameter oil pipeline M2 is installed, at this time, the reducing piece 50 is screwed in the pipe installation cavity 131 through the matched threads. The oil pipeline M2 is guided into the outer pipe 51 of the reducing piece 50 along the inclined surface formed on the outer pipe 51 of the reducing piece 50 and closely abuts the inner wall of the outer pipe 51. When the front end of the oil pipeline M2 reaches the bottom of the reducing piece 50, the oil pipeline reaches the predetermined position, thereby effectively positioning the oil pipeline.

[0063] Figure 6 As shown in FIG. 4, in order to adapt to more-diameter oil pipelines, the reducing piece 50 further comprises an inner pipe 52, which is located in the outer pipe 51 and has a spacing with the outer pipe 51, and the bottom end of the outer pipe 51 and the bottom end of the inner pipe 52 are connected through a connecting part 53, and the connecting part 53 is provided with a second oil passing hole 531.

[0064] When the medium-diameter oil pipeline M1 is installed, at this time, the reducing piece 50 is screwed in the pipe installation cavity 131 through the matched threads. The oil pipeline M1 is guided into the outer pipe 51 of the reducing piece 50 along the inclined surface formed on the outer pipe 51 of the reducing piece and closely abuts the outer wall of the inner pipe 52. When the front end of the oil pipeline M1 reaches the bottom of the reducing piece 50, the oil pipeline reaches the predetermined position, thereby effectively positioning the oil pipeline. When the small-diameter oil pipeline S1 is installed, the small-diameter oil pipeline S1 is guided into the inner pipe 52 along the inclined surface formed on the outer pipe 51. When the front end of the oil pipeline S1 reaches the bottom of the pipeline reducing piece 50, it reaches the predetermined extension position. These large-diameter, medium-diameter and small-diameter oil pipelines can be installed at the corresponding positions of the pipe installation cavity 131, so that the oil pipelines are away from the probe signal acquisition area of the ultrasonic radar sensor 20, and do not affect the normal signal acquisition.

[0065] When the medium-diameter oil pipeline M1 is installed, at this time, the reducing piece 50 is screwed in the pipe installation cavity 131 through the matched threads. The oil pipeline M1 is guided into the outer pipe 51 of the reducing piece 50 along the inclined surface formed on the outer pipe 51 of the reducing piece and closely abuts the outer wall of the inner pipe 52. When the front end of the oil pipeline M1 reaches the bottom of the reducing piece 50, the oil pipeline reaches the predetermined position, thereby effectively positioning the oil pipeline. When the small-diameter oil pipeline S1 is installed, the small-diameter oil pipeline S1 is guided into the inner pipe 52 along the inclined surface formed on the outer pipe 51. When the front end of the oil pipeline S1 reaches the bottom of the pipeline reducing piece 50, it reaches the predetermined extension position. These large-diameter, medium-diameter and small-diameter oil pipelines can be installed at the corresponding positions of the pipe installation cavity 131, so that the oil pipelines are away from the probe signal acquisition area of the ultrasonic radar sensor 20, and do not affect the normal signal acquisition.

[0066] ​The one-way valve 70 comprises a shell 71, a valve 72 arranged in the shell 71 and a check spring 73, the shell 71 is provided with an inlet and an outlet, one end of the check spring 73 abuts at the outlet, the other end abuts at the lower end of the valve 72, and the valve 72 is blocked below the inlet. The utility model discloses a one-way valve 70 is arranged in the pipeline cavity, when the oil liquid enters the oil drum from the outside, the oil liquid reaches certain flow pressure or the oil liquid gravity can make the one-way valve 70 inlet open, and the oil liquid flows from the outside to the oil drum successfully. When the oil liquid flows reversely, the valve 72 closes the inlet under the action of the check spring 73, and the blocking of the oil inlet can be effectively formed to avoid the oil liquid from flowing out from the inside of the oil drum.

[0067] In conclusion, the utility model discloses that the monitoring terminal main part and the bucket cover are designed into integration, which greatly improves the protection performance of the equipment, and the ultrasonic radar sensor 20 can improve the original single node monitoring function of the liquid level to the continuous node change monitoring function. The compatible design of the reducing piece 50 also improves the adaptability of the equipment, can adapt to the unified access of more different sizes of oil pipes in different scenes, and the built-in one-way valve 70 avoids the large flow of oil liquid caused by the overturning of the oil drum. The reserved charging port design can complete the charging of the rechargeable battery without tools, which can greatly save the process of repeated disassembly and assembly of manpower and avoid accidental damage in the maintenance process of the equipment main body and cable. Therefore, the bucket cover of the utility model can realize higher precision signal acquisition in different application scenes, is not affected by environmental changes and can guarantee continuous and normal signal acquisition, the remote transmission system combined with the management platform can process early warning and alarm conditions more timely. Better realize the scene of unattended and real-time monitoring, improve the reliability and management efficiency of oil product management.

[0068] It should be noted that the utility model does not relate to the improvement of computer program related methods, the signal transmission between the ultrasonic sensor and the monitoring terminal main body is realized through the communication cable, and the prior art is adopted, therefore, the case does not expand in detail, in addition, the alarm of the bucket cover can alarm directly through the audible and visual alarm, or can be early warned through the remote transmission system combined with the management platform, and the part of content is same with the prior art, therefore, no detailed elaboration is made.

[0069] The above is only the embodiment of the utility model, and does not limit the technical range of the utility model, therefore, any slight modification, equivalent change and modification made according to the technical essence of the utility model to the above embodiment still belongs to the range of the technical scheme of the utility model.

Claims

1. An integrated intelligent monitoring bucket cover, comprising a bucket cover body and an oil delivery pipe matching structure arranged on the bucket cover body, characterized in that: Also include an ultrasonic radar sensor and monitoring terminal body, the ultrasonic radar sensor is connected through the communication cable monitoring terminal body; The bucket cover body is formed with a power distribution bin opening outward, the power distribution bin is provided with a first installation area and a second installation area, the second installation area is provided with a sensor installation hole; The monitoring terminal body is installed in the first installation area, the ultrasonic radar sensor is installed in the second installation area, and the lower part is arranged in the sensor installation hole, and the ultrasonic radar sensor is sealed and fixed by pouring glue in the second installation area; The power distribution bin is provided with a cover plate.

2. The integrated smart monitoring bucket cover of claim 1, wherein: The cover plate is provided with a charging seat, and the charging seat is connected to the monitoring terminal body through a power supply cable; The cover plate is provided with a charging seat bin, and the bottom of the charging seat bin is provided with a mounting hole; The charging seat bin is provided with a charging seat cover, which comprises a cover body and a cover cap, the cover body is located at the bottom of the charging bin, and the charging seat is fixed in the mounting hole after passing through the cover body, one end of the charging seat provided with the charging port is located in the charging seat bin, and one end of the power supply cable is located in the power distribution bin; The cover cap is hinged to the cover body and covers the charging seat bin.

3. The integrated smart monitoring bucket cover of claim 2, wherein: The side wall of the charging seat bin is provided with a half-moon-shaped groove, which is away from the hinge position of the cover cap and the cover body.

4. The integrated smart monitoring bucket cover of claim 2, wherein: The monitoring terminal body is provided with a communication antenna, an audible and visual alarm and a waterproof cable fixing head, and the power supply cable of the charging seat and the communication cable of the ultrasonic radar sensor are connected to the corresponding terminal through the waterproof cable fixing head.

5. The integrated smart monitoring bucket cover of claim 1, wherein: The bucket cover body is also provided with a waterproof groove, which is arranged at the edge of the power distribution bin and has a ring structure, and a cover plate sealing strip is arranged on the waterproof groove.

6. The integrated smart monitoring bucket cover of claim 2, wherein: The charging port of the charging seat is detachably provided with a waterproof silica gel plug.

7. The integrated smart monitoring bucket cover of claim 1, wherein: The oil delivery pipe cooperation structure comprises an oil delivery pipe cavity formed on the bucket cover body, a reducing piece, a valve pressing plate and a one-way valve; The upper part of the oil delivery pipe cavity is a pipe installation cavity, and the lower part is a valve installation cavity, and the bottom of the valve installation cavity is provided with an oil inlet; The one-way valve is installed in the valve installation cavity, and the lower part of the one-way valve extends in the oil inlet, the valve pressing plate is located in the pipe installation cavity and presses against the upper end of the one-way valve, and the reducing piece is detachably installed in the pipe installation cavity; The valve pressing plate is provided with a first oil passing hole; The reducing piece comprises an outer pipe, and the outer diameter of the outer pipe is smaller than the inner diameter of the pipe installation cavity; The outer pipe is expanded at the upper end and forms a cooperation part connected with the inner side of the pipe installation cavity, and a hand holding part is formed at the upper end of the outer pipe; The hand holding part is located on the inner side of the cooperation part and forms a spacing with the cooperation part.

8. The integrated smart monitoring bucket cover of claim 7, wherein: The reducing piece further comprises an inner pipe, the inner pipe is located in the outer pipe, and there is a spacing between the inner pipe and the outer pipe, the bottom end of the outer pipe and the bottom end of the inner pipe are connected through a connecting part, and the connecting part is provided with a second oil passing hole.

9. The integrated smart monitoring bucket cover of claim 7, wherein: The inner side of the top of the outer pipe and the inner side of the top of the oil delivery pipe cavity are formed with inclined surfaces; The upper end of the reducing piece is matched with a pipeline dust cover. The monitoring terminal body is provided with a communication antenna, an audible and visual alarm and a waterproof cable fixing head, and the power supply cable of the charging seat and the communication cable of the ultrasonic radar sensor are connected to the corresponding terminal through the waterproof cable fixing head. The bucket cover body is also provided with a waterproof groove, which is arranged at the edge of the power distribution bin and has a ring structure, and a cover plate sealing strip is arranged on the waterproof groove. The charging port of the charging seat is detachably provided with a waterproof silica gel plug. The oil delivery pipe cooperation structure comprises an oil delivery pipe cavity formed on the bucket cover body, a reducing piece, a valve pressing plate and a one-way valve; The upper part of the oil delivery pipe cavity is a pipe installation cavity, and the lower part is a valve installation cavity, and the bottom of the valve installation cavity is provided with an oil inlet; The one-way valve is installed in the valve installation cavity, and the lower part of the one-way valve extends in the oil inlet, the valve pressing plate is located in the pipe installation cavity and presses against the upper end of the one-way valve, and the reducing piece is detachably installed in the pipe installation cavity; The valve pressing plate is provided with a first oil passing hole; The reducing piece comprises an outer pipe, and the outer diameter of the outer pipe is smaller than the inner diameter of the pipe installation cavity; The outer pipe is expanded at the upper end and forms a cooperation part connected with the inner side of the pipe installation cavity, and a hand holding part is formed at the upper end of the outer pipe; The hand holding part is located on the inner side of the cooperation part and forms a spacing with the cooperation part. The reducing piece further comprises an inner pipe, the inner pipe is located in the outer pipe, and there is a spacing between the inner pipe and the outer pipe, the bottom end of the outer pipe and the bottom end of the inner pipe are connected through a connecting part, and the connecting part is provided with a second oil passing hole.

10. The integrated smart monitoring bucket cover of claim 7, wherein: The one-way valve comprises a housing, a valve and a check spring, the housing is provided with an inlet and an outlet, one end of the check spring abuts against the outlet, the other end abuts against the lower end of the one-way valve, and the valve is blocked below the inlet.