Monocrystalline silicon battery piece energy storage aging test equipment and method

Abstract

The invention relates to the technical field of monocrystalline silicon battery piece energy storage aging test, and discloses monocrystalline silicon battery piece energy storage aging test equipment and a monocrystalline silicon battery piece energy storage aging test method, the monocrystalline silicon battery piece energy storage aging test equipment comprises a test box, and the top of the test box is fixedly provided with a detection box. According to the invention, the current of the battery piece is detected through the current sensing module, then the energy metering module is used for carrying out accurate energy metering on the battery piece, then the analog-to-digital conversion module is used for reliably converting digital signals transmitted between circuits of the battery piece, and then the charging control module is used for supporting multiple battery piece charging modes. The method comprises the following steps: firstly, using an auxiliary power supply module to stably charge a battery piece, then using a micro-control module to intelligently and automatically control the battery piece, and then using a detection wire harness to perform connection detection on the battery piece needing to be detected, so that multiple data aging detection can be performed on the energy storage of the monocrystalline silicon battery piece; therefore, the intelligence of the energy storage aging detection of the monocrystalline silicon battery piece is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of single crystal silicon cell energy storage aging test, and in particular to single crystal silicon cell energy storage aging test equipment and method. Background Art

[0002] Solar cells use monocrystalline silicon wafers, which generally have two shapes, one is round and the other is square. Solar cells include monocrystalline silicon cells. The internal electrical energy needs to be tested during the testing of monocrystalline silicon cells. Conventional energy storage machine charging and discharging aging requires real batteries, which have the following problems: Batteries are used as aging equipment. The harsh working environment of the aging room (such as high temperature, high current charging and discharging) will accelerate the aging and failure of the battery. The charging and discharging safety cannot be guaranteed, and the aging efficiency loss is large. In addition to the efficiency loss of the machine itself, there is also energy loss caused by the electrochemical side reactions of the battery. The battery power is not easy to control, and it is impossible to achieve constant high-power charging and discharging for a long time. The aging effect of the energy storage machine is uncontrollable, and it is impossible to automatically measure the aging effect of the energy storage machine with simple parameters such as charging and discharging power. Charging The charging and discharging cannot be switched flexibly, and the total aging time is relatively long. Therefore, a single-crystal silicon cell energy storage aging test device and method are proposed. However, in the process of realizing the present invention, the inventors found that at least the following problems in the prior art have not been solved: 1. It is not convenient to perform intelligent charging and discharging detection on the data of the single-crystal silicon cell energy storage aging detection, thereby reducing the intelligence of the single-crystal silicon cell energy storage aging data detection; 2. It is not convenient to perform multiple environmental simulation tests on the single-crystal silicon cell, and the single-crystal silicon cell energy storage environment detection reduces the accuracy of the single-crystal silicon cell energy storage aging test; 3. It is not convenient to perform fire extinguishing protection on the single-crystal silicon cell under test, and battery aging may cause fire during the detection of the single-crystal silicon cell, thereby reducing the safety of the single-crystal silicon cell detection. For this reason, the present invention designs a single-crystal silicon cell energy storage aging test device and method. Summary of the invention

[0003] The purpose of the present invention is to solve the shortcomings existing in the prior art, such as: it is inconvenient to perform intelligent charging and discharging detection on the data of energy storage aging detection of monocrystalline silicon cells, thereby reducing the intelligence of energy storage aging data detection of monocrystalline silicon cells, and it is also inconvenient to perform multiple environmental simulation tests on monocrystalline silicon cells. The energy storage environment detection of monocrystalline silicon cells is single, thereby reducing the accuracy of energy storage aging test of monocrystalline silicon cells, and it is inconvenient to perform fire extinguishing protection on the monocrystalline silicon cells under test. Battery aging may cause fire during the detection of monocrystalline silicon cells, thereby reducing the safety of monocrystalline silicon cell detection. To this end, the present invention designs a monocrystalline silicon cell energy storage aging test device and method.

[0004] In order to achieve the above-mentioned purpose, the present invention adopts the following technical scheme: a single crystal silicon cell energy storage aging test device, comprising a test box, a detection box is fixedly installed on the top of the test box, a control button is fixedly installed on the top of the detection box, a power jack is fixedly installed on the surface of the control button, a detection wire groove is provided through the bottom of the detection box, a detection box is fixedly installed inside the detection box, a detection mainboard is fixedly installed inside the detection box, a current sensing module is electrically installed on the top of the detection mainboard, an energy metering module is electrically installed on one side of the current sensing module, an analog-to-digital conversion module is electrically installed on one side of the energy metering module, a charging control module is electrically installed on one side of the analog-to-digital conversion module, an auxiliary power supply module is electrically installed on one side of the charging control module, a microcontroller module is electrically installed on one side of the auxiliary power supply module, and a detection harness is electrically installed through the bottom of the detection mainboard;

[0005] An environment detection frame is movably installed inside the test box, a blowing fan is installed through one end of the environment detection frame, detection connection plates are fixedly installed on both sides of the environment detection frame, and intelligent temperature heating plates are fixedly installed between the detection connection plates;

[0006] A fire extinguishing frame is fixedly installed on the surface of the detection box, a water pipe hanging frame is fixedly installed on the top of the fire extinguishing frame, a fire extinguishing water pipe is movably installed inside the water pipe hanging frame, a drainage pipe is installed through the bottom of the fire extinguishing water pipe, a smoke sensor is fixedly installed between the drainage pipes, and an atomizing nozzle is installed through the bottom of the drainage pipe.

[0007] Preferably, a test inner reinforcement layer is fixedly installed inside the test box, a test top notch is penetrated through the top of the test box, a blowing frame is penetrated through one end of the test box, a blowing filter plate is fixedly installed on one end of the blowing frame, a placement box is fixedly installed on one side of the test box, a water tank is fixedly installed on the other side of the test box, and a test door is movably installed on the surface of the test box through a hinge.

[0008] Preferably, a test glass is installed throughout the interior of the test door, and a test handle is fixedly installed on the surface of the test door.

[0009] Preferably, a placement frame plate is fixedly installed on both sides of the placement box, a battery placement plate is movably installed inside the placement frame plate, a placement hole is penetrated inside the battery placement plate, and a placement door is movably installed on the surface of the placement box through a hinge.

[0010] Preferably, a placement glass is installed through the interior of the placement door, and a placement handle is fixedly installed on the surface of the placement door.

[0011] Preferably, a detection base plate is movably installed between the environmental detection frames, a detection placement plate is fixedly installed on the top of the detection base plate, a battery cell body is movably installed between the detection placement plates, and detection ventilation slots are provided throughout the interior of the detection placement plates.

[0012] Preferably, a water tank observation glass is installed through the surface of the water tank, a water injection pipe is installed through the top of the water tank, a sealing cover is movably installed on the top of the water injection pipe, a water supply pump is fixedly installed at the bottom end of the water tank, and a supporting base plate is fixedly installed at the bottom of the water tank.

[0013] Preferably, a water supply pipe is installed through the top of the drainage end of the water supply pump, and the water supply pipe is made of rubber material.

[0014] Preferably, a non-slip bottom pad is fixedly installed on the bottom of the supporting base plate, and the non-slip bottom pad is made of rubber material.

[0015] A method for using a single crystal silicon cell energy storage aging test device comprises the following steps:

[0016] S1. Pull the test door through the test handle to open and close it, then use the test glass to observe the battery cell under test, then use the test box and the test inner reinforcement layer to perform safety test on the battery cell, then use the test top notch to facilitate the test and fire extinguishing equipment to detect and protect the battery cell, then use the environmental detection frame to movably install it inside the test box, then use the detection bottom plate to movably place it between the environmental detection frames, then use multiple detection placement plates to movably place and detect the battery cell body, then use the detection ventilation notch to perform ventilation detection, then use the blowing fan to movably plug in the blowing frame, and then use the intelligent temperature heating plate to simulate high temperature on the battery cell inside the test box , then use the battery cell inside the fan to simulate the blowing wear environment, then use the power jack to power the electrical equipment, then use the control button to control the switch of the electrical equipment, then use the current sensing module to detect the current of the battery cell, then use the energy metering module to accurately measure the energy of the battery cell, then use the analog-to-digital conversion module to reliably transmit digital signals between the circuits of the battery cell, then use the charging control module to support multiple battery cell charging modes, then use the auxiliary power supply module to stably charge the battery cell, then use the microcontroller module to intelligently and automatically control the battery cell, and then use the detection harness to connect and detect the battery cell that needs to be detected;

[0017] S2. Use the smoke sensor to detect the smoke of the battery cells inside the test box, then use the fire extinguishing water pipe in conjunction with the drainage pipe to transport and store the fire extinguishing water source, then use the smoke sensor in conjunction with the atomizing nozzle to spray water inside the test box to extinguish the fire, then use the water injection pipe box to inject water into the water storage tank, then use the water tank observation glass to observe the water level inside the water storage tank, and then use the water supply pump in conjunction with the water supply pipe to introduce the fire extinguishing water source;

[0018] S3. Pull the placement door to open and close it by the placement handle, then use the placement glass to observe the placed battery cells, then use the battery placement plate and the internal placement holes to stably place the tested battery cells, and then use the support bottom plate and anti-slip bottom pad to stably support the battery cell testing equipment.

[0019] Compared with the prior art, the present invention has the following beneficial effects:

[0020] 1. The present invention supplies power to the electrical equipment through the power socket, and then uses the control button to control the switch of the electrical equipment, and then uses the current sensing module to detect the current of the battery cell, and then uses the energy metering module to accurately measure the energy of the battery cell, and then uses the analog-to-digital conversion module to reliably transmit digital signals between circuits of the battery cell, and then uses the charging control module to support multiple battery cell charging modes, and then uses the auxiliary power module to stably charge the battery cell, and then uses the microcontroller module to intelligently and automatically control the battery cell, and then uses the detection harness to connect and detect the battery cell that needs to be detected, which can perform multiple data aging detection on the energy storage of the monocrystalline silicon battery cell, thereby improving the intelligence of the energy storage aging detection of the monocrystalline silicon battery cell.

[0021] 2. The present invention installs the environment detection frame movably inside the test box, and then uses the blowing fan to movably plug in the blowing frame, and then uses the intelligent temperature heating plate to simulate the high temperature of the battery cells inside the test box, and then uses the blowing fan to simulate the blowing wear environment of the battery cells. It can perform various environmental simulation tests on the monocrystalline silicon battery cells and diversify the energy storage environment detection environment of the monocrystalline silicon battery cells, thereby improving the accuracy of the energy storage aging test of the monocrystalline silicon battery cells.

[0022] 3. The present invention detects smoke from the battery cells inside the test box through the smoke sensor, and then uses the fire extinguishing water pipe in conjunction with the drainage pipe to transport and store the fire extinguishing water source, and then uses the smoke sensor in conjunction with the atomizing nozzle to spray water inside the test box to extinguish the fire, which can extinguish the fire for the monocrystalline silicon battery cells under test, thereby improving the safety of monocrystalline silicon battery cell detection. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1This is an overall stereogram of a single crystal silicon cell energy storage aging test device proposed by the present invention;

[0024] Figure 2 This is a schematic diagram of the overall structure of a single crystal silicon cell energy storage aging test device proposed by the present invention;

[0025] Figure 3 A schematic diagram of the partial structure of a fire extinguishing frame of a single crystal silicon cell energy storage aging test device proposed by the present invention;

[0026] Figure 4 A schematic diagram of the partial structure of a detection box of a single crystal silicon cell energy storage aging test device proposed by the present invention;

[0027] Figure 5 A partial three-dimensional diagram of an environmental detection frame of a single-crystal silicon cell energy storage aging test device proposed by the present invention;

[0028] Figure 6 A partial stereoscopic diagram of a test box of a single crystal silicon cell energy storage aging test device proposed by the present invention;

[0029] Figure 7 A schematic diagram of the partial structure of a water supply pump of a single crystal silicon cell energy storage aging test device proposed by the present invention;

[0030] Figure 8 A partial stereoscopic diagram of a detection base plate of a single crystal silicon cell energy storage aging test device proposed by the present invention;

[0031] Fig. 9 This is a schematic diagram of the partial structure of a placement box for a single crystal silicon cell energy storage aging test device proposed in the present invention.

[0032] In the figure: 1, support base plate; 101, non-slip bottom pad; 2, water storage tank; 201, water tank observation glass; 202, water injection pipe; 203, sealing cover; 3, fire extinguishing frame; 301, water pipe hanging frame; 302, fire extinguishing water pipe; 303, drainage pipe; 304, atomizing nozzle; 305, smoke sensor; 4, detection box; 401, control button; 402, power jack; 403, detection threading groove; 404, detection box; 405, detection main board; 406, current sensor module; 407, energy metering module; 408, analog-to-digital conversion module; 409, charging control module; 410, auxiliary power module; 411, microcontroller module; 412, detection 1. Test harness; 2. Test door; 3. Test glass; 4. Test handle; 5. Placement door; 6. Placement glass; 7. Placement handle; 8. Placement box; 9. Placement frame plate; 10. Test top notch; 11. Test air filter; 12. Test filter plate; 13. Test bottom plate; 14. Test placement plate; 15. Test ventilation notch; 16. Water supply pump; 17. Water supply pipe; 18. Battery body. DETAILED DESCRIPTION

[0033] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0034] like Figure 1-Figure 9As shown, the present invention provides a single crystal silicon cell energy storage aging test device and method, including a test box 8, a detection box 4 is fixedly installed on the top of the test box 8, a control button 401 is fixedly installed on the top of the detection box 4, a power socket 402 is fixedly installed on the surface of the control button 401, a detection wire groove 403 is provided through the bottom of the detection box 4, a detection box 404 is fixedly installed inside the detection box 4, a detection mainboard 405 is fixedly installed inside the detection box 404, a current sensor module 406 is electrically installed on the top of the detection mainboard 405, an energy metering module 407 is electrically installed on one side of the current sensor module 406, an analog-to-digital conversion module 408 is electrically installed on one side of the energy metering module 407, a charging control module 409 is electrically installed on one side of the analog-to-digital conversion module 408, an auxiliary power supply module 410 is electrically installed on one side of the charging control module 409, a microcontroller module 411 is electrically installed on one side of the auxiliary power supply module 410, and a detection harness 412 is electrically installed through the bottom of the detection mainboard 405;

[0035] An environment detection frame 9 is movably installed inside the test box 8, a blowing fan 901 is installed through one end of the environment detection frame 9, detection connecting plates 902 are fixedly installed on both sides of the environment detection frame 9, and intelligent temperature heating plates 903 are fixedly installed between the detection connecting plates 902;

[0036] A fire extinguishing frame 3 is fixedly installed on the surface of the detection box 4, a water pipe hanging frame 301 is fixedly installed on the top of the inside of the fire extinguishing frame 3, a fire extinguishing water pipe 302 is movably installed inside the water pipe hanging frame 301, a drainage pipe 303 is installed through the bottom of the fire extinguishing water pipe 302, a smoke sensor 305 is fixedly installed between the drainage pipes 303, and an atomizing nozzle 304 is installed through the bottom of the drainage pipe 303.

[0037] When the device is working, the power supply jack 402 is used to supply power to the electrical device, and then the control button 401 is used to control the switch of the electrical device, and then the current sensing module 406 is used to detect the current of the battery, and then the energy metering module 407 is used to accurately measure the energy of the battery, and then the analog-to-digital conversion module 408 is used to reliably transmit digital signals between the circuits of the battery, and then the charging control module 409 is used to support multiple battery charging modes, and then the auxiliary power module 410 is used to stably charge the battery, and then the The microcontroller module 411 performs intelligent and automatic control on the battery cell, and then uses the detection harness 412 to perform connection detection on the battery cell to be detected, and can perform various data aging detection on the energy storage of the monocrystalline silicon battery cell, thereby improving the intelligence of the energy storage aging detection of the monocrystalline silicon battery cell. The current sensor module 406 is used to detect the current and monitor the system status. The energy metering module 407 is used for accurate energy metering and supports DC and AC measurement. The model of the energy metering module 407 can be NXPP110C. The analog-to-digital conversion module 408 converts the analog signal from the sensor into The charging control module 409 is used for battery charging control and supports multiple charging modes. The auxiliary power supply module 410 realizes stable power supply. The microcontroller module 411 executes the control algorithm, manages the charging and discharging process, and communicates with external devices to realize intelligent and automatic control. The current sensing module 406 is electrically connected to the detection mainboard 405 through a wire. The energy metering module 407 is electrically connected to the detection mainboard 405 through a wire. The analog-to-digital conversion module 408 is electrically connected to the detection mainboard 405 through a wire. Electrically connected, the charging control module 409 is electrically connected to the detection main board 405 through a wire, the auxiliary power supply module 410 is electrically connected to the detection main board 405 through a wire, the micro control module 411 is electrically connected to the detection main board 405 through a wire, the detection harness 412 is electrically connected to the detection main board 405 through a wire, the detection main board 405 is electrically connected to the control button 401 through a wire, the control button 401 is electrically connected to the power jack 402 through a wire, and the power jack 402 is electrically connected to an external power supply through a wire.

[0038] The environment detection frame 9 is movably installed inside the test box 8, and then the blowing fan 901 is movably plugged inside the blowing frame 803, and then the intelligent temperature heating plate 903 is used to simulate the high temperature of the battery cells inside the test box 8, and then the battery cells inside the blowing fan 901 are simulated by the blowing wear environment, so that a variety of environmental simulation tests can be performed on the monocrystalline silicon battery cells, and the energy storage environment detection environment of the monocrystalline silicon battery cells is diversified, thereby improving the accuracy of the energy storage aging test of the monocrystalline silicon battery cells, the blowing fan 901 is electrically connected to the control button 401 through a wire, and the intelligent temperature heating plate 903 is electrically connected to the control button 401 through a wire;

[0039] The smoke sensor 305 is used to detect the smoke of the battery cells inside the test box 8, and then the fire extinguishing water source is transported and stored by using the fire extinguishing water pipe 302 in cooperation with the drain pipe 303. Then, the smoke sensor 305 is used in cooperation with the atomizing nozzle 304 to spray water inside the test box 8 to extinguish the fire, which can extinguish the fire of the single crystal silicon battery cells under test, thereby improving the safety of the single crystal silicon battery cell detection. The smoke sensor 305 is electrically connected to the detection main board 405 through a wire, and the atomizing nozzle 304 is electrically connected to the detection main board 405 through a wire;

[0040] Among them, a test inner reinforcement layer 801 is fixedly installed inside the test box 8, a test top notch 802 is provided through the top of the test box 8, a blowing frame 803 is installed through one end of the test box 8, a blowing filter screen 804 is fixedly installed on one end of the blowing frame 803, a placement box 7 is fixedly installed on one side of the test box 8, a water storage tank 2 is fixedly installed on the other side of the test box 8, and a test door 5 is movably installed on the surface of the test box 8 through a hinge;

[0041] It should be noted that when the device is working, the test box 8 and the test inner reinforcement layer 801 can be used to perform safety tests on the battery cells, and then the test top notch 802 is used to facilitate the testing and fire extinguishing equipment to detect and protect the battery cells, thereby improving the safety of battery cell aging detection;

[0042] A test glass 501 is installed through the inside of the test door 5, and a test handle 502 is fixedly installed on the surface of the test door 5;

[0043] It should be noted that the test door 5 is pulled open and closed by the test handle 502, and then the test glass 501 is used to observe the cell under test, thereby improving the safety of the cell test;

[0044] Among them, both sides of the placement box 7 are fixedly installed with a placement frame plate 701, the inside of the placement frame plate 701 is movably installed with a battery placement plate 702, the inside of the battery placement plate 702 is penetrated with a placement hole 703, and the surface of the placement box 7 is movably installed with a placement door 6 through a hinge;

[0045] It should be noted that the battery placement plate 702 cooperates with the internal placement holes 703 to stably place the tested battery cells, thereby improving the convenience of placing the battery cells;

[0046] Among them, a placement glass 601 is installed through the interior of the placement door 6, and a placement handle 602 is fixedly installed on the surface of the placement door 6;

[0047] It should be noted that the placement door 6 is pulled by the placement handle 602 to be opened and closed, and then the placed battery cells are observed by the placement glass 601, thereby improving the safety of the active placement of the battery cells;

[0048] Among them, a detection base plate 10 is movably installed between the environmental detection frames 9, a detection placement plate 1001 is fixedly installed on the top of the detection base plate 10, a battery cell body 12 is movably installed between the detection placement plates 1001, and detection ventilation slots 1002 are provided throughout the interior of the detection placement plates 1001;

[0049] It should be noted that by flexibly placing the detection base plate 10 between the environmental detection frames 9, and then using multiple detection placement plates 1001 to perform active placement detection on the battery cell body 12, and then using the detection ventilation slots 1002 to perform ventilation detection, the stability of the battery cell detection is improved.

[0050] A water tank observation glass 201 is installed through the surface of the water tank 2, a water injection pipe 202 is installed through the top of the water tank 2, a sealing cover 203 is movably installed on the top of the water injection pipe 202, a water supply pump 11 is fixedly installed at the bottom end of the water tank 2, and a supporting bottom plate 1 is fixedly installed at the bottom of the water tank 2;

[0051] It should be noted that water is injected into the water storage tank 2 through the water injection pipe 202, and then the water level inside the water storage tank 2 is observed using the water tank observation glass 201, thereby improving the stability of the battery cell fire extinguishing water source storage.

[0052] A water supply pipe 1101 is installed through the top of the drainage end of the water supply pump 11, and the water supply pipe 1101 is made of rubber.

[0053] It should be noted that the fire extinguishing water source is introduced through the water supply pump 11 in cooperation with the water supply pipe 1101, thereby improving the stability of fire extinguishing. The water supply pump 11 is electrically connected to the detection mainboard 405 through a wire.

[0054] Among them, a non-slip bottom pad 101 is fixedly installed at the bottom of the supporting base plate 1, and the non-slip bottom pad 101 is made of rubber material.

[0055] It should be noted that the battery cell testing device is stably supported by the supporting base plate 1 and the anti-skid base pad 101, thereby improving the stability of the battery cell testing device in use.

[0056] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A single crystal silicon cell energy storage aging test device, comprising a test box (8), characterized in that: A detection box (4) is fixedly mounted on the top of the test box (8); a control button (401) is fixedly mounted on the top of the detection box (4); a power socket (402) is fixedly mounted on the surface of the control button (401); a detection wire threading groove (403) is provided through the bottom of the detection box (4); a detection box (404) is fixedly mounted inside the detection box (4); a detection mainboard (405) is fixedly mounted inside the detection box (404); a current sensor module (406) is electrically mounted on the top of the detection mainboard (405); An energy metering module (407) is electrically installed on one side of the flow sensing module (406), an analog-to-digital conversion module (408) is electrically installed on one side of the energy metering module (407), a charging control module (409) is electrically installed on one side of the analog-to-digital conversion module (408), an auxiliary power supply module (410) is electrically installed on one side of the charging control module (409), a microcontroller module (411) is electrically installed on one side of the auxiliary power supply module (410), and a detection harness (412) is electrically installed through the bottom of the detection mainboard (405); An environment detection frame (9) is movably installed inside the test box (8), a blowing fan (901) is installed through one end of the environment detection frame (9), detection connection plates (902) are fixedly installed on both sides of the environment detection frame (9), and intelligent temperature heating plates (903) are fixedly installed between the detection connection plates (902); A fire extinguishing frame (3) is fixedly mounted on the surface of the detection box (4); a water pipe hanging frame (301) is fixedly mounted on the top of the interior of the fire extinguishing frame (3); a fire extinguishing water pipe (302) is movably mounted inside the water pipe hanging frame (301); a drainage pipe (303) is installed through the bottom of the fire extinguishing water pipe (302); a smoke sensor (305) is fixedly mounted between the drainage pipes (303); and an atomizing nozzle (304) is installed through the bottom of the drainage pipe (303).

2. The single crystal silicon cell energy storage aging test equipment according to claim 1, characterized in that: A test inner reinforcement layer (801) is fixedly installed inside the test box (8), a test top notch (802) is provided through the top of the test box (8), a blowing frame (803) is installed through one end of the test box (8), a blowing filter screen (804) is fixedly installed on one end of the blowing frame (803), a placement box (7) is fixedly installed on one side of the test box (8), a water storage tank (2) is fixedly installed on the other side of the test box (8), and a test door (5) is movably installed on the surface of the test box (8) via a hinge.

3. The single crystal silicon cell energy storage aging test equipment according to claim 2, characterized in that: A test glass (501) is installed through the interior of the test door (5), and a test handle (502) is fixedly installed on the surface of the test door (5).

4. The single crystal silicon cell energy storage aging test equipment according to claim 2, characterized in that: Both sides of the placement box (7) are fixedly installed with placement frame plates (701), the inside of the placement frame plates (701) are movably installed with battery placement plates (702), the inside of the battery placement plates (702) are penetrated with placement holes (703), and the surface of the placement box (7) is movably installed with a placement door (6) via a hinge.

5. The single crystal silicon cell energy storage aging test equipment according to claim 4, characterized in that: A placement glass (601) is installed through the interior of the placement door (6), and a placement handle (602) is fixedly installed on the surface of the placement door (6).

6. The single crystal silicon cell energy storage aging test equipment according to claim 1, characterized in that: A detection base plate (10) is movably mounted between the environmental detection frames (9), a detection placement plate (1001) is fixedly mounted on the top of the detection base plate (10), a battery cell body (12) is movably mounted between the detection placement plates (1001), and detection ventilation slots (1002) are provided throughout the interior of the detection placement plates (1001).

7. The single crystal silicon cell energy storage aging test equipment according to claim 2, characterized in that: A water tank observation glass (201) is installed through the surface of the water storage tank (2), a water injection pipe (202) is installed through the top of the water storage tank (2), a sealing cover (203) is movably installed on the top of the water injection pipe (202), a water supply pump (11) is fixedly installed at the bottom end of the water storage tank (2), and a supporting base plate (1) is fixedly installed at the bottom of the water storage tank (2).

8. The single crystal silicon cell energy storage aging test equipment according to claim 7, characterized in that: A water supply pipe (1101) is installed through the top of the drainage end of the water supply pump (11), and the water supply pipe (1101) is made of rubber.

9. The single crystal silicon cell energy storage aging test equipment according to claim 7, characterized in that: An anti-skid bottom pad (101) is fixedly mounted on the bottom of the supporting bottom plate (1), and the anti-skid bottom pad (101) is made of rubber material.

10. A method for using a single crystal silicon cell energy storage aging test device, based on the single crystal silicon cell energy storage aging test device according to any one of claims 1 to 9, characterized in that: The following steps are involved: S1. Pull the test door (5) through the test handle (502) to open and close it, then use the test glass (501) to observe the battery cell under test, then use the test box (8) and the test inner reinforcement layer (801) to perform safety test on the battery cell, then use the test top notch (802) to facilitate the test and fire extinguishing equipment to detect and protect the battery cell, then use the environment detection frame (9) to movably install it inside the test box (8), then use the detection bottom plate (10) to movably place it between the environment detection frames (9), then use multiple detection placement plates (1001) to perform movably placed detection on the battery cell body (12), then use the detection ventilation notch (1002) to perform ventilation detection, then use the blowing fan (901) to movably plug in the blowing frame (803), and then use the intelligent temperature heating plate (903) to heat the inside of the test box (8). The battery cells in the blower fan (901) are subjected to high temperature simulation, and then the battery cells inside the blower fan (901) are subjected to blowing wear environment simulation, and then the power socket (402) is used to power the electrical device, and then the control button (401) is used to switch the electrical device, and then the current sensing module (406) is used to detect the current of the battery cells, and then the energy metering module (407) is used to accurately meter the energy of the battery cells, and then the analog-to-digital conversion module (408) is used to reliably transmit digital signals between the circuits of the battery cells, and then the charging control module (409) is used to support multiple battery cell charging modes, and then the auxiliary power supply module (410) is used to stably charge the battery cells, and then the microcontroller module (411) is used to intelligently and automatically control the battery cells, and then the detection harness (412) is used to perform connection detection on the battery cells to be detected; S2, using the smoke sensor (305) to detect smoke from the battery cells inside the test box (8), then using the fire extinguishing water pipe (302) in conjunction with the drainage pipe (303) to transport and store the fire extinguishing water source, then using the smoke sensor (305) in conjunction with the atomizing nozzle (304) to spray water inside the test box (8) to extinguish the fire, then using the water injection pipe (202) to inject water into the water storage tank (2), then using the water tank observation glass (201) to observe the water level inside the water storage tank (2), and then using the water supply pump (11) in conjunction with the water supply pipe (1101) to introduce the fire extinguishing water source; S3, using the placement handle (602) to pull the placement door (6) to open and close, then using the placement glass (601) to observe the placed battery cells, then using the battery placement plate (702) in conjunction with the internal placement holes (703) to stably place the tested battery cells, and then using the support bottom plate (1) and the anti-slip bottom pad (101) to stably support the battery cell testing equipment.

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