Electricity data hierarchical analysis control device

Abstract

The application belongs to the technical field of power consumption data hierarchical analysis, and discloses a power consumption data hierarchical analysis control device, which comprises a control cabinet, a data hierarchical analysis control box and a cooling system. The data hierarchical analysis control box is arranged in the control cabinet, and the cooling system is provided with cooling liquid for cooling and temperature reduction in the control cabinet. The cooling system comprises a cooling pipe, a return pipe, a pressurizing pump, a temperature control box and a radiator, which are all arranged outside the control cabinet. The cooling pipe is arranged inside the control cabinet, the return pipe is arranged through the control cabinet, the two ends of the return pipe are respectively connected to the cooling pipe and the pressurizing pump, and the pressurizing pump, the temperature control box and the radiator are in communication with each other in pairs. The pressurizing pump, the temperature control box and the radiator provide multiple circulating flow circuits to adapt to different conditions of the cooling liquid, ensure that the temperature of the cooling liquid meets the cooling condition, and realize the circulating and reciprocating cooling operation of the cooling liquid with a large area, so as to ensure the stable operation of the power consumption data hierarchical analysis operation.

Description

Technical Field

[0001] This invention relates to the field of electricity consumption data classification and analysis technology, and in particular to an electricity consumption data classification and analysis control device. Background Technology

[0002] Power systems are complex networks, typically composed of power plants, substations, transmission lines, and distribution networks. Existing power system monitoring and control technologies generally involve real-time monitoring, fault detection, and fault recovery. Specifically, sensors, monitoring equipment, and automation devices are used to collect various power system parameters and status information, transmitting this data to a control center for analysis and decision-making, thereby achieving real-time monitoring, fault detection, and fault recovery. This type of power system parameter and status information is commonly referred to as power consumption data, and the hierarchical analysis and control of power consumption data is a crucial process for improving the efficiency, reliability, and security of power systems.

[0003] However, with the continuous increase in electricity consumption, various electricity data classification and analysis control devices are becoming increasingly complex. As computing power improves, the required hardware also becomes more complex. This results in a significant amount of heat being generated during operation, and excessively high temperatures can affect the performance and lifespan of electronic components, potentially leading to equipment malfunction or damage. Existing electricity data classification and analysis control devices typically use cooling fans to enhance heat exchange; however, these fans only provide localized cooling with limited effectiveness, still impacting the normal operation of the device. Therefore, achieving a large heat dissipation coverage area and high cooling efficiency for the internal electronic components, ensuring stable operation of the electricity data classification and analysis function, is a problem that those skilled in the art need to solve. Summary of the Invention

[0004] The purpose of this invention is to provide a power consumption data hierarchical analysis and control device that can achieve a large heat dissipation coverage area and high heat dissipation efficiency for the internal electronic components, and ensure stable operation of the power consumption data hierarchical analysis operation.

[0005] To achieve this objective, the present invention adopts the following technical solution:

[0006] A power consumption data hierarchical analysis and control device, comprising:

[0007] Control cabinet and data hierarchical analysis control box, the data hierarchical analysis control box being installed inside the control cabinet;

[0008] The cooling system contains coolant for cooling the control cabinet. The cooling system includes a cooling pipe, a return pipe, a pressurizing pump, a temperature control box, and a radiator, all located outside the control cabinet. The cooling pipe is located inside the control cabinet, and the return pipe passes through the control cabinet. The two ends of the return pipe are connected to the cooling pipe and the pressurizing pump, respectively. The pressurizing pump, the temperature control box, and the radiator are interconnected in pairs.

[0009] Optionally, the cooling system further includes a first delivery pipe, a second delivery pipe, a third delivery pipe, and a fourth delivery pipe. The two ends of the first delivery pipe are respectively connected to the pressurizing pump and the middle of the temperature control box. The two ends of the second delivery pipe are respectively connected to the return pipe and the lower end of the temperature control box. The two ends of the third delivery pipe are respectively connected to the upper end of the temperature control box and one end of the radiator. The two ends of the fourth delivery pipe are respectively connected to the other end of the radiator and the pressurizing pump.

[0010] Optionally, the temperature control box includes a housing and a control component, the control component being able to control the opening and closing of the upper and / or lower ends of the housing based on the temperature of the coolant in the housing.

[0011] Optionally, the control assembly includes an upper top seat, a contact rod, a support frame, a sliding switch, and a lower base. The upper top seat and the lower base are respectively fixed to the upper and lower ends of the housing. The contact rod is located between the upper top seat and the sliding switch. The support frame is fixed to the upper top seat to support the sliding switch. The sliding switch is movably disposed between the upper top seat and the lower base and abuts against the contact rod. The sliding switch can be sealed in the upper top seat and the lower base respectively.

[0012] Optionally, the sliding switch includes an upper sealing block, a heat transfer cylinder, and a lower sealing block. The heat transfer cylinder is slidably disposed in the support frame. The upper sealing block is sleeved on the outer side of the upper end of the heat transfer cylinder and can be sealed in the upper top seat. The lower end of the heat transfer cylinder is connected to the lower sealing block, which can be sealed in the lower base.

[0013] Optionally, the sliding switch includes an upper sealing block, a heat transfer cylinder, and a lower sealing block. The heat transfer cylinder is slidably disposed in the support frame. The upper sealing block is sleeved on the outer side of the upper end of the heat transfer cylinder and can be sealed in the upper top seat. The lower end of the heat transfer cylinder is connected to the lower sealing block, which can be sealed in the lower base.

[0014] Optionally, the housing includes a first housing and a second housing, the first housing having an annular limiting groove and the second housing having an annular limiting protrusion, the annular limiting protrusion being able to be inserted into the annular limiting groove.

[0015] Optionally, the first housing is provided with a first fixing seat and a first slot, the second housing is provided with a second fixing seat and a first insert block, the first insert block being able to be inserted into the first slot.

[0016] Optionally, the first insert block is provided with a second slot, and the second slot is provided with a first magnetic stone. The first slot is provided with a locking component, which includes a second insert block. The second insert block is provided with a second magnetic stone, and the second insert block can be inserted into the second slot. The first magnetic stone and the second magnetic stone can be magnetically connected.

[0017] Optionally, the locking assembly further includes a support spring, a fixing block, a pulling member, a limiting block, and a locking block. One end of the pulling member is fixed to the second insert block, and the other end is hinged to the limiting block. The fixing block and the support spring are both sleeved on the outside of the pulling member, and the support spring is located between the fixing block and the second insert block. The fixing block is fixed on the outside of the first fixing seat. The locking block abuts against the fixing block, and the limiting block can be engaged in the locking block.

[0018] The beneficial effects of this invention are:

[0019] This invention provides storage space for a data hierarchical analysis control box within a control cabinet, and enables hierarchical analysis of power consumption data through this control box, thereby improving the efficiency, reliability, and security of the power system. Furthermore, the cooling system incorporates a coolant that circulates and cools the control cabinet, ensuring stable operation of the data hierarchical analysis control box and the stable execution of the power consumption data hierarchical analysis. Specifically, the cooling system includes cooling pipes, a return pipe, a pressurizing pump, a temperature control box, and a radiator. The cooling pipes are located inside the control cabinet to cool its interior, while the return pipe passes through the cabinet and connects the cooling pipes and the pressurizing pump, enabling the coolant to circulate and achieve its cooling effect. Optionally, the pressurizing pump, temperature control box, and radiator are all located outside the control cabinet, with each pair interconnected. This avoids occupying space within the control cabinet, improving space utilization, and preventing heat released during coolant processing from re-entering the cabinet and affecting the cooling effect. Specifically, the booster pump pressurizes the coolant, improving its cooling efficiency, while the temperature control box and radiator handle hot coolant, ensuring the coolant temperature meets cooling requirements and preventing a significant decrease in coolant effectiveness after prolonged operation. Furthermore, the booster pump, temperature control box, and radiator are interconnected, providing multiple coolant circulation loops to suit different coolant conditions and avoid energy waste. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the internal structure of the electricity data hierarchical analysis and control device described in an embodiment of the present invention;

[0021] Figure 2 This is a schematic diagram of the structure of the electricity data hierarchical analysis and control device according to an embodiment of the present invention;

[0022] Figure 3 This is a side view schematic diagram of the electricity data hierarchical analysis and control device according to an embodiment of the present invention;

[0023] Figure 4 This is a schematic diagram of part of the cooling system and storage tank in the power consumption data hierarchical analysis and control device described in an embodiment of the present invention;

[0024] Figure 5 This is a schematic diagram of the structure of the first housing and control components in the power consumption data hierarchical analysis and control device according to an embodiment of the present invention;

[0025] Figure 6 This is a schematic diagram of the structure of the second housing in the power consumption data hierarchical analysis and control device according to an embodiment of the present invention;

[0026] Figure 7 This is a schematic diagram of the second fixed base, the first insert block, and the first magnetic stone in the power consumption data hierarchical analysis and control device according to an embodiment of the present invention;

[0027] Figure 8 This is an isometric view of the first housing in the power consumption data hierarchical analysis and control device described in this embodiment of the invention;

[0028] Figure 9 yes Figure 8 A magnified view of a section at point A in the middle;

[0029] Figure 10 This is a schematic diagram of the locking component in the power consumption data hierarchical analysis and control device described in an embodiment of the present invention.

[0030] In the picture:

[0031] 100 - Data hierarchical analysis control box; 10 - Control cabinet; 101 - Cooling pipe; 102 - Return pipe; 20 - Storage box; 201 - Filter screen; 30 - Pressurization pump; 40 - Temperature control box; 50 - Radiator;

[0032] 301 - First conveying pipe; 302 - Second conveying pipe; 303 - Third conveying pipe; 304 - Fourth conveying pipe;

[0033] 41-First housing; 401-First lower cylinder; 402-First upper cylinder; 403-Annular limiting groove; 411-First fixing seat; 4111-First slot; 412-Locking assembly;

[0034] 42-Second housing; 404-Annular limiting protrusion; 405-Second lower half-cylinder; 406-Second upper half-cylinder; 421-Second fixing seat; 422-First insert block; 4221-Second slot; 423-First magnet;

[0035] 43-Control component; 431-Upper top seat; 432-Upper sealing block; 433-Support frame; 434-Heat transfer cylinder; 435-Abutting rod; 436-Airbag; 437-Reset spring; 438-Lower sealing block; 439-Lower base; 4391-Bottom sealing groove;

[0036] 4121-Second insert block; 4122-Second magnetic stone; 4123-Support spring; 4124-Fixing block; 4125-Pull member; 4126-Limiting block; 4127-Locking block; 4128-Slot. Detailed Implementation

[0037] Embodiments of the present invention are described in detail below. Examples of these embodiments are shown in the accompanying drawings, wherein the same or similar reference numerals denote the same or similar components or components having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary and intended to explain the present invention, and should not be construed as limiting the present invention.

[0038] In the description of this invention, unless otherwise explicitly specified and limited, the terms "connected," "linked," and "fixed" should be interpreted broadly. For example, they can refer to a fixed connection or a detachable connection; a mechanical connection or an electrical connection; a direct connection or an indirect connection through an intermediate medium; or the internal communication of two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this invention according to the specific circumstances.

[0039] In the description of this invention, unless otherwise expressly specified and limited, "above" or "below" the second feature can include direct contact between the first and second features, or contact between the first and second features through another feature between them. Furthermore, "above," "over," and "on top" of the second feature includes the first feature being directly above or diagonally above the second feature, or simply indicates that the first feature is at a higher horizontal level than the second feature. "Below," "below," and "under" the second feature includes the first feature being directly below or diagonally below the second feature, or simply indicates that the first feature is at a lower horizontal level than the second feature.

[0040] Power systems are complex networks, typically composed of power plants, substations, transmission lines, and distribution networks. Existing power system monitoring and control technologies generally involve real-time monitoring, fault detection, and fault recovery. Specifically, sensors, monitoring equipment, and automation devices are used to collect various power system parameters and status information, transmitting this data to a control center for analysis and decision-making, thereby achieving real-time monitoring, fault detection, and fault recovery. This type of power system parameter and status information is commonly referred to as power consumption data, and the hierarchical analysis and control of power consumption data is a crucial process for improving the efficiency, reliability, and security of power systems.

[0041] However, with the continuous increase in electricity consumption, various electricity data classification and analysis control devices are becoming increasingly complex. As computing power improves, the required hardware also becomes more complex. This results in a significant amount of heat being generated during operation, and excessively high temperatures can affect the performance and lifespan of electronic components, potentially leading to equipment malfunction or damage. Existing electricity data classification and analysis control devices typically use cooling fans to enhance heat exchange; however, these fans only provide localized cooling with limited effectiveness, still impacting the normal operation of the device. Therefore, achieving a large heat dissipation coverage area and high cooling efficiency for the internal electronic components, ensuring stable operation of the electricity data classification and analysis function, is a problem that those skilled in the art need to solve.

[0042] Example 1

[0043] The technical solution of this embodiment will be further described below with reference to the accompanying drawings and specific implementation methods.

[0044] like Figures 1-7 As shown, this embodiment provides an electrical data hierarchical analysis and control device, including a control cabinet 10, a data hierarchical analysis control box 100, and a cooling system. The data hierarchical analysis control box 100 is disposed inside the control cabinet 10. The cooling system is provided with coolant for cooling down the control cabinet 10. The cooling system includes a cooling pipe 101, a return pipe 102, and a pressurizing pump 30, a temperature control box 40, and a radiator 50, all disposed outside the control cabinet 10. The cooling pipe 101 is disposed inside the control cabinet 10, and the return pipe 102 passes through the control cabinet 10. The two ends of the return pipe 102 are respectively connected to the cooling pipe 101 and the pressurizing pump 30, and the pressurizing pump 30, the temperature control box 40, and the radiator 50 are interconnected in pairs.

[0045] Specifically, in this embodiment, the control cabinet 10 provides storage space for the data hierarchical analysis control box 100, and the data hierarchical analysis control box 100 performs hierarchical analysis of power consumption data to improve the efficiency, reliability, and security of the power system. Furthermore, in this embodiment, a coolant is installed in the cooling system, which can circulate and cool the inside of the control cabinet 10, thereby ensuring the stable operation of the data hierarchical analysis control box 100 and the stable operation of the power consumption data hierarchical analysis. Specifically, the cooling system includes a cooling pipe 101, a return pipe 102, a pressurization pump 30, a temperature control box 40, and a radiator 50. The cooling pipe 101 is located inside the control cabinet 10 to cool the inside of the control cabinet 10, and the return pipe 102 passes through the control cabinet 10 and connects the cooling pipe 101 and the pressurization pump 30, thereby realizing the circulation of the coolant and achieving its cooling effect. Optionally, the booster pump 30, temperature control box 40, and radiator 50 are all located outside the control cabinet 10, with each pair interconnected. This avoids occupying space inside the control cabinet 10, improving space utilization, and preventing heat released during coolant processing from re-entering the cabinet and affecting its cooling effect. Specifically, the booster pump 30 pressurizes the coolant, improving its cooling efficiency, while the temperature control box 40 and radiator 50 process higher-temperature coolant, ensuring the coolant temperature meets cooling requirements and preventing a significant decrease in coolant effectiveness after prolonged cooling operations. Furthermore, the interconnection of the booster pump 30, temperature control box 40, and radiator 50 provides multiple coolant circulation loops to accommodate different coolant conditions, avoiding energy waste.

[0046] The specific structure of the power consumption data hierarchical analysis and control device in this embodiment will be described below.

[0047] like Figures 1-3As shown, the power consumption data hierarchical analysis and control device in this embodiment includes a data hierarchical analysis control box 100, a control cabinet 10, a storage box 20, and a cooling system. Optionally, several data hierarchical analysis control boxes 100 are provided, all of which are located inside the control cabinet 10, for hierarchical analysis and control of power consumption data. Further, the control cabinet 10 is provided with partitions to separate and store the several data hierarchical analysis control boxes 100. The control cabinet 10 includes a cabinet body and a cabinet door, with the cabinet door rotatably connected to the cabinet body. The storage box 20 is located on the outside of the cabinet body. The cooling system is partly located inside the cabinet body and partly passes through the cabinet body and is stored in the storage box 20, thereby avoiding occupying too much internal space of the cabinet body and preventing the cooling system from releasing heat back into the cabinet body when processing the coolant, thus affecting the cooling effect. Specifically, the cooling system is provided with coolant for cooling the control cabinet 10, thereby cooling the data hierarchical analysis control boxes 100 to prevent excessive temperature from affecting their operation and ensuring their stable operation.

[0048] Combination Figure 1 and Figure 2 As shown, three partitions are arranged parallel to each other inside the control cabinet 10, dividing the interior of the control cabinet 10 into four accommodating spaces. Exemplarily, in this embodiment, each accommodating space is provided with two data classification analysis control boxes 100. In other embodiments, the number of partitions and data classification analysis control boxes 100 can be set as needed, which will not be elaborated here. Optionally, the storage box 20 is configured with a square structure, and a filter 201 is installed on one side of the storage box 20 to protect and ventilate the interior of the storage box 20, preventing external dust from entering and contaminating the interior, and also ensuring the stability of the cooling system operation within the storage box 20. Optionally, the cooling system includes a cooling pipe 101, a return pipe 102, a pressurization pump 30, a temperature control box 40, and a radiator 50. Specifically, the cooling pipe 101 is located on the inner side of the control cabinet 10 and penetrates all partitions. Furthermore, the return pipe 102 is connected to the cooling pipe 101 and is arranged around each data classification analysis control box 100 in each accommodating space, thereby cooling each data classification analysis control box 100. Furthermore, the return pipe 102 is installed through the cabinet of the control cabinet 10, and its two ends are connected to the cooling pipe 101 and the pressurization pump 30, respectively. The pressurization pump 30 pressurizes the coolant into the return pipe 102 and forces it into the cooling pipe 101, thereby cooling each data classification analysis control box 100, thus expanding the heat dissipation coverage area inside the device and improving heat dissipation efficiency.

[0049] like Figure 4As shown, optionally, the pressurizing pump 30, temperature control box 40, and radiator 50 are all located in the storage box 20 outside the control cabinet 10, and each of the three is interconnected to form multiple flow loops, suitable for coolant circulation and corresponding cooling. For example, the pressurizing pump 30, temperature control box 40, and radiator 50 can effectively cool the data classification analysis control box 100 in the control cabinet 10 under conditions of low or high heat, achieving effective heat dissipation control and avoiding the limited effectiveness of cooling fans, thus facilitating the normal operation of the power data classification analysis control device.

[0050] Specifically, in this embodiment, the cooling system further includes a first delivery pipe 301, a second delivery pipe 302, a third delivery pipe 303, and a fourth delivery pipe 304. Optionally, the two ends of the first delivery pipe 301 are respectively connected to the middle of the pressurizing pump 30 and the temperature control box 40, so that the pressurizing pump 30 can pressurize the coolant in the temperature control box 40. Optionally, the two ends of the second delivery pipe 302 are respectively connected to the return pipe 102 and the lower end of the temperature control box 40, so that when the lower end of the temperature control box 40 is opened, the coolant in the temperature control box 40 can enter the return pipe 102 through the second delivery pipe 302, thereby mixing with the coolant in the return pipe 102 and entering the control cabinet 10, realizing the circulation of coolant. Furthermore, the two ends of the third delivery pipe 303 are respectively connected to the upper end of the temperature control box 40 and one end of the radiator 50, and the two ends of the fourth delivery pipe 304 are respectively connected to the other end of the radiator 50 and the pressurizing pump 30. Thus, when the upper end of the temperature control box 40 is opened, the coolant in the temperature control box 40 can enter the radiator 50 through the third delivery pipe 303 for heat dissipation and cooling, and then be pressurized by the pressurizing pump 30 through the fourth delivery pipe 304 to the return pipe 102, realizing the cooling and recycling of the coolant and ensuring the cooling effect inside the control cabinet 10.

[0051] like Figures 5-7 As shown, in this embodiment, the temperature control box 40 includes a box body and a control component 43. The control component 43 can control the opening and closing of the upper and / or lower ends of the box body according to the temperature of the coolant in the box body. Thus, when the coolant temperature rises, the upper and lower ends of the box body can be opened simultaneously to dissipate heat and cool the coolant and circulate it. When the coolant temperature is high, the lower end of the box body is closed and the upper end of the box body is opened, so that all the coolant in the box body enters the radiator 50 for heat dissipation and cooling. This controls the temperature of the coolant in the control cabinet 10 and ensures its cooling effect.

[0052] Combination Figure 5 and Figure 6As shown, the housing includes a first housing 41 and a second housing 42. The first housing 41 is provided with a first lower half-cylinder 401, a first upper half-cylinder 402, and an annular limiting groove 403. The second housing 42 is provided with an annular limiting protrusion 404, a second lower half-cylinder 405, and a second upper half-cylinder 406. Optionally, the first housing 41 is also provided with a first fixing seat 411, and the first fixing seat 411 is provided with a first slot 4111. The second housing 42 is also provided with a second fixing seat 421, and the second fixing seat 421 is provided with a first insert block 422.

[0053] Optionally, both the first housing 41 and the second housing 42 are configured as semi-cylindrical structures, and the two can be assembled to form a cylindrical structure. Specifically, the first lower half-cylinder 401, the first upper half-cylinder 402, the second lower half-cylinder 405, and the second upper half-cylinder 406 are also configured as semi-cylindrical structures. Further, the first lower half-cylinder 401 and the second lower half-cylinder 405 can be assembled into a cylindrical structure and used to connect the second delivery pipe 302. Correspondingly, the first upper half-cylinder 402 and the second upper half-cylinder 406 can be assembled into a cylindrical structure and used to connect the third delivery pipe 303. This realizes the connection between the housing and the third delivery pipe 303 and the second delivery pipe 302, realizing the passage of coolant. Furthermore, the annular limiting groove 403 is arranged annularly along the cross-section of the first housing 41, and the annular limiting protrusion 404 is arranged annularly along the cross-section of the second housing 42. The annular limiting protrusion 404 can be inserted into the annular limiting groove 403. This insertion connection not only ensures a stable connection between the first housing 41 and the second housing 42, but also seals the interior of the housings, preventing coolant leakage at the connection point and achieving an annular seal. For example, both the annular limiting groove 403 and the annular limiting protrusion 404 are designed as stepped structures, forming a stepped sealing structure, which is beneficial for the relative sealing of the temperature control box 40 during installation.

[0054] like Figure 5 As shown, in this embodiment, four first fixing seats 411 are symmetrically arranged on the first housing 41, and each first fixing seat 411 has a first slot 4111 for stable connection with the second housing 42. Figure 6 and Figure 7 As shown, four second fixing seats 421 are symmetrically arranged on the second housing 42, and the positions of the second fixing seats 421 correspond one-to-one with those of the first fixing seats 411. Furthermore, a first insert block 422 is provided on each of the second fixing seats 421. In this embodiment, the first insert block 422 can be inserted into the first slot 4111, thereby not only guiding the connection between the first housing 41 and the second housing 42 during the insertion process, but also ensuring a stable connection between the two.

[0055] like Figure 5As shown, the control component 43 in the temperature control box 40 includes an upper top seat 431, an abutment rod 435, a support frame 433, a sliding switch, and a lower base 439. The sliding switch includes an upper sealing block 432, a heat transfer cylinder 434, an air bladder 436, a return spring 437, and a lower sealing block 438. Optionally, a bottom sealing groove 4391 is provided on the lower base 439.

[0056] Optionally, the upper top seat 431 and the lower base 439 are fixed to the upper and lower ends of the housing, respectively. The upper top seat 431 is provided with an upper top groove, and the lower base 439 is provided with a bottom sealing groove 4391. The upper top groove connects to the first upper half-cylinder 402 and the second upper half-cylinder 406, and the bottom sealing groove 4391 connects to the first lower half-cylinder 401 and the second lower half-cylinder 405, thereby ensuring the communication between the inside of the housing and the third conveying pipe 303 and the second conveying pipe 302. Further, the abutment rod 435 is configured with an "I" shape and is located between the upper top seat 431 and the sliding switch to limit the position of the sliding switch. For example, the top end of the abutment rod 435 can be fixed to the upper top seat 431 to prevent the position of the abutment rod 435 from moving.

[0057] Specifically, the top of the support frame 433 is fixed to the upper top seat 431 to support the sliding switch, and its bottom is spaced apart from the lower base 439. Specifically, the sliding switch is movably disposed between the upper top seat 431 and the lower base 439, abutting against the abutment rod 435, and the sliding switch can be respectively sealed in the upper top seat 431 and the lower base 439, thereby realizing the opening and closing of the upper and lower ends of the temperature control box 40. Exemplarily, in this embodiment, the sliding switch can realize the simultaneous opening of the upper and lower ends of the temperature control box 40, as well as the individual closing of each.

[0058] Specifically, the heat transfer cylinder 434 in the sliding switch is slidably disposed in the support frame 433, and the upper sealing block 432 is sleeved on the outer side of the upper end of the heat transfer cylinder 434. The lower end of the heat transfer cylinder 434 is closed, and its lower end is connected to the lower sealing block 438 through a connecting rod. Thus, when the heat transfer cylinder 434 moves up and down in the support frame 433, it can drive the upper sealing block 432 and the lower sealing block 438 to move up and down synchronously. Further, in this embodiment, the upper sealing block 432 can be sealed in the upper groove of the upper top seat 431 to isolate the inside of the box from the third conveying pipe 303, and the lower sealing block 438 can be sealed in the bottom sealing groove 4391 of the lower base 439 to isolate the inside of the box from the second conveying pipe 302, thereby realizing the opening and closing effect of the upper and lower ends of the box. For example, the lower sealing block 438 is configured as a conical structure, and the bottom sealing groove 4391 is configured as a frustum structure, thereby allowing the lower sealing block 438 to be tightly inserted into the bottom sealing groove 4391, ensuring a sealing effect after sealing. For example, the heat transfer cylinder 434 is configured as an aluminum cylinder to improve its heat transfer effect.

[0059] Optionally, a return spring 437 is sleeved on the outside of the heat transfer cylinder 434, and its two ends are respectively connected to the upper sealing block 432 and the support frame 433. Thus, the return spring 437 not only supports the upper sealing block 432, ensuring the stable closure of the upper part of the housing, but also returns to its original state after compression, enabling the opening and closing of the upper part of the housing. Specifically, an airbag 436 is disposed in the heat transfer cylinder 434, with its top end abutting against the abutment rod 435 and its bottom end pressing against the lower end of the heat transfer cylinder 434. Exemplarily, the heat transfer cylinder 434 can contact the coolant inside the housing and transfer the heat of the coolant to the airbag 436 inside. The airbag 436 can expand upon heating, thereby continuously increasing its volume and applying external force. Specifically, under the limiting position of the heat transfer cylinder 434 and the abutment rod 435, the airbag 436 applies a force to the lower end of the heat transfer cylinder 434. That is, when the airbag 436 expands, it can push the heat transfer cylinder 434 toward the lower base 439. Thus, under the drive of the heat transfer cylinder 434, the upper sealing block 432 and the lower sealing block 438 move synchronously with it and compress the return spring 437.

[0060] For example, when the coolant temperature gradually increases, the expansion effect of the airbag 436 is weaker. At this time, the upper sealing block 432 moves away from the upper top seat 431 and opens the upper end of the housing, while the lower sealing block 438 moves towards the lower base 439 but is not yet sealed in the bottom sealing groove 4391, thus keeping the lower end of the housing open. Therefore, the coolant in the housing can enter the radiator 50 through the third delivery pipe 303, or directly enter the return pipe 102 through the second delivery pipe 302, thereby realizing the cooling and cooling circulation of the coolant. Similarly, when the coolant temperature is high, the expansion effect of the airbag 436 is stronger. At this time, the lower sealing block 438 is completely sealed in the bottom sealing groove 4391, and only the upper top seat 431 of the housing is open. Thus, the coolant in the housing enters the radiator 50 through the third delivery pipe 303 for cooling and cooling, and then flows into the return pipe 102 for cooling and cooling inside the control cabinet 10, thereby effectively controlling heat dissipation.

[0061] Optionally, this embodiment also provides a specific method for using the electricity data hierarchical analysis and control device, which includes the following steps:

[0062] S1. Data Acquisition: The multi-data hierarchical analysis control box 100 is installed on the control cabinet 10. The multi-data hierarchical analysis control box 100 includes a smart meter, a power monitoring instrument and a control center, which is used to collect electricity consumption data in the power system in real time, measure and record voltage, current and power factor related parameters, and store and transmit them in digital form.

[0063] S2. Data transmission: The collected electricity consumption data is transmitted to the data analysis platform for processing, and the data is transmitted from the acquisition device to the control center.

[0064] S3. Data storage and processing: By performing hierarchical analysis on electricity consumption data, the power load can be divided into different categories. The analysis is based on load size, load type and electricity consumption pattern, and the results are used to identify the characteristics and behaviors of different load levels.

[0065] S4. Load Classification Analysis: Power consumption data in the control center will be stored and processed. Data storage will be used to extract useful information and perform load classification analysis.

[0066] S5. Control Strategy Formulation: Based on the results of load classification analysis, adjust the power supply strategy of the power system according to the changes in load level, optimize load allocation, and improve energy utilization efficiency.

[0067] S6. The established control strategy is executed: Through real-time monitoring and feedback mechanisms, the control system can adjust and optimize the power load to meet demand and improve energy efficiency.

[0068] Therefore, the above methods can be used to perform hierarchical analysis of electricity consumption data in the power system, enabling refined management and control of the power load, thereby improving energy utilization efficiency and power supply reliability.

[0069] Example 2

[0070] This embodiment provides a power consumption data hierarchical analysis and control device, wherein components that are the same as or corresponding to those in Embodiment 1 are labeled with the same reference numerals as those in Embodiment 1. For simplicity, only the differences between Embodiment 2 and Embodiment 1 are described. The differences are as follows:

[0071] like Figure 5 and Figures 7-10 As shown, in this embodiment, a locking component 412 is provided in the first fixing base 411 of the first housing 41, and a second slot 4221 is provided on the first insert block 422 of the second fixing base 421, and a first magnetic stone 423 is provided on the second slot 4221. Specifically, the locking component 412 includes a second insert block 4121, a support spring 4123, a fixing block 4124, a pulling member 4125, a limiting block 4126, and a locking block 4127, and a second magnetic stone 4122 is provided on the second insert block 4121, and a slot 4128 is provided on the locking block 4127.

[0072] Optionally, the locking component 412 is disposed in the first slot 4111 to further lock the relative positions of the first fixing seat 411 and the second fixing seat 421, thereby improving the stability of their connection. Specifically, the second insert 4121 of the locking component 412 is movably disposed in the first slot 4111, and the second insert 4121 can be inserted into the second slot 4221 of the first insert 422. Thus, after the first insert 422 is inserted into the first slot 4111, the second insert 4121 can be inserted into the second slot 4221 again to lock the first insert 422 in the first slot 4111. Furthermore, in this embodiment, a first magnetic stone 423 is attached to the side wall of the second slot 4211, and a second magnetic stone 4122 is attached to the side wall of the second insert 4121. The first magnetic stone 423 and the second magnetic stone 4122 can be magnetically connected. Thus, after the second insert 4121 is inserted into the second slot 4221, the first magnetic stone 423 and the second magnetic stone 4122 can prevent the second insert 4121 from falling out of the second slot 4221, thereby improving the stable insertion of the first insert 422 into the first slot 4111, and thus strengthening the effect of tight assembly of the first housing 41 and the second housing 42.

[0073] Optionally, the fixing block 4124 of the locking component 412 is fixed to the outside of the first fixing seat 411 to ensure a stable connection between the locking component 412 and the first fixing seat 411. Specifically, the pulling member 4125 has a disc structure at at least one end, the end with the disc structure is hinged to the limiting block 4126, and the other end of the pulling member 4125 is fixed to the second insert block 4121. Optionally, both the fixing block 4124 and the support spring 4123 are sleeved on the outside of the pulling member 4125, and the support spring 4123 is located between the fixing block 4124 and the second insert 4121. In this embodiment, the support spring 4123 is fixed to the second insert 4121 and abuts against the fixing block 4124, so that when the pulling member 4125 moves in the fixing block 4124, the support spring 4123 can be compressed to move the second insert 4121 toward the fixing block 4124, so that the second insert 4121 disengages from the second slot 4221. Exemplarily, the support spring 4123 and the second insert 4121 can also be configured as an elastic snap-fit ​​to ensure its performance. Similarly, the second insert 4121 can also move away from the fixed block 4124 under the action of the support spring 4123, so as to be inserted into the second slot 4221, thereby realizing the insertion and removal of the first insert 422 into the first slot 4111, so as to ensure the quick assembly and disassembly of the first box 41 and the second box 42, and also facilitate the maintenance of the inside of the box.

[0074] Furthermore, the limiting block 4126 is provided with a plurality of slots 4128. In this embodiment, two slots 4128 are provided to realize the limiting control of two gear positions. In other embodiments, the number of slots 4128 can be set as needed, which will not be elaborated here. Optionally, the locking block 4127 abuts against the fixing block 4124, and the limiting block 4126 can be engaged in the slot 4128 of the locking block 4127. Specifically, the fixing block 4124 is fixed to the outside of the first fixing seat 411, and the pulling member 4125 is movably disposed in the fixing block 4124. The disc structure of the pulling member 4125 and the limiting block 4126 are both disposed on the outside of the first fixing seat 411. Thus, by pulling or pushing the pulling member 4125, the second insert block 4121 can be driven to move synchronously with it, and then the locking block 4127 locks its position to ensure that the position of the second insert block 4121 does not change and achieves positioning.

[0075] Obviously, the above embodiments of the present invention are merely examples for clearly illustrating the present invention, and are not intended to limit the implementation of the present invention. Those skilled in the art can make other variations or modifications based on the above description. It is neither necessary nor possible to exhaustively describe all embodiments here. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the scope of protection of the claims of the present invention.

Claims

1. A power consumption data hierarchical analysis and control device, characterized in that, include: Control cabinet (10) and data hierarchical analysis control box (100), wherein the data hierarchical analysis control box (100) is installed inside the control cabinet (10); The cooling system is equipped with coolant for cooling the control cabinet (10). The cooling system includes a cooling pipe (101), a return pipe (102), a pressurizing pump (30), a temperature control box (40), and a radiator (50) all located outside the control cabinet (10). The cooling pipe (101) is located inside the control cabinet (10), and the return pipe (102) passes through the control cabinet (10). The two ends of the return pipe (102) are respectively connected to the cooling pipe (101) and the pressurizing pump (30), and the pressurizing pump (30), the temperature control box (40), and the radiator (50) are connected to each other in pairs. The temperature control box (40) includes a box body and a control component (43), the control component (43) being able to control the opening and closing of the upper and / or lower ends of the box body according to the temperature of the coolant in the box body; The control component (43) includes an upper top seat (431), an abutment rod (435), a support frame (433), a sliding switch, and a lower base (439). The upper top seat (431) and the lower base (439) are respectively fixed to the upper and lower ends of the housing. The abutment rod (435) is located between the upper top seat (431) and the sliding switch. The support frame (433) is fixed to the upper top seat (431) to support the sliding switch. The sliding switch is movably disposed between the upper top seat (431) and the lower base (439) and abuts against the abutment rod (435). The sliding switch can be sealed in the upper top seat (431) or the lower base (439) respectively.

2. The electricity consumption data hierarchical analysis and control device according to claim 1, characterized in that, The cooling system further includes a first delivery pipe (301), a second delivery pipe (302), a third delivery pipe (303), and a fourth delivery pipe (304). The two ends of the first delivery pipe (301) are respectively connected to the middle of the pressurizing pump (30) and the temperature control box (40). The two ends of the second delivery pipe (302) are respectively connected to the return pipe (102) and the lower end of the temperature control box (40). The two ends of the third delivery pipe (303) are respectively connected to the upper end of the temperature control box (40) and one end of the radiator (50). The two ends of the fourth delivery pipe (304) are respectively connected to the other end of the radiator (50) and the pressurizing pump (30).

3. The electricity consumption data hierarchical analysis and control device according to claim 1, characterized in that, The sliding switch includes an upper sealing block (432), a heat transfer cylinder (434), and a lower sealing block (438). The heat transfer cylinder (434) is slidably disposed in the support frame (433). The upper sealing block (432) is sleeved on the outer side of the upper end of the heat transfer cylinder (434) and can be sealed in the upper top seat (431). The lower end of the heat transfer cylinder (434) is connected to the lower sealing block (438), and the lower sealing block (438) can be sealed in the lower base (439).

4. The electricity consumption data hierarchical analysis and control device according to claim 3, characterized in that, The sliding switch also includes an airbag (436) and a return spring (437). The return spring (437) is sleeved on the outside of the heat transfer cylinder (434), and the two ends of the return spring (437) are respectively connected to the upper sealing block (432) and the support frame (433). The airbag (436) is disposed in the heat transfer cylinder (434) and abuts against the abutment rod (435). The heat transfer cylinder (434) can transfer heat to the airbag (436). The airbag (436) can expand when heated, and under the limitation of the abutment rod (435), the airbag (436) can push the heat transfer cylinder (434) toward the lower base (439) when it expands.

5. The electricity consumption data hierarchical analysis and control device according to any one of claims 1-4, characterized in that, The housing includes a first housing (41) and a second housing (42). The first housing (41) is provided with an annular limiting groove (403), and the second housing (42) is provided with an annular limiting protrusion (404). The annular limiting protrusion (404) can be inserted into the annular limiting groove (403).

6. The electricity consumption data hierarchical analysis and control device according to claim 5, characterized in that, The first housing (41) is provided with a first fixing seat (411), and the first fixing seat (411) is provided with a first slot (4111). The second housing (42) is provided with a second fixing seat (421), and the second fixing seat (421) is provided with a first insert (422). The first insert (422) can be inserted into the first slot (4111).

7. The electricity consumption data hierarchical analysis and control device according to claim 6, characterized in that, The first insert (422) is provided with a second slot (4221), and the second slot (4221) is provided with a first magnetic stone (423). The first slot (4111) is provided with a locking component (412). The locking component (412) includes a second insert (4121), and the second insert (4121) is provided with a second magnetic stone (4122). The second insert (4121) can be inserted into the second slot (4221), and the first magnetic stone (423) and the second magnetic stone (4122) can be magnetically connected.

8. The electricity consumption data hierarchical analysis and control device according to claim 7, characterized in that, The locking assembly (412) further includes a support spring (4123), a fixing block (4124), a pulling member (4125), a limiting block (4126), and a locking block (4127). One end of the pulling member (4125) is fixed to the second insert (4121), and the other end is hinged to the limiting block (4126). The fixing block (4124) and the support spring (4123) are both sleeved on the outside of the pulling member (4125), and the support spring (4123) is located between the fixing block (4124) and the second insert (4121). The fixing block (4124) is fixed to the outside of the first fixing seat (411). The locking block (4127) abuts against the fixing block (4124), and the limiting block (4126) can be engaged in the locking block (4127).

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