Product resting device

Abstract

Disclosed in the present application is a product resting device. The product resting device comprises: a storage location providing apparatus, an energy supply system, a temperature measurement system, and a control system, wherein a plurality of energy supply parts of the energy supply system correspond to a plurality of accommodating cavities on a one-to-one basis; each temperature measurement element of the temperature measurement system is configured to measure an actually measured temperature inside the corresponding accommodating cavity; and the control system is configured to control, when the actually measured temperature exceeds a preset temperature range, the energy supply parts to perform heating or cooling on the corresponding accommodating cavities. The energy supply parts can directly perform heating or cooling on the accommodating cavities, thereby reducing the volume of a space where temperature control needs to be performed; the control system can automatically regulate the temperature inside each accommodating cavity on the basis of the actually measured temperature; and the preset temperature range set in the control system can also be adjusted.

Description

A product static device

[0001] This application claims priority to the Chinese patent application filed with the China Patent Office on August 28, 2023, with application number 202311096011.X and application name “A Product Stationary Device”, the entire contents of which are incorporated herein by reference. Technical Field

[0002] The present application relates to the technical field of automatic temperature regulation, and in particular to a product stationary device. Background Art

[0003] During the battery production process, some processes, before and after the end-stage process, require the battery to be placed under specific temperature conditions for stabilization. Common temperature requirements include: high temperature 45±3°C, normal temperature 25±3°C. The temperature of the battery's environment during stabilization significantly affects its quality.

[0004] In existing technology, temperature regulation is typically achieved through ambient temperature control. Specifically, a ventilation system is first used to maintain the overall temperature within the factory at approximately 25°C, meeting the temperature requirements for the normal-temperature stabilization process. A separate, enclosed room is then constructed using insulated partitions, with the batteries placed inside. Another ventilation system is then used to maintain the ambient temperature within the enclosed room at approximately 45°C, meeting the temperature requirements for the high-temperature stabilization process.

[0005] However, this method requires adjusting the temperature of the entire factory space, which is large, resulting in high energy consumption. Temperature differences between different areas within the factory space also lead to low temperature control accuracy. Furthermore, it cannot flexibly adjust the temperature when the battery production process changes, resulting in poor flexibility. In short, using a large-scale temperature control method results in high energy consumption, low temperature control accuracy, and poor flexibility.

[0006] Summary of the Invention

[0007] The present application discloses a product stationary device, which can solve the problems of high energy consumption, low temperature control accuracy and poor flexibility caused by the large-scale environment temperature control method adopted in the prior art.

[0008] In order to achieve the above objectives, the present application discloses a product stationary device, comprising:

[0009] A storage location providing device, the storage location providing device comprising a plurality of mutually separated accommodating cavities, each of the accommodating cavities forming a storage location for accommodating products to be stored;

[0010] Energy supply system, the centralized energy supply system includes a plurality of energy supply components, and the plurality of energy supply components correspond one-to-one to the plurality of accommodating cavities;

[0011] a temperature measurement system, the temperature measurement system comprising a plurality of temperature detection elements, the plurality of temperature detection elements corresponding one-to-one to the plurality of accommodating cavities, each of the temperature detection elements being used to detect the actual measured temperature in the corresponding accommodating cavity;

[0012] A control system, wherein the control system is electrically connected to the centralized energy supply system and the temperature detection element respectively, and the control system is used to control the energy supply component to supply heat or cold to the corresponding accommodating cavity when the measured temperature detected by the temperature detection element exceeds a preset temperature range, so that the measured temperature in the accommodating cavity is within the preset temperature range.

[0013] Optionally, the energy supply system is a centralized energy supply system, which also includes a power supply source, and each power supply component is connected to the power supply source. The control system is used to control the power supply source to supply heat or cold to the corresponding accommodating cavity through the power supply component when the actual temperature detected by the temperature detection element exceeds a preset temperature range.

[0014] Optionally, the energy supply includes a heat source, the multiple energy supply components include multiple heating components, the heat source is connected to the multiple heating components through a heat supply pipe network, the multiple heating components are arranged corresponding to the multiple first accommodating cavities in the multiple accommodating cavities, and the control system is electrically connected to the heat source;

[0015] The control system is used to control the energy source to supply heat to the corresponding heating component through the heating pipe network when the actual temperature detected by the temperature detection element is lower than the lowest temperature in the preset temperature range, so as to supply heat to the corresponding first accommodating cavity through the heating component.

[0016] Optionally, the heating element is a heat sink, and the heat sink is arranged in the first accommodating cavity.

[0017] Optionally, the heating element is located at the bottom of the first accommodating cavity.

[0018] Optionally, the heating network includes:

[0019] a first water supply system, the first water supply system comprising a first water supply main and a plurality of first water supply branches, one end of each of the first water supply branches being connected to the first water supply main and the other end being connected to the corresponding heating element;

[0020] The first water return system includes a first water return main pipe and a plurality of first water return branch pipes, one end of each of the first water return branch pipes is connected to a corresponding heating element, and the other end is connected to the first water return main pipe.

[0021] Optionally, each of the first water supply branches is provided with a flow control valve, and the flow control valve is electrically connected to the control system.

[0022] Optionally, the energy supply further includes a cooling source, the multiple energy supply components further include multiple cooling components, the cooling source is connected to the multiple cooling components via a cooling pipe network, the multiple cooling components are arranged corresponding to the multiple first accommodating cavities in the multiple accommodating cavities, and the control system is electrically connected to the cooling source;

[0023] The control system is used to control the energy supply to supply cooling to the corresponding cooling component through the cooling pipe network when the actual temperature detected by the temperature detection element is higher than the highest temperature in the preset temperature range, so as to supply cooling to the corresponding first accommodating cavity through the cooling component.

[0024] Optionally, the energy supply further includes a cooling source, the multiple energy supply components further include multiple cooling components, the cooling source is connected to the multiple cooling components via a cooling pipe network, the multiple cooling components are arranged corresponding to the multiple second accommodating cavities in the multiple accommodating cavities, and the control system is electrically connected to the cooling source;

[0025] The control system is used to control the energy supply to supply cooling to the corresponding cooling component through the cooling pipe network when the actual temperature detected by the temperature detection element is higher than the highest temperature in the preset temperature range, so as to supply cooling to the corresponding second accommodating cavity through the cooling component.

[0026] Optionally, the cooling component includes a fan and a fan pipe. The cooling source is connected to a plurality of fan pipes through a cooling pipe network. The fan is used to blow air to the fan pipes. The fan is installed on the side wall of the accommodating cavity.

[0027] Optionally, a plurality of the first accommodating cavities are located in a first area of ​​the storage location providing device, and a plurality of the second accommodating cavities are located in a second area of ​​the storage location providing device, and the first area and the second area are located at different positions.

[0028] Optionally, the first area is located above the second area.

[0029] Optionally, an empty layer area is provided between the first area and the second area.

[0030] Compared with the prior art, the present invention has the following advantages:

[0031] Because the storage location providing device includes multiple, separated storage chambers, each chamber forms a storage location for accommodating products to be stored. As a result, since each chamber is part of the storage location providing device, its volume is smaller than that of the storage location providing device, reducing the volume of space required for temperature control and reducing energy consumption.

[0032] Because the storage location provisioning device includes multiple, separated storage chambers, each chamber forms a storage location for products to be stored. This provides each chamber with a separate storage space for the products to be stored, preventing temperature fluctuations in the external environment or in adjacent chambers from interfering with the specific chamber, thereby ensuring temperature stability within the chamber. Furthermore, because the energy supply system includes multiple energy supply components, each corresponding to a single storage chamber, heating or cooling can be provided within each chamber, resulting in higher temperature control accuracy.

[0033] Since the temperature measurement system includes multiple temperature detection elements, the multiple temperature detection elements correspond one-to-one to the multiple accommodating cavities, and each temperature detection element is used to detect the measured temperature in the corresponding accommodating cavity. The control system is electrically connected to the energy supply system and the temperature detection element, respectively, and the control system is used to control the energy supply component to supply heat or cold to the corresponding accommodating cavity when the measured temperature detected by the temperature detection element exceeds the preset temperature range. In this way, when the temperature exceeds the preset temperature range, the temperature inside the corresponding accommodating cavity can be automatically adjusted, so that the temperature control accuracy is improved. In addition, the preset temperature range set in the control system can be adjusted according to the different temperature requirements of different production processes, so that multiple accommodating cavities can maintain the internal temperature within different preset temperature ranges, so that the temperature control flexibility is improved. At this point, the purpose of improving the flexibility of temperature control is achieved. BRIEF DESCRIPTION OF THE DRAWINGS

[0034] In order to more clearly illustrate the technical solutions in the embodiments of the present application, the following briefly introduces the drawings required for use in the embodiments. Obviously, the drawings described below are only some embodiments of the present application. For ordinary technicians in this field, other drawings can be obtained based on these drawings without any creative work.

[0035] FIG1 is a schematic diagram of a structure of a product stationary device provided in an embodiment of the present application;

[0036] FIG2 is a second structural diagram of a product stationary device provided in an embodiment of the present application;

[0037] FIG3 is a schematic structural diagram of the first accommodating chamber of the product stationary device in FIG1 ;

[0038] FIG4 is a schematic structural diagram of a second accommodating chamber of the product stationary device in FIG1 ;

[0039] FIG5 is a schematic structural diagram of the first accommodating chamber of the product stationary device in FIG2 ;

[0040] FIG6 is a schematic diagram of the heating pipe network structure of the product stationary equipment provided in an embodiment of the present application;

[0041] FIG7 is a schematic diagram of the cooling pipe network structure of the product stationary equipment provided in an embodiment of the present application.

[0042] Explanation of the main figure marks: 1-storage space providing device; 11-accommodating chamber; 111-first accommodating chamber; 112-second accommodating chamber; 2-energy supply system; 21-energy source; 211-heating source; 212-cooling source; 22-energy supply component; 221-heating component; 222-cooling component; 23-heating pipe network; 24-cooling pipe network; 231-first water supply system; 2311-first water supply main; 2312-first water supply branch; 2313-flow control valve; 232-first return water system; 2321-first return water main; 2322-first return water branch; 3-temperature measurement system; 31-temperature detection element; 4-control system; A-first area; B-empty layer area; C-second area. DETAILED DESCRIPTION

[0043] The following will be combined with the drawings in the embodiments of this application to clearly and completely describe the technical solutions in the embodiments of this application. Obviously, the embodiments described are only part of the embodiments of this application, not all of the embodiments. Based on the embodiments in this application, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of this application.

[0044] In this application, terms such as "upper," "lower," "left," "right," "front," "back," "top," "bottom," "inner," "outer," "center," "vertical," "horizontal," "transverse," and "longitudinal" indicate positions or locations based on the positions or locations shown in the accompanying drawings. These terms are primarily intended to better describe this application and its embodiments and are not intended to limit the devices, elements, or components indicated to having a specific orientation, or to being constructed or operated in a specific orientation.

[0045] Furthermore, some of the above terms may be used to express other meanings besides indicating a position or location. For example, the term "on" may also be used to indicate a dependency or connection in certain circumstances. Those skilled in the art will understand the specific meanings of these terms in this application based on the specific circumstances.

[0046] Furthermore, the terms "installed," "disposed," "provided with," "connected," and "connected" should be interpreted broadly. For example, they can refer to fixed connections, removable connections, or integral structures; mechanical connections or electrical connections; direct connections, indirect connections through an intermediary, or internal communication between two devices, elements, or components. Those skilled in the art will understand the specific meanings of these terms in this application based on the specific circumstances.

[0047] Furthermore, the terms "first," "second," etc., are primarily used to distinguish between different devices, elements, or components (which may or may not be of the same type and configuration), and are not intended to indicate or imply the relative importance or quantity of the devices, elements, or components indicated. Unless otherwise specified, "plurality" means two or more.

[0048] The technical solution of the present application will be further described below with reference to specific embodiments and drawings.

[0049] FIG1 is one of the structural schematic diagrams of a product stationary device provided in an embodiment of the present application.

[0050] Referring to Figure 1, the product stationary equipment includes a storage location providing device 1, an energy supply system 2, a temperature measurement system 3 and a control system 4. Among them, the storage location providing device 1 includes a plurality of storage chambers 11 separated from each other, and each storage chamber 11 forms a storage location for accommodating products to be stationed. The energy supply system 2 includes a plurality of energy supply components 22, and the plurality of energy supply components 22 correspond one-to-one to the plurality of storage chambers 11. The temperature measurement system 3 includes a plurality of temperature detection elements 31, and the plurality of temperature detection elements 31 correspond one-to-one to the plurality of storage chambers 11, and each temperature detection element 31 is used to detect the measured temperature in the corresponding storage chamber 11. The control system 4 is electrically connected to the energy supply system 2 and the temperature detection element 31 respectively, and the control system 4 is used to control the energy supply component 22 to supply heat or cold to the corresponding storage chamber 11 when the measured temperature detected by the temperature detection element 31 exceeds the preset temperature range, so that the measured temperature in the storage chamber 11 is within the preset temperature range.

[0051] In the embodiment of the present application, since the storage location providing device 1 includes a plurality of accommodating chambers 11 separated from each other, each accommodating chamber 11 forms a storage location for accommodating products to be placed. Therefore, when it is necessary to place a plurality of products to be placed, the plurality of products to be placed can be placed in the plurality of accommodating chambers 11 respectively. Then, since the plurality of temperature detection elements 31 correspond one-to-one to the plurality of accommodating chambers 11, the measured temperature in the corresponding accommodating chamber 11 can be detected by each temperature detection element 31. After the temperature detection element 31 detects the measured temperature in the corresponding accommodating chamber 11, since the control system 4 is electrically connected to the temperature detection element 31, the control system 4 can obtain the measured temperature detected by the temperature detection element 31 and compare the measured temperature with the preset temperature range. Obviously, by comparing the measured temperature with the preset temperature range, it can be determined whether the measured temperature exceeds the preset temperature range.

[0052] When it is possible to determine whether the measured temperature exceeds the preset temperature range, since the multiple accommodating cavities 11 correspond one-to-one to the multiple energy supply components 22 of the energy supply system 2, and since the control system 4 is also electrically connected to the energy supply system 2, the control system 4 can control the corresponding energy supply component 22 to supply heat or cold to the corresponding accommodating cavity 11 when the measured temperature exceeds the preset temperature range, until the measured temperature in the accommodating cavity 11 is within the preset temperature range, so that the temperature around the product to be placed meets the degree of placement requirement. In this way, the placement effect of the product to be placed can be better.

[0053] Among them, since the accommodating chambers 11 are separated from each other and are part of the storage location providing device 1, the volume of the accommodating chamber 11 is smaller than the volume of the storage location providing device 1. Since multiple accommodating chambers 11 correspond one-to-one to multiple energy supply components 22 of the energy supply system 2, on the one hand, the space required for the energy supply component 22 to supply energy can be smaller. Compared with the method of supplying energy to a larger space through the energy supply component 22, the temperature at each position in the accommodating chamber 11 can be made more uniform and the temperature control accuracy can be higher.

[0054] Furthermore, since each accommodating cavity 11 forms a storage location for accommodating products to be placed, that is, each accommodating cavity 11 provides a separate space for the products to be placed, it is possible to avoid interference with the accommodating cavity 11 when the temperature of the external environment and other adjacent accommodating cavities 11 changes, thereby ensuring the stability of the temperature in the accommodating cavity 11.

[0055] In addition, since the multiple temperature detection elements 31 correspond one-to-one to the multiple accommodating chambers 11, each temperature detection element 31 is used to detect the measured temperature in the corresponding accommodating chamber 11. The control system 4 is electrically connected to the energy supply system 2 and the temperature detection element 31, respectively. The control system 4 is used to control the energy supply component 22 to supply heat or cold to the corresponding accommodating chamber 11 when the measured temperature detected by the temperature detection element 31 exceeds the preset temperature range. In this way, when the temperature exceeds the preset temperature range, the temperature inside the corresponding accommodating chamber 11 can be automatically adjusted, so that the temperature control accuracy is improved. In addition, the preset temperature range set in the control system 4 can be adjusted according to the different temperature requirements of different production processes, so that the multiple accommodating chambers 11 can maintain the internal temperature within different preset temperature ranges, so that the temperature control flexibility is improved.

[0056] It should be noted that the aforementioned separated accommodating cavities 11 refer to the plurality of accommodating cavities 11 being disconnected from one another. For example, the plurality of accommodating cavities 11 can be separated from one another by providing partitions, etc. between the plurality of accommodating cavities 11. Of course, the accommodating cavities 11 can also be separated from one another by other means, and the embodiments of the present application are not limited thereto.

[0057] It should also be noted that the above-mentioned product to be left standing refers to a product that needs to undergo a standing process. The product can be a battery, a liquid storage tank, or other products. The embodiments of the present application do not limit this.

[0058] It should also be noted that the temperature detection element 31 is a temperature measuring device capable of detecting the actual temperature in the accommodating cavity 11, which may be a temperature sensor, a thermometer, or other devices capable of temperature detection, and the present application does not limit this. The control system 4 is an automatic control system capable of receiving temperature information, analyzing temperature information, and controlling the heating or cooling capacity of the energy source 21 based on the results of the temperature analysis, and may be a PLC (Programmable Logic Controller) control system, a PAC (Programmable Automation Controller) control system, or other automatic control systems capable of achieving the same function, and the present application does not limit this.

[0059] It should also be noted that the energy supply component 22 supplying heat to the corresponding accommodating cavity 11 can be understood as: under the action of the energy supply component 22, the temperature of the accommodating cavity 11 can be increased compared to before the heating supply, which can be understood as the energy supply component 22 supplying heat to the corresponding accommodating cavity 11. Similarly, the energy supply component 22 supplying cooling to the corresponding accommodating cavity 11 can be understood as: under the action of the energy supply component 22, the temperature of the accommodating cavity 11 can be reduced compared to before the cooling supply, which can be understood as the energy supply component 22 supplying cooling to the corresponding accommodating cavity 11.

[0060] In some embodiments, referring to Figures 1 and 6, the energy supply system 2 is a centralized energy supply system, which also includes an energy supply source 21. Each energy supply component 22 is connected to the energy supply source 21. The control system 4 is used to control the energy supply source 21 to supply heat or cold to the corresponding accommodating cavity 11 through the energy supply component 22 when the actual temperature detected by the temperature detection element 31 exceeds the preset temperature range.

[0061] Since multiple accommodating chambers 11 in the centralized energy supply system use a common energy source 21, energy loss is less and energy supply efficiency is high. Therefore, compared with setting up an energy source 21 for each accommodating chamber 11 separately, energy consumption can be reduced.

[0062] Among them, the energy supply 21 refers to a device that can provide heat or cold to the energy supply component 22. It can be a hot water supply device, a hot air supply device, a cold water supply device, a cold air supply device, or other devices that can provide heat and cold. The embodiments of this application do not limit this.

[0063] When the product to be stored is a battery, the aforementioned storage location providing device 1 can be understood as a shelf for storing batteries. During the battery production process, batteries need to be stored for a certain period of time within a temperature range of 45±3°C. Referring to Figures 1 and 2, the battery is placed in the storage chamber 11 of the product storage device for storage. The temperature detection element 31 of the product storage device is a temperature sensor, and the control system 4 is a PLC control system. The preset temperature range in the PLC control system is set to 42°C-48°C.

[0064] The specific temperature adjustment process is as follows: first, the measured temperature in the corresponding accommodating cavity 11 is detected by the temperature sensor. Then, the PLC control system obtains the measured temperature and compares the measured temperature with the preset temperature range of 42°C-48°C. When the measured temperature is lower than 42°C, the PLC control system gradually increases the measured temperature in the corresponding accommodating cavity 11 by controlling the energy supply 21 to increase the heat supply to the energy supply component 22. At this time, the temperature sensor detects the measured temperature in the corresponding accommodating cavity 11 again, and then compares the measured temperature with the preset temperature range of 42°C-48°C. If it is within the preset temperature range of 42°C-48°C, the PLC control system controls the energy supply component 22 to stop or reduce the heat supply. Otherwise, the PLC control system controls the energy supply 21 to continue to increase the heat supply of the energy supply component 22 until the preset temperature range of 42°C-48°C is reached.

[0065] When the measured temperature is higher than 48°C, the PLC control system controls the energy supply 21 to supply cooling to the accommodating chamber 11 through the energy supply component 22, so that the measured temperature inside the accommodating chamber 11 gradually decreases. At this time, the temperature sensor detects the measured temperature in the corresponding accommodating chamber 11 again, and then compares the measured temperature with the preset temperature range of 42°C-48°C. If it is within the preset temperature range of 42°C-48°C, the PLC control system controls the energy supply component 22 to stop supplying cooling or reduce the cooling supply. Otherwise, the PLC control system controls the energy supply 21 to continue supplying cooling to the accommodating chamber 11 through the energy supply component 22 until the preset temperature range of 42°C-48°C is reached.

[0066] In some embodiments, referring to Figures 1 and 3, the energy supply 21 includes a heat source 211, and the plurality of energy supply components 22 include a plurality of heating components 221. The heat source 211 is connected to the plurality of heating components 221 via a heat supply network 23. The plurality of heating components 221 are provided corresponding to the plurality of first accommodating chambers 111 in the plurality of accommodating chambers 11. The control system 4 is electrically connected to the heat source 211. The control system 4 is configured to control the energy supply 21 to supply heat to the corresponding heating component 221 via the heat supply network 23 when the actual temperature detected by the temperature detection element 31 is lower than the lowest temperature in a preset temperature range, so as to supply heat to the corresponding first accommodating chamber 11 via the heating component 221.

[0067] Since the energy supply 21 includes a heat source 211, the multiple energy supply components include multiple heat supply components 221, the heat source 211 is connected to the multiple heat supply components 221 through the heat supply pipe network 23, and the multiple heat supply components 221 are arranged corresponding to the multiple first accommodating chambers 111 in the multiple accommodating chambers 11, and the control system 4 is electrically connected to the heat source 211. Therefore, the static equipment of the product can have a complete set of heating system, and when the measured temperature in the first accommodating chamber 11 is lower than the preset temperature range, the heat source 211 can supply heat to the heating component 221 through the heat supply pipe network 23, thereby increasing the temperature in the first accommodating chamber 111, thereby avoiding the situation where the temperature in the first accommodating chamber 111 is too low and does not meet the temperature requirements, affecting the static effect.

[0068] When the heating element 221 is supplied with heat via the heating pipe network 23, liquid or gas can be used as a heat transfer carrier. On the one hand, since liquid or gas has good fluidity, it is easier to transport heat and can improve the efficiency of heat transfer. On the other hand, since liquid or gas can be recycled, waste can be avoided.

[0069] It should be noted that the above-mentioned first accommodating chamber 111 refers to any one of the multiple accommodating chambers 11 in the product stationary device.

[0070] It should also be noted that the heating element 221 can be a heat sink, a heater, or other devices that can directly provide heat.

[0071] To ensure more uniform heat dissipation from the heating element 221 and improve its heat dissipation efficiency, in some embodiments, as shown in FIG3 , the heating element 221 is a heat sink disposed within the first accommodating chamber 111. This allows the heat sink, which is a sheet-like structure with a large surface area, to dissipate heat more evenly from the heating element 221 and achieve higher heat dissipation efficiency. The heat sink's placement within the first accommodating chamber 111 allows heat emitted from the heat sink to enter the interior of the first accommodating chamber 111 directly, thereby reducing heat loss.

[0072] In some embodiments, referring to FIG3 , the heating element 221 is located at the bottom of the first accommodating chamber 111. In this way, because heat is transferred from the bottom to the top, the heat emitted from the heating element 221 can be transferred to every part of the interior space of the first accommodating chamber 111, thereby making the temperature of every part of the interior space of the first accommodating chamber 111 uniform.

[0073] To address the issue of the heating pipe network 23 interfering with each other when supplying heat to the corresponding accommodating chambers 11, in some embodiments, referring to Figures 1 and 6, the heating pipe network 23 includes a first water supply system 231 and a first water return system 232. The first water supply system 231 includes a first water supply main 2311 and a plurality of first water supply branches 2312. Each first water supply branch 2312 has one end connected to the first water supply main 2311 and the other end connected to a corresponding heating element 221. The first water return system 232 includes a first water return main 2321 and a plurality of first water return branches 2322. Each first water return branch 2322 has one end connected to a corresponding heating element 221 and the other end connected to the first water return main 2321.

[0074] In this way, the first water supply branch pipes 2312 are connected in parallel. During the heat transfer process, the first water supply branch pipes 2312 are independent of each other and do not interfere with each other. The heat transfer of other first water supply branch pipes 2312 will not be affected by the failure of a first water supply branch pipe 2312, thereby reducing the failure rate of the static equipment of the product.

[0075] During the flow, the heat-carrying fluid first enters the first water supply main 2311 from the heat source 211, and then separately enters multiple first water supply branches 2312 corresponding to multiple heating components 221. When passing through the heating components 221, the heat of the fluid is dissipated and the temperature drops. Then, it passes through multiple first return water branches 2322 and enters the first return water main 2321, and then enters the heat source 211 to heat the fluid again. The process is then repeated to continuously supply heat to the accommodating chamber 11.

[0076] In some embodiments, referring to FIG6 , each first water supply branch pipe 2312 is provided with a flow control valve 2313, which is electrically connected to the control system 4. By providing a flow control valve 2313 on each first water supply branch pipe 2312, the flow rate of liquid or gas in each first water supply branch pipe 2312 can be adjusted by the flow control valve 2313. Furthermore, by adjusting the flow rate of the first water supply branch pipe 2312, the temperature of the heating element 221 corresponding to the first water supply branch pipe 2312 can be adjusted, thereby achieving the purpose of adjusting the temperature of the accommodating cavity 11 corresponding to the heating element 221, making the temperature adjustment of each accommodating cavity 11 very flexible.

[0077] Furthermore, since each first water supply branch pipe 2312 corresponds to a corresponding accommodating cavity 11 on a one-to-one basis, the temperature in each accommodating cavity 11 can be adjusted individually.

[0078] When a flow control valve 2313 is provided on each first water supply branch pipe 2312, specifically, the temperature detection element 31 detects the measured temperature in the corresponding accommodating chamber 11, the control system 4 obtains the measured temperature and compares the measured temperature with the preset temperature range. When the measured temperature is lower than the minimum value in the preset temperature range, the control system 4 starts to supply heat or increase the heat supply by opening or increasing the opening of the flow control valve 2313, and gradually increases the measured temperature in the corresponding accommodating chamber 11. At this time, the temperature detection element 31 detects the measured temperature in the corresponding accommodating chamber 11 again, and then compares the measured temperature measured this time with the preset temperature range. If it is within the preset temperature range, the control system 4 stops or reduces the heat supply by closing or reducing the opening of the flow control valve 2313. Otherwise, the control system 4 continues to keep the flow control valve 2313 open or increase the opening until the preset temperature range is reached.

[0079] When the measured temperature is higher than the maximum value in the preset temperature range, the adjustment principle is similar to the adjustment principle when the measured temperature is lower than the minimum value in the preset temperature range, and the embodiments of the present application will not be repeated here.

[0080] In some embodiments, referring to Figures 2 and 5, the energy supply 21 further includes a cooling source 212, and the plurality of energy supply components 22 further include a plurality of cooling components 222. The cooling source 212 is connected to the plurality of cooling components 222 via a cooling pipe network 24. The plurality of cooling components 222 are provided corresponding to the plurality of first accommodating chambers 111 in the plurality of accommodating chambers 11. The control system 4 is electrically connected to the cooling source 212. The control system 4 is configured to control the energy supply 21 to supply cooling to the corresponding cooling component 222 via the cooling pipe network 24 when the actual temperature detected by the temperature detection element 31 is higher than the highest temperature in a preset temperature range, thereby supplying cooling to the corresponding first accommodating chamber 111 via the cooling component 222.

[0081] Since the energy source 21 also includes a cooling source 212, and the multiple energy supply components 22 also include multiple cooling components 222, the cooling source 212 is connected to the multiple cooling components 222 via the cooling pipe network 24. The multiple cooling components 222 are provided corresponding to the multiple first accommodating chambers 111 in the multiple accommodating chambers 11, and the control system 4 is electrically connected to the cooling source 212. In this way, the product stationary device has a complete cooling system. When the measured temperature in the first accommodating chamber 111 is higher than the preset temperature range, the cooling source 212 can supply cooling to the cooling components 222 via the cooling pipe network 24, thereby reducing the temperature in the first accommodating chamber 111.

[0082] It should be noted that the cooling component 222 can be a fan, a condenser, or other devices that can provide cooling capacity, and this embodiment of the present application does not limit this.

[0083] In this embodiment, since multiple cooling parts 222 are arranged corresponding to multiple first accommodating chambers 111 in the multiple accommodating chambers 11, based on the above description, it can be known that multiple heating parts 221 are also arranged corresponding to multiple first accommodating chambers 111 in the multiple accommodating chambers 11, that is, the first accommodating chamber 111 is simultaneously provided with a heating part 221 and a cooling part 222. In this way, compared with the method in which the first accommodating chamber 111 is only provided with a heating part 221 or a cooling part 222, the temperature adjustment is more flexible.

[0084] In some embodiments, referring to Figures 1 and 4, the energy supply 21 includes a cooling source 212, the plurality of energy supply components 22 include a plurality of cooling components 222, the cooling source 212 is connected to the plurality of cooling components 222 via a cooling pipe network 24, the plurality of cooling components 222 are provided corresponding to a plurality of second accommodating chambers 112 in the plurality of accommodating chambers, and the control system 4 is electrically connected to the cooling source 212. The control system 4 is configured to control the energy supply 21 to supply cooling to the corresponding cooling component 222 via the cooling pipe network 24 when the actual temperature detected by the temperature detection element 31 is higher than the highest temperature in a preset temperature range, thereby supplying cooling to the corresponding second accommodating chamber 112 via the cooling component 222.

[0085] Since the energy supply 21 includes a cooling source 212, the multiple energy supply components 22 include multiple cooling components 222, the cooling source 212 is connected to the multiple cooling components 222 via a cooling pipe network 24, the multiple cooling components 222 are provided corresponding to the multiple second accommodating chambers 112 in the multiple accommodating chambers 11, and the control system 4 is electrically connected to the cooling source 212. Therefore, the product stationary device can have a complete cooling system. When the measured temperature in the second accommodating chamber 112 is higher than the preset temperature range, the cooling source 212 can supply cooling to the cooling components 222 via the cooling pipe network 24, thereby raising the temperature in the second accommodating chamber 112, thereby avoiding the situation where the temperature in the second accommodating chamber 112 is too high and does not meet the temperature requirement, affecting the stationary effect.

[0086] When supplying cooling to the cooling element 222 via the cooling pipe network 24, liquid or gas can be used as a carrier for transferring cooling energy. On the one hand, due to the good fluidity of liquid or gas, it is easier to transport cooling energy, which can improve the efficiency of cooling energy transfer. On the other hand, because the liquid or gas can be recycled, waste can be avoided.

[0087] It should be noted that the second accommodating chamber 112 is relative to the first accommodating chamber 111 and is an accommodating chamber 11 other than the first accommodating chamber 111 among the multiple accommodating chambers 11 in the product stationary device.

[0088] The cooling network 24 is structurally identical to the heating network 23 (see Figure 7 ), and also includes a first water supply system 231 and a first water return system 232. The first water supply system 231 comprises a first water supply main 2311 and a plurality of first water supply branches 2312. Each first water supply branch 2312 has one end connected to the first water supply main 2311 and the other end connected to a corresponding cooling component 222. The first water return system 232 comprises a first water return main 2321 and a plurality of first water return branches 2322. Each first water return branch 2322 has one end connected to a corresponding cooling component 222 and the other end connected to the first water return main 2321. In this way, the first water supply branch pipes 2312 are connected in parallel. During the cold transfer process, the first water supply branch pipes 2312 are independent of each other and do not interfere with each other. The cold transfer of other first water supply branch pipes 2312 will not be affected by the failure of a first water supply branch pipe 2312, thereby reducing the failure rate of the static equipment of the product.

[0089] In order to improve the cooling efficiency inside the accommodating chamber 11, in some embodiments, referring to Figures 4 and 5, the cooling component 222 includes a fan and a fan pipe, and the cooling source 212 is connected to multiple fan pipes through the cooling pipe network 24. The fan is used to blow air to the fan pipes, and the fan is installed on the side wall of the accommodating chamber 11.

[0090] The fan continuously blows a portion of the air in the accommodating chamber 11 toward the surface of the fan tube, which can contain a carrier for transferring cooling energy, such as cold water. As this portion of air is blown onto the surface of the fan tube, the cold water absorbs the heat from the air, turning it into cold air. This cold air then enters the accommodating chamber 11, thereby lowering the overall temperature within the accommodating chamber 11.

[0091] In addition, for the accommodating chamber 11, an opening is generally set in the opposite direction of the side wall. Therefore, by installing the fan on the side wall of the accommodating chamber 11, convection can be formed in the direction opposite to the side wall where the fan is installed and the opening, which is beneficial to the flow of wind blown by the fan, and further beneficial to reducing the temperature inside the accommodating chamber 11.

[0092] It should be noted that the above-mentioned side wall refers to a vertical wall in a circle perpendicular to the horizontal plane in the accommodating cavity 11. When the shape of the accommodating cavity 11 is a cube, the side wall can be the front wall, the rear wall, the left wall and the right wall.

[0093] For example, when the side wall is the rear wall, the fan installed on the side wall of the accommodating chamber 11 can be understood as the fan being installed on the rear wall of the accommodating chamber 11. Of course, the fan can also be installed on other side walls of the accommodating chamber 11, which is not limited in this embodiment.

[0094] In some embodiments, referring to FIG. 1 , a plurality of first accommodating cavities 111 are located in a first area A of the storage location providing device 1 , and a plurality of second accommodating cavities 112 are located in a second area C of the storage location providing device 1 . The first area A and the second area C are located at different positions.

[0095] In this way, the accommodating chamber 11 with heating function and the accommodating chamber 11 with only cooling function can be completely separated in space, thereby reducing the heat transfer caused by the temperature difference between the first area A and the second area C, thereby ensuring the stability of the actual measured temperatures of the first area A and the second area C.

[0096] To reduce the impact of the first area A on the second area C, in some embodiments, as shown in FIG1 , the first area A is located above the second area C. Because the first area A comprises the first accommodating cavity 111 with a heating function, and the second area C comprises the accommodating cavity 11 with only a cooling function, the measured temperature in the first area A is higher than that in the second area C, and heat transfer occurs from bottom to top. Thus, placing the first area A above the second area C can reduce the impact of the first area A on the second area C.

[0097] In some embodiments, referring to FIG1 , a hollow region B is provided between the first region A and the second region C. By providing the hollow region B between the first region A and the second region C, the first region A and the second region C can be separated by the hollow region B, thereby increasing the distance between the first region A and the second region C. With respect to heat transfer between two objects, the greater the distance between them, the poorer the heat transfer effect, thereby reducing the influence of the first region A on the second region C.

[0098] In addition, since the empty layer region B is space-time and only gas serves as the heat conduction medium, and the thermal conductivity of gas is much lower than that of solid, the empty layer region B is set between the first region A and the second region C. Compared with not setting the empty layer region B between the first region A and the second region C, the influence of the first region A on the second region C is further weakened.

[0099] It should be noted that the accommodating cavity 11 in which no products to be placed can serve as the above-mentioned empty layer area B. Of course, a space can be specially set up on the storage location providing device 1 to serve as the empty layer area B, and this embodiment does not limit this.

[0100] For example, when the storage location providing device is a shelf for placing static batteries, the above-mentioned empty layer area B can be served by a row of accommodating cavities 11 without batteries placed therein, or a separate space can be specially set up to serve as the empty layer area B. It only needs to serve to separate the first area A from the second area C. The embodiment of the present application does not limit the empty layer area B.

[0101] In summary, in the embodiment of the present application, the product stationary equipment includes a storage location providing device 1, an energy supply system 2, a temperature measurement system 3 and a control system 4. Among them, the storage location providing device 1 includes a plurality of accommodating chambers 11 separated from each other. The energy supply system 2 includes a plurality of energy supply parts 22, and the plurality of energy supply parts 22 correspond one-to-one to the plurality of accommodating chambers 11. The temperature measurement system 3 includes a plurality of temperature detection elements 31, and the plurality of temperature detection elements 31 correspond one-to-one to the plurality of accommodating chambers 11, and each temperature detection element 31 is used to detect the measured temperature in the corresponding accommodating chamber 11. The control system 4 is electrically connected to the energy supply system 2 and the temperature detection element 31, respectively. The control system 4 is used to control the energy supply part 22 to supply heat or cold to the corresponding accommodating chamber 11 when the measured temperature detected by the temperature detection element 31 exceeds the preset temperature range, so that the measured temperature in the accommodating chamber 11 is within the preset temperature range. In this way, the energy source 21 can directly heat or cool each accommodating chamber 11 individually. Compared with the temperature adjustment method using a large ambient temperature control method in the related art, this can reduce the space volume for temperature control. At the same time, since each accommodating chamber 11 has a temperature detection element 31 inside, the control system can automatically adjust the temperature inside each accommodating chamber 11 according to the measured temperature detected by the temperature detection element 31. Moreover, the preset temperature range set in the control system can be adjusted according to different production processes. In turn, the energy consumption of the static equipment of the product is reduced, the temperature control accuracy is improved, and the temperature control flexibility is improved.

[0102] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present application, rather than to limit them. Although the present application has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the aforementioned embodiments, or make equivalent replacements for some or all of the technical features therein. These modifications or replacements do not deviate the essence of the corresponding technical solutions from the scope of the technical solutions of the embodiments of the present application.

Claims

1. A product static device, characterized in that: include: A storage location providing device (1), the storage location providing device (1) comprising a plurality of mutually separated accommodating chambers (11), each of the accommodating chambers (11) forming a storage location for accommodating products to be stored; An energy supply system (2), the energy supply system (2) comprising a plurality of energy supply components (22), the plurality of energy supply components (22) corresponding one-to-one to the plurality of accommodating chambers (11); A temperature measurement system (3), the temperature measurement system (3) comprising a plurality of temperature detection elements (31), the plurality of temperature detection elements (31) corresponding one-to-one to the plurality of accommodating cavities (11), each of the temperature detection elements (31) being used to detect the actual measured temperature in the corresponding accommodating cavity (11); A control system (4), the control system (4) being electrically connected to the energy supply system (2) and the temperature detection element (31) respectively, and the control system (4) being used for controlling the energy supply component (22) to supply heat or cold to the corresponding accommodating cavity (11) when the measured temperature detected by the temperature detection element (31) exceeds a preset temperature range, so that the measured temperature in the accommodating cavity (11) is within the preset temperature range.

2. The product stationary device according to claim 1, characterized in that: The energy supply system (2) is a centralized energy supply system, and the energy supply system further comprises an energy supply source (21), and a plurality of energy supply components (22) are all connected to the energy supply source (21). The control system (4) is used to control the energy supply source (21) to supply heat or cold to the corresponding accommodating cavity (11) through the energy supply components (22) when the actual temperature detected by the temperature detection element (31) exceeds a preset temperature range.

3. The product stationary device according to claim 2, characterized in that: The energy supply source (21) comprises a heat supply source (211), the plurality of energy supply components (22) comprise a plurality of heat supply components (221), the heat supply source (211) is connected to the plurality of heat supply components (221) via a heat supply pipe network (23), the plurality of heat supply components (221) are arranged corresponding to the plurality of first accommodating chambers (111) in the plurality of accommodating chambers (11), and the control system (4) is electrically connected to the heat supply source (211); The control system (4) is used to control the energy source (21) to supply heat to the corresponding heating element (221) through the heating pipe network (23) when the actual temperature detected by the temperature detection element (31) is lower than the lowest temperature in the preset temperature range, so as to supply heat to the corresponding first accommodating cavity (111) through the heating element (221).

4. The product stationary device according to claim 3, characterized in that: The heating element (221) is a heat sink, and the heat sink is arranged in the first accommodating cavity (111).

5. The product stationary device according to claim 3 or 4, characterized in that: The heating element (221) is located at the bottom of the first accommodating cavity (111).

6. The product stationary device according to any one of claims 3 to 5, characterized in that: The heating pipe network (23) comprises: A first water supply system (231), the first water supply system (231) comprising a first water supply main pipe (2311) and a plurality of first water supply branch pipes (2312), one end of each of the first water supply branch pipes (2312) being connected to the first water supply main pipe (2311) and the other end being connected to the corresponding heating element (221); A first water return system (232), the first water return system (232) comprising a first water return main pipe (2321) and a plurality of first water return branch pipes (2322), one end of each of the first water return branch pipes (2322) being connected to a corresponding heating element (221), and the other end being connected to the first water return main pipe (2321).

7. The product stationary device according to claim 6, characterized in that: Each of the first water supply branch pipes (2312) is provided with a flow control valve (2313), and the flow control valve (2313) is electrically connected to the control system (4).

8. The product stationary device according to any one of claims 3 to 7, characterized in that: The energy supply source (21) further includes a cooling source (212), the plurality of energy supply components (22) further include a plurality of cooling components (222), the cooling source (212) is connected to the plurality of cooling components (222) via a cooling pipe network (24), the plurality of cooling components (222) are arranged corresponding to the plurality of first accommodating chambers (111) in the plurality of accommodating chambers (11), and the control system (4) is electrically connected to the cooling source (212); The control system (4) is used to control the energy source (21) to supply cold to the corresponding cold supply component (222) through the cold supply pipe network (24) when the actual temperature detected by the temperature detection element (31) is higher than the highest temperature in the preset temperature range, so as to supply cold to the corresponding first accommodating chamber (111) through the cold supply component (222).

9. The product stationary device according to any one of claims 3 to 8, characterized in that: The energy supply source (21) further includes a cooling source (212), the plurality of energy supply components (22) further include a plurality of cooling components (222), the cooling source (212) is connected to the plurality of cooling components (222) via a cooling pipe network (24), the plurality of cooling components (222) are arranged corresponding to the plurality of second accommodating chambers (112) in the plurality of accommodating chambers (11), and the control system (4) is electrically connected to the cooling source (212); The control system (4) is used to control the energy source (21) to supply cold to the corresponding cold supply component (222) through the cold supply pipe network (24) when the actual temperature detected by the temperature detection element (31) is higher than the highest temperature in the preset temperature range, so as to supply cold to the corresponding second accommodating chamber (112) through the cold supply component (222).

10. The product stationary device according to claim 8 or 9, characterized in that: The cooling component (222) comprises a fan and a fan pipe, the cooling source (212) is connected to a plurality of the fan pipes via the cooling pipe network (24), the fan is used to blow air to the fan pipes, and the fan is installed on the side wall of the accommodating cavity (11).

11. The product resting device according to claim 9 or 10, characterized in that: The plurality of first accommodating cavities (111) are located in a first area (A) of the storage location providing device (1), and the plurality of second accommodating cavities (112) are located in a second area (C) of the storage location providing device (1), and the positions of the first area (A) and the second area (C) are different.

12. The product resting device according to claim 11, characterized in that: The first region (A) is located above the second region (C).

13. The product resting device according to claim 11 or 12, characterized in that: A vacant layer region (B) is provided between the first region (A) and the second region (C).

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