High energy efficiency intelligent static house

Abstract

The utility model discloses a high energy -efficient intelligence static house is provided with static chamber and turnover chamber in the inside of static house, is provided with the isolation door between static chamber and turnover chamber, is provided with the storage frame in static chamber, is provided with the loading and unloading door on one side of turnover chamber, heating device includes static heating subassembly and turnover heating subassembly, static heating subassembly and turnover heating subassembly all include heat pump, fan, air supply air duct and return air duct, and heat pump and fan are connected between corresponding air supply air duct and return air duct. The fan pushes the airflow flow in the static house, and the airflow enters the static house from the air supply air duct, and then enters the heat pump heating through the return air duct, and the heated hot air is sucked into the fan again, forming a circulating heating, so as to reduce the energy consumption and the production cost is low, the turnover chamber is heated through the turnover heating subassembly, and the turnover is carried out by using the turnover chamber, so that the external cold air is avoided to enter the static chamber, the temperature loss is reduced, and the temperature curve is stabilized.

Description

Technical Field

[0001] This utility model relates to the technical field of battery cell static aging equipment, and in particular to a high-efficiency intelligent static aging room. Background Technology

[0002] In the production of lithium-ion batteries, after the cells are injected with electrolyte and before entering the formation process, they need to be placed in a settling room for settling and aging. During the settling and aging process, the heating device in the settling room heats the inside to maintain a constant temperature environment, so as to promote the full wetting of the cells with electrolyte, stabilize the internal state of the cells, eliminate internal stress after electrolyte injection, and screen out early defective products.

[0003] Traditional settling chambers use electric heating rods at the air outlet of the fan to heat the cold air blown out by the fan, thus generating hot air to heat the interior space of the settling chamber and keep the battery cells in a uniformly warm environment. However, the electric heating rods have high energy consumption and high power, resulting in high production costs for the battery cells. Furthermore, opening the door of the settling chamber for loading and unloading causes temperature loss, requiring increased power for the electric heating rods and the fan, further increasing energy consumption.

[0004] After the door is opened, the hot air inside the settling room convects with the cold air outside. Even if the power of the electric heating rod and the fan is increased, it is difficult to stabilize the temperature curve inside the settling room. This will also lead to uneven temperature inside the settling room and reduce the effect of settling and aging of the battery cells.

[0005] To reduce heat loss, some settling chambers are equipped with multiple independent small chambers to reduce the impact of loading and unloading on temperature. However, this also leads to an increase in the number of doors and heating devices, making the structure more complex and difficult to automate loading and unloading. This makes later maintenance inconvenient, and the numerous and frequent loading and unloading operations result in low efficiency. Furthermore, the multi-chamber structure occupies space, which reduces the overall cell capacity of the settling chamber. Therefore, it is necessary to improve this design. Utility Model Content

[0006] To address the shortcomings of existing technologies, the purpose of this utility model is to provide a high-efficiency intelligent settling chamber that reduces the energy consumption of heating devices, improves the energy efficiency of the settling chamber, reduces production costs, minimizes temperature loss during loading and unloading, stabilizes the temperature curve, and improves the settling and aging effect.

[0007] To achieve the above objectives, the technical solution adopted by this utility model is: a high-efficiency intelligent static room, including a static room and a heating device. The static room is provided with a static chamber and a turnover chamber. An isolation door is provided between the static chamber and the turnover chamber. The static chamber and the turnover chamber are connected or separated by the isolation door. A storage rack is provided in the static chamber. A loading and unloading door is provided on one side of the turnover chamber.

[0008] The heating device includes a stationary heating component and a rotating heating component. Both the stationary heating component and the rotating heating component include a heat pump, a fan, an air supply duct, and a return air duct. The air supply duct and the return air duct of the stationary heating component are respectively located on two opposite sides of the stationary chamber. The air supply duct and the return air duct of the rotating heating component are respectively located on two opposite sides of the rotating chamber. The heat pump and the fan are connected in series between the corresponding air supply duct and the return air duct.

[0009] The supply air duct has multiple air outlets on the side facing the return air duct, and the return air duct has multiple air inlets on the side facing the supply air duct.

[0010] In a further technical solution, an equipment slot is provided in the upper part of the static chamber, and the heat pump and fan are respectively installed in the equipment slot. The heat pump and fan of the static heating component are located above the static chamber, and the heat pump and fan of the turnover heating component are located above the turnover chamber.

[0011] The upper end of the return air duct is connected to the first end of the corresponding heat pump, the second end of the heat pump is connected to the air inlet of the corresponding fan, and the air outlet of the fan is connected to the upper end of the supply air duct.

[0012] In a further technical solution, the fan includes a motor, an impeller, and a volute. The motor and the volute are fixedly installed in the equipment slot, the impeller is rotatably installed in the volute, the motor is connected to the impeller via a drive, and a transmission duct is connected between the volute and the heat pump. One end of the transmission duct is connected to the air inlet end of the volute, the other end of the transmission duct is connected to the second end of the heat pump, and the air outlet end of the volute is connected to the upper end of the air supply duct.

[0013] In a further technical solution, a guide plate is provided at the lower edge of the air outlet, the lower end of the guide plate is connected to the lower edge of the air outlet, and the upper end of the guide plate extends into the air supply duct in an upward direction; the length of each guide plate gradually increases from top to bottom.

[0014] In a further technical solution, two storage racks are provided in the static chamber. The two storage racks are respectively located close to the air supply duct and the air return duct. A loading and unloading channel is provided between the two storage racks, and an isolation door is located at the first end of the loading and unloading channel.

[0015] In a further technical solution, an inspection door is provided on one side of the settling chamber, and the inspection door is located at the second end of the loading and unloading channel.

[0016] In a further technical solution, the length of the stationary chamber is greater than the length of the turnover chamber, and the heating device is provided with multiple stationary heating components, each of which is spaced apart along the length of the stationary chamber.

[0017] The inner walls of the settling room are equipped with an insulation layer.

[0018] In a further technical solution, an AGV (Automated Guided Vehicle) handling robot is also installed in the static room.

[0019] In a further technical solution, the settling chamber is equipped with preheating, loading / unloading, and unloading states.

[0020] In the preheating working state, the AGV handling robot is located in the turnover chamber, with the isolation door and loading / unloading door closed, and the turnover chamber is relatively isolated from the static chamber.

[0021] When the temperature inside the turnover chamber is the same as the temperature inside the settling chamber, the settling chamber transitions from the preheating state to the loading and unloading state.

[0022] During the loading and unloading operation, the isolation door is opened and the loading and unloading door is kept closed, and the AGV handling robot enters the static chamber;

[0023] After the AGV handling robot completes loading and unloading, the settling room transitions from the loading / unloading state to the preheating state before retrieving materials.

[0024] When the material handling robot is in operation, the isolation door is closed and the loading and unloading doors are open. When the AGV handling robot moves out of the turnover chamber, the loading and unloading doors are closed.

[0025] In a further technical solution, a control circuit is also provided, and at least one static temperature sensor is provided in the static chamber and at least one turnover temperature sensor is provided in the turnover chamber.

[0026] Both the isolation door and the loading / unloading door are roller shutter doors. The isolation door is connected to a first drive mechanism for opening and closing the isolation door, and the loading / unloading door is connected to a second drive mechanism for opening and closing the loading / unloading door. The static temperature sensor, the turnover temperature sensor, the first drive mechanism, the second drive mechanism, each heat pump and each fan are electrically connected to the control circuit. The AGV handling robot is wirelessly connected to the control circuit through a wireless communication module.

[0027] The advantages of this utility model compared with the prior art after adopting the above structure are: the airflow in the static room is driven by the fan, the airflow enters the static room through the air supply duct, and then enters the heat pump for heating through the return air duct. The heated hot air is drawn back into the fan to form a cycle heating, which reduces energy consumption. Moreover, the heat pump has a higher energy efficiency ratio than the electric heating rod and has a lower production cost.

[0028] During the loading and unloading process, the isolation door is closed to isolate the settling chamber from the turnover chamber. Then, the loading and unloading door is opened to place the battery cells to be loaded into the turnover chamber. After the loading and unloading door is closed and the temperature in the turnover chamber is the same as that in the settling chamber, the isolation door is opened again for loading and unloading. This completely avoids temperature loss in the settling chamber, resulting in a more stable temperature curve. There is no need to extend the heating time due to temperature compensation. At the same time, the battery cells are all in the same large chamber, which shortens the loading and unloading time, increases the capacity, and shortens the total settling time, thereby improving production efficiency. Because the temperature curve is more stable, the temperature fluctuation is small during the loading and unloading process, and the temperature change of the battery cells during the heating process is small, ensuring that the ambient temperature and baking time are consistent during the battery cell baking process, thereby improving the consistency of the battery cells.

[0029] During the loading and unloading process, only the opening and closing of the isolation door and the loading and unloading door need to be controlled. The control actions are few, the structure is simple, the cost is low, and the stability is high.

[0030] AGV (Automated Guided Vehicle) handling robots automatically load and unload materials. The AGV handling robots are linked to control the opening and closing of isolation doors and loading / unloading doors, achieving fully automatic loading and unloading without manual operation, thus improving the level of automation. Attached Figure Description

[0031] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0032] Figure 1 This is a schematic diagram of the structure of this utility model;

[0033] Figure 2 This is a top view of the present invention;

[0034] Figure 3 This is a top view of the interior of the static room of this utility model;

[0035] Figure 4 This is a cross-sectional view of the present invention.

[0036] In the picture:

[0037] 1. Settling room; 11. Settling chamber; 12. Turnover chamber; 13. Equipment tank;

[0038] 21 Isolation door, 22 Loading / unloading door, 23 Inspection door;

[0039] 3 storage racks, 31 loading and unloading channels;

[0040] 41 stationary heating component, 42 turnover heating component, 43 heat pump, 44 fan, 441 motor, 442 impeller, 443 volute, 45 transmission duct, 46 air supply duct, 461 air outlet, 462 guide plate, 47 return air duct, 471 air inlet;

[0041] 5AGV transport robot. Detailed Implementation

[0042] The following are merely preferred embodiments of the present invention and do not limit the scope of protection of the present invention.

[0043] A high-efficiency intelligent static room, such as Figures 1 to 4 As shown, the device includes a settling chamber 1 and a heating device. The settling chamber 1 has a settling chamber 11 and a turnover chamber 12. An isolation door 21 is provided between the settling chamber 11 and the turnover chamber 12, which are connected or separated by the isolation door 21. A storage rack 3 is provided in the settling chamber 11, and a loading and unloading door 22 is provided on one side of the turnover chamber 12. The heating device includes a settling heating component 41 and a turnover heating component 42. Both the settling heating component 41 and the turnover heating component 42 include a heat pump 43, a fan 44, and an air supply unit. Air duct 46 and return air duct 47, the supply air duct 46 and return air duct 47 of the stationary heating component 41 are respectively arranged on two opposite sides of the stationary chamber 11, the supply air duct 46 and return air duct 47 of the turnover heating component 42 are respectively arranged on two opposite sides of the turnover chamber 12, the heat pump 43 and the fan 44 are connected in series between the corresponding supply air duct 46 and return air duct 47; multiple air outlets 461 are provided on the side of the supply air duct 46 facing the return air duct 47, and multiple air inlets 471 are provided on the side of the return air duct 47 facing the supply air duct 46.

[0044] Traditional settling chamber 1 has only one settling chamber 11. During the loading and unloading process, opening the loading / unloading door 22 causes hot air to escape from the settling chamber 11 and exchange with cold air outside, resulting in a drop in temperature inside the settling chamber 11. Therefore, frequent opening and closing of the loading / unloading door 22 causes significant temperature fluctuations inside the settling chamber 11, prolonging the settling and aging time and reducing production efficiency. Furthermore, after opening the loading / unloading door 22, the temperature of the battery cells farther away from the air outlet 461 will be lower than that of the battery cells closer to the air outlet 461, resulting in reduced battery cell consistency and poor settling and aging effect. On the other hand, a settling chamber 1 with multiple independent settling chambers 11 requires a loading / unloading door 22 for each settling chamber 11, which is structurally complex and costly. In addition, the repeated opening and closing of the doors during the loading and unloading process slows down the loading and unloading speed. In addition, the heating device of the traditional static room 1 heats the cold air in one direction by using an electric heating rod installed at the air outlet of the fan 44, which has high energy consumption and high production cost. In contrast, the present invention uses the fan 44 to drive the airflow in the static room 1. The airflow enters the static room 1 through the air supply duct 46, and then enters the heat pump 43 for heating through the return air duct 47. The heated air is then drawn back into the fan 44 to form a circulating heating, thereby reducing energy consumption. Furthermore, the heat pump 43 has a higher energy efficiency ratio than the electric heating rod and has a lower production cost.

[0045] During the loading and unloading process, the isolation door 21 is closed to isolate the stationary chamber 11 from the turnover chamber 12. Then, the loading and unloading door 22 is opened to place the battery cells to be loaded into the turnover chamber 12. After closing the loading and unloading door 22, the temperature inside the turnover chamber 12 is the same as that inside the stationary chamber 11. Then, the isolation door 21 is opened again for loading and unloading, thus completely avoiding temperature loss in the stationary chamber 11. The temperature curve is more stable, and there is no need to extend the heating time due to temperature compensation. At the same time, the battery cells are all in the same large chamber, which shortens the loading and unloading time, increases the capacity, and shortens the total stationary storage time, thereby improving production efficiency. Because the temperature curve is more stable, the temperature fluctuation is small during the loading and unloading process, and the temperature change of the battery cells during the heating process is small, ensuring that the ambient temperature and baking time of the battery cells are consistent, thereby improving the consistency of the battery cells. During the loading and unloading process, only the opening and closing of the isolation door and the loading and unloading door need to be controlled. The control actions are few, the structure is simple, the cost is low, and the stability is high.

[0046] Specifically, an equipment slot 13 is provided in the upper part of the static chamber 1. A heat pump 43 and a fan 44 are respectively installed in the equipment slot 13. The heat pump 43 and fan 44 of the static heating assembly 41 are located above the static chamber 11, and the heat pump 43 and fan 44 of the turnover heating assembly 42 are located above the turnover chamber 12. The upper end of the return air duct 47 is connected to the first end of the corresponding heat pump 43, the second end of the heat pump 43 is connected to the air inlet of the corresponding fan 44, and the air outlet of the fan 44 is connected to the upper end of the supply air duct 46. Both the heat pump 43 and the fan 44 are installed in the equipment slot 13, which has an opening at the top. This improves the heat dissipation performance of the heat pump 43 and the fan 44, preventing damage and malfunctions caused by excessively high operating temperatures, improving reliability and stability, and facilitating maintenance.

[0047] Specifically, the fan 44 includes a motor 441, an impeller 442, and a volute 443. The motor 441 and the volute 443 are fixedly installed in the equipment slot 13, and the impeller 442 is rotatably installed inside the volute 443. The motor 441 is connected to the impeller 442 via a drive connection. A transmission duct 45 connects the volute 443 to the heat pump 43. One end of the transmission duct 45 is connected to the air inlet of the volute 443, and the other end is connected to the second end of the heat pump 43. The air outlet of the volute 443 is connected to the upper end of the air supply duct 46. Because circulating heating is used, to prevent the fan 44 from being continuously heated, causing performance degradation or malfunction, the fan 44 uses a turbine fan. The motor 441 is located outside the volute 443, and hot air only flows inside the volute 443, thereby preventing the motor 441 from being continuously heated and improving reliability and stability.

[0048] Specifically, a guide plate 462 is provided at the lower edge of the air outlet 461. The lower end of the guide plate 462 is connected to the lower edge of the air outlet 461, and the upper end of the guide plate 462 extends obliquely upward into the air supply duct 46. The length of each guide plate 462 gradually increases from top to bottom. Figure 4 As shown, the airflow direction of the air supply duct 46 is from top to bottom. The airflow is blocked and tilted by the guide plate 462, changing the air outlet direction of the air outlet 461 from horizontal to downward tilt, avoiding direct airflow onto the battery cell and making the battery cell heat more evenly heated; the guide plate 462 also plays a role in turbulence reduction and noise reduction. Since the air pressure in the air supply duct 46 decreases from top to bottom, the length of each guide plate 462 is gradually increased from top to bottom to balance the guiding performance of the guide plates 462 at different heights and to balance the air volume of each air outlet 461.

[0049] Specifically, two storage racks 3 are installed in the settling chamber 11. The two storage racks 3 are respectively located near the air supply duct 46 and the air return duct 47, and a loading / unloading channel 31 is provided between the two storage racks 3. An isolation door 21 is located at the first end of the loading / unloading channel 31. The use of two storage racks 3 increases the carrying capacity of the battery cells, thereby increasing the number of cells that can be set for aging in a single cycle, and thus improving production efficiency. The loading / unloading channel 31 between the two storage racks 3 facilitates the loading and unloading of the battery cells on the storage racks 3.

[0050] Specifically, a maintenance door 23 is provided on one side of the settling chamber 11, and the maintenance door 23 is located at the second end of the loading and unloading channel 31. When the isolation door 21 malfunctions, the maintenance door 23 allows direct access to the settling chamber 11 for repairs without having to pass through the transfer chamber 12, which facilitates maintenance.

[0051] Specifically, the length of the settling chamber 11 is greater than the length of the turnover chamber 12. The heating device is equipped with multiple settling heating components 41, which are spaced apart along the length of the settling chamber 11. The inner wall of the settling chamber 1 is provided with an insulation layer. Since the turnover chamber 12 is only used for intermediate preheating, its volume is smaller than that of the settling chamber 11. Only one turnover heating component 42 is needed to quickly heat up the turnover chamber 12, thereby increasing the turnover speed. The larger settling chamber 11 can accommodate more battery cells. By setting multiple settling heating components 41, the heating speed is increased, thereby further improving production efficiency.

[0052] Specifically, an AGV (Automated Guided Vehicle) handling robot 5 is also installed in the static storage room 1. The AGV handling robot 5 replaces manual labor for automatic loading and unloading, saving labor costs and reducing the probability of errors.

[0053] Specifically, the settling room 1 is equipped with a preheating working state, a loading and unloading working state, and a material retrieval working state. During loading and unloading, the AGV handling robot 5 outside the settling room 1 grabs the battery cells to be settling and aged. The settling room 1 opens the loading and unloading door 22 while keeping the isolation door 21 closed. After the AGV handling robot 5 enters the turnover chamber 12, the settling room 1 enters the preheating working state.

[0054] In the preheating state, the AGV handling robot 5 is located in the turnover chamber 12, with the isolation door 21 and the loading / unloading door 22 both closed, and the turnover chamber 12 is relatively isolated from the stationary chamber 11. The turnover heating component 42 is activated to heat the turnover chamber 12 until the temperature inside the turnover chamber 12 is the same as the temperature inside the stationary chamber 11. Then, the stationary chamber 1 enters the loading / unloading state from the preheating state.

[0055] In the loading and unloading operation state, the isolation door 21 is opened and the loading and unloading door 22 is kept closed, and the AGV handling robot 5 enters the settling chamber 11; the AGV handling robot 5 reaches the designated loading and unloading position through the loading and unloading channel 31, takes the battery cells that have completed settling and aging on the storage rack 3 and places the battery cells to be settling and aging on the storage rack 3.

[0056] After the AGV handling robot 5 completes loading and unloading, it opens the isolation door 21 while keeping the loading / unloading door 22 closed. The AGV handling robot 5 moves to the turnover chamber 12, and the settling chamber 1 transitions from the loading / unloading state to the preheating state. Then, it closes the isolation door 21 and opens the loading / unloading door 22, and the settling chamber 1 enters the material retrieval state. In the material retrieval state, the isolation door 21 is closed and the loading / unloading door 22 is open. When the AGV handling robot 5 moves out of the turnover chamber 12, the loading / unloading door 22 closes. Alternatively, the AGV handling robot 5 can separate the loading and unloading steps, completing the unloading and then retrieving the battery cells to be settling and aged from outside the settling chamber 1 for loading. This allows for separate loading and unloading, improving efficiency and further enhancing the consistency of battery cell settling and aging. The choice depends on the performance of the AGV handling robot 5.

[0057] Specifically, a control circuit is also provided, integrated in a control cabinet outside the settling chamber 1. At least one settling temperature sensor is installed in the settling chamber 11, and at least one turnover temperature sensor is installed in the turnover chamber 12. Both the isolation door 21 and the loading / unloading door 22 are roller shutters. The isolation door 21 is driven by a first drive mechanism for opening and closing, and the loading / unloading door 22 is driven by a second drive mechanism for opening and closing. The settling temperature sensor, turnover temperature sensor, first drive mechanism, second drive mechanism, each heat pump 43, and each fan 44 are electrically connected to the control circuit. The AGV handling robot 5 is wirelessly connected to the control circuit via a wireless communication module. The AGV handling robot 5 controls the opening and closing of the isolation door 21 and the loading / unloading door 22 in a coordinated manner, achieving fully automatic loading and unloading without manual operation, thus improving the degree of automation.

[0058] The turnover heating component 42 is activated only during preheating and loading / unloading operations, and remains off in other states to reduce energy consumption. Preferably, in addition to activating during preheating, the turnover heating component 42 is also activated during loading / unloading operations when the AGV handling robot 5 is about to complete loading / unloading, by sending a start command to the control circuit in advance, and the control circuit then activates the turnover heating component 42 to further reduce energy consumption.

[0059] The above description is only a preferred embodiment of this utility model. For those skilled in the art, there will be changes in the specific implementation method and application scope based on the idea of ​​this utility model. The content of this specification should not be construed as a limitation of this utility model.

Claims

1. A high-efficiency intelligent static room, comprising a static room (1) and a heating device, characterized in that: The interior of the settling room (1) is provided with a settling chamber (11) and a turnover chamber (12). An isolation door (21) is provided between the settling chamber (11) and the turnover chamber (12). The settling chamber (11) and the turnover chamber (12) are connected or separated by the isolation door (21). A storage rack (3) is provided in the settling chamber (11). A loading and unloading door (22) is provided on one side of the turnover chamber (12). The heating device includes a stationary heating component (41) and a rotating heating component (42). Both the stationary heating component (41) and the rotating heating component (42) include a heat pump (43), a fan (44), an air supply duct (46), and a return air duct (47). The air supply duct (46) and the return air duct (47) of the stationary heating component (41) are respectively located on two opposite sides of the stationary chamber (11). The air supply duct (46) and the return air duct (47) of the rotating heating component (42) are respectively located on two opposite sides of the rotating chamber (12). The heat pump (43) and the fan (44) are connected in series between the corresponding air supply duct (46) and the return air duct (47). Multiple air outlets (461) are provided on the side of the supply air duct (46) facing the return air duct (47), and multiple air inlets (471) are provided on the side of the return air duct (47) facing the supply air duct (46).

2. The high-efficiency intelligent static room according to claim 1, characterized in that: The upper part of the static room (1) is provided with an equipment slot (13), the heat pump (43) and the fan (44) are respectively installed in the equipment slot (13), the heat pump (43) and the fan (44) of the static heating component (41) are located above the static chamber (11), and the heat pump (43) and the fan (44) of the turnover heating component (42) are located above the turnover chamber (12); The upper end of the return air duct (47) is connected to the first end of the corresponding heat pump (43), the second end of the heat pump (43) is connected to the air inlet of the corresponding fan (44), and the air outlet of the fan (44) is connected to the upper end of the supply air duct (46).

3. A high-efficiency intelligent static room according to claim 2, characterized in that: The fan (44) includes a motor (441), an impeller (442), and a volute (443). The motor (441) and the volute (443) are fixedly installed in the equipment slot (13). The impeller (442) is rotatably installed in the volute (443). The motor (441) is connected to the impeller (442) in a transmission connection. A transmission duct (45) is connected between the volute (443) and the heat pump (43). One end of the transmission duct (45) is connected to the air inlet end of the volute (443), and the other end of the transmission duct (45) is connected to the second end of the heat pump (43). The air outlet end of the volute (443) is connected to the upper end of the air supply duct (46).

4. The high-efficiency intelligent static room according to claim 1, characterized in that: The lower edge of the air outlet (461) is provided with a guide plate (462), the lower end of the guide plate (462) is connected to the lower edge of the air outlet (461), and the upper end of the guide plate (462) extends into the air supply duct (46) in an upward direction; the length of each guide plate (462) gradually increases from top to bottom.

5. A high-efficiency intelligent static room according to claim 1, characterized in that: The static chamber (11) is provided with two storage racks (3), which are respectively located close to the air supply duct (46) and the air return duct (47). A loading and unloading channel (31) is provided between the two storage racks (3), and the isolation door (21) is located at the first end of the loading and unloading channel (31).

6. A high-efficiency intelligent static room according to claim 5, characterized in that: A maintenance door (23) is provided on one side of the static chamber (11), and the maintenance door (23) is located at the second end of the loading and unloading channel (31).

7. A high-efficiency intelligent static room according to claim 1, characterized in that: The length of the stationary chamber (11) is greater than the length of the turnover chamber (12). The heating device is provided with a plurality of stationary heating components (41), and each stationary heating component (41) is spaced apart along the length direction of the stationary chamber (11). The inner wall of the static room (1) is provided with a heat insulation layer.

8. A high-efficiency intelligent static room according to any one of claims 1 to 7, characterized in that: The quiet room (1) is also equipped with an AGV handling robot (5).

9. A high-efficiency intelligent static room according to claim 8, characterized in that: The settling room (1) is equipped with a preheating working state, a loading and unloading working state, and a material retrieval working state. In the preheating working state, the AGV handling robot (5) is located in the turnover chamber (12), the isolation door (21) and the loading and unloading door (22) are both closed, and the turnover chamber (12) is relatively isolated from the stationary chamber (11); When the temperature inside the turnover chamber (12) is the same as the temperature inside the settling chamber (11), the settling chamber (1) transitions from the preheating state to the loading and unloading state. In the loading and unloading operation state, the isolation door (21) is opened and the loading and unloading door (22) is kept closed, and the AGV handling robot (5) enters the static chamber (11). After the AGV handling robot (5) completes loading and unloading, the static room (1) transitions from the loading and unloading state to the preheating state and then to the material retrieval state. When the material handling is in operation, the isolation door (21) is closed and the loading and unloading door (22) is open. When the AGV handling robot (5) moves out of the turnover chamber (12), the loading and unloading door (22) is closed.

10. A high-efficiency intelligent static room according to claim 9, characterized in that: It is also equipped with a control circuit, and at least one static temperature sensor is provided in the static chamber (11), and at least one turnover temperature sensor is provided in the turnover chamber (12). The isolation door (21) and the loading / unloading door (22) are both roller shutter doors. The isolation door (21) is connected to a first drive mechanism for opening and closing the isolation door (21). The loading / unloading door (22) is connected to a second drive mechanism for opening and closing the loading / unloading door (22). The static temperature sensor, the turnover temperature sensor, the first drive mechanism, the second drive mechanism, each of the heat pumps (43) and each of the fans (44) are electrically connected to the control circuit. The AGV handling robot (5) is wirelessly connected to the control circuit through a wireless communication module.

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