ATBECHDEDKESFRGBGRITLILUNLSEMCPTIESILTLVFIROMKCYALTRBGCZEEHUPLSK..HRIS..MTNORS..SM..................J0009210-RPUB023885682EUROPEAN PATENT SPECIFICATIONB120260902EP19908593.7201901092021062420230414zhenen20260902202636202109292021392026090220263620260630F25D 29/00 20060101AFI20211112BHEP F25D 11/02 20060101ALI20211112BHEP F25C 5/08 20060101ALI20211112BHEP F25D 29/00 20130101 LI20200806BHEP F25D 11/022 20130101 FI20210930BHEP F25C 5/22 20180101 LI20210930BHEP F25B2600/2511 20130101 LA20210930BHEP F25C2400/10 20130101 LA20211104BHEP F25C 5/08 20130101 LI20211104BHEP deKÜHLSCHRANK UND VERFAHREN UND VORRICHTUNG ZUR STEUERUNG DER KÜHLUNG DAVONenREFRIGERATOR AND METHOD AND DEVICE FOR CONTROLLING REFRIGERATION THEREOFfrRÉFRIGÉRATEUR, ET PROCÉDÉ ET DISPOSITIF DE COMMANDE DE LA RÉFRIGÉRATION DE CELUI-CIWO-A1-2018/041517CN-A- 101 405 551CN-A- 106 885 419CN-A- 108 679 900CN-A- 109 764 632CN-U- 207 019 365JP-A- 2002 022 336JP-A- 2003 130 519JP-B2- 3 545 617KR-A- 20120 084 095KR-A- 20160 051 226US-A1- 2018 283 758US-B2- 7 681 40620211118FANG, RuimingNo. 669, West Changjiang RoadHefei, Anhui 230601CNLI, YuNo. 669, West Changjiang RoadHefei, Anhui 230601CNHefei Midea Refrigerator Co., Ltd.101401164M21343WOEP8457PTNo. 669 West Changjiang RoadHefei, Anhui 230601CNHefei Hualing Co., Ltd.101681746M21343WOEP8457PTNo. 176 Jinxiu Road Hefei Economic and Technological Development AreaHefei, Anhui 230601CNMidea Group Co., Ltd.101655310M21343WOEP8457PTB26-28F, Midea Headquarter Building No. 6 Midea Avenue Beijiao ShundeFoshan, Guangdong 528311CNRGTH100060280Patentanwälte PartGmbB Mönckebergstraße 1120095 HamburgDEALATBEBGCHCYCZDEDKEEESFIFRGBGRHRHUIEISITLILTLULVMCMKMTNLNOPLPTRORSSESISKSMTRCN201907099220190109zhWO202014293120200716202029 FIELD

This application belongs to the technical field of household appliances, in particular to a refrigerator and a method and device for controlling refrigeration of a refrigerator.

BACKGROUND

In the related art, a refrigerator with an ice machine has no requirement for a refrigeration period of a refrigerating compartment and an ice-making period of the ice machine. That is, when the ice machine is in an ice-making state, the refrigerating compartment can request and perform refrigeration at any time, thus often leading to low ice-making efficiency of the ice machine, and high energy consumption of the refrigerator.

JP 2002 022336 A and JP 3 545617 B2 disclose control methods for a refrigerator, wherein the temperature of the refrigerating chamber as well as the ice-making chamber, and the open/close of the doors of these chambers are considered as conditions for whether supplying refrigerant to the evaporators for these two chambers or not.

SUMMARY

This application aims to solve one of the technical problems in the related technology at least to a certain extent.

For this, the present disclosure in embodiments proposes a method for controlling refrigeration of a refrigerator. The method for controlling refrigeration of a refrigerator is capable of controlling the refrigeration period of the refrigerating compartment, so that the refrigeration cycle of the refrigerating compartment matches the ice-making cycle of the ice machine, thus improving the ice-making efficiency of the ice machine and reducing the energy consumption of the refrigerator.

This present disclosure in embodiments also proposes a device for controlling refrigeration of a refrigerator and a refrigerator.

To solve the above problem, a first aspect of the present disclosure in embodiments proposes a method for controlling refrigeration of a refrigerator, wherein a refrigeration system of the refrigerator comprises:

According to the method for controlling refrigeration of a refrigerator in embodiments of the present disclosure, the connecting direction of the control valve is controlled to determine the time of performing refrigeration and the time of ending refrigeration for corresponding compartments, thereby controlling the refrigeration period of the refrigerating compartment and controlling the starting refrigeration time of the refrigerating compartment to be within the heating-deicing stage of ice-making mode of the ice-making compartment, such that the refrigeration cycle of the refrigerating compartment matches the ice-making cycle of the ice-making compartment, thus improving the ice-making efficiency of the ice machine and reducing the energy consumption of the refrigerator.

According to the present invention, controlling a connecting direction of the control valve according to the current ice-making stage and the current temperature comprises:

According to the present invention, the method further comprises:

In embodiments of the present disclosure, detecting and determining that the current ice-making stage is the heating-deicing stage comprises:

In embodiments of the present disclosure, the method further comprises:

In embodiments of the present disclosure, the method further comprises:

In embodiments of the present disclosure, the method further comprises:

In embodiments of the present disclosure, the method further comprises:

In embodiments of the present disclosure, the method further comprises:

The present disclosure in embodiments further proposes an electronic device, comprising:

The present disclosure in embodiments still further proposes a non-transitory computer-readable storage medium having stored therein a computer program that, when executed by a processor, causes the processor to perform a method for controlling refrigeration of a refrigerator as described in the embodiments of the first aspect of the present disclosure.

To solve the above problem, a second aspect of the present disclosure in embodiments proposes a device for controlling refrigeration of a refrigerator, wherein a refrigeration system of the refrigerator comprises:

According to the device for controlling refrigeration of a refrigerator in embodiments of the present disclosure, the connecting direction of the control valve is controlled to determine the time of performing refrigeration and the time of ending refrigeration for corresponding compartments, thereby controlling the refrigeration period of the refrigerating compartment and controlling the starting refrigeration time of the refrigerating compartment to be within the heating-deicing stage of ice-making mode of the ice-making compartment, such that the refrigeration cycle of the refrigerating compartment matches the ice-making cycle of the ice-making compartment, thus improving the ice-making efficiency of the ice machine and reducing the energy consumption of the refrigerator.

According to the present invention, the controlling module is further configured to:

In embodiments of the present disclosure, the controlling module is further configured to:

According to the present invention, the controlling module is further configured to:

In embodiments of the present disclosure, the controlling module is further configured to:

In embodiments of the present disclosure, the controlling module is further configured to:

In embodiments of the present disclosure, the controlling module is further configured to:
acquire a refrigeration request instruction issued by either the refrigerating compartment or the ice-making compartment.

In embodiments of the present disclosure, the controlling module is further configured to:
detect and determine that the ice machine is currently operating in an ice-making mode before recognizing a current ice-making stage of the ice machine.

In embodiments of the present disclosure, the controlling module is further configured to:

A third aspect of the present disclosure in embodiments proposes a refrigerator, comprising the device for controlling refrigeration of a refrigerator, based on the device for controlling refrigeration of a refrigerator as described in embodiments of the above aspect. According to the device for controlling refrigeration of a refrigerator as described in embodiments of the above aspect, it is possible to implement the controlling of refrigeration period of the refrigerating compartment, such that the refrigeration cycle of the refrigerating compartment matches the ice-making cycle of the ice machine, thus improving the ice-making efficiency of the ice machine and reducing the energy consumption of the refrigerator.

DESCRIPTION OF DRAWINGS

DETAILED DESCRIPTION

The embodiments of the present disclosure are described in detail below. Examples of the embodiments are shown in the accompanying drawings, in which the same or similar reference numerals indicate the same or similar elements or elements with the same or similar functions. The embodiments described below with reference to the drawings are exemplary and are intended to explain the present disclosure, which should not be understood as a limitation to the present disclosure.

A refrigerator and a method and device for controlling refrigeration of a refrigerator according to embodiments of the present disclosure are described below with reference to the drawings.

Fig. 1 is a block diagram of a refrigeration system that can be implemented in a method for controlling refrigeration of a refrigerator according to an embodiment of the present disclosure. As shown in Fig. 1, the refrigeration system at least includes a compressor, a condenser, a control valve, a refrigerating capillary tube, an ice-making capillary tube, a refrigerating evaporator, an ice-making evaporator and an air return pipe. Among them, the compressor is connected to the condenser, the condenser is connected to the control valve, the control valve is respectively connected to the refrigerating capillary tube and the ice-making capillary tube, the refrigerating capillary tube is connected to the refrigerating evaporator, the ice-making capillary tube is connected to the ice-making evaporator, the ice-making evaporator is connected to the compressor through the air return pipe, and the refrigerating evaporator is connected to the ice-making evaporator. Among them, the refrigerating evaporator is configured to refrigerate the refrigerating compartment in the refrigerator, and the ice-making evaporator is configured to make ice in the ice machine, that is, for making ice in an ice-making compartment. The control valve is configured to control switching on or switching off a connecting direction to the refrigerating capillary tube and the ice-making capillary tube.

Fig. 2 is a block diagram of a refrigeration system that can be implemented in a method for controlling refrigeration of a refrigerator according to an embodiment of the present disclosure. As shown in Fig. 2, the refrigeration system in Fig. 2 differs from that in Fig. 1 in that the refrigerating evaporator in this refrigeration system is not connected to the ice-making evaporator but is connected to the compressor through the air return pipe.

It should be noted that the ice machine in the embodiments of the present disclosure can be located but not limited to, in a refrigerating compartment or a freezing compartment of the refrigerator, and the specific location can be determined according to actual conditions.

Fig. 3 is a schematic flow chart of a method for controlling refrigeration of a refrigerator according to an embodiment of the present disclosure. As shown in Fig. 3, the method for controlling refrigeration of a refrigerator in this embodiment includes the following steps.

S1. Recognizing a current ice-making stage of the ice machine

It should be noted that, in this embodiment, the ice-making stage of the ice machine includes two stages, i.e., a heating-deicing stage and a first ice-making stage. Among them, during the heating-deicing stage, a heating wire in the ice machine works to melt part of ice cubes, thereby causing the ice cubes to fall off. During the first ice-making stage, the ice-making evaporator works to decrease the temperature of the ice-making compartment, so that the liquid solidifies into a solid. It should be understood that the ice-making stage of the ice machine may be referred to as an ice-making mode, and the non-ice-making stage of the ice machine may be referred to as a non-ice-making mode to facilitate describing and distinguishing the ice-making stage and the non-ice-making stage. Optionally, it is possible to detect and determine that the ice machine is currently operating in an ice-making mode, before recognizing a current ice-making stage of the ice machine. Specifically, when detecting if the ice machine is operating in an ice-making mode, for example, a user's interactive interface or working mode selection button may be provided on the refrigerator, that the ice machine is currently operating in an ice-making mode can be determined by user according to the user's interactive interface or working mode selection button on the refrigerator. If the user selects the ice-making mode through the user's interactive interface, it is determined that the ice machine is currently operating in an ice-making mode. Optionally, the working mode can be selected through voice or remote control. When the ice-making mode is selected through voice or remote control, it can be determined that the ice machine is currently operating in an ice-making mode.

During the heating-deicing stage in the ice-making mode, a heating wire in the ice machine need to work to increase the temperature, to cause the solidified ice cubes to fall off. Thus, the current operating power of the refrigerator would be greater than the normal operating power of the refrigerator under the action of heating wire working. Thereby, in embodiments of the present disclosure, the current ice-making stage in the ice-making mode can be determined according to the current operating power of the refrigerator.

In the actual working process of the refrigerator, the operating power during the heating-deicing stage (hereinafter referred to as the "first power") is greater than the refrigerating power of the ice-making compartment alone in the refrigerator, but it is less than the refrigerating power of both the ice-making compartment and the refrigerating compartment in the refrigerator (hereinafter referred to as the "first power"). Thus, during the heating-deicing stage, when the refrigerator simultaneously performs the refrigeration of refrigerating compartment, the operating power of the refrigerator (hereinafter referred to as the "third power" for convenience of description) would be greater than the second power due to the large power of heating wire in the ice machine. As shown in Fig. 4, line 1 shows the change of temperature in the refrigerating compartment, line 2 shows the change of temperature in the ice-making compartment, and line 3 shows the change of operating power of the refrigerator. Among them, in the time period from 0 to t1, the refrigerating compartment does not perform refrigeration but the ice-making mode is in the heating-deicing stage; in the time period from t1 to t2, the refrigerating compartment performs refrigeration and the ice-making mode is in the heating-deicing stage; in the time period from t2 to t3, the refrigerating compartment continues refrigeration but the ice-making mode turns to an ice-making stage; and in the time period from t3 to t4, the refrigerating compartment stops refrigeration and the ice-making mode keeps in the ice-making stage until the ice-making stage ends. In the entire ice-making mode, the operating power P during the heating-deicing stage is within the range of the first power P1 to the second power P2. Thus, whether the ice-making mode is in the heating-deicing stage can be determined according to the operating power of the refrigerator. If the ice-making mode is not in the heating-deicing stage, it is in a first ice-making stage.

Optionally, after the ice machine is determined to be operated in the ice-making mode, a current temperature of the heating wire in the ice machine can be detected, thereby determining the current temperature of the heating wire. If the current temperature of the heating wire is higher than the preset temperature, it indicates that the ice machine is currently in the heating-deicing stage of the ice-making mode.

S2. Acquiring a current temperature of an ice-making compartment in the refrigerator

Specifically, a temperature sensor may be provided in the ice-making compartment in the refrigerator, to detect the current temperature of the ice-making compartment.

S3. Controlling a connecting direction of the control valve according to the current ice-making stage and the current temperature

According to the current ice-making stage of the ice-making mode and the current temperature in the ice-making compartment acquired, the connecting direction of the control valve can be controlled to determine whether the refrigerating compartment is to be refrigerated. Through controlling the refrigeration period of the refrigerating compartment, the refrigeration cycle of the refrigerating compartment matches the ice-making cycle of the ice-making compartment, thus reducing the influence of the refrigeration in the refrigerating compartment on the ice-making in the ice machine, improving the ice-making efficiency and ice-making amount, shortening the ice-making cycle, and reducing the energy consumption of the refrigerator.

It should be noted that, referring to Fig. 5, in an ideal state, as shown in Fig. 5a, the refrigeration cycle of the refrigerating compartment is same as the refrigeration cycle of the ice-making compartment. At the time, the ice-making efficiency of the ice machine is the highest, the ice-making amount is the highest and the energy consumption of the refrigerator is the lowest. Among them, during the time period from 0 to t1, the refrigerating compartment is in a refrigeration stage and the ice-making compartment is in a heating-deicing stage; during the time period from t1 to t2, the refrigerating compartment ends refrigerating, the ice-making compartment starts into the first ice-making stage, and making ice begins. However, in a practical application, since the refrigeration cycle of the refrigerating compartment is often shorter than the ice-making cycle of the ice-making compartment, the situation shown in Fig. 5b often occurs during the operation of the refrigerator, thereby generally resulting in the refrigerating compartment being in a refrigeration stage and the ice-making compartment being in a first ice-making stage. At the time, due to the amount of refrigerant splitting, the temperature of the ice-making evaporator rises, despite still lower than the preset temperature, resulting in slow down of the decrease of temperature of the ice-making compartment, decreasing the ice-making rate, increasing the ice-making cycle, reducing the ice-making amount and increasing the energy consumption. In addition, even when the starting refrigeration time of the refrigerating compartment keeps path with the heating-deicing time of the ice-making compartment, the situation shown in Fig. 5c occurs, resulting in that the ice-making compartment is still in the late stage of the heating-deicing stage when the refrigerating compartment begins in a refrigeration stage again. Meanwhile, due to the amount of refrigerant splitting, the temperature of the ice-making evaporator rises, despite still lower than the preset temperature, which would slow down the decrease of temperature of the ice-making compartment, decrease the ice-making rate, increase the ice-making cycle, reduce the ice-making amount, and increase the energy consumption. However, in the embodiments of the present disclosure, through controlling the refrigeration period of the refrigerating compartment and controlling the starting refrigeration time of the refrigerating compartment to be within a heating-deicing stage of ice-making mode of the ice-making compartment, the refrigeration cycle of the refrigerating compartment matches the ice-making cycle of the ice-making compartment, thereby forming the cycles as shown in Fig. 5d, thus greatly reducing the time period when both the refrigerating compartment and the ice-making compartment perform refrigerating, thereby reducing the influence of refrigeration in the refrigerating compartment on ice-making in the ice-making compartment, improving the ice-making efficiency and ice-making amount, shortening the ice-making cycle, and reducing the energy consumption of the refrigerator.

Above all, the present invention proposes a method for controlling refrigeration of a refrigerator. The method controls the connecting direction of the control valve in the refrigeration system of the refrigerator according to the current ice-making stage of the ice machine and the current temperature of the ice-making compartment. Through controlling the connecting direction of the control valve to determine the time of performing refrigeration and the time of ending refrigeration for corresponding compartments, the refrigeration period of the refrigerating compartment is controlled and the starting refrigeration time of the refrigerating compartment is controlled to be within a heating-deicing stage of ice-making mode of the ice-making compartment, such that the refrigeration cycle of the refrigerating compartment matches the ice-making cycle of the ice-making compartment, thus improving the ice-making efficiency of the ice machine and the ice-making amount, shortening the ice-making cycle, and reducing the energy consumption of the refrigerator.

In some embodiments, the time of performing refrigeration in the refrigerating compartment can be determined according to the temperature in the ice-making compartment. Fig. 6 is a schematic flow chart of a process for controlling a starting refrigeration time of the refrigerating compartment in a method for controlling refrigeration of a refrigerator according to the present disclosure. As shown in Fig. 6, the method includes the following steps.

S61. Detecting and determining that the current ice-making stage is a heating-deicing stage

Specifically, if the refrigerator is in the heating-deicing stage can be determined according to the current operating power of the refrigerator. Referring to the description in step S1, if the current operating power of the refrigerator is between the first power and the second power, it indicates that the current ice-making stage is a heating-deicing stage.

S62. Detecting and determining that the current temperature is greater than a first preset temperature threshold

It should be noted that a first preset temperature threshold is preset in the refrigerator, and whether the refrigeration in the refrigerating compartment is initiated can be determined according to the temperature in the ice-making compartment and the first preset temperature threshold. In embodiments of the present disclosure, the first preset temperature threshold is set, and only when the temperature in the ice-making compartment is greater than the first preset temperature threshold, the refrigeration in the refrigerating compartment can be initiated, thereby capable of controlling the starting refrigeration time of the refrigerating compartment, such that the refrigeration cycle of the refrigerating compartment matches the ice-making cycle of the ice-making compartment.

Specifically, the current temperature of the ice-making compartment of the refrigerator is acquired and it can be compared with the first preset temperature threshold. Further, the magnitude relationship between the current temperature of the ice-making compartment of the refrigerator and the first preset temperature threshold can be determined. If the current temperature is greater than the first preset temperature threshold, step S63 is executed; otherwise, step S64 is executed.

S63. Controlling the control valve to switch on the connecting direction to the refrigerating capillary tube.

When the current temperature is greater than the first preset temperature threshold, the refrigeration of the refrigerating compartment is performed, that is, controlling the control valve to switch on the connecting direction to the refrigerating capillary tube. It should be understood that the control valve switches off the connecting direction to the ice-making capillary tube at this time.

S64. Controlling the control valve to switch off

Specifically, if the current temperature is less than or equal to the first preset temperature threshold, the control valve switches off, that is, the refrigeration system stops refrigerating, thereby controlling the starting refrigeration time of the refrigerating compartment.

In some embodiments, considering that the simultaneous refrigeration of the refrigerating compartment and the refrigerating compartment for a long time would reduce the ice-making efficiency and increase the energy consumption, the refrigeration ending period of the refrigerating compartment can also be controlled to avoid occurrence of the above situation. Specifically, referring to Fig. 7, Fig. 7 is a schematic flow chart of a process for improving ice-making efficiency in a method for controlling refrigeration of a refrigerator according to an embodiment of the present disclosure. As shown in Fig. 7, the method includes the following steps.

S71. Detecting and determining that the current ice-making stage is a first ice-making stage

Specifically, whether the heating-deicing stage ends can be detected. When the heating-deicing stage ends, it indicates that the current ice-making stage is in the first ice-making stage.

S72. Detecting and determining that the second current temperature of the refrigerating compartment is greater than a second preset temperature threshold.

It should be noted that a second preset temperature threshold is preset in the refrigerator. Whether the refrigeration in the refrigerating compartment ends can be determined according to the temperature in the ice-making compartment and the second preset temperature threshold. The setting of the second preset temperature threshold prevents the refrigerating compartment and the ice-making compartment from simultaneously refrigerating for a long time, thus not only reducing energy consumption and improving ice-making efficiency, but also meeting the refrigeration requirements of the refrigerating compartment. For example, if the target temperature set in the refrigerating compartment is lower than the second preset temperature threshold, the refrigeration of the refrigerating compartment is ended in advance to ensure ice-making efficiency; and if the target temperature set in the refrigerating compartment is greater than or equal to the second preset temperature threshold, the refrigeration of the refrigerating compartment can be ended when the target temperature is reached.

Specifically, the second current temperature of the refrigerating compartment of the refrigerator is acquired and it can be compared with the second preset temperature threshold. Further, the magnitude relationship between the second current temperature of the refrigerating compartment of the refrigerator and the second preset temperature threshold can be determined. If the second current temperature is greater than the second preset temperature threshold, step S73 is executed; otherwise, step S74 is executed.

S73. Controlling the control valve to switch on the connecting direction to both the refrigerating capillary tube and the ice-making capillary tube

Specifically, if the second current temperature of the refrigerating compartment is greater than the second preset temperature threshold, the control valve is controlled to switch on the connecting direction to both the refrigerating capillary tube and the ice-making capillary tube, thus performing the refrigeration in both the ice-making compartment and the refrigerating compartment.

S74. Controlling the control valve to switch off the connecting direction to the refrigerating capillary tube

Specifically, if the second current temperature of the refrigerating compartment is less than or equal to the second preset temperature threshold, the control valve is controlled to switch off the connecting direction to the refrigerating capillary tube, thus ending the refrigeration in the refrigerating compartment.

It should be understood that, in this embodiment, the method needs to acquire a refrigeration request instruction issued by either the refrigerating compartment or the ice-making compartment before controlling a connecting direction of the control valve, and select the connecting direction to be switched on by the control valve according to the corresponding refrigeration request instruction.

In some embodiments, if the ice machine is currently operating in a non-ice-making mode, the connecting direction of the control valve can be controlled according to the following steps. As shown in Fig. 8, the method includes steps.

S81. Detecting and determining that the ice machine is currently operating in a non-ice-making mode

Specifically, referring to the description in step S1 as above, if the ice machine is not in the ice-making mode, it is determined that the ice machine is currently operating in a non-ice-making mode.

S82. Detecting a refrigeration request instruction issued by either the refrigerating compartment or the ice-making compartment

Specifically, during the operation of the refrigerator, when the internal temperature of the refrigerator changes, compartments like the refrigerating compartment, the ice-making compartment and the like are to be refrigerated from time to time. When a corresponding compartment needs to be refrigerated, the corresponding compartment will issue a refrigeration request instruction to request being refrigerated by the refrigerator. Thus, the refrigeration request instruction issued by respective compartment can be detected in real time or at intervals.

S83. Controlling the connecting direction of the control valve according to the detected refrigeration request instruction and a source of the refrigeration request instruction

Specifically, the connecting direction of the control valve is controlled according to the refrigeration request instruction issued by corresponding compartments. For example, if the ice-making compartment and the refrigerating compartment both issue a refrigeration request instruction, the control valve would switch on the connecting direction to both the refrigerating capillary tube and the ice-making capillary tube. If the ice-making compartment issues a refrigeration request instruction but the refrigerating compartment does not issue a refrigeration request instruction, the control valve would switch on the connecting direction to the ice-making capillary tube but would switch off the connecting direction to the refrigerating capillary tube.

Fig. 9 is a flow chart of a process for controlling a method for controlling refrigeration of a refrigerator according to an embodiment of the present disclosure. As shown in Fig. 9, the process for controlling a method for controlling refrigeration of a refrigerator according to an embodiment of the present disclosure includes the following steps.

S91. Detecting if the ice machine is in an ice-making mode
If yes, a step S92 is executed. If no, a step S93 is executed.

S92. Detecting if the ice-making compartment issues a refrigeration request instruction
If yes, a step S921 is executed. If no, a step S922 is executed.

S921. Detecting if the refrigerating compartment issues a refrigeration request instruction.
If yes, a step S8211 is executed. If no, a step S9212 is executed.

S9211. Detecting if the second current temperature of the refrigerating compartment is greater than a second preset temperature threshold.
If yes, a step S9213 is executed. If no, a step S9212 is executed.

S9212. The control valve switches on the connecting direction to the ice-making capillary tube.

S9213. The control valve switches on the connecting direction to both the refrigerating capillary tube and the ice-making capillary tube.

S922. Detecting if the refrigerating compartment issues a refrigeration request instruction
If yes, a step S9221 is executed. If no, a step S9222 is executed.

S9221. Detecting if the current temperature of the ice-making compartment is greater than a first preset temperature threshold
If yes, a step S9222 is executed. If no, a step S9223 is executed.

S9222. The control valve switches on the connecting direction to the refrigerating capillary tube.

S9223. The connecting direction of the control valve remains unchanged and the refrigeration system stops refrigerating.

S93. Detecting if the ice-making compartment issues a refrigeration request instruction
If yes, a step S931 is executed. If no, a step S932 is executed.

S931. Detecting if the refrigerating compartment issues a refrigeration request instruction
If yes, a step S9311 is executed. If no, a step S9312 is executed.

S9311. The control valve switches on the connecting direction to both the refrigerating capillary tube and the ice-making capillary tube.

S9312. The control valve switches on the connecting direction to the ice-making capillary tube.

S932. Detecting if the refrigerating compartment issues a refrigeration request instruction
If yes, a step S9321 is executed. If no, a step S9322 is executed.

S9321. The control valve switches on the connecting direction to the refrigerating capillary tube.

S9322. The connecting direction of the control valve remains unchanged and the refrigeration system stops refrigerating.

It should be noted that, according to the method proposed in this embodiment, the refrigeration system of the refrigerator is controlled, such that the refrigeration cycle of the refrigerating compartment matches the ice-making cycle of the ice-making compartment, referring to Fig. 4 showing the schematic diagram of the refrigeration cycle of refrigerating compartment and the ice-making cycle of ice-making compartment. Therefore, the ice-making in the ice machine is less influenced by the refrigeration in the refrigerating compartment, improving the ice-making efficiency and ice-making amount, shortening the ice-making cycle, and reducing the energy consumption of the refrigerator.

To implement the method in the foregoing embodiments, the present disclosure still further proposes a device for controlling refrigeration of a refrigerator, in which a refrigeration system of the refrigerator includes:

Fig. 10 is a block diagram showing the structure of a device for controlling refrigeration of a refrigerator according to the present disclosure. As shown in Figure 10, the device includes:

Further, the controlling module 1003 is further configured to:

Further, the controlling module 1003 is further configured to:

Further, the controlling module 1003 is further configured to:

Further, the controlling module 1003 is further configured to:

Further, the controlling module 1003 is further configured to:

Further, the controlling module 1003 is further configured to:
acquire a refrigeration request instruction issued by either the refrigerating compartment or the ice-making compartment.

Further, the controlling module 1003 is further configured to:
detect and determine that the ice machine is currently operating in an ice-making mode before recognizing a current ice-making stage of the ice machine.

Further, the controlling module 1003 is further configured to:

It should be understood that the foregoing device is configured to execute the method described in the foregoing embodiments. The corresponding program module in the device has implementation principles and technical effects which are similar to those described in the foregoing method. The working process of the device may take reference to the process of the corresponding method as above, which will not be repeated herein.

According to the device for controlling refrigeration of a refrigerator proposed in the embodiments of the present disclosure, the controlling module in the device controls a connecting direction of the control valve in the refrigeration system of the refrigerator according to the current ice-making stage of the ice machine recognized by the recognizing module and the current temperature of the ice-making compartment acquired by the acquiring module. Therefore, the connecting direction of the control valve is controlled to determine the time of performing refrigeration and the time of ending refrigeration for corresponding compartments, thereby controlling the refrigeration period of the refrigerating compartment and controlling the starting refrigeration time of the refrigerating compartment to be within a heating-deicing stage of ice-making mode of the ice-making compartment, such that the refrigeration cycle of the refrigerating compartment matches the ice-making cycle of the ice-making compartment, thus improving the ice-making efficiency of the ice machine and ice-making amount, shortening the ice-making cycle, and reducing the energy consumption of the refrigerator.

To implement the above embodiments, the present disclosure still further proposes a refrigerator. Fig. 11 is a block diagram showing the structure of a refrigerator according to an embodiment of the present disclosure. As shown in Fig. 11, the refrigerator includes the device for controlling refrigeration of a refrigerator 100.

To implement the above embodiments, the present disclosure still further proposes an electronic device. Fig. 12 is a block diagram showing the structure of an electronic device according to an embodiment of the present disclosure. As shown in Fig. 12, the electronic device includes a memory 1201 and a processor 1202; wherein the processor 1202 runs a program corresponding to an executable program code by reading the executable program code stored in the memory 1201, to be configured to implement each step in the method described above.

To implement the embodiments as mentioned above, the present disclosure still further proposes a non-transitory computer-readable storage medium having stored therein a computer program that, when executed by a processor, causes the processor to implement each step in the method described above.

 A method for controlling refrigeration of a refrigerator (100), wherein a refrigeration system of the refrigerator (100) comprises: a refrigerating evaporator for refrigerating a refrigerating compartment, an ice-making evaporator for making ice for an ice machine, a refrigerating capillary tube adjacent to the refrigerating evaporator and an ice-making capillary tube adjacent to the ice-making evaporator, and a control valve for controlling the refrigerating capillary tube and the ice-making capillary tube; wherein the method comprises: (S1) recognizing a current ice-making stage of the ice machine; (S2) acquiring a current temperature of an ice-making compartment in the refrigerator (100); and (S3) controlling a connecting direction of the control valve according to the current ice-making stage and the current temperature, so as to determine a time of performing refrigeration and a time of ending refrigeration of the refrigerating compartment and the ice-making compartment respectively, thereby delaying a starting refrigerating time of the refrigerating compartment to be within a heating-deicing stage of the ice-making stage of the ice machine, such that a refrigeration cycle of the refrigerating compartment matches an ice-making cycle of the ice-making compartment; wherein (S3) controlling a connecting direction of the control valve according to the current ice-making stage and the current temperature comprises: (S61) detecting and determining that the current ice-making stage is the heating-deicing stage; (S62) detecting and determining that the current temperature is greater than a first preset temperature threshold; and (S63) controlling the control valve to switch on the connecting direction to the refrigerating capillary tube; and detecting and determining that the current temperature is less than or equal to the first preset temperature threshold; and (S64) controlling the control valve to switch off. The method according to claim 1, wherein (S61) detecting and determining that the current ice-making stage is the heating-deicing stage comprises: acquiring a current operating power of the refrigerator (100); detecting and determining that the current operating power is within a preset range; and determining that the current ice-making stage is the heating-deicing stage. The method according to claim 1 or 2, further comprising: (S71) detecting and determining that the current ice-making stage is the first ice-making stage; (S72) detecting and determining that a second current temperature of the refrigerating compartment is greater than a second preset temperature threshold; and (S73) controlling the control valve to switch on the connecting direction to both the refrigerating capillary tube and the ice-making capillary tube; and the method further comprising: detecting and determining that the second current temperature of the refrigerating compartment is less than or equal to the second preset temperature threshold; and (S74) controlling the control valve to switch off the connecting direction to the refrigerating capillary tube. The method according to any one of claims 1 to 3, further comprising: acquiring a refrigeration request instruction issued by at least either the refrigerating compartment or the ice-making compartment, before (S3) controlling a connecting direction of the control valve according to the current ice-making stage and the current temperature. The method according to any one of claims 1 to 4, further comprising: detecting and determining that the ice machine is currently operating in an ice-making mode, before (S1) recognizing a current ice-making stage of the ice machine; and/or the method further comprising: (S81) detecting and determining that the ice machine is currently operating in a non-ice making mode; (S82) detecting a refrigeration request instruction issued by at least either the refrigerating compartment or the ice-making compartment; and (S83) controlling the connecting direction of the control valve according to the detected refrigeration request instruction and a source of the refrigeration request instruction. A device for controlling refrigeration of a refrigerator (100), wherein a refrigeration system of the refrigerator (100) comprises: a refrigerating evaporator for refrigerating a refrigerating compartment, an ice-making evaporator for making ice for an ice machine, a refrigerating capillary tube adjacent to the refrigerating evaporator and an ice-making capillary tube adjacent to the ice-making evaporator, and a control valve for controlling the refrigerating capillary tube and the ice-making capillary tube; wherein the device comprises: a recognizing module (1001), configured to (S1) recognize a current ice-making stage of the ice machine; an acquiring module (1002), configured to acquire a current temperature of the ice-making compartment in the refrigerator (100); and a controlling module (1003), configured to (S3) control a connecting direction of the control valve according to the current ice-making stage and the current temperature, so as to determine a time of performing refrigeration and a time of ending refrigeration of the refrigerating compartment and the ice-making compartment respectively, thereby delaying a starting refrigerating time of the refrigerating compartment to be within a heating-deicing stage of the ice-making stage of the ice machine, such that a refrigeration cycle of the refrigerating compartment matches an ice-making cycle of the ice-making compartment; ;wherein the controlling module (1003) is further configured to: (S61) detect and determine that the current ice-making stage is the heating-deicing stage; (S62) detect and determine that the current temperature is greater than a first preset temperature threshold; and (S63) control the control valve to switch on the connecting direction to the refrigerating capillary tube; and detect and determine that the current temperature is less than or equal to the first preset temperature threshold; and (S64) control the control valve to switch off. The device according to claim 6, wherein the controlling module (1003) is further configured to: acquire a current operating power of the refrigerator (100); (S82) detect and determine that the current operating power is within a preset range; and determine that the current ice-making stage is the heating-deicing stage. The device according to claim 6 or 7, wherein the controlling module (1003) is further configured to: (S71) detect and determine that the current ice-making stage is the first ice-making stage; (S72) detect and determine that a second current temperature of the refrigerating compartment is greater than a second preset temperature threshold; and (S73) control the control valve to switch on the connecting direction to both the refrigerating capillary tube and the ice-making capillary tube; and wherein the controlling module (1003) is further configured to: detect and determine that the second current temperature of the refrigerating compartment is less than or equal to the second preset temperature threshold; and (S74) control the control valve to switch off the connecting direction to the refrigerating capillary tube. The device according to any one of claims 6 to 8, wherein the controlling module (1003) is further configured to:
acquire a refrigeration request instruction issued by at least either the refrigerating compartment or the ice-making compartment; and/or, wherein the controlling module (1003) is further configured to:
detect and determine that the ice machine is currently operating in an ice-making mode before (S1) recognizing a current ice-making stage of the ice machine. The device according to claim 9, wherein the controlling module (1003) is further configured to: (S81) detect and determine that the ice machine is currently operating in a non-ice making mode; (S82) detect a refrigeration request instruction issued by at least either the refrigerating compartment or the ice-making compartment; and (S83) control the connecting direction of the control valve according to the detected refrigeration request instruction and a source of the refrigeration request instruction. A refrigerator (100), comprising the device for controlling refrigeration of a refrigerator (100) of any one of claims 6 to 10. Verfahren zum Steuern einer Kühlung eines Kühlschranks (100), wobei ein Kühlsystem des Kühlschranks (100) Folgendes umfasst: einen Kühlverdampfer zum Kühlen eines Kühlfachs, einen Eiswürfelbereitungs-Verdampfer zum Herstellen von Eiswürfeln für eine Eiswürfelmaschine, ein an den Kühlverdampfer angrenzendes Kühlkapillarrohr und ein an den Eiswürfelbereitungs-Verdampfer angrenzendes Eiswürfelbereitungs-Kapillarrohr sowie ein Steuerventil zum Steuern des Kühlkapillarrohrs und des Eiswürfelbereitungs-Kapillarrohrs; wobei das Verfahren Folgendes umfasst: (S1) Erkennen einer aktuellen Eiswürfelbereitungsphase der Eiswürfelmaschine; (S2) Erhalten einer aktuellen Temperatur eines Eiswürfelbereitungsfachs im Kühlschrank (100); und (S3) Steuern einer Verbindungsrichtung des Steuerventils gemäß der aktuellen Eiswürfelbereitungsphase und der aktuellen Temperatur, um einen Zeitpunkt für die Durchführung der Kühlung bzw. einen Zeitpunkt für die Beendigung der Kühlung des Kühlfachs und des Eiswürfelbereitungsfachs zu bestimmen, wodurch ein Beginn der Kühlung des Kühlfachs so verzögert wird, dass er in eine Aufheiz- und Enteisungsphase der Eiswürfelbereitungsphase der Eiswürfelmaschine fällt, sodass ein Kühlzyklus des Kühlfachs mit einem Eiswürfelbereitungszyklus des Eiswürfelbereitungsfachs übereinstimmt; wobei das (S3) Steuern einer Verbindungsrichtung des Steuerventils gemäß der aktuellen Eiswürfelbereitungsphase und der aktuellen Temperatur Folgendes umfasst: (S61) Erfassen und Bestimmen, dass die aktuelle Eiswürfelbereitungsphase die Aufheiz- und Enteisungsphase ist; (S62) Erfassen und Bestimmen, dass die aktuelle Temperatur größer als ein erster voreingestellter Temperaturschwellenwert ist; und (S63) Steuern des Steuerventils, so dass es die Verbindungsrichtung zum Kühlkapillarrohr einschaltet; und Erfassen und Bestimmen, dass die aktuelle Temperatur kleiner oder gleich dem ersten voreingestellten Temperaturschwellenwert ist; und (S64) Steuern des Steuerventils, so dass es sich ausschaltet. Verfahren gemäß Anspruch 1, wobei (S61) das Erkennen und Bestimmen, dass die aktuelle Eiswürfelbereitungsphase die Aufheiz- und Enteisungsphase ist, Folgendes umfasst: Erhalten einer aktuellen Betriebsleistung des Kühlschranks (100); Erfassen und Bestimmen, dass die aktuelle Betriebsleistung innerhalb eines voreingestellten Bereichs liegt; und Bestimmen, dass die aktuelle Eiswürfelbereitungsphase die Aufheiz- und Enteisungsphase ist. Verfahren gemäß Anspruch 1 oder 2, ferner umfassend: (S71) Erfassen und Bestimmen, dass die aktuelle Eiswürfelbereitungsphase die erste Eiswürfelbereitungsphase ist; (S72) Erfassen und Bestimmen, dass eine zweite aktuelle Temperatur des Kühlfachs größer als ein zweiter voreingestellter Temperaturschwellenwert ist; und (S73) Steuern des Steuerventils, so dass es die Verbindungsrichtung sowohl zum Kühlkapillarrohr als auch zum Eiswürfelbereiter-Kapillarrohr umschaltet; und wobei das Verfahren ferner Folgendes umfasst: Erfassen und Bestimmen, dass die zweite aktuelle Temperatur des Kühlfachs kleiner oder gleich dem zweiten voreingestellten Temperaturschwellenwert ist; und (S74) Steuern des Steuerventils, so dass es die Verbindungsrichtung zum Kühlkapillarrohr abschaltet. Verfahren gemäß einem der Ansprüche 1 bis 3, ferner umfassend: Erhalten eines Kühlanforderungsbefehls, der von mindestens entweder dem Kühlfach oder dem Eiswürfelbereitungsfach ausgegeben wird, vor (S3) dem Steuern einer Verbindungsrichtung des Steuerventils gemäß der aktuellen Eiswürfelbereitungsphase und der aktuellen Temperatur. Verfahren gemäß einem der Ansprüche 1 bis 4, ferner umfassend: Erfassen und Bestimmen, dass die Eiswürfelmaschine aktuell in einem Eiswürfelbereitungsmodus arbeitet, vor (S1) dem Erkennen einer aktuellen Eiswürfelbereitungsphase der Eiswürfelmaschine; und/oder wobei das Verfahren ferner Folgendes umfasst: (S81) Erfassen und Bestimmen, dass die Eiswürfelmaschine derzeit in einem Nicht-Eiswürfelbereitungsmodus arbeitet; (S82) Erfassen eines Kühlanforderungsbefehls, der von mindestens entweder dem Kühlfach oder dem Eiswürfelbereitungsfach ausgegeben wird; und (S83) Steuern der Verbindungsrichtung des Steuerventils gemäß dem erkannten Kühlanforderungsbefehl und einer Quelle des Kühlanforderungsbefehls. Vorrichtung zum Steuern der Kühlung eines Kühlschranks (100), wobei ein Kühlsystem des Kühlschranks (100) Folgendes umfasst: einen Kühlverdampfer zum Kühlen eines Kühlfachs, einen Eiswürfelbereitungs-Verdampfer zum Herstellen von Eiswürfeln für eine Eiswürfelmaschine, ein an den Kühlverdampfer angrenzendes Kühlkapillarrohr und ein an den Eiswürfelbereitungs-Verdampfer angrenzendes Eiswürfelbereitungs-Kapillarrohr sowie ein Steuerventil zum Steuern des Kühlkapillarrohrs und des Eiswürfelbereitungs-Kapillarrohrs; wobei die Vorrichtung Folgendes umfasst: ein Erkennungsmodul (1001), das so konfiguriert ist, dass es (S1) eine aktuelle Eiswürfelbereitungsphase der Eiswürfelmaschine erkennt; ein Erhaltungsmodul (1002), das so konfiguriert ist, dass es (S1) eine aktuelle Temperatur des Eiswürfelbereitungsfachs im Kühlschrank (100) erhält; und ein Steuermodul (1003), das so konfiguriert ist, dass es (S3) eine Verbindungsrichtung des Steuerventils gemäß der aktuellen Eiswürfelbereitungsphase und der aktuellen Temperatur steuert, um einen Zeitpunkt zum Durchführen der Kühlung bzw. einen Zeitpunkt für das Beenden der Kühlung des Kühlfachs und des Eiswürfelbereitungsfachs zu bestimmen, wodurch ein Beginn der Kühlzeit des Kühlfachs so verzögert wird, dass er in eine Aufheiz- und Enteisungsphase der Eiswürfelbereitungsphase der Eiswürfelmaschine fällt, sodass ein Kühlzyklus des Kühlfachs mit einem Eiswürfelbereitungszyklus des Eiswürfelbereitungsfachs übereinstimmt; wobei das Steuermodul (1003) ferner so konfiguriert ist, dass es: (S61) erfasst und bestimmt, dass die aktuelle Eiswürfelbereitungsphase die Aufheiz- und Enteisungsphase ist; (S62) erfasst und bestimmt, dass die aktuelle Temperatur größer als ein erster voreingestellter Temperaturschwellenwert ist; und (S63) das Steuerventil so steuert, dass es die Verbindungsrichtung zum Kühlkapillarrohr einschaltet; und erfasst und bestimmt, dass die aktuelle Temperatur kleiner oder gleich dem ersten voreingestellten Temperaturschwellenwert ist; und (S64) das Steuerventil so steuert, dass es sich ausschaltet. Vorrichtung gemäß Anspruch 6, wobei das Steuermodul (1003) ferner konfiguriert ist so dass es: eine aktuelle Betriebsleistung des Kühlschranks (100) erhält; (S82) erfasst und bestimmt, dass die aktuelle Betriebsleistung innerhalb eines voreingestellten Bereichs liegt; und bestimmt, dass die aktuelle Eiswürfelbereitungsphase die Aufheiz- und Enteisungsphase ist. Vorrichtung gemäß Anspruch 6 oder 7, wobei das Steuermodul (1003) ferner so konfiguriert ist, dass es: (S71) erfasst und bestimmt, dass die aktuelle Eiswürfelbereitungsphase die erste Eiswürfelbereitungsphase ist; (S72) erfasst und bestimmt, dass eine zweite aktuelle Temperatur des Kühlfachs größer als ein zweiter voreingestellter Temperaturschwellenwert ist; und (S73) das Steuerventil so steuert, dass es die Verbindungsrichtung sowohl zum Kühlkapillarrohr als auch zum Eiswürfelbereitungs-Kapillarrohr einschaltet; und wobei das Steuermodul (1003) ferner so konfiguriert ist, dass es: erfasst und bestimmt, dass die zweite aktuelle Temperatur des Kühlfachs kleiner oder gleich dem zweiten voreingestellten Temperaturschwellenwert ist; und (S74) das Steuerventil so steuert, dass es die Verbindungsrichtung zum Kühlkapillarrohr abschaltet. Vorrichtung gemäß einem der Ansprüche 6 bis 8, wobei das Steuermodul (1003) ferner so konfiguriert ist, dass es:
einen Kühlanforderungsbefehl erfasst, der von mindestens entweder dem Kühlfach oder dem Eiswürfelbereitungsfach ausgegeben wird; und/oder wobei das Steuermodul (1003) ferner so konfiguriert ist, dass es:
erfasst und bestimmt, dass die Eiswürfelmaschine aktuell in einem Eiswürfelbereitungsmodus arbeitet, bevor (S1) es eine aktuelle Eiswürfelbereitungsphase der Eiswürfelmaschine erkennt. Vorrichtung gemäß Anspruch 9, wobei das Steuermodul (1003) ferner so konfiguriert ist, dass es: (S81) erfasst und bestimmt, dass die Eiswürfelmaschine aktuell in einem Nicht-Eiswürfelbereitungsmodus arbeitet; (S82) einen Kühlanforderungsbefehl erfasst, der von mindestens entweder dem Kühlfach oder dem Eiswürfelbereitungsfach ausgegeben wird; und (S83) die Verbindungsrichtung des Steuerventils gemäß dem erfassten Kühlanforderungsbefehl und einer Quelle des Kühlanforderungsbefehls steuert. Kühlschrank (100), umfassend die Vorrichtung zum Steuern einer Kühlung eines Kühlschranks (100) gemäß einem der Ansprüche 6 bis 10. Procédé de commande de la réfrigération d'un réfrigérateur (100), dans lequel un système de réfrigération du réfrigérateur (100) comprend : un évaporateur de réfrigération destiné à réfrigérer un compartiment de réfrigération, un évaporateur de fabrication de glace destiné à fabriquer de la glace pour une machine à glaçons, un tube capillaire de réfrigération adjacent à l'évaporateur de réfrigération et un tube capillaire de fabrication de glace adjacent à l'évaporateur de fabrication de glace, et une vanne de commande destinée à commander le tube capillaire de réfrigération et le tube capillaire de fabrication de glace ; dans lequel le procédé comprend : la reconnaissance d'une étape actuelle de fabrication de glace de la machine à glaçons ; (51) l'acquisition d'une température actuelle d'un compartiment de fabrication de glace dans le réfrigérateur (100) ; et (52) la commande d'une voie de raccordement de la vanne de commande en fonction de l'étape actuelle de fabrication de glace et de la température actuelle, afin de déterminer respectivement un moment d'exécution de la réfrigération et un moment de fin de la réfrigération du compartiment de réfrigération et du compartiment de fabrication de glace, retardant ainsi le moment de début de la réfrigération du compartiment de réfrigération de manière qu'il se situe dans une étape de dégivrage par chauffage de l'étape de fabrication de glace de la machine à glaçons, de sorte qu'un cycle de réfrigération du compartiment de réfrigération corresponde à un cycle de fabrication de glace du compartiment de fabrication de glace ; dans lequel l'étape (53) consistant à commander une voie de raccordement de la vanne de commande en fonction de l'étape actuelle de fabrication de glace et de la température actuelle comprend : (561) détecter et déterminer que l'étape actuelle de fabrication de glace est l'étape de dégivrage par chauffage ; (562) détecter et déterminer que la température actuelle est supérieure à un premier seuil de température prédéfini ; et (563) commander la vanne de commande afin d'ouvrir la voie de raccordement vers le tube capillaire de réfrigération ; et détecter et déterminer que la température actuelle est inférieure ou égale au premier seuil de température prédéfini ; et (564) commander la fermeture de la vanne de commande. Procédé selon la revendication 1, dans lequel l'étape (561) consistant à détecter et à déterminer que l'étape actuelle de fabrication de glace est l'étape de dégivrage par chauffage comprend : acquérir une puissance de fonctionnement actuelle du réfrigérateur (100) ; détecter et déterminer que la puissance de fonctionnement actuelle se situe dans une plage prédéfinie ; et déterminer que l'étape actuelle de fabrication de glace est l'étape de dégivrage par chauffage. Procédé selon la revendication 1 ou 2, comprenant en outre : (571) détecter et déterminer que l'étape actuelle de fabrication de glace est la première étape de fabrication de glace ; (572) détecter et déterminer qu'une seconde température actuelle du compartiment de réfrigération est supérieure à un second seuil de température prédéfini ; et (573) commander la vanne de commande afin d'ouvrir les voies de raccordement à la fois vers le tube capillaire de réfrigération et vers le tube capillaire de fabrication de glace ; et le procédé comprenant en outre : détecter et déterminer que la seconde température actuelle du compartiment de réfrigération est inférieure ou égale au second seuil de température prédéfini ; et (574) commander la vanne de commande afin de fermer la voie de raccordement vers le tube capillaire de réfrigération. Procédé selon l'une quelconque des revendications 1 à 3, comprenant en outre : acquérir une instruction de demande de réfrigération émise par au moins l'un parmi le compartiment de réfrigération et le compartiment de fabrication de glace, avant l'étape (53) consistant à commander une voie de raccordement de la vanne de commande en fonction de l'étape actuelle de fabrication de glace et de la température actuelle. Procédé selon l'une quelconque des revendications 1 à 4, comprenant en outre : détecter et déterminer que la machine à glaçons fonctionne actuellement dans un mode de fabrication de glace,
avant l'étape (51) consistant à reconnaître une étape actuelle de fabrication de glace de la machine à glaçons ; et/ou le procédé comprenant en outre : (581) détecter et déterminer que la machine à glaçons fonctionne actuellement dans un mode de non-fabrication de glace ; (582) détecter une instruction de demande de réfrigération émise par au moins l'un parmi le compartiment de réfrigération et le compartiment de fabrication de glace ; et (583) commander la voie de raccordement de la vanne de commande en fonction de l'instruction de demande de réfrigération détectée et d'une source de l'instruction de demande de réfrigération. Dispositif de commande de la réfrigération d'un réfrigérateur (100), dans lequel un système de réfrigération du réfrigérateur (100) comprend : un évaporateur de réfrigération destiné à réfrigérer un compartiment de réfrigération, un évaporateur de fabrication de glace destiné à fabriquer de la glace pour une machine à glaçons, un tube capillaire de réfrigération adjacent à l'évaporateur de réfrigération et un tube capillaire de fabrication de glace adjacent à l'évaporateur de fabrication de glace, et une vanne de commande destinée à commander le tube capillaire de réfrigération et le tube capillaire de fabrication de glace ; dans lequel le dispositif comprend : un module de reconnaissance (1001), configuré pour (51) reconnaître une étape actuelle de fabrication de glace de la machine à glaçons ; un module d'acquisition (1002), configuré pour acquérir une température actuelle du compartiment de fabrication de glace dans le réfrigérateur (100) ; et un module de commande (1003), configuré pour (53) commander une voie de raccordement de la vanne de commande en fonction de l'étape actuelle de fabrication de glace et de la température actuelle, afin de déterminer respectivement un moment d'exécution de la réfrigération et un moment de fin de la réfrigération du compartiment de réfrigération et du compartiment de fabrication de glace, retardant ainsi le moment de début de la réfrigération du compartiment de réfrigération de manière qu'il se situe dans une étape de dégivrage par chauffage de l'étape de fabrication de glace de la machine à glaçons, de sorte qu'un cycle de réfrigération du compartiment de réfrigération corresponde à un cycle de fabrication de glace du compartiment de fabrication de glace ; dans lequel le module de commande (1003) est en outre configuré pour : (561) détecter et déterminer que l'étape actuelle de fabrication de glace est l'étape de dégivrage par chauffage ; (562) détecter et déterminer que la température actuelle est supérieure à un premier seuil de température prédéfini ; et (563) commander la vanne de commande afin d'ouvrir la voie de raccordement vers le tube capillaire de réfrigération ; et détecter et déterminer que la température actuelle est inférieure ou égale au premier seuil de température prédéfini ; et (564) commander la fermeture de la vanne de commande. Dispositif selon la revendication 6, dans lequel le module de commande (1003) est en outre configuré pour : acquérir une puissance de fonctionnement actuelle du réfrigérateur (100) ; (582) détecter et déterminer que la puissance de fonctionnement actuelle se situe dans une plage prédéfinie ; et déterminer que l'étape actuelle de fabrication de glace est l'étape de dégivrage par chauffage. Dispositif selon la revendication 6 ou 7, dans lequel le module de commande (1003) est en outre configuré pour : (571) détecter et déterminer que l'étape actuelle de fabrication de glace est la première étape de fabrication de glace ; (572) détecter et déterminer qu'une seconde température actuelle du compartiment de réfrigération est supérieure à un second seuil de température prédéfini ; et (573) commander la vanne de commande afin d'ouvrir les voies de raccordement à la fois vers le tube capillaire de réfrigération et vers le tube capillaire de fabrication de glace ; et dans lequel le module de commande (1003) est en outre configuré pour : détecter et déterminer que la seconde température actuelle du compartiment de réfrigération est inférieure ou égale au second seuil de température prédéfini ; et (574) commander la vanne de commande afin de fermer la voie de raccordement vers le tube capillaire de réfrigération. Dispositif selon l'une quelconque des revendications 6 à 8, dans lequel le module de commande (1003) est en outre configuré pour : acquérir une instruction de demande de réfrigération émise par au moins l'un parmi le compartiment de réfrigération et le compartiment de fabrication de glace ; et/ou dans lequel le module de commande (1003) est en outre configuré pour : détecter et déterminer que la machine à glaçons fonctionne actuellement dans un mode de fabrication de glace avant l'étape (51) consistant à reconnaître une étape actuelle de fabrication de glace de la machine à glaçons. Dispositif selon la revendication 9, dans lequel le module de commande (1003) est en outre configuré pour : (581) détecter et déterminer que la machine à glaçons fonctionne actuellement dans un mode de non-fabrication de glace ; (582) détecter une instruction de demande de réfrigération émise par au moins l'un parmi le compartiment de réfrigération et le compartiment de fabrication de glace ; et (583) commander la voie de raccordement de la vanne de commande en fonction de l'instruction de demande de réfrigération détectée et d'une source de l'instruction de demande de réfrigération. Réfrigérateur (100), comprenant le dispositif de commande de la réfrigération d'un réfrigérateur (100) selon l'une quelconque des revendications 6 à 10.
REFERENCES CITED IN THE DESCRIPTION

This list of references cited by the applicant is for the reader's convenience only. It does not form part of the European patent document. Even though great care has been taken in compiling the references, errors or omissions cannot be excluded and the EPO disclaims all liability in this regard.

Patent documents cited in the description