Refrigerator control method and refrigerator

Abstract

The application provides a refrigerator control method and a refrigerator. The refrigerator control method comprises the following steps: obtaining a refrigeration temperature detected by a refrigeration temperature sensor, a freezing temperature detected by a freezing temperature sensor and an evaporation temperature detected by an evaporation temperature sensor; comparing the refrigeration temperature, the freezing temperature and the evaporation temperature with preset conditions to generate a comparison result; the preset conditions comprise a refrigeration opening temperature, a freezing opening temperature, a refrigeration closing temperature, a freezing closing temperature, a first preset temperature and a second preset temperature; and controlling the refrigerator to operate in a preset mode according to the comparison result. By detecting the refrigeration temperature, the freezing temperature and the evaporation temperature in real time, independent refrigeration of the refrigeration chamber and the freezing chamber is realized, and the humidity of the refrigeration chamber is increased, so that the problem of low humidity of the refrigeration chamber of a single-system air-cooled refrigerator is solved.

Description

Technical Field

[0001] This application relates to the field of refrigeration equipment technology, specifically to a refrigerator control method and a refrigerator. Background Technology

[0002] Frost-free refrigerators are generally divided into two types: single-system frost-free refrigerators and dual-system frost-free refrigerators. Single-system frost-free refrigerators have one evaporator located in the freezer compartment. The refrigerant returns to the compressor via the compressor, condenser, capillary tube, and evaporator, forming a complete refrigeration cycle. Its advantages include a relatively small refrigeration duct volume, resulting in more usable space and lower cost. The disadvantage is low humidity in the refrigerator compartment, with a relative humidity of only 15%-40% when the refrigerator is empty, which is detrimental to preservation performance. Dual-system frost-free refrigerators have one evaporator in each compartment, switching between them via a switching valve. Its advantages include a relative humidity of over 75% in the refrigerator compartment, providing excellent preservation of fruits and vegetables. The disadvantages are a larger refrigeration duct component volume, reducing usable space and increasing the cost of the refrigeration duct components. Furthermore, the addition of an electric switching valve to the refrigeration system in dual-system frost-free refrigerators further increases the failure rate of the refrigeration system.

[0003] Therefore, the evaporator can be placed in the central beam between the refrigerator and freezer compartments, with air duct components, partition components, and drainage plates installed to achieve cooling for both the refrigerator and freezer compartments. This reduces the space occupied by the evaporator and also reduces the space occupied by the air duct components within the cabinet, thus increasing the cabinet capacity. However, placing the evaporator in the center changes the position of the evaporator in an existing single-cycle air-cooled refrigerator, making it impossible to achieve the function of independent control of the refrigerator and freezer compartments in a dual-system air-cooled refrigerator. The humidity inside the refrigerator compartment of a single-system air-cooled refrigerator is relatively low. Summary of the Invention

[0004] This application provides a refrigerator control method and a refrigerator to solve the problem of low humidity in the cold storage compartment of a single-system air-cooled refrigerator.

[0005] In a first aspect, this application provides a refrigerator control method, including:

[0006] The system acquires the refrigeration temperature detected by the refrigeration temperature sensor, the freezing temperature detected by the freezing temperature sensor, and the evaporation temperature detected by the evaporation temperature sensor.

[0007] The refrigeration temperature, the freezing temperature, and the evaporation temperature are compared with preset conditions to generate a comparison result; the preset conditions include refrigeration start temperature, freezing start temperature, refrigeration stop temperature, freezing stop temperature, a first preset temperature, and a second preset temperature;

[0008] Based on the comparison results, the refrigerator is controlled to operate in a preset mode.

[0009] Optionally, the comparison results are generated by comparing the refrigeration temperature and the freezing temperature with preset conditions, including:

[0010] If the refrigeration temperature is greater than the refrigeration start temperature, the freezing temperature is less than the freezing start temperature, and the evaporation temperature is less than the first preset temperature, then control the refrigeration fan to start, the first air supply damper and the first return air damper to close, and the second air inlet damper to open.

[0011] If the refrigeration temperature is greater than the refrigeration start temperature, the freezing temperature is less than the freezing start temperature, and the evaporation temperature is greater than the first preset temperature, then the compressor, the refrigeration fan, and the second air inlet damper are controlled to start.

[0012] Optionally, generating comparison results by comparing the refrigeration temperature and the freezing temperature with preset conditions further includes:

[0013] If the refrigeration temperature is greater than the refrigeration start temperature and the freezing temperature is greater than the freezing start temperature, then the compressor and the refrigeration fan are started, and the second air inlet damper is opened.

[0014] If the evaporation temperature is lower than the second preset temperature, then the first air inlet damper and the first air return damper are controlled to open.

[0015] Optionally, generating comparison results by comparing the refrigeration temperature and the freezing temperature with preset conditions further includes:

[0016] If the refrigeration temperature is lower than the refrigeration shut-off temperature, then the second air inlet damper is controlled to close.

[0017] If the freezing temperature is lower than the freezing shutdown temperature, then the compressor is shut down, the first supply air damper and the first return air damper are closed.

[0018] Optionally, generating comparison results by comparing the refrigeration temperature and the freezing temperature with preset conditions further includes:

[0019] If the refrigeration temperature is greater than the refrigeration shut-off temperature and less than the refrigeration start temperature and the freezing temperature is greater than the freezing start temperature, then the compressor is started, the first air inlet damper and the first air return damper are opened, and the second air inlet damper and the second air return damper are closed.

[0020] Optionally, generating comparison results by comparing the refrigeration temperature and the freezing temperature with preset conditions further includes:

[0021] If the freezing temperature is greater than the freezing shut-off temperature, the refrigeration temperature is less than the refrigeration open temperature, and the evaporation temperature is less than the first preset temperature, then control the refrigeration fan to start, the second air inlet damper to open, and the first air supply damper and the first return air damper to close.

[0022] If the freezing temperature is greater than the freezing shut-off temperature, the refrigeration temperature is less than the refrigeration open temperature, and the evaporation temperature is greater than the first preset temperature, then the refrigeration fan is shut off and the second air inlet damper is closed.

[0023] Optionally, the first preset temperature is -5℃ to -1℃, and the second preset temperature is -15℃ to -25℃; the refrigerator start temperature, the refrigerator stop temperature, the freezer start temperature, and the freezer stop temperature are all related to the refrigerator's cooling setting.

[0024] Secondly, this application provides a refrigerator, applied to the refrigerator control method described in the first aspect, comprising:

[0025] Refrigeration compartment; the refrigeration compartment is equipped with a refrigeration temperature sensor;

[0026] Freezer compartment; the freezer compartment is equipped with a freezer temperature sensor;

[0027] A partition assembly disposed between the refrigerator compartment and the freezer compartment;

[0028] A refrigeration system, comprising a refrigeration fan, an evaporator, and a compressor; the evaporator is disposed within the partition assembly;

[0029] An evaporator temperature sensor is disposed on the surface of the evaporator.

[0030] A duct assembly, the duct assembly comprising a first duct assembly and a second duct assembly;

[0031] The first air duct assembly includes a first air inlet, a first air outlet, and a first return air outlet, and the first air inlet, the first air outlet, and the first return air outlet are connected to the freezer compartment;

[0032] The second air duct assembly includes a second air inlet, a second air outlet, and a second return air outlet, which are connected to the refrigerator compartment.

[0033] The first air inlet is provided with a first air inlet damper, the first air return outlet is provided with a first air return damper, and the first air outlet is provided with a first air supply damper.

[0034] The second air inlet is provided with a second air inlet damper, and the second air return outlet is provided with a second air return damper;

[0035] The controller is electrically connected to the refrigeration temperature sensor, the freezing temperature sensor, the evaporation temperature sensor, the refrigeration fan, the evaporator, and the compressor, respectively.

[0036] The controller is configured to:

[0037] The refrigeration temperature detected by the refrigeration temperature sensor, the freezing temperature detected by the freezing temperature sensor, and the evaporation temperature detected by the evaporation temperature sensor are obtained.

[0038] The refrigeration temperature and the freezing temperature are compared with preset conditions to generate a comparison result; the preset conditions include refrigeration start temperature, freezing start temperature, refrigeration stop temperature, freezing stop temperature, a first preset temperature and a second preset temperature;

[0039] Based on the comparison results, the refrigerator is controlled to operate in a preset mode.

[0040] Optionally, the refrigeration system further includes a capillary tube, a filter, and a condenser; the compressor, the condenser, the filter, the capillary tube, and the evaporator are connected in sequence.

[0041] Optionally, the baffle assembly includes a first baffle and a second baffle, one side of the evaporator abuts against the first baffle, the other side of the evaporator abuts against the second baffle, the horizontal height of the first baffle is greater than the horizontal height of the second baffle, and the angle between the evaporator and the horizontal plane is 7°.

[0042] As can be seen from the above technical solutions, this application provides a refrigerator control method and a refrigerator. The refrigerator control method includes: acquiring the refrigerator temperature detected by a refrigerator temperature sensor, the freezer temperature detected by a freezer temperature sensor, and the evaporation temperature detected by an evaporation temperature sensor; comparing the refrigerator temperature, the freezer temperature, and the evaporation temperature with preset conditions to generate a comparison result; the preset conditions include a refrigerator start temperature, a freezer start temperature, a refrigerator stop temperature, a freezer stop temperature, a first preset temperature, and a second preset temperature; and controlling the refrigerator to operate in a preset mode according to the comparison result. By real-time detection of the refrigerator temperature, freezer temperature, and evaporation temperature, independent cooling of the refrigerator compartment and freezer compartment is achieved, increasing the humidity of the refrigerator compartment to solve the problem of low humidity in the refrigerator compartment of a single-system air-cooled refrigerator. Attached Figure Description

[0043] To more clearly illustrate the technical solution of this application, the drawings used in the embodiments will be briefly introduced below. Obviously, for those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0044] Figure 1 The refrigerator control method provided in the embodiments of this application;

[0045] Figure 2 A refrigerator control flowchart provided for an embodiment of this application;

[0046] Figure 3 This is a schematic diagram of the refrigerator structure provided in an embodiment of this application.

[0047] Figure label:

[0048] Among them, 1-freezer compartment; 2-refrigerator compartment; 3-evaporator; 4-partition assembly; 41-first partition; 42-second partition; 5-first air duct assembly; 51-first air inlet; 52-first air outlet; 53-first return air outlet; 6-second air duct assembly; 61-second air inlet; 62-second air outlet; 63-second return air outlet; 7-refrigeration fan; 8-first air inlet damper; 9-first return air damper; 10-second air inlet damper; 11-first supply air damper; 13-second return air damper; 101-freezer temperature sensor; 201-refrigerator temperature sensor; 301-evaporator temperature sensor; 14-controller. Detailed Implementation

[0049] The embodiments will now be described in detail, examples of which are illustrated in the accompanying drawings. When the following description relates to the drawings, unless otherwise indicated, the same numbers in different drawings represent the same or similar elements. The embodiments described below do not represent all embodiments consistent with this application. They are merely examples of systems and methods consistent with some aspects of this application as detailed in the claims.

[0050] Frost-free refrigerators are generally divided into two types: single-system frost-free refrigerators and dual-system frost-free refrigerators. Single-system frost-free refrigerators have one evaporator located in the freezer compartment. The refrigerant returns to the compressor via the compressor, condenser, capillary tube, and evaporator, forming a complete refrigeration cycle. Its advantages include a relatively small refrigeration duct volume, resulting in more usable space and lower cost. The disadvantage is low humidity in the refrigerator compartment, with a relative humidity of only 15%-40% when the refrigerator is empty, which is detrimental to preservation performance. Dual-system frost-free refrigerators have one evaporator in each compartment, switching between them via a switching valve. Its advantages include a relative humidity of over 75% in the refrigerator compartment, providing excellent preservation of fruits and vegetables. The disadvantages are a larger refrigeration duct component volume, reducing usable space and increasing the cost of the refrigeration duct components. Furthermore, the addition of an electric switching valve to the refrigeration system in dual-system frost-free refrigerators further increases the failure rate of the refrigeration system.

[0051] In some embodiments, the evaporator is positioned in the central beam between the refrigerator and freezer compartments, along with an air duct assembly, partition assembly, and drain plate, to achieve cooling for both compartments. In this refrigerator structure, the height space occupied by the evaporator is reduced, as is the space occupied by the air duct assembly within the cabinet, effectively increasing the cabinet capacity. However, this refrigerator's air duct design, which uses the existing single-cycle air-cooled refrigerator's rear evaporator solution and innovatively moves the evaporator to the central beam position to reduce the space occupied by the evaporator and air duct, cannot achieve independent dual-system control of the refrigerator and freezer compartments, and cannot significantly improve the humidity in the single-system refrigerator compartment.

[0052] To address the issue of low humidity in the refrigerator compartment of a single-system air-cooled refrigerator, some embodiments of this application provide a refrigerator control method, see [link to relevant documentation]. Figure 1 , Figure 1 The flowchart of the refrigerator control method provided in this application embodiment specifically includes the following steps:

[0053] S100: Acquire the refrigeration temperature detected by the refrigeration temperature sensor 201, the freezing temperature detected by the freezing temperature sensor 101, and the evaporation temperature detected by the evaporation temperature sensor 301.

[0054] S200: Compare the refrigeration temperature, freezing temperature, and evaporation temperature with preset conditions to generate comparison results.

[0055] The preset conditions include the refrigerator start temperature, freezer start temperature, refrigerator stop temperature, freezer stop temperature, a first preset temperature, and a second preset temperature. By comparing the refrigerator temperature with the refrigerator stop temperature and the refrigerator start temperature, it is determined whether the refrigerator compartment 2 needs cooling. By comparing the freezer temperature with the refrigerator start temperature and the freezer stop temperature, it is determined whether the freezer compartment 1 needs cooling. By comparing the evaporation temperature with the first preset temperature and the second preset temperature, it is determined whether humidification of the refrigerator compartment 2 is needed. In this embodiment, after generating comparison results by comparing the refrigerator temperature, freezer temperature, and evaporation temperature with the preset conditions, the refrigerator is controlled to operate in different modes.

[0056] S300: Based on the comparison results, control the refrigerator to operate in a preset mode.

[0057] In some embodiments, such as Figure 2 As shown, the comparison results are generated by comparing the refrigeration and freezing temperatures with preset conditions, including:

[0058] If the refrigeration temperature is greater than the refrigeration start temperature, the freezing temperature is less than the freezing start temperature, and the evaporation temperature is less than the first preset temperature, then the refrigeration fan 7 is started, the first air supply damper 11 and the first return air damper 9 are closed, and the second air inlet damper 10 is opened.

[0059] If the refrigeration temperature is higher than the refrigeration start temperature, the freezing temperature is lower than the freezing start temperature, and the evaporation temperature is higher than the first preset temperature, then the compressor, the refrigeration fan 7, and the second air inlet damper 10 are controlled to start.

[0060] If the refrigeration temperature is higher than the refrigeration start temperature and the freezing temperature is lower than the freezing start temperature, then the surface refrigeration compartment 2 needs to be refrigerated. At the same time, if the evaporation temperature is lower than the first preset temperature, then the surface refrigeration compartment 2 needs to be humidified. Therefore, the refrigeration fan 7 can be started, the second air inlet damper 10 can be opened, and the first air supply damper 11 and the first return air damper 9 can be closed. After humidifying the refrigeration compartment 2 by opening the second air inlet damper 10, the compressor can be started and the second air inlet damper 10 can be opened to refrigerate the refrigeration compartment 2.

[0061] When the refrigerator compartment 2 needs to be refrigerated, if the evaporation temperature is higher than the first preset temperature, the surface refrigerator compartment 2 does not need to be humidified. Therefore, the compressor can be started and the second air inlet damper 10 can be opened directly to provide cooling for the refrigerator compartment 2.

[0062] It can be understood that the opening and closing of the first air supply damper 11 and the first air return damper 9 controls the cooling of the freezer compartment 1, and the opening and closing of the second air inlet damper 10 controls the cooling of the refrigerator compartment 2. When the second air inlet damper 10 is closed, the low-temperature gas generated by the evaporator 3 cannot enter the refrigerator compartment 2. When the second air inlet damper 10 is open, the refrigeration fan 7 can send the high-humidity gas into the refrigerator compartment 2 through the second air inlet damper 10 to increase the humidity in the refrigerator compartment 2.

[0063] In some embodiments, generating comparison results by comparing refrigeration temperature and freezing temperature with preset conditions further includes:

[0064] If the refrigeration temperature is higher than the refrigeration start temperature and the freezing temperature is higher than the freezing start temperature, then the compressor and refrigeration fan 7 will be started and the second air inlet damper 10 will be opened.

[0065] If the evaporation temperature is lower than the second preset temperature, the first air inlet damper 8 and the first return air damper 9 will be opened.

[0066] If the refrigeration temperature is greater than the refrigeration start temperature and the freezing temperature is greater than the freezing start temperature, it means that both the refrigeration compartment 2 and the freezing compartment 1 need to be refrigerated. Therefore, the refrigeration fan 7 can be started, the second air inlet damper 10 can be opened to refrigerate the refrigeration compartment 2, and the first air inlet damper 8 and the first return air damper 9 can be opened to refrigerate the freezing compartment 1.

[0067] In some embodiments, generating comparison results by comparing refrigeration temperature and freezing temperature with preset conditions further includes:

[0068] If the refrigeration temperature is lower than the refrigeration shut-off temperature, then the second air inlet damper 10 will be closed.

[0069] If the freezing temperature is lower than the freezing shutdown temperature, the compressor will be shut down, and the first supply air damper 11 and the first return air damper 9 will be closed.

[0070] During the cooling process of refrigerator compartment 2 and freezer compartment 1, when the refrigerator temperature is lower than the refrigerator shut-off temperature, the temperature inside refrigerator compartment 2 has already reached its target temperature. Therefore, cooling of refrigerator compartment 2 can be stopped by closing the second air inlet damper 10. When the temperature inside freezer compartment 1 reaches its target temperature, cooling of freezer compartment 1 can be stopped by turning off the compressor, the first air inlet damper 8, and the first return air damper 9. During refrigerator use, the temperature of freezer compartment 1 is lower than that of refrigerator compartment 2. Therefore, it takes longer for freezer compartment 1 to reach its freezing shut-off temperature than for refrigerator compartment 2. Thus, when refrigerator compartment 2 stops cooling, it is not necessary to turn off the compressor; only the second air inlet damper 10 needs to be closed. When freezer compartment 1 stops cooling, the compressor needs to be turned off to reduce energy consumption.

[0071] In some embodiments, generating comparison results by comparing refrigeration temperature and freezing temperature with preset conditions further includes:

[0072] If the refrigeration temperature is greater than the refrigeration shut-off temperature and less than the refrigeration start temperature, and the freezing temperature is greater than the freezing start temperature, then the compressor is started, the first air inlet damper 8 and the first return air damper 9 are opened, and the second air inlet damper 10 and the second return air damper 13 are closed.

[0073] When the refrigeration temperature is higher than the refrigeration closing temperature and lower than the refrigeration opening temperature, the surface refrigeration compartment 2 does not need to be refrigerated. Therefore, it is determined whether the freezing temperature is higher than the freezing opening temperature. When the freezing temperature is higher than the freezing opening temperature, the surface freezer compartment 1 needs to be refrigerated separately. Therefore, the compressor can be started, and the first air inlet damper 8 and the first air return damper 9 are opened to provide cooling for the freezer compartment 1. At the same time, the refrigeration compartment 2 does not need to be refrigerated. Therefore, the second air inlet damper 10 can be closed to prevent cold air from entering the refrigeration compartment 2, thereby improving the cooling efficiency of the freezer compartment 1.

[0074] In some embodiments, generating comparison results by comparing refrigeration temperature and freezing temperature with preset conditions further includes:

[0075] If the freezing temperature is lower than the freezing shut-off temperature, the refrigeration temperature is lower than the refrigeration start-up temperature, and the evaporation temperature is lower than the first preset temperature, then the refrigeration fan 7 is started, the second air inlet damper 10 is opened, and the first air supply damper 11 and the first return air damper 9 are closed.

[0076] If the freezing temperature is lower than the freezing shut-off temperature, the refrigeration temperature is lower than the refrigeration start-up temperature, and the evaporation temperature is higher than the first preset temperature, then the refrigeration fan 7 will be shut off and the second air inlet damper 10 will be shut off.

[0077] If the freezing temperature is lower than the freezing shut-off temperature, the surface freezer compartment 1 does not require refrigeration. Therefore, the first air supply damper 11 and the first return air damper 9 can be closed to reduce heat exchange between the freezer compartment 1 and the outside air. If the refrigeration temperature is lower than the refrigeration start temperature and the evaporation temperature is lower than the first preset temperature, humidification is required in the surface refrigeration compartment 2. The second air inlet damper 10 can be opened, and the refrigeration fan 7 can be used to deliver high-humidity outside air into the refrigeration compartment 2 to increase the humidity inside the refrigeration compartment 2. When the evaporator 3 temperature is higher than or lower than the preset temperature, humidification of the surface refrigeration compartment 2 is complete. At this point, the refrigeration fan 7 and the second air inlet damper 10 can be closed to shut off the airflow between the refrigeration compartment 2 and the outside air.

[0078] In some embodiments, the refrigerator start temperature, refrigerator stop temperature, freezer start temperature, and freezer stop temperature are all associated with the refrigerator's cooling setting. For example, the refrigerator start temperature is 2–10°C, the refrigerator stop temperature is 0–8°C, the freezer start temperature is -12°C to -22°C, and the freezer stop temperature is -16°C to -26°C. The refrigerator start temperature, freezer stop temperature, freezer start temperature, and freezer stop temperature all change with the refrigerator's cooling setting.

[0079] In addition, the first preset temperature is -5℃ to -1℃, and the second preset temperature is -15℃ to -25℃.

[0080] In some embodiments, such as Figure 3 As shown, this application embodiment provides a refrigerator, applied to the refrigerator control method provided in the above embodiment, including:

[0081] Refrigeration compartment 2; Refrigeration compartment 2 is equipped with a refrigeration temperature sensor 201;

[0082] Freezer compartment 1; Freezer compartment 1 is equipped with a freezing temperature sensor 101;

[0083] Partition assembly 4 is disposed between refrigerator compartment 2 and freezer compartment 1;

[0084] The refrigeration system includes a refrigeration fan 7, an evaporator 3, and a compressor; the evaporator 3 is disposed within the partition assembly 4.

[0085] Evaporation temperature sensor 301, the temperature sensor of evaporator 3 is set on the surface of evaporator 3;

[0086] The air duct assembly includes a first air duct assembly 5 and a second air duct assembly 6.

[0087] The first air duct assembly 5 includes a first air inlet 51, a first air outlet 52 and a first return air outlet 53, and the first air inlet 51, the first air outlet 52 and the first return air outlet 53 are connected to the freezer compartment 1.

[0088] The second air duct assembly 6 includes a second air inlet 61, a second air outlet 62, and a second return air outlet 63, which are connected to the refrigerator compartment 2.

[0089] The first air inlet 51 is provided with a first air inlet damper 8, the first return air inlet 53 is provided with a first return air damper 9, and the first air outlet 52 is provided with a first supply air damper 11.

[0090] The second air inlet 61 is provided with a second air inlet damper 10, and the second air return outlet 63 is provided with a second air return damper 13;

[0091] The first air duct assembly 5 supplies cooling to the freezer compartment 1, and the second air duct assembly 6 supplies cooling to the refrigerator compartment 2. When the first air inlet damper 8 is opened, the cold air generated by the evaporator 3 can enter the air duct through the first air inlet damper 8, and then enter the freezer compartment 1 through the first air supply damper 11. The gas in the freezer compartment 1 can enter the partition assembly 4 through the first return air damper 9 to exchange heat with the evaporator 3 again. When the second air inlet damper 10 is opened, the cold air from the evaporator 3 can enter the air duct through the second air inlet damper 10, and then enter the refrigerator compartment 2. The gas in the refrigerator compartment 2 can enter the partition assembly 4 through the second return air damper 13 to exchange heat with the evaporator 3.

[0092] Controller 14 is electrically connected to refrigeration temperature sensor 201, freezing temperature sensor 101, evaporation temperature sensor 301, refrigeration fan 7, evaporator 3, and compressor respectively.

[0093] Controller 14 is configured as follows:

[0094] The refrigeration temperature detected by the refrigeration temperature sensor 201, the freezing temperature detected by the freezing temperature sensor 101, and the evaporation temperature detected by the evaporation temperature sensor 301 are obtained.

[0095] The comparison results are generated by comparing the refrigeration temperature and the freezing temperature with preset conditions; the preset conditions include the refrigeration start temperature, the freezing start temperature, the refrigeration stop temperature, the freezing stop temperature, the first preset temperature, and the second preset temperature;

[0096] Based on the comparison results, control the refrigerator to operate in the preset mode.

[0097] In some embodiments, the refrigeration system further includes a capillary tube, a filter, and a condenser; the compressor, condenser, filter, capillary tube, and evaporator are connected in sequence.

[0098] In some embodiments, the partition assembly 4 includes a first partition 41 and a second partition 42. One side of the evaporator 3 abuts against the first partition 41, and the other side of the evaporator 3 abuts against the second partition 42. The horizontal height of the first partition 41 is greater than the horizontal height of the second partition 42, and the angle between the evaporator 3 and the horizontal plane is 7°.

[0099] As can be seen from the above technical solutions, this application provides a refrigerator control method and a refrigerator. The refrigerator control method includes: acquiring the refrigerator temperature detected by the refrigerator temperature sensor 201, the freezer temperature detected by the freezer temperature sensor 101, and the evaporation temperature detected by the evaporation temperature sensor 301; comparing the refrigerator temperature, freezer temperature, and evaporation temperature with preset conditions to generate a comparison result; the preset conditions include a refrigerator start temperature, a freezer start temperature, a refrigerator stop temperature, a freezer stop temperature, a first preset temperature, and a second preset temperature; and controlling the refrigerator to operate in a preset mode based on the comparison result. By real-time detection of the refrigerator temperature, freezer temperature, and evaporation temperature, independent cooling of the refrigerator compartment 2 and the freezer compartment 1 is achieved, increasing the humidity of the refrigerator compartment 2 to solve the problem of low humidity in the refrigerator compartment 2 of a single-system air-cooled refrigerator.

[0100] Similar parts between the embodiments provided in this application can be referred to mutually. The specific implementation methods provided above are only a few examples under the overall concept of this application and do not constitute a limitation on the scope of protection of this application. For those skilled in the art, any other implementation methods extended from the solution of this application without creative effort shall fall within the scope of protection of this application.

Claims

1. A refrigerator control method, characterized by, The method is applied to a refrigerator comprising a refrigeration system, the refrigeration system comprising a refrigeration fan, an evaporator and a compressor; the method comprising: obtaining a refrigeration temperature detected by a refrigeration temperature sensor, a freezing temperature detected by a freezing temperature sensor and an evaporation temperature detected by an evaporation temperature sensor; comparing the refrigeration temperature, the freezing temperature and the evaporation temperature with preset conditions to generate a comparison result; the preset conditions comprising a refrigeration opening temperature, a freezing opening temperature, a refrigeration closing temperature, a freezing closing temperature, a first preset temperature and a second preset temperature; controlling the refrigerator to operate in a preset mode according to the comparison result; comparing the refrigeration temperature and the freezing temperature with preset conditions to generate a comparison result comprises: if the refrigeration temperature is greater than the refrigeration opening temperature, the freezing temperature is less than the freezing opening temperature and the evaporation temperature is less than the first preset temperature, then controlling the refrigeration fan to start, the first air supply damper and the first return air damper to close, the second air inlet damper to open, the second air inlet damper to open to humidify the refrigeration chamber, then starting the compressor and opening the second air inlet damper to cool the refrigeration chamber; if the refrigeration temperature is greater than the refrigeration opening temperature, the freezing temperature is less than the freezing opening temperature and the evaporation temperature is greater than the first preset temperature, indicating that the refrigeration chamber does not need to be humidified, then directly controlling the compressor to start, the refrigeration fan to start and the second air inlet damper to open; comparing the refrigeration temperature and the freezing temperature with preset conditions to generate a comparison result further comprises: if the freezing temperature is less than the freezing closing temperature, the refrigeration temperature is less than the refrigeration opening temperature and the evaporation temperature is less than the first preset temperature, then controlling the refrigeration fan to start, the second air inlet damper to open, the first air supply damper and the first return air damper to close to reduce heat exchange between the freezing chamber and the outside air; if the freezing temperature is less than the freezing closing temperature, the refrigeration temperature is less than the refrigeration opening temperature and the evaporation temperature is greater than the first preset temperature, then controlling the refrigeration fan to close, the second air inlet damper to close; the opening and closing of the first air supply damper and the first return air damper control the refrigeration of the freezing chamber, the opening and closing of the second air inlet damper control the refrigeration of the refrigeration chamber, when the second air inlet damper is closed, the low-temperature gas generated by the evaporator cannot enter the refrigeration chamber, when the second air inlet damper is opened, the refrigeration fan sends the air with high humidity from the outside into the refrigeration chamber to increase the humidity in the refrigeration chamber. 2.The refrigerator control method of claim 1, characterized in that, comparing the refrigeration temperature and the freezing temperature with preset conditions to generate a comparison result further comprises: if the refrigeration temperature is greater than the refrigeration opening temperature and the freezing temperature is greater than the freezing opening temperature, then controlling the compressor and the refrigeration fan to start, the second air inlet damper to open; if the evaporation temperature is less than the second preset temperature, then controlling the first air inlet damper and the first return air damper to open. 3.The refrigerator control method of claim 2, characterized in that, comparing the refrigeration temperature and the freezing temperature with preset conditions to generate a comparison result further comprises: if the refrigeration temperature is less than the refrigeration closing temperature, then controlling the second air inlet damper to close; If the freezing temperature is less than the freezing-off temperature, the compressor is controlled to be off, and the first air supply damper and the first return air damper are controlled to be off. 4.The refrigerator control method of claim 3, characterized in that, The comparison of the refrigeration temperature and the freezing temperature with preset conditions to generate a comparison result further includes: If the refrigeration temperature is greater than the refrigeration-off temperature and less than the refrigeration-on temperature and the freezing temperature is greater than the freezing-on temperature, the compressor is controlled to be started, the first air supply damper and the first return air damper are controlled to be on, and the second air supply damper and the second return air damper are controlled to be off. 5.The refrigerator control method of claim 1, wherein, The first preset temperature is -5℃~-1℃, and the second preset temperature is -15℃~-25℃; the refrigeration-on temperature, the refrigeration-off temperature, the freezing-on temperature, and the freezing-off temperature are all associated with a refrigeration level of the refrigerator.

6. A refrigerator applied to the refrigerator control method of any one of claims 1 to 5, characterized by, It comprises: a refrigeration chamber (2); the refrigeration chamber (2) is provided with a refrigeration temperature sensor (201); a freezing chamber (1); the freezing chamber (1) is provided with a freezing temperature sensor (101); a partition assembly (4) arranged between the refrigeration chamber (2) and the freezing chamber (1); a refrigeration system comprising a refrigeration fan (7), an evaporator (3), and a compressor; the evaporator (3) is arranged in the partition assembly (4); an evaporator temperature sensor (301) arranged on the surface of the evaporator (3); an air duct assembly comprising a first air duct assembly (5) and a second air duct assembly (6); the first air duct assembly (5) comprises a first air inlet (51), a first air outlet (52), and a first air return (53); the first air inlet (51), the first air outlet (52), and the first air return (53) are all in communication with the freezing chamber (1); the second air duct assembly (6) comprises a second air inlet (61), a second air outlet (62), and a second air return (63); the second air inlet (61), the second air outlet (62), and the second air return (63) are all in communication with the refrigeration chamber (2); the first air inlet (51) is provided with a first air inlet damper (8), the first air return (53) is provided with a first air return damper (9), and the first air outlet (52) is provided with a first air supply damper (11); the second air inlet (61) is provided with a second air inlet damper (10), and the second air return (63) is provided with a second air return damper (13); a controller (14) electrically connected with the refrigeration temperature sensor (201), the freezing temperature sensor (101), the evaporator temperature sensor (301), the refrigeration fan (7), the evaporator (3), and the compressor, respectively; the controller (14) is configured to: acquire the refrigeration temperature detected by the refrigeration temperature sensor (201), the freezing temperature detected by the freezing temperature sensor (101), and the evaporator temperature detected by the evaporator temperature sensor (301); The refrigeration temperature and the freezing temperature are compared with preset conditions to generate a comparison result; the preset conditions include a refrigeration opening temperature, a freezing opening temperature, a refrigeration closing temperature, a freezing closing temperature, a first preset temperature, and a second preset temperature. The refrigerator is controlled to operate in a preset mode according to the comparison result.

7. The refrigerator according to claim 6, characterized in that The refrigeration system further comprises a capillary tube, a filter (15), and a condenser (16); the compressor, the condenser (16), the filter (15), the capillary tube, and the evaporator (3) are sequentially connected.

8. The refrigerator according to claim 6, characterized in that, The partition assembly (4) comprises a first partition (41) and a second partition (42); one side of the evaporator (3) abuts against the first partition (41), and the other side of the evaporator (3) abuts against the second partition (42); the horizontal height of the first partition (41) is greater than that of the second partition (42); and the included angle between the evaporator (3) and the horizontal plane is 7°.

Images