High-frequency data acquisition device for energy storage power station

Abstract

The utility model discloses an energy storage power station data high frequency acquisition device, and specifically relates to the energy storage power station data acquisition technology field, the energy storage power station data high frequency acquisition device comprises a housing mechanism, an inner container mechanism, and a fast installation mechanism, the housing mechanism comprises an installation housing, the inner container mechanism comprises an installation plate, and the fast installation mechanism comprises a lock sleeve and a lock pin. According to the high-frequency data acquisition device for the energy storage power station, when disassembly and maintenance are needed, only a control head needs to be pressed to enable a lock pin to move towards one side close to a lock sleeve, in the displacement process, a clamping block moves to the bottom of a sliding block under the action of guide sliding grooves in the top of the sliding block and the bottom of the clamping block, then a second spring is loosened to drive the lock pin to rebound, and the lock pin is locked. At the moment, the clamping block drives the sliding block to move towards the side close to the lock head, after the sliding block is attached to the bottom of the lock head, under the action of a guiding sliding groove in the bottom of the sliding block, the lock head can cross the clamping block to move to the side, away from the clamping block, of the lock sleeve, unlocking is completed, and the inner container mechanism can be pulled out of the shell mechanism.

Description

Technical Field

[0001] This utility model relates to the field of data acquisition technology for energy storage power stations, specifically a high-frequency data acquisition device for energy storage power stations. Background Technology

[0002] An energy storage power station is a type of power facility whose primary function is to store electrical energy within a power system and release that stored energy when needed to meet the system's demands. Energy storage power stations achieve this by utilizing various energy storage technologies, including but not limited to battery storage, pumped hydro storage, compressed air storage, flywheel storage, and supercapacitor storage. With advancements in energy storage technology and the increasing demand for flexibility in power systems, energy storage power stations are evolving towards higher efficiency, lower costs, and longer lifespans. Furthermore, with the application of digital and intelligent technologies, energy storage power stations will become more intelligent, possessing advanced functions such as self-diagnosis and self-maintenance, further improving the operational efficiency and reliability of the power system.

[0003] High-frequency data acquisition devices for energy storage power stations are specialized equipment designed for real-time monitoring and acquisition of various critical operational data within energy storage power stations. These devices primarily monitor various parameters within the energy storage system to ensure its safe and stable operation, and provide necessary data support for system optimization, fault diagnosis, and maintenance. With the continuous advancement of energy storage technology and the application of technologies such as the Internet of Things, big data, and artificial intelligence, future high-frequency data acquisition devices for energy storage power stations will be more intelligent and automated. They will not only be able to achieve efficient data acquisition and analysis but will also possess greater autonomous control and decision-making capabilities, providing stronger technical support for the safe and stable operation of energy storage systems.

[0004] With the development of renewable energy and the modernization of power systems, data acquisition and monitoring have become crucial for energy storage power stations, which serve as important power regulation facilities. High-frequency data acquisition devices are a core component of energy storage power station operation and management, responsible for real-time monitoring of key information such as battery pack status and environmental parameters, providing data support for the efficient operation of the energy storage system. However, existing data acquisition devices suffer from the following problems in practical applications: when maintenance or replacement of the main control circuit board is required, the traditional mounting method results in a complex and time-consuming disassembly process. Utility Model Content

[0005] The purpose of this invention is to provide a high-frequency data acquisition device for energy storage power stations to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, this utility model provides the following technical solution: a high-frequency data acquisition device for an energy storage power station, comprising an outer shell mechanism, an inner shell mechanism, and a quick-installation mechanism. The outer shell mechanism includes a mounting shell, the inner shell mechanism includes a mounting plate, and the quick-installation mechanism includes a locking sleeve and a locking pin. The locking sleeve is fixedly installed inside the mounting shell, the locking pin is slidably installed inside the mounting plate, a slider is slidably installed on the outer wall of the locking pin, a lock head is fixedly installed at one end of the locking pin, an installation rod is slidably installed inside the locking sleeve, a first spring is sleeved on the outer wall of the installation rod, the first spring is fixedly installed inside the locking sleeve, a locking block is fixedly installed on one side of the installation rod, guide grooves are provided on the top of the locking head, the upper and lower sides of the slider, and the bottom of the locking block, a second spring is sleeved on the outer wall of the locking pin, and an operating head is fixedly installed on one side of the locking pin.

[0007] Preferably, a limit cap is fixedly installed on one side of the mounting rod.

[0008] Preferably, the locking pin has a positioning groove inside, and a limit rod is slidably installed inside the positioning groove. The limit rod is fixedly installed inside the mounting plate.

[0009] Preferably, paddles are fixedly installed on both the left and right sides of the control head.

[0010] Preferably, a main control circuit board is fixedly mounted on one side of the mounting plate, a number of sensor interfaces are provided on one side of the mounting plate, a number of expansion interfaces are provided on one side of the mounting plate, an Ethernet interface is provided on one side of the mounting plate, two sets of communication antennas are fixedly mounted on the top of the mounting housing, and a display panel is fixedly mounted on the top of the mounting housing.

[0011] Preferably, a plurality of cooling fans are fixedly installed inside the mounting housing, a temperature measuring module is fixedly installed on the top of the main control circuit board, a plurality of heat dissipation grooves are opened on the outer wall of the mounting housing, and filters are fixedly installed on both the left and right sides of the mounting housing.

[0012] Preferably, the outer wall of the mounting shell is fixedly fitted with a plurality of mounting lugs.

[0013] Compared with the prior art, the beneficial effects of this utility model are: the high-frequency data acquisition device for energy storage power stations;

[0014] 1. The inner liner mechanism is fixedly installed inside the outer shell mechanism through the cooperation of the locking sleeve, locking pin, locking head, locking block, first spring, second spring, and operating head. The locking relationship between the locking head and the locking block is ensured by the first spring and the locking block. When disassembly and maintenance are required, simply press the operating head to move the locking pin to the side closer to the locking sleeve. During the displacement, the locking block is moved to the bottom of the slider by the guide groove at the top of the slider and the bottom of the locking block. Then, release the second spring to cause the locking pin to rebound. At this time, the locking block moves the slider to the side closer to the locking head. When the slider is close to the bottom of the locking head, the locking head can move past the locking block to the side of the locking sleeve away from the locking block by the guide groove at the bottom of the slider, thus completing the unlocking and allowing the inner liner mechanism to be pulled out from the inside of the outer shell mechanism.

[0015] The positioning groove and the limiting rod work together to limit the displacement range of the locking pin inside the mounting plate. The limiting cap limits the displacement range of the mounting rod and the locking block inside the lock sleeve to prevent excessive displacement of the mounting rod and the locking pin. The lever makes it easy for the user to pull the locking pin.

[0016] 2. By connecting to various sensors through the set sensor interface, it can collect multiple parameters such as voltage, current, temperature, and humidity to comprehensively monitor the status of the energy storage power station. The expansion interface allows the addition of additional functional modules or sensors, such as GPS modules and additional communication modules, enhancing the flexibility and adaptability of the device. The data acquisition device can be connected to the existing local area network or wide area network through the Ethernet interface, which facilitates centralized management and remote access. Wireless data transmission is achieved through the communication antenna, enabling the data acquisition device to communicate with remote servers or monitoring centers without wiring, which is convenient for deployment and maintenance. The display panel displays the working status of the acquisition device and the collected data in real time, which is convenient for on-site personnel to check at any time.

[0017] The device uses a cooling fan to dissipate heat from the inside and filters outside air to prevent dust from entering the mounting housing. The cooling grooves increase the surface area of ​​the mounting housing to improve heat dissipation efficiency. A temperature sensing module detects the internal temperature of the device and adjusts the speed of the cooling fan based on the temperature data to reduce resource waste. Mounting lugs facilitate user installation of the device. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the structure of this utility model;

[0019] Figure 2 This is a structural development diagram of the present invention;

[0020] Figure 3 This is a schematic diagram of the quick-assembly mechanism of this utility model;

[0021] Figure 4This is a schematic diagram of the outer shell mechanism of this utility model.

[0022] In the diagram: 1. Outer shell mechanism; 101. Mounting shell; 102. Communication antenna; 103. Display panel; 104. Cooling fan; 105. Filter screen; 106. Heat dissipation groove; 107. Mounting lug; 2. Inner shell mechanism; 201. Mounting plate; 202. Main control circuit board; 203. Sensor interface; 204. Expansion interface; 205. Ethernet interface; 206. Temperature measurement module; 3. Quick-release mechanism; 301. Locking sleeve; 302. Locking pin; 303. Slider; 304. Lock head; 305. Mounting rod; 306. First spring; 307. Locking block; 308. Guide slide; 309. Second spring; 310. Operating head; 311. Paddle; 312. Positioning slide; 313. Limiting rod; 314. Limiting cap. Detailed Implementation

[0023] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0024] Please see Figure 1-3This utility model provides a technical solution: a high-frequency data acquisition device for an energy storage power station, including an outer shell mechanism 1, an inner shell mechanism 2, and a quick-installation mechanism 3. The outer shell mechanism 1 includes a mounting shell 101, the inner shell mechanism 2 includes a mounting plate 201, and the quick-installation mechanism 3 includes a locking sleeve 301 and a locking pin 302. The locking sleeve 301 is fixedly installed inside the mounting shell 101, and the locking pin 302 is slidably installed inside the mounting plate 201. A slider 303 is slidably installed on the outer wall of the locking pin 302, and a lock head 304 is fixedly installed at one end of the locking pin 302. An installation rod 305 is slidably installed inside the locking sleeve 301, and a first spring 306 is sleeved on the outer wall of the installation rod 305. The first spring 306 is fixedly installed inside the locking sleeve 301, and a locking block 307 is fixedly installed on one side of the installation rod 305. The top of the locking head 304, the upper and lower sides of the slider 303, and the locking block 307 are all fixedly installed. The bottom of the 07 is provided with a guide groove 308. A second spring 309 is sleeved on the outer wall of the locking pin 302. An operating head 310 is fixedly installed on one side of the locking pin 302. A limit cap 314 is fixedly installed on one side of the mounting rod 305. A positioning groove 312 is provided inside the locking pin 302. A limit rod 313 is slidably installed inside the positioning groove 312. The limit rod 313 is fixedly installed inside the mounting plate 201. The positioning groove 312 and the limit rod 313 cooperate to limit the displacement range of the locking pin 302 inside the mounting plate 201. The limit cap 314 limits the displacement range of the mounting rod 305 and the locking block 307 inside the locking sleeve 301 to prevent excessive displacement of the mounting rod 305 and the locking pin 302. A paddle 311 is fixedly installed on both sides of the operating head 310. The paddle 311 facilitates the user to pull the locking pin 302.

[0025] The specific implementation method is as follows: the inner liner mechanism 2 is fixedly installed inside the outer shell mechanism 1 through the cooperation of the locking sleeve 301, locking pin 302, locking head 304, locking block 307, first spring 306, second spring 309, and operating head 310. The locking relationship between the locking head 304 and the locking block 307 is ensured by the first spring 306 and the locking block 307. When disassembly and maintenance are required, simply press the operating head 310 to move the locking pin 302 towards the side closer to the locking sleeve 301. During the displacement process, the top of the slider 303 and the locking block 309... 7. Under the action of the bottom guide groove 308, the locking block 307 is moved to the bottom of the slider 303. Then, the second spring 309 is released, which causes the locking pin 302 to rebound. At this time, the locking block 307 moves the slider 303 to the side closer to the lock head 304. When the slider 303 is close to the bottom of the lock head 304, under the action of the bottom guide groove 308 of the slider 303, the lock head 304 can pass over the locking block 307 and move to the side of the lock sleeve 301 away from the locking block 307, thus completing the unlocking and allowing the inner liner mechanism 2 to be pulled out from the inside of the outer shell mechanism 1.

[0026] Please see Figure 1-4This utility model provides a technical solution: a high-frequency data acquisition device for an energy storage power station. A main control circuit board 202 is fixedly mounted on one side of a mounting plate 201. Several sensor interfaces 203 and several expansion interfaces 204 are provided on one side of the mounting plate 201. An Ethernet interface 205 is provided on one side of the mounting plate 201. Two sets of communication antennas 102 are fixedly mounted on the top of the mounting shell 101. A display panel 103 is fixedly mounted on the top of the mounting shell 101. Several cooling fans 104 are fixedly mounted inside the mounting shell 101. A temperature measurement module 206 is fixedly mounted on the top of the main control circuit board 202. The outer wall of the mounting housing 101 is provided with several heat dissipation grooves 106. Filter screens 105 are fixedly installed on both the left and right sides of the mounting housing 101. Heat dissipation is achieved through a cooling fan 104, which filters external air to prevent a large amount of dust from entering the interior of the mounting housing 101. The heat dissipation grooves 106 increase the surface area of ​​the mounting housing 101 to improve heat dissipation efficiency. The temperature measurement module 206 detects the internal temperature of the equipment and adjusts the speed of the cooling fan 104 based on the temperature data to reduce resource waste. Several mounting lugs 107 are fixedly installed on the outer wall of the mounting housing 101 to facilitate the installation of the equipment by the user.

[0027] The specific implementation method is as follows: Multiple sensors are connected through sensor interface 203 to collect various parameters such as voltage, current, temperature, and humidity, enabling comprehensive monitoring of the energy storage power station's status. Expansion interface 204 allows the addition of additional functional modules or sensors, such as GPS modules and additional communication modules, enhancing the device's flexibility and adaptability. Ethernet interface 205 connects the data acquisition device to an existing local area network or wide area network for centralized management and remote access. Wireless data transmission is achieved through communication antenna 102, enabling the data acquisition device to communicate with a remote server or monitoring center without wiring, facilitating deployment and maintenance. Display panel 103 displays the device's operating status and collected data in real time, allowing on-site personnel to view information at any time.

[0028] Working principle: When using the high-frequency data acquisition device of this energy storage power station, the inner liner mechanism 2 is fixedly installed inside the outer shell mechanism 1 through the cooperation of the locking sleeve 301, locking pin 302, locking head 304, locking block 307, first spring 306, second spring 309, and operating head 310. The locking relationship between the locking head 304 and the locking block 307 is ensured by the first spring 306 and the locking block 307. When disassembly and maintenance are required, simply press the operating head 310 to move the locking pin 302 towards the side closer to the locking sleeve 301. During the displacement process, the slider 30... Under the action of the top and bottom guide grooves 308 of the top and bottom of the locking block 307, the locking block 307 is moved to the bottom of the slider 303. Then, the second spring 309 is released, which causes the locking pin 302 to rebound. At this time, the locking block 307 moves the slider 303 to the side closer to the lock head 304. When the slider 303 is close to the bottom of the lock head 304, under the action of the bottom guide grooves 308 of the slider 303, the lock head 304 can pass over the locking block 307 and move to the side of the lock sleeve 301 away from the locking block 307, thus completing the unlocking and allowing the inner liner mechanism 2 to be pulled out from the inside of the outer shell mechanism 1.

[0029] The positioning groove 312 and the limiting rod 313 work together to limit the displacement range of the locking pin 302 inside the mounting plate 201. The limiting cap 314 limits the displacement range of the mounting rod 305 and the locking block 307 inside the locking sleeve 301 to prevent excessive displacement of the mounting rod 305 and the locking pin 302. The lever 311 makes it convenient for the user to pull the locking pin 302.

[0030] Multiple sensors can be connected through sensor interface 203 to collect various parameters such as voltage, current, temperature, and humidity, enabling comprehensive monitoring of the energy storage power station's status. Expansion interface 204 allows the addition of additional functional modules or sensors, such as GPS modules and additional communication modules, enhancing the device's flexibility and adaptability. Ethernet interface 205 connects the data acquisition device to an existing local area network or wide area network, facilitating centralized management and remote access. Wireless data transmission is achieved through communication antenna 102, enabling the data acquisition device to communicate with a remote server or monitoring center without the need for wiring, simplifying deployment and maintenance. Display panel 103 displays the device's operating status, collected data, and other information in real time, allowing on-site personnel to view them at any time.

[0031] The cooling fan 104 dissipates heat from the inside of the equipment and filters external air to prevent a large amount of dust from entering the mounting shell 101. The heat dissipation groove 106 increases the surface area of ​​the mounting shell 101 to improve heat dissipation efficiency. The temperature measuring module 206 detects the internal temperature of the equipment and adjusts the speed of the cooling fan 104 according to the temperature data to reduce resource waste. The mounting lug 107 facilitates the installation of the equipment by the user.

[0032] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A high-frequency data acquisition device for an energy storage power station, comprising an outer shell mechanism (1), an inner shell mechanism (2), and a quick-installation mechanism (3), wherein the outer shell mechanism (1) includes a mounting shell (101), and the inner shell mechanism (2) includes a mounting plate (201), characterized in that: The quick-installation mechanism (3) includes a locking sleeve (301) and a locking pin (302). The locking sleeve (301) is fixedly installed inside the mounting housing (101). The locking pin (302) is slidably installed inside the mounting plate (201). A slider (303) is slidably installed on the outer wall of the locking pin (302). A lock head (304) is fixedly installed at one end of the locking pin (302). An installation rod (305) is slidably installed inside the locking sleeve (301). The outer wall of the installation rod (305) is fitted with a locking sleeve. A first spring (306) is installed inside the lock sleeve (301). A locking block (307) is fixedly installed on one side of the mounting rod (305). Guide grooves (308) are provided on the top of the lock head (304), the upper and lower sides of the slider (303), and the bottom of the locking block (307). A second spring (309) is sleeved on the outer wall of the locking pin (302). An operating head (310) is fixedly installed on one side of the locking pin (302).

2. The high-frequency data acquisition device for an energy storage power station according to claim 1, characterized in that, A limit cap (314) is fixedly installed on one side of the mounting rod (305).

3. The high-frequency data acquisition device for an energy storage power station according to claim 1, characterized in that, The locking pin (302) has a positioning groove (312) inside, and a limit rod (313) is slidably installed inside the positioning groove (312). The limit rod (313) is fixedly installed inside the mounting plate (201).

4. The high-frequency data acquisition device for an energy storage power station according to claim 1, characterized in that, Both sides of the control head (310) are fixedly equipped with paddles (311).

5. The high-frequency data acquisition device for an energy storage power station according to claim 1, characterized in that, A main control circuit board (202) is fixedly installed on one side of the mounting plate (201). Several sensor interfaces (203) are provided on one side of the mounting plate (201). Several expansion interfaces (204) are provided on one side of the mounting plate (201). An Ethernet interface (205) is provided on one side of the mounting plate (201). Two sets of communication antennas (102) are fixedly installed on the top of the mounting shell (101). A display panel (103) is fixedly installed on the top of the mounting shell (101).

6. The high-frequency data acquisition device for an energy storage power station according to claim 5, characterized in that, The mounting housing (101) is equipped with several cooling fans (104) inside. The main control circuit board (202) is equipped with a temperature measuring module (206) on its top. The outer wall of the mounting housing (101) is provided with several heat dissipation grooves (106). Filter screens (105) are fixedly installed on both the left and right sides of the mounting housing (101).

7. The high-frequency data acquisition device for an energy storage power station according to claim 1, characterized in that, The outer wall of the mounting shell (101) is fixedly fitted with a number of mounting lugs (107).

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