Siphon type oil well pump based on artificial intelligence and control system thereof

Abstract

The invention belongs to the technical field of siphoning type oil well pump control, and relates to a siphoning type oil well pump based on artificial intelligence and a control system of the siphoning type oil well pump. According to the method, the starting and stopping requirements of the target siphon type oil well pump are judged and controlled, so that the starting and stopping requirements of the oil well pump can be accurately judged, unnecessary energy waste is avoided, the waiting time is shortened, and the operation efficiency is improved; the occurrence of unsafe accidents caused by negligence or misjudgment of manual inspection and start-stop operation is also avoided, and by analyzing the pressure modification demand evaluation index, the rotating speed modification demand evaluation index and the valve opening modification demand evaluation index of the target siphonic oil well pump and judging the corresponding modification demands, the target siphonic oil well pump can be accurately modified. The current operation state and performance of the oil well pump can be accurately evaluated, it is ensured that the oil well pump operates under the optimal working condition, therefore, the operation efficiency is improved, energy waste is reduced, and potential safety hazards can be found in time.

Description

Technical Field

[0001] The invention belongs to the technical field of siphon oil pump control, and relates to a siphon oil pump based on artificial intelligence and a control system thereof. Background Art

[0002] The siphon oil pump mainly works on the siphon principle. Its basic principle is to build a pipe filled with liquid above the liquid surface. When one end of the pipe is inserted below the liquid surface, the liquid will automatically rise along the pipe due to the atmospheric pressure until it reaches the other end of the pipe. In the existing diesel transportation process, due to the limited suction range of the oil pump, it is impossible to suck diesel from a distant oil tank. Therefore, the control system for the siphon oil pump is of great significance and role.

[0003] During use, traditional siphon oil pumps may have some problems such as the pump efficiency is greatly affected by factors such as liquid properties, pipeline length, diameter, etc., and traditional siphon oil pumps cannot achieve automatic adjustment and optimization, and thus cannot accurately judge the start and stop needs of the oil pump, cannot avoid unnecessary energy waste, and cannot avoid the occurrence of unsafe accidents caused by negligence or misjudgment in manual inspections and start and stop operations. Summary of the invention

[0004] In view of this, in order to solve the problems raised in the above background technology, a siphon oil pump based on artificial intelligence and a control system thereof are proposed.

[0005] The purpose of the present invention can be achieved through the following technical solutions: The present invention provides a siphon oil pump based on artificial intelligence and its control system, including: the oil pump includes a pump body and a power drive module, the pump body is provided with a pump barrel, a piston moving up and down is installed in the pump barrel, and the pump body is provided with an oil inlet and an oil outlet. The power drive module is composed of a transmission mechanism and an electric motor, and the transmission mechanism is connected to the electric motor and the piston respectively.

[0006] The oil suction pump also includes a control system, which includes: an oil tank liquid level analysis module, an oil pump start and stop terminal, an oil pump data detection module, an oil pump data analysis module, a control terminal and a cloud database.

[0007] The oil tank level analysis module is used to record the oil tank where the target siphon oil pump is located as the target oil tank, and further perform real-time detection on it to obtain the oil level of the target oil tank, and then determine the start and stop requirements of the target siphon oil pump. If it is a start requirement or a stop requirement, the oil pump start and stop terminal is executed, otherwise, the oil pump data detection module is executed.

[0008] The oil pump start-stop terminal is used to automatically start or stop the target siphon oil pump.

[0009] The oil pump data detection module is used to perform real-time detection on the target siphon oil pump during operation, and obtain the operation detection data and delivery detection data of the target siphon oil pump.

[0010] The oil pump data analysis module is used to analyze the pressure modification demand evaluation index, speed modification demand evaluation index and valve opening modification demand evaluation index of the target siphon oil pump, and determine the pressure modification demand, speed modification demand and valve opening modification demand of the target siphon oil pump.

[0011] The control terminal is used to control the pressure, speed and valve opening of the target siphon oil pump.

[0012] The cloud database is used to store the maximum value of the low oil level and the minimum value of the high oil level of the target siphon oil pump, store the standard outlet pressure, standard pump speed and standard valve opening corresponding to each conveying distance, and store the reference conveying flow corresponding to each valve opening.

[0013] Compared with the prior art, the beneficial effects of the present invention are as follows: 1. The present invention obtains the oil level of the target oil tank, and then determines the start and stop requirements of the target siphon oil pump and controls it, which is conducive to accurately determining the start and stop requirements of the oil pump, avoiding unnecessary energy waste, reducing waiting time, improving operating efficiency, and avoiding the occurrence of unsafe accidents caused by negligence or misjudgment in manual inspections and start and stop operations.

[0014] 2. The present invention analyzes the pressure modification requirement evaluation index, speed modification requirement evaluation index and valve opening modification requirement evaluation index of the target siphon oil pump, and determines the pressure modification requirement, speed modification requirement and valve opening modification requirement of the target siphon oil pump, which helps to accurately evaluate the current operating status and performance of the oil pump, and adjusts the pressure, speed and valve opening according to the evaluation results, ensuring that the oil pump operates under the optimal working conditions, thereby improving operating efficiency, reducing energy waste, and is also conducive to timely discovering potential safety hazards, preventing the occurrence of safety accidents, and ensuring production safety. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0016] Figure 1 It is a schematic diagram of system module connection of the present invention.

[0017] Figure 2 It is a schematic diagram of the module steps of the present invention. DETAILED DESCRIPTION

[0018] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0019] See also Figure 1 As shown, the present invention provides a siphon oil pump based on artificial intelligence and its control system, and the specific modules are distributed as follows: the oil pump includes a pump body and a power drive module, a pump barrel is arranged inside the pump body, a piston moving up and down is installed in the pump barrel, and the pump body is respectively provided with an oil inlet and an oil outlet. The power drive module is composed of a transmission mechanism and an electric motor, and the transmission mechanism is connected to the electric motor and the piston respectively.

[0020] The oil suction pump also includes a control system, which includes: an oil tank level analysis module, an oil pump start-stop terminal, an oil pump data detection module, an oil pump data analysis module, a control terminal and a cloud database. The modules are connected in the following manner: the oil tank level analysis module is distributedly connected to the oil pump start-stop terminal and the oil pump data detection module, the oil pump start-stop terminal is connected to the oil pump data detection module, the oil pump data detection module is connected to the oil pump data analysis module, the oil pump data analysis module is respectively connected to the control terminal and the oil tank level analysis module, and the cloud database is respectively connected to the oil tank level analysis module and the oil pump data analysis module.

[0021] It needs to be further explained that the schematic diagram of the module step implementation is as follows Figure 2 shown.

[0022] The oil tank level analysis module is used to record the oil tank where the target siphon oil pump is located as the target oil tank, and further perform real-time detection on it to obtain the oil level of the target oil tank, and then determine the start and stop requirements of the target siphon oil pump. If it is a start requirement or a stop requirement, the oil pump start and stop terminal is executed, otherwise, the oil pump data detection module is executed.

[0023] It needs to be further explained that the specific method of obtaining the oil level of the target oil tank is: using the deployed level sensor to directly measure the oil level of the target oil tank.

[0024] As a preferred feasibility example, the start-stop demand of the target siphon oil pump is specifically determined by: extracting the oil level Level of the target oil tank, analyzing the start-stop feedback coefficient of the target siphon oil pump Level1 and Level2 are the maximum value of the low oil level and the minimum value of the high oil level of the target siphon oil pump extracted from the cloud database.

[0025] If the start-stop feedback coefficient of the target siphon pump is 1, the start-stop demand of the target siphon pump is recorded as the start demand. When , the start-stop demand of the target siphon oil pump is recorded as no need to start demand and no need to stop demand; if the start-stop feedback coefficient of the target siphon oil pump is 0, the start-stop demand of the target siphon oil pump is recorded as need to stop demand.

[0026] It needs to be further explained that when the start and stop requirements of the target siphon oil pump are recorded as no start requirement and no stop requirement, it means that if the current state of the target siphon oil pump is the start state, there is no need to stop it, that is, it continues to remain in the start state; if the current state of the target siphon oil pump is the stop state, there is no need to start it, that is, it continues to remain in the stop state.

[0027] The oil pump start-stop terminal is used to automatically start or stop the target siphon oil pump.

[0028] As a preferred feasibility example, the specific content of automatically starting or automatically stopping the target siphon oil pump includes: the oil pump start-stop terminal receives the start signal or stop signal of the target siphon oil pump, and if it is a start signal, the electrical circuit of the target siphon oil pump is controlled to be connected, and the target siphon oil pump is started. After the target siphon oil pump is started, diesel is started to be extracted from the low-level oil tank and transported to the high-level oil pump.

[0029] If it is a stop signal, the electrical circuit controlling the target siphon oil pump is disconnected, and the target siphon oil pump is stopped. After the target siphon oil pump stops, the diesel is stopped from being pumped from the low-level oil tank, and the next start signal is waited for.

[0030] The present invention obtains the oil level of the target oil tank, thereby determining the start and stop requirements of the target siphon oil pump and controlling it, which is beneficial to accurately determine the start and stop requirements of the oil pump, avoids unnecessary energy waste, reduces waiting time, improves operating efficiency, and avoids the occurrence of unsafe accidents caused by negligence or misjudgment in manual inspections and start and stop operations.

[0031] The oil pump data detection module is used to perform real-time detection on the target siphon oil pump during operation, and obtain the operation detection data and delivery detection data of the target siphon oil pump.

[0032] As a preferred feasibility example, the operation detection data of the target siphon oil pump includes delivery distance, pump speed, outlet pressure and valve opening.

[0033] It should be further explained that the reasons for using the delivery distance, pump speed, outlet pressure and valve opening as the target siphon pump operation test data are: (1) The delivery distance refers to the distance from the low-level oil tank to the high-level oil pump. The length of the delivery distance directly affects the energy consumption and delivery efficiency of the oil pump. A longer delivery distance means higher energy consumption requirements and more stringent pumping performance requirements.

[0034] (2) Pump speed refers to the number of times the oil well pump rotates per minute. Pump speed is one of the key parameters of oil well pump performance, which directly affects the flow rate and head of the pump. Changes in speed will lead to significant changes in pumping capacity.

[0035] (3) The outlet pressure refers to the pressure at the outlet of the oil well pump. The outlet pressure is an important indicator of the pumping capacity of the oil well pump. By monitoring the outlet pressure, we can intuitively understand the working status and delivery efficiency of the pump.

[0036] (4) Valve opening refers to the degree to which the valve is open, usually expressed as a percentage. Valve opening is an important means of controlling the flow and pressure of the oil well pump. By adjusting the valve opening, precise control of flow and pressure can be achieved to meet different delivery requirements.

[0037] It needs to be further explained that the specific method of obtaining the delivery distance, pump speed, outlet pressure and valve opening of the target siphon oil pump is: using a laser rangefinder to directly measure the distance from the low-level oil tank to the high-level oil pump, and record it as the delivery distance of the target siphon oil pump.

[0038] The target siphon oil pump is measured by using the deployed speed sensor to obtain the pump speed of the target siphon oil pump.

[0039] The outlet pressure of the target siphon oil pump is obtained by measuring the outlet pressure of the target siphon oil pump using the arranged pressure sensor at the outlet of the target siphon oil pump.

[0040] The valve opening of the target siphon oil pump is directly extracted from the control platform of the target siphon oil pump.

[0041] The delivery detection data of the target siphon oil pump includes a delivery speed and a delivery flow rate of the delivered object.

[0042] It should be further explained that the reasons for using the conveying speed and conveying flow rate of the conveyed material as the target siphon oil pump's conveying detection data are: (1) The conveying speed refers to the average speed of the fluid in the pipeline. It directly reflects the oil pump's ability to push the conveyed material. A faster conveying speed means that the oil pump has a stronger pumping capacity and higher working efficiency. By monitoring the conveying speed, the current working status and performance of the oil pump can be intuitively understood.

[0043] (2) Delivery flow refers to the amount of fluid that passes through the cross-sectional area of ​​the pipeline per unit time. The size of the flow is directly related to the delivery capacity of the oil pump and the production efficiency of the system. By monitoring the flow, it can be ensured that the transported material is transported at the predetermined speed and volume to meet the production or use requirements.

[0044] It needs to be further explained that the specific method of obtaining the delivery speed and delivery flow rate of the delivery object of the target siphon oil pump is: using the deployed flow meter to directly measure the delivery flow rate of the delivery object of the target siphon oil pump.

[0045] The delivery flow rate of the object delivered by the target siphon oil pump within the set time period is further recorded, and the flow rate is divided by the set time period, and the quotient is recorded as the delivery speed of the object delivered by the target siphon oil pump.

[0046] The oil pump data analysis module is used to analyze the pressure modification demand evaluation index, speed modification demand evaluation index and valve opening modification demand evaluation index of the target siphon oil pump, and determine the pressure modification demand, speed modification demand and valve opening modification demand of the target siphon oil pump.

[0047] As a preferred feasibility example, the pressure modification requirement evaluation index of the target siphon oil pump, its specific analysis method includes: extracting the delivery distance of the target siphon oil pump, matching it with the standard outlet pressure corresponding to each delivery distance stored in the cloud database, and obtaining the standard outlet pressure corresponding to the delivery distance of the target siphon oil pump.

[0048] Extract the outlet pressure of the target siphon oil pump.

[0049] Analyze the pressure modification demand evaluation index of the target siphon oil well pump Wherein Force is the outlet pressure of the target siphon oil pump, and Force0 is the standard outlet pressure corresponding to the delivery distance of the target siphon oil pump.

[0050] As a preferred feasibility example, the speed modification demand evaluation index of the target siphon oil pump, the specific analysis method includes: extracting the delivery distance of the target siphon oil pump, matching it with the standard pump speeds corresponding to each delivery distance stored in the cloud database, and obtaining the standard pump speed corresponding to the delivery distance of the target siphon oil pump.

[0051] The pump speed of the target siphon oil pump and the delivery speed of the delivered material are extracted.

[0052] Analyze the target siphon oil pump speed modification demand evaluation index Wherein V0, V, V′ are the standard pump speed corresponding to the delivery distance of the target siphon oil pump and the pump speed of the target siphon oil pump and the delivery speed of its delivery material, respectively, and ΔV0 is the allowable difference between the set pump speed of the target siphon oil pump and the delivery speed of its delivery material.

[0053] It should be further explained that the allowable difference between the set target pump speed of the siphon oil pump and the conveying speed of its conveyed goods can be 0.01m / s, which means that there is a 1% error allowed between the target pump speed of the siphon oil pump and the conveying speed of its conveyed goods.

[0054] As a preferred feasibility example, the valve opening modification demand evaluation index of the target siphon oil pump, the specific analysis method includes: extracting the delivery distance of the target siphon oil pump, matching it with the standard valve opening corresponding to each delivery distance stored in the cloud database, and obtaining the standard valve opening corresponding to the delivery distance of the target siphon oil pump.

[0055] The delivery flow rate of the target siphon oil pump is extracted, and matched with the reference delivery flow rate corresponding to each valve opening stored in the database to obtain the valve opening corresponding to the delivery flow rate of the target siphon oil pump.

[0056] Extract the valve opening of the target siphon oil pump.

[0057] Analyze the target siphon oil pump valve opening modification demand evaluation index Wherein VO0 is the standard valve opening corresponding to the delivery distance of the target siphon oil pump, VO is the valve opening of the target siphon oil pump, VO′ is the valve opening corresponding to the delivery flow rate of the target siphon oil pump, ΔVO0 is the allowable difference between the valve opening of the set target siphon oil pump and the valve opening corresponding to the delivery flow rate of its delivery, and e is a natural constant.

[0058] It should be further explained that the allowable difference between the set target siphon oil pump valve opening and the valve opening corresponding to the delivery flow rate of its conveyed material can be 0.01%, which means that there is a one percent error allowed between the target siphon oil pump valve opening and the valve opening corresponding to the delivery flow rate of its conveyed material.

[0059] As a preferred feasibility example, the pressure modification requirement, speed modification requirement and valve opening modification requirement of the target siphon oil pump, the specific judgment method includes: extracting the pressure modification requirement evaluation index of the target siphon oil pump, and comparing it with the preset pressure modification requirement evaluation index threshold; if the pressure modification requirement evaluation index of the target siphon oil pump is greater than the pressure modification requirement evaluation index threshold, then the pressure modification requirement of the target siphon oil pump is recorded as a pressure modification requirement, and the control terminal is executed; otherwise, the pressure modification requirement of the target siphon oil pump is recorded as a pressure modification requirement, and the oil tank liquid level analysis module is executed.

[0060] The speed modification requirement evaluation index and valve opening modification requirement evaluation index of the target siphon oil pump are extracted. Similarly, the speed modification requirement and valve opening modification requirement of the target siphon oil pump can be obtained. If the speed needs to be modified or the valve opening needs to be modified, the control terminal is executed. If the speed does not need to be modified or the valve opening does not need to be modified, the oil tank level analysis module is executed.

[0061] It needs to be further explained that the specific process of obtaining the speed modification demand and valve opening modification demand of the target siphon oil pump can be obtained by the same token: the speed modification demand evaluation index of the target siphon oil pump is compared with the preset speed modification demand evaluation index threshold. If the speed modification demand evaluation index of the target siphon oil pump is greater than the speed modification demand evaluation index threshold, the speed modification demand of the target siphon oil pump is recorded as a speed modification demand; otherwise, the speed modification demand of the target siphon oil pump is recorded as a speed modification demand that does not require modification.

[0062] The valve opening modification requirement evaluation index of the target siphon oil pump is compared with the preset valve opening modification requirement evaluation index threshold. If the valve opening modification requirement evaluation index of the target siphon oil pump is greater than the valve opening modification requirement evaluation index threshold, the valve opening modification requirement of the target siphon oil pump is recorded as the valve opening modification requirement; otherwise, the valve opening modification requirement of the target siphon oil pump is recorded as the valve opening no modification requirement.

[0063] The control terminal is used to control the pressure, speed and valve opening of the target siphon oil pump.

[0064] As a preferred feasibility example, the specific operation of controlling the pressure of the target siphon oil pump includes: subtracting the outlet pressure of the target siphon oil pump from the standard outlet pressure corresponding to the delivery distance of the target siphon oil pump to obtain the difference between the outlet pressure of the target siphon oil pump and the standard outlet pressure corresponding to the delivery distance; if the difference is greater than 0, reducing the opening of the water inlet valve of the siphon tank to which the target siphon oil pump belongs; if the difference is less than 0, increasing the opening of the water inlet valve of the siphon tank to which the target siphon oil pump belongs.

[0065] As a preferred feasibility example, the specific operations for controlling the rotational speed and valve opening of the target siphon oil pump include: subtracting a standard pump rotational speed corresponding to the delivery distance of the target siphon oil pump from its pump rotational speed to obtain a difference ΔV1 between the standard pump rotational speed corresponding to the delivery distance of the target siphon oil pump and the pump rotational speed; subtracting the pump rotational speed of the target siphon oil pump from the delivery speed of the object it delivers to obtain a difference ΔV2 between the pump rotational speed of the target siphon oil pump and the delivery speed of the object it delivers.

[0066] The rotation speed of the target siphon oil pump is further controlled according to a predefined principle.

[0067] It needs to be further explained that the specific content of the predefined principle for controlling the speed of the target siphon oil pump is: if ΔV1≠0 and ΔV2=0, it means that there is a deviation between the standard pump speed corresponding to the delivery distance of the target siphon oil pump and its pump speed, and then the pump speed of the target siphon oil pump is modified to the standard pump speed.

[0068] If ΔV1≠0 and ΔV2≠0, it means that there are deviations between the standard pump speed corresponding to the delivery distance of the target siphon oil pump and its pump speed, as well as between the pump speed of the target siphon oil pump and the delivery speed of the delivered object. Then the pump speed of the target siphon oil pump is modified, and the delivery speed of the delivered object of the target siphon oil pump is monitored in real time during the modification process, so that the delivery speed of the delivered object of the target siphon oil pump is consistent with its standard pump speed.

[0069] If ΔV1=0 and ΔV2≠0, it means that there is a deviation between the pump speed of the target siphon oil pump and the conveying speed of its conveyed material, and then the pump speed of the target siphon oil pump is modified, and the conveying speed of the target siphon oil pump is monitored in real time during the modification process, so that the conveying speed of the target siphon oil pump is consistent with its standard pump speed.

[0070] Similarly, the valve opening of the target siphon oil pump can be controlled.

[0071] It needs to be further explained that the specific operations for controlling the valve opening of the target siphon oil pump by the same logic include: subtracting the standard valve opening corresponding to the delivery distance of the target siphon oil pump from its valve opening to obtain the difference ΔVO1 between the standard valve opening corresponding to the delivery distance of the target siphon oil pump and its valve opening; subtracting the valve opening of the target siphon oil pump from the valve opening corresponding to the delivery flow rate of the delivered material to obtain the difference ΔVO2 between the valve opening of the target siphon oil pump and the valve opening corresponding to the delivery flow rate of the delivered material.

[0072] If ΔVO1≠0 and ΔVO2=0, it means that there is a deviation between the standard valve opening corresponding to the delivery distance of the target siphon oil pump and its valve opening, and then the valve opening of the target siphon oil pump is modified to the standard valve opening.

[0073] If ΔVO1≠0 and ΔVO2≠0, it means that there are deviations between the standard valve opening corresponding to the delivery distance of the target siphon oil pump and its valve opening, and between the valve opening of the target siphon oil pump and the valve opening corresponding to the delivery flow rate of the delivered material. Then, the valve opening of the target siphon oil pump is modified, and the delivery flow rate of the delivered material of the target siphon oil pump is monitored in real time during the modification process, and the valve opening corresponding to the delivery flow rate of the delivered material of the target siphon oil pump is obtained, so that the valve opening corresponding to the delivery flow rate of the delivered material of the target siphon oil pump is consistent with its standard valve opening.

[0074] If ΔV1=0 and ΔV2≠0, it means that there is a deviation between the valve opening of the target siphon oil pump and the valve opening corresponding to the delivery flow rate of the transported material, and then the valve opening of the target siphon oil pump is modified, and the delivery flow rate of the transported material of the target siphon oil pump is monitored in real time during the modification process, and the valve opening corresponding to the delivery flow rate of the transported material of the target siphon oil pump is obtained, so that the valve opening corresponding to the delivery flow rate of the transported material of the target siphon oil pump is consistent with its standard valve opening.

[0075] The cloud database is used to store the maximum value of the low oil level and the minimum value of the high oil level of the target siphon oil pump, store the standard outlet pressure, standard pump speed and standard valve opening corresponding to each conveying distance, and store the reference conveying flow corresponding to each valve opening.

[0076] The present invention helps to accurately evaluate the current operating status and performance of the oil pump by analyzing the pressure modification demand evaluation index, the speed modification demand evaluation index and the valve opening modification demand evaluation index of the target siphon oil pump, and judging the pressure modification demand, the speed modification demand and the valve opening modification demand of the target siphon oil pump, and adjusts the pressure, speed and valve opening according to the evaluation results, thereby ensuring that the oil pump operates under the optimal working conditions, thereby improving the operating efficiency, reducing energy waste, and also facilitating the timely discovery of potential safety hazards, preventing the occurrence of safety accidents, and ensuring production safety.

[0077] The above contents are merely examples and explanations of the concept of the present invention. Those skilled in the art may make various modifications or additions to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the concept of the invention or exceed the scope defined by the present invention, they shall all fall within the protection scope of the present invention.

Claims

1. A siphon oil pump based on artificial intelligence, characterized in that: The oil pump comprises a pump body and a power drive module, wherein a pump barrel is arranged inside the pump body, a piston moving up and down is installed inside the pump barrel, and the pump body is respectively provided with an oil inlet and an oil outlet; the power drive module is composed of a transmission mechanism and an electric motor, and the transmission mechanism is respectively connected to the electric motor and the piston; The oil suction pump also includes a control system, which includes: The oil tank level analysis module is used to record the oil tank where the target siphon oil pump is located as the target oil tank, further perform real-time detection on it, obtain the oil level of the target oil tank, and then determine the start and stop requirements of the target siphon oil pump. If it is a start requirement or a stop requirement, the oil pump start and stop terminal is executed, otherwise, the oil pump data detection module is executed; The oil pump start-stop terminal is used to automatically start or stop the target siphon oil pump; The oil pump data detection module is used to perform real-time detection on the target siphon oil pump during operation, and obtain the operation detection data and delivery detection data of the target siphon oil pump; The oil pump data analysis module is used to analyze the pressure modification demand evaluation index, the speed modification demand evaluation index and the valve opening modification demand evaluation index of the target siphon oil pump, and determine the pressure modification demand, the speed modification demand and the valve opening modification demand of the target siphon oil pump; A control terminal for controlling the pressure, speed and valve opening of a target siphon oil pump; The cloud database is used to store the maximum value of the low oil level and the minimum value of the high oil level of the target siphon oil pump, store the standard outlet pressure, standard pump speed and standard valve opening corresponding to each conveying distance, and store the reference conveying flow corresponding to each valve opening.

2. The artificial intelligence-based siphon oil pump and its control system according to claim 1, characterized in that: The specific judgment method of the start and stop demand of the target siphon oil pump includes: Extract the oil level Level of the target oil tank and analyze the start-stop feedback coefficient of the target siphon oil pump Level1 and Level2 are the maximum value of the low oil level and the minimum value of the high oil level of the target siphon oil pump extracted from the cloud database, respectively; If the start-stop feedback coefficient of the target siphon pump is 1, the start-stop demand of the target siphon pump is recorded as the start demand. When , the start-stop demand of the target siphon oil pump is recorded as no need to start demand and no need to stop demand; if the start-stop feedback coefficient of the target siphon oil pump is 0, the start-stop demand of the target siphon oil pump is recorded as need to stop demand.

3. The artificial intelligence-based siphon oil pump and control system thereof according to claim 1, characterized in that: The specific contents of automatically starting or automatically stopping the target siphon oil pump include: The oil pump start-stop terminal receives a start signal or a stop signal of the target siphon oil pump. If it is a start signal, the electrical circuit of the target siphon oil pump is controlled to be connected, and the target siphon oil pump is started. After the target siphon oil pump is started, diesel is pumped from the low-level oil tank and transported to the high-level oil pump. If it is a stop signal, the electrical circuit controlling the target siphon oil pump is disconnected, and the target siphon oil pump is stopped. After the target siphon oil pump stops, the diesel is stopped from being pumped from the low-level oil tank, and the next start signal is waited for.

4. The artificial intelligence-based siphon oil pump and control system thereof according to claim 1, characterized in that: The operation detection data of the target siphon oil pump includes the conveying distance, pump speed, outlet pressure and valve opening; The delivery detection data of the target siphon oil pump includes a delivery speed and a delivery flow rate of the delivered object.

5. The artificial intelligence-based siphon oil pump and control system thereof according to claim 4, characterized in that: The specific analysis method of the pressure modification demand evaluation index of the target siphon oil well pump includes: Extract the delivery distance of the target siphon oil pump, match it with the standard outlet pressure corresponding to each delivery distance stored in the cloud database, and obtain the standard outlet pressure corresponding to the delivery distance of the target siphon oil pump; Extract the outlet pressure of the target siphon oil pump; Analyze the pressure modification demand evaluation index of the target siphon oil well pump Wherein Force is the outlet pressure of the target siphon oil pump, and Force0 is the standard outlet pressure corresponding to the delivery distance of the target siphon oil pump.

6. The artificial intelligence-based siphon oil pump and control system thereof according to claim 5, characterized in that: The speed modification demand evaluation index of the target siphon oil pump includes: Extract the delivery distance of the target siphon oil pump, match it with the standard pump speed corresponding to each delivery distance stored in the cloud database, and obtain the standard pump speed corresponding to the delivery distance of the target siphon oil pump; Extracting the pump speed of the target siphon oil pump and the delivery speed of the delivered material; Analyze the target siphon oil pump speed modification demand evaluation index Wherein V0, V, V′ are the standard pump speed corresponding to the delivery distance of the target siphon oil pump and the pump speed of the target siphon oil pump and the delivery speed of its delivery material, respectively, and ΔV0 is the allowable difference between the set pump speed of the target siphon oil pump and the delivery speed of its delivery material.

7. The artificial intelligence-based siphon oil pump and control system thereof according to claim 6, characterized in that: The specific analysis method of the target siphon oil pump valve opening modification demand evaluation index includes: Extract the delivery distance of the target siphon oil pump, match it with the standard valve opening corresponding to each delivery distance stored in the cloud database, and obtain the standard valve opening corresponding to the delivery distance of the target siphon oil pump; Extracting the delivery flow rate of the object delivered by the target siphon oil pump, matching it with the reference delivery flow rates corresponding to the valve openings stored in the database, and obtaining the valve opening corresponding to the delivery flow rate of the object delivered by the target siphon oil pump; Extract the valve opening of the target siphon oil pump; Analyze the target siphon oil pump valve opening modification demand evaluation index Wherein VO0 is the standard valve opening corresponding to the delivery distance of the target siphon oil pump, VO is the valve opening of the target siphon oil pump, VO′ is the valve opening corresponding to the delivery flow rate of the target siphon oil pump, ΔVO0 is the allowable difference between the valve opening of the set target siphon oil pump and the valve opening corresponding to the delivery flow rate of its delivery, and e is a natural constant.

8. The artificial intelligence-based siphon oil pump and control system thereof according to claim 1, characterized in that: The specific determination method of the pressure modification requirement, speed modification requirement and valve opening modification requirement of the target siphon oil pump includes: Extract the pressure modification demand evaluation index of the target siphon oil pump, and compare it with the preset pressure modification demand evaluation index threshold. If the pressure modification demand evaluation index of the target siphon oil pump is greater than the pressure modification demand evaluation index threshold, the pressure modification demand of the target siphon oil pump is recorded as a pressure modification demand, and the control terminal is executed. Otherwise, the pressure modification demand of the target siphon oil pump is recorded as a pressure modification demand, and the oil tank liquid level analysis module is executed. The speed modification requirement evaluation index and valve opening modification requirement evaluation index of the target siphon oil pump are extracted. Similarly, the speed modification requirement and valve opening modification requirement of the target siphon oil pump can be obtained. If the speed needs to be modified or the valve opening needs to be modified, the control terminal is executed. If the speed does not need to be modified or the valve opening does not need to be modified, the oil tank level analysis module is executed.

9. The artificial intelligence-based siphon oil pump and control system thereof according to claim 7, characterized in that: The specific operation of controlling the pressure of the target siphon oil pump includes: subtracting the outlet pressure of the target siphon oil pump from the standard outlet pressure corresponding to the delivery distance of the target siphon oil pump to obtain the difference between the outlet pressure of the target siphon oil pump and the standard outlet pressure corresponding to the delivery distance; if the difference is greater than 0, reducing the opening of the water inlet valve of the siphon tank to which the target siphon oil pump belongs; if the difference is less than 0, increasing the opening of the water inlet valve of the siphon tank to which the target siphon oil pump belongs.

10. The artificial intelligence-based siphon oil pump and control system thereof according to claim 9, characterized in that: The specific operation of controlling the rotation speed and valve opening of the target siphon oil pump includes: Subtracting the standard pump speed corresponding to the delivery distance of the target siphon oil pump from its pump speed to obtain a difference ΔV1 between the standard pump speed corresponding to the delivery distance of the target siphon oil pump and the pump speed; subtracting the pump speed of the target siphon oil pump from the delivery speed of the object to be delivered to obtain a difference ΔV2 between the pump speed of the target siphon oil pump and the delivery speed of the object to be delivered; further controlling the rotation speed of the target siphon oil pump according to a predefined principle; Similarly, the valve opening of the target siphon oil pump can be controlled.

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