Energy-saving high-pressure pump equipment based on intelligent flow regulation

Abstract

The energy-saving high-pressure pump equipment based on intelligent flow regulation comprises a motor, a pump shell, an intelligent control box, a heat dissipation mechanism and a matching mechanism, the pump shell is arranged at the front end of the motor, the intelligent control box is arranged on the upper right portion of the motor, the heat dissipation mechanism is arranged below the motor, and the matching mechanism is arranged on the upper right portion of the motor. And the matching mechanism is arranged below the motor. According to the scheme, through multi-dimensional optimization of targeted heat dissipation, a convenient structure and protection details, the core pain points of poor heat dissipation and heat accumulation aging of an existing energy-saving type high-pressure pump are solved, the service life of equipment is prolonged, the use experience and structural reliability are improved, practicability and operation and maintenance convenience are both considered, and the comprehensive performance of the high-pressure pump is optimized in an all-around mode.

Description

Technical Field

[0001] This invention relates to the field of high-pressure pump technology, specifically to an energy-saving high-pressure pump device based on intelligent flow regulation. Background Technology

[0002] The energy-saving high-pressure pump based on intelligent flow regulation is a high-pressure pump that can automatically sense water demand and adjust the water flow without manual operation. It can reduce unnecessary energy consumption while pressurizing liquids such as tap water (meeting high-pressure water use scenarios), thus achieving energy-saving and efficient water supply.

[0003] Existing energy-saving high-pressure pumps have a compact motor and pump body with little physical space for heat dissipation and no additional heat dissipation fins or similar structures. If they operate continuously for a long time, heat can easily accumulate inside, which will accelerate the aging of the hardware.

[0004] Therefore, a solution is needed. Summary of the Invention

[0005] (a) Technical problems to be solved To address the shortcomings of existing technologies, this invention provides an energy-saving high-pressure pump device based on intelligent flow regulation, thereby solving the problems mentioned in the background section.

[0006] (II) Technical Solution To achieve the above objectives, the present invention provides the following technical solution: An energy-saving high-pressure pump device based on intelligent flow regulation includes a motor, a pump housing, an intelligent control box, a heat dissipation mechanism, and a matching mechanism. The pump housing is located at the front end of the motor, the intelligent control box is located at the upper right of the motor, the heat dissipation mechanism is located below the motor, and the matching mechanism is located below the motor. The heat dissipation mechanism includes a mounting plate, mounting holes, a plug-in heat sink, a pump slot, a slot, a ventilation slot, a fixing strip, a support plate, an auxiliary heat dissipation slot, and a positive magnetic plate. The mounting holes are evenly distributed on the left and right ends of the mounting plate. The plug-in heat sink is located on the top of the mounting plate. The pump slots are equidistantly distributed on the plug-in heat sink and enclose the motor. The slots are evenly distributed at the bottom of the pump slots. The ventilation slots are located between every two slots. The fixing strip is located in the middle of each ventilation slot. The support plate is located on the top of each fixing strip. The auxiliary heat dissipation slot is located in the middle of the top of each support plate. The positive magnetic plate is located on the top of the left end of the plug-in heat sink.

[0007] Preferably, the pump slot has a U-shaped structure, the slot has a longitudinal section that combines a circle and a rectangle, the ventilation slot has an arc-shaped structure, the fixing strip has a cuboid structure, the support plate has an arc-shaped structure, and the auxiliary heat dissipation slot has a U-shaped structure.

[0008] Preferably, the mounting plate, the insert heat sink, the fixing strip, the support plate, and the positive magnetic plate are integrally formed.

[0009] Preferably, the mating mechanism includes a guide component and a negative magnetic plate, the guide component being evenly disposed at the bottom of the motor, and the negative magnetic plate being disposed at the left end of the motor.

[0010] Preferably, the negative magnetic plate is located at the front end of the positive magnetic plate, and the negative magnetic plate and the motor are integrally formed.

[0011] Preferably, the guiding assembly includes a guiding plate, a heat sink, a guiding groove, and a dustproof mesh. The guiding plates are disposed inside each of the slots and are equidistant from front to back. The heat sink is disposed at the bottom of each of the guiding plates. The guiding groove is disposed inside each of the guiding plates and inside each of the heat sinks. The dustproof mesh is disposed at both ends of each heat sink and on its curved surface.

[0012] Preferably, the guide slot of the guide plate is in communication with the interior of the motor, the guide plate has a cuboid structure, the heat sink has a disc-shaped structure, the guide plate and the heat sink are integrally formed, and the total area of ​​the guide plate and the heat sink matches the area of ​​the longitudinal section of the slot.

[0013] (III) Beneficial Effects This invention provides an energy-saving high-pressure pump device based on intelligent flow regulation. It has the following beneficial effects: 1. By combining a dual heat dissipation design with the Bernoulli effect, heat dissipation efficiency is greatly improved, hardware heat accumulation damage is reduced, aging is slowed down and the life of the device is extended.

[0014] 2. The heat dissipation mechanism adopts a "plug-in + magnetic adsorption" structure, which can be quickly disassembled and assembled without complicated tools, reducing maintenance costs.

[0015] 3. The core components are integrally molded, and the guide plate, heat sink and slot fit precisely, ensuring structural stability and reliable operation.

[0016] 4. The guide component is equipped with a dustproof screen to prevent dust from entering the motor and to ensure long-term stable operation of the equipment. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2This is a schematic diagram of the motor and heat dissipation mechanism of the present invention; Figure 3 This is a schematic diagram of the heat dissipation mechanism of the present invention; Figure 4 This is a schematic diagram of the bottom structure of the motor of the present invention; Figure 5 This is a schematic diagram of the guiding component structure of the present invention.

[0018] In the diagram: 1-Motor; 2-Pump housing; 3-Intelligent control box; 4-Heat dissipation mechanism; 41-Mounting plate; 42-Mounting hole; 43-Inserted heat sink; 44-Pump slot; 45-Slot; 46-Ventilation slot; 47-Fixing strip; 48-Support plate; 49-Auxiliary heat dissipation slot; 410-Positive magnetic plate; 5-Matching mechanism; 51-Guiding component; 511-Guiding plate; 512-Heat dissipation plate; 513-Guiding slot; 514-Dustproof net; 52-Negative magnetic plate. Detailed Implementation

[0019] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0020] Please see Figure 1-5 The present invention provides a technical solution to achieve this: including a motor 1, a pump housing 2, an intelligent control box 3, a heat dissipation mechanism 4, and a cooperating mechanism 5. The pump housing 2 is located at the front end of the motor 1, the intelligent control box 3 is located at the upper right of the motor 1, the heat dissipation mechanism 4 is located below the motor 1, and the cooperating mechanism 5 is located below the motor 1.

[0021] The heat dissipation mechanism 4 includes a mounting plate 41, mounting holes 42, a plug-in heat sink 43, a pump slot 44, a slot 45, a ventilation slot 46, a fixing strip 47, a support plate 48, an auxiliary heat dissipation slot 49, and a positive magnetic plate 410. The mounting holes 42 are evenly distributed on the left and right ends of the mounting plate 41. The plug-in heat sink 43 is located on the top of the mounting plate 41. The pump slots 44 are equidistantly distributed on the plug-in heat sink 43 and enclose the motor 1. The slots 45 are evenly distributed at the bottom of the pump slots 44. The ventilation slots 46 are located between every two slots 45. The fixing strip 47 is located in the middle of each ventilation slot 46. The support plate 48 is located on the top of each fixing strip 47. The auxiliary heat dissipation slot 49 is located in the middle of the top of each support plate 48. The positive magnetic plate 410 is located on the top of the left end of the plug-in heat sink 43.

[0022] In detail, the pump slot 44 has a U-shaped structure, the slot 45 has a longitudinal section that combines a circle and a rectangle, the ventilation slot 46 has an arc-shaped structure, the fixing strip 47 has a cuboid structure, the support plate 48 has an arc-shaped structure, and the auxiliary heat dissipation slot 49 has a U-shaped structure.

[0023] Mounting plate 41, insert heat sink 43, fixing strip 47, support plate 48 and positive magnetic plate 410 are integrally formed.

[0024] The cooperating mechanism 5 includes a guide component 51 and a negative magnetic plate 52. The guide component 51 is evenly arranged at the bottom of the motor 1, and the negative magnetic plate 52 is arranged at the left end of the motor 1.

[0025] The negative magnetic plate 52 is located at the front end of the positive magnetic plate 410, and the negative magnetic plate 52 and the motor 1 are integrally formed.

[0026] The guide assembly 51 includes a guide plate 511, a heat sink 512, a guide groove 513, and a dustproof mesh 514. The guide plates 511 are disposed inside each slot 45 and are evenly distributed from front to back. The heat sink 512 is disposed at the bottom of each guide plate 511. The guide groove 513 is disposed inside each guide plate 511 and inside each heat sink 512. The dustproof mesh 514 is disposed at both ends of each heat sink 512 and on its curved surface.

[0027] The guide slot 513 of the guide plate 511 is connected to the interior of the motor 1. The guide plate 511 has a cuboid structure, and the heat sink 512 has a disc-shaped structure. The guide plate 511 and the heat sink 512 are integrally formed. The total area of ​​the guide plate 511 and the heat sink 512 matches the area of ​​the longitudinal section of the slot 45.

[0028] Solution Analysis: 1. Significantly improved heat dissipation performance, effectively delaying hardware aging. This solution constructs a highly efficient heat dissipation system through the coordinated design of heat dissipation mechanism 4 and cooperating mechanism 5. On the one hand, the heat inside the motor 1 is guided to the heat sink 512 by the guide groove 513, and then dissipated to the slot 45 through the dustproof net 514. After that, it is quickly dissipated to both sides through the arc-shaped ventilation groove 46. At the same time, the auxiliary heat dissipation groove 49 can directly discharge the surface temperature of the motor 1, realizing dual heat dissipation of "internal heat guidance + surface temperature discharge". On the other hand, combined with the Bernoulli effect, the external airflow can accelerate the removal of heat from the slot 45, while reducing the pressure in the slot 45 to attract heat from the inside of the motor 1, further enhancing the heat dissipation efficiency. This design precisely solves the pain point of "heat accumulation caused by compact layout" in existing equipment, reduces the damage to hardware caused by heat accumulation, slows down the aging of components, and significantly extends the service life of the equipment.

[0029] 2. High ease of maintenance, reducing operation and maintenance costs. The heat dissipation mechanism 4 adopts a combination structure of "insertion-type + magnetic adsorption": the insertion heat sink 43 is fixed to the motor 1 by adsorption through the positive magnetic plate 410 and the negative magnetic plate 52. It can be separated with only a little force during disassembly without complicated tools; at the same time, the fitting design of the guide component 51 and the slot 45 allows the heat dissipation component to be pulled out quickly. This structure simplifies the disassembly and assembly process of the heat dissipation mechanism 4, facilitates subsequent inspection and cleaning, and saves maintenance time and labor costs.

[0030] 3. The structure is robust and reliable, with strong operational stability. The core components of the heat dissipation mechanism 4, such as the mounting plate 41, the insert heat dissipation plate 43, and the fixing strip 47, adopt an integrated molding design, which reduces the risk of loosening or falling off of components and improves the stability of the overall structure. At the same time, the guide plate 511 and the heat dissipation plate 512 are precisely matched with the slot 45, ensuring the stability of the heat conduction path and further enhancing the reliability of the equipment in long-term operation.

[0031] 4. Dust prevention and protection are in place to ensure long-term stable operation of equipment. The guide component 51 is equipped with a dustproof net 514, which can effectively block external dust from entering the motor 1, prevent dust accumulation from affecting heat dissipation efficiency or interfering with equipment operation, maintain the cleanliness of the inside of the motor 1, and further improve the long-term operational stability of the equipment.

[0032] Working principle: Heat within the motor 1 is guided by the guide slot 513, then dissipates through the guide plate 511 and heat sink 512 to the interior of the slot 45 via the dust filter 514. It is also dissipated to the front and rear sides through the ventilation slot 46 for heat dissipation. Simultaneously, the auxiliary heat sink 49 dissipates heat from the surface of the motor 1 to the front and rear ends, further increasing heat dissipation efficiency. If airflow passes through, it accelerates the removal of heat emitted from the dust filter 514 from the slot 45. Simultaneously, the airflow reduces the pressure within the slot 45, accelerating the attraction of heat from the guide plate 511 and even the interior of the motor 1 to the slot 45 for outward dissipation under the Bernoulli effect, further enhancing heat dissipation efficiency. When the heat dissipation mechanism 4 needs to be removed, a slight force can be applied to pull the insert heat sink 43 and the motor 1 apart to separate the positive magnetic plate 410 and the negative magnetic plate 52. Continue pulling to both sides until all guide components 51 are removed.

[0033] Technical effects of implementing this solution: This solution addresses the core pain points of existing energy-saving high-pressure pumps (poor heat dissipation and heat accumulation aging) through multi-dimensional optimization including targeted heat dissipation design, convenient structure, and protective details. This extends equipment lifespan and improves user experience. At the same time, it enhances the structural reliability and ease of maintenance of the equipment, comprehensively improving the overall performance of the high-pressure pump and combining practicality with ease of operation and maintenance.

[0034] Comparative embodiments and related experimental data of this solution: I. Detailed Explanation of Traditional Solutions The core design philosophy of traditional energy-saving high-pressure pump equipment is guided by "compact integration," aiming to reduce the overall size of the equipment and the space occupied during installation. Its core structure and working logic have the following characteristics: Structural layout: The motor and pump body are directly and rigidly connected without an independent heat dissipation cavity or reserved space for heat dissipation. The outer surfaces of the two are tightly attached. Some models only achieve heat dissipation through the natural exposure of the motor housing and pump housing. There are no dedicated heat dissipation components. They only rely on the motor's built-in shaft fan for passive heat dissipation, without any additional heat guiding, conduction or accelerated heat dissipation structure.

[0035] Heat dissipation principle: It relies entirely on a single mode of "natural heat dissipation + auxiliary heat dissipation by the motor's built-in fan". The heat generated by the motor during operation is conducted to the air through the outer casing. The airflow generated by the rotating shaft fan can only cover a local area of ​​the motor surface, and the airflow is easily blocked by the compact pump body, thus obstructing the heat dissipation path. Internal heat (such as the heat generated by core components such as motor coils and bearings) is difficult to be quickly conducted to the outer casing, and heat is easily accumulated inside.

[0036] Installation and maintenance: The motor, pump body, and base are fixedly connected by multiple sets of bolts. Disassembly and assembly require the use of wrenches and other tools to remove the fasteners one by one, which is a cumbersome process. There is no dedicated heat dissipation component maintenance design. If it is necessary to clean the dust on the heat dissipation surface, the entire equipment must be disassembled, resulting in low operation and maintenance efficiency.

[0037] Protective design: The lack of a targeted dustproof structure allows external dust to easily enter the equipment through the connection gap between the motor and the pump body, and the fan air inlet, accumulating on the heat dissipation surface or core components, further reducing heat dissipation efficiency, and even causing component wear, short circuits and other malfunctions.

[0038] The core technology that distinguishes it from the solution in this application is... Differences in heat dissipation system: Traditional solutions are "single passive heat dissipation" without heat guidance, dual heat dissipation and airflow acceleration design; the solution proposed in this application constructs a triple heat dissipation system of "internal heat guidance + surface temperature discharge + Bernoulli effect acceleration", which achieves directional heat conduction and rapid dissipation through the synergistic effect of guide slots, heat dissipation plates, ventilation slots and auxiliary heat dissipation slots.

[0039] Structural connection differences: Traditional solutions use "multi-bolt rigid fixing", which requires tools and involves complex processes for disassembly and assembly; the solution in this application adopts a "plug-in + magnetic adsorption" combination structure, which can quickly separate the heat dissipation mechanism and motor without tools, greatly improving the convenience of operation and maintenance.

[0040] Differences in component integration and fit: Traditional solutions lack dedicated heat dissipation integrated components, and the motor and surrounding structure lack precise fit design; the core heat dissipation components (mounting plate, insert heat sink, etc.) of this application solution are integrally molded, and the guide plate, heat sink and slot are precisely fitted, which not only ensures structural stability, but also ensures the continuity of heat conduction path.

[0041] Differences in protective design: Traditional solutions lack targeted dust prevention measures, allowing dust to easily penetrate the equipment; the solution in this application sets dustproof nets at both ends of the heat sink and on the curved surface, which can effectively block dust from entering, while not affecting airflow and heat dissipation.

[0042] II. Comparative Analysis of R&D Data and Technical Effects To verify the technical advantages of this application, a 1000-hour continuous operation comparison experiment was conducted between a traditional high-pressure pump with the same power (5.5kW) and the same application scenario (pressurized tap water supply) and the high-pressure pump of this application. The experimental environment was uniformly set as follows: room temperature 25℃, relative humidity 50%, and moderate ventilation (wind speed 0.3-0.5m / s). The core test indicators included: operating temperature, aging rate, maintenance time, and failure rate. The specific data are as follows: 1. Comparison of operating temperature data

[0043] 2. Comparison of aging rates

[0044] 3. Comparison of Ease of Operation and Maintenance Data

[0045] 4. Comparison data on operational stability

[0046] III. Data Validity Explanation Experimental condition control: Except for the core heat dissipation, connection and protection structure, the traditional high-pressure pump selected for the experiment and the high-pressure pump of the present application are completely identical in all other parameters (power, speed, material, pump body structure, etc.), eliminating the interference of irrelevant variables on the experimental results; the experimental environment (temperature, humidity, wind speed) is precisely controlled by an environmental simulation chamber to ensure the comparability of data.

[0047] Testing equipment accuracy: Temperature detection uses high-precision thermocouple sensors (measurement accuracy ±0.1℃), which are respectively placed in key locations such as motor housing, coil, and bearings; aging rate is tested by professional equipment such as insulation resistance tester and laser diameter gauge; maintenance time is averaged by repeating multiple operations; failure rate is confirmed by continuous operation records and failure source analysis. All testing equipment is calibrated, and the accuracy of the data is guaranteed.

[0048] Sample size and repeatability: Three prototypes were selected for each scheme for parallel experiments. The experimental data were taken as the average of the three prototypes, and the experiments were repeated three times. The result deviation was ≤3%, indicating that the data has good repeatability and reliability.

[0049] Practical application relevance: The experimental scenario (pressurized tap water supply) is a typical application scenario for high-pressure pumps. The experimental duration (1000 hours) covers the quarterly operating cycle of conventional equipment. The data can truly reflect the performance of the equipment in actual use, and the technical effect has practical application value.

[0050] IV. Summary of Technical Effects The above data shows that the proposed solution has significant technical advantages over traditional solutions: The heat dissipation efficiency is greatly improved, the average temperature of the motor casing is reduced by 33.5%, and the maximum temperature of the internal coil is reduced by 29.8%, which effectively solves the problem of severe heat accumulation in traditional solutions and provides a stable operating temperature environment for core components. The aging rate is significantly slowed down, the coil insulation resistance decay rate is reduced by 66.3%, the bearing wear is reduced by 62.1%, and the estimated service life of core components is increased by 95.0%, which greatly reduces equipment replacement costs and downtime losses. The ease of operation and maintenance has been greatly improved, with the total time for a single complete operation and maintenance reduced by 83.7%. The disassembly and cleaning of heat dissipation components can be completed without the need for professional tools, which lowers the threshold for operation and maintenance and reduces labor costs. Operational stability is significantly enhanced, the failure rate is reduced by 85.9%, and the amount of dust intrusion is reduced by 80.5%. It can still maintain stable operation under complex working conditions, improving the reliability of the equipment and the user experience.

[0051] In summary, this application's solution, through multi-dimensional structural optimization, achieves breakthrough improvements over traditional solutions in core indicators such as heat dissipation performance, service life, ease of operation and maintenance, and operational stability. The technical effects are significant and well-supported by data, demonstrating broad application prospects.

[0052] The components of this invention are: 1-motor; 2-pump housing; 3-intelligent control box; 4-heat dissipation mechanism; 41-mounting plate; 42-mounting hole; 43-inserted heat dissipation plate; 44-pump groove; 45-slot; 46-ventilation groove; 47-fixing strip; 48-support plate; 49-auxiliary heat dissipation groove; 410-positive magnetic plate; 5-fitting mechanism; 51-guide assembly; 511-guide plate; 512-heat dissipation plate; 513-guide groove; 514-dustproof net; 52-negative magnetic plate. These components are all general standard parts or components known to those skilled in the art. Their structure and principle can be learned by those skilled in the art through technical manuals or conventional experimental methods. The problem solved by this invention is that the motor and pump body of existing energy-saving high-pressure pumps are relatively compact, with little physical heat dissipation space and no additional heat dissipation fins or similar structures. If they operate continuously for a long time, heat is easily accumulated inside, which will accelerate the aging of hardware. This invention addresses the core pain points of poor heat dissipation and heat accumulation aging in existing energy-saving high-pressure pumps through multi-dimensional optimization of targeted heat dissipation, convenient structure, and protective details. It extends equipment life, improves user experience and structural reliability, balances practicality and ease of maintenance, and comprehensively optimizes the overall performance of high-pressure pumps.

[0053] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered illustrative and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

[0054] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A smart flow regulation based energy efficient high pressure pump apparatus, characterized by: Including motor (1), pump shell (2), intelligent control box (3), heat dissipation mechanism (4) and cooperation mechanism (5), the pump shell (2) is arranged at the front end of the motor (1), the intelligent control box (3) is arranged at the right top of the motor (1), the heat dissipation mechanism (4) is arranged below the motor (1), the cooperation mechanism (5) is arranged below the motor (1); The heat dissipation mechanism (4) includes mounting plate (41), mounting hole (42), plug-in heat dissipation plate (43), pump groove (44), insertion groove (45), ventilation groove (46), fixed strip (47), support plate (48), auxiliary heat dissipation groove (49) and positive magnetic plate (410), the mounting hole (42) is uniformly arranged at the left and right ends of the mounting plate (41), the plug-in heat dissipation plate (43) is arranged at the top of the mounting plate (41), the pump groove (44) is equidistantly arranged on the plug-in heat dissipation plate (43) and wraps the motor (1), the insertion groove (45) is uniformly arranged at the bottom of the pump groove (44), the ventilation groove (46) is arranged between every two insertion grooves (45), the fixed strip (47) is arranged at the middle of every ventilation groove (46), the support plate (48) is arranged at the top of every fixed strip (47), the auxiliary heat dissipation groove (49) is arranged at the middle of the top of every support plate (48), and the positive magnetic plate (410) is arranged at the top of the left end of the plug-in heat dissipation plate (43).

2. The energy-saving high-pressure pump device based on intelligent flow regulation according to claim 1, characterized in that: The pump groove (44) is in U-shaped structure, the longitudinal section of the insertion groove (45) is in the structure of the combination of circle and rectangle, the ventilation groove (46) is in arc-shaped structure, the fixed strip (47) is in cuboid structure, the support plate (48) is in arc-shaped structure, and the auxiliary heat dissipation groove (49) is in U-shaped structure.

3. The energy-saving high-pressure pump device based on intelligent flow regulation according to claim 2, characterized in that: The mounting plate (41), plug-in heat dissipation plate (43), fixed strip (47), support plate (48) and positive magnetic plate (410) are integrally formed.

4. The energy-saving high-pressure pump device based on intelligent flow regulation according to claim 3, characterized in that: The cooperation mechanism (5) includes guide assembly (51) and negative magnetic plate (52), the guide assembly (51) is uniformly arranged at the bottom of the motor (1), and the negative magnetic plate (52) is arranged at the left end of the motor (1).

5. The energy-saving high-pressure pump device based on intelligent flow regulation according to claim 4, characterized in that: The negative magnetic plate (52) is located at the front end of the positive magnetic plate (410), and the negative magnetic plate (52) and the motor (1) are integrally formed.

6. The energy-saving high-pressure pump device based on intelligent flow regulation according to claim 5, characterized in that: The guide assembly (51) includes guide plate (511), heat dissipation plate (512), guide groove (513) and dustproof net (514), the guide plate (511) is arranged inside every insertion groove (45) and is distributed equidistantly from front to back, the heat dissipation plate (512) is arranged at the bottom of every guide plate (511), the guide groove (513) is arranged inside every guide plate (511) and every heat dissipation plate (512), and the dustproof net (514) is arranged at the front and rear ends and arc surface of every heat dissipation plate (512).

7. The energy-saving high-pressure pump device based on intelligent flow regulation according to claim 6, characterized in that: The guide groove (513) of the guide plate (511) is internally penetrated by the motor (1), the guide plate (511) is in a cuboid structure, the heat dissipation plate (512) is in a disc structure, the guide plate (511) and the heat dissipation plate (512) are integrally formed, and the area sum of the guide plate (511) and the heat dissipation plate (512) is fitted with the area of the longitudinal section of the insertion slot (45).

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