CN112747535B

CN112747535B - Refrigerator with a door

Info

Publication number: CN112747535B
Application number: CN201911056780.0A
Authority: CN
Inventors: 夏恩品; 李康; 张�浩; 李佳明
Original assignee: Qingdao Haier Refrigerator Co Ltd; Haier Smart Home Co Ltd
Current assignee: Qingdao Haier Refrigerator Co Ltd; Haier Smart Home Co Ltd
Priority date: 2019-10-31
Filing date: 2019-10-31
Publication date: 2022-10-28
Anticipated expiration: 2039-10-31
Also published as: CN112747535A; WO2021083433A1

Abstract

The present invention provides a refrigerator, including: the inner container is internally provided with a storage chamber and an air supply duct positioned at the rear side of the storage chamber; the storage container is arranged in the storage chamber; a cold air port is formed in the back of the storage container; controllable temperature adjusting plate sets up in cold wind mouth department, configures controlled translation with the intercommunication face between switching cold wind mouth and the air supply wind channel for when controllable temperature adjusting plate opened the cold wind mouth, low temperature air current in the air supply wind channel can pass through in the cold wind mouth gets into storage container, thereby makes the temperature in the storage container reduce fast, is favorable to making to form fresh-keeping environment in the storage container rapidly, has improved storage container's fresh-keeping ability.

Description

Refrigerator with a door

Technical Field

The invention relates to the field of preservation, in particular to a refrigerator.

Background

The refrigerator is a household appliance which enables food materials to be kept in a low-temperature cold state. In order to avoid tainting of the food materials due to mixed placement, in the prior art, an independent and closed storage container is arranged in a refrigerator and used for storing partial food materials independently.

Then, because the storing container is independent confined state, and the heat exchange efficiency in storing room place space is not high, unable rapid cooling, it is relatively poor to lead to current storing container's fresh-keeping effect.

Disclosure of Invention

An object of the present invention is to provide a refrigerator which solves at least one of the above-mentioned problems.

A further object of the present invention is to rapidly reduce the temperature within a storage container in a refrigerator.

Another further object of the present invention is to rapidly reduce the temperature and oxygen concentration in the storage container in the refrigerator to improve the freshness-keeping effect of the storage container.

It is a still further object of the present invention to reduce or prevent condensation or dripping within a container having an oxygen scavenging assembly mounted therein.

A further object of the present invention is to reduce the difficulty of installing oxygen scavenging moisture permeable components on the storage container of a refrigerator.

In particular, the present invention provides a refrigerator including: the inner container is internally provided with a storage chamber and an air supply duct positioned at the rear side of the storage chamber; the storage container is arranged in the storage chamber; the back of the storage container is provided with a cold air port; the controllable temperature adjusting plate is arranged at the cold air port and configured to be controlled to translate so as to open and close a communication surface between the cold air port and the air supply duct.

Optionally, the refrigerator further includes: a temperature sensor disposed in the storage container and configured to detect a temperature in the storage container after the storage container is closed; the controllable temperature regulating plate is configured to open the cold air port when the temperature in the storage container is higher than a first preset temperature threshold value so as to rapidly reduce the temperature in the storage container; the controllable temperature adjusting plate is also configured to shield the cold air port when the temperature in the storage container is reduced below a second preset temperature threshold; the first preset temperature threshold is greater than the second preset temperature threshold.

Optionally, the top surface of the storage container is provided with a ventilation area; the refrigerator further includes: moisture permeable assembly of deoxidization sets up on ventilative regional, and moisture permeable assembly of deoxidization includes: and the oxygen removing assembly is provided with an oxygen consuming part which faces the interior of the storage container and is used for consuming oxygen in the interior of the storage container through electrochemical reaction.

Optionally, the refrigerator further includes: the oxygen concentration sensor is arranged in the storage container and is configured to detect the oxygen concentration in the storage container after the temperature-controllable plate shields the cold air port; the oxygen removal assembly is configured to be turned on when the oxygen concentration within the storage container is above a predetermined oxygen concentration threshold.

Optionally, the oxygen scavenging assembly is further configured to shut down after its operating time period is greater than or equal to a preset operating time period.

Optionally, the top surface of the storage container is provided with a ventilation area; the breathable zone comprises: the oxygen removing area is positioned in the middle of the ventilation area; the water removing area is positioned at two sides of the oxygen removing area; deoxidization passes through wet subassembly still includes: the supporting plate covers the ventilation area, a deoxygenation cavity is formed above the supporting plate back to the deoxygenation area, and the deoxygenation assembly is arranged in the deoxygenation cavity; the supporting plate is provided with a dewatering cavity above the surface facing the dewatering area; and the moisture permeable assembly is arranged in the water removal cavity and is configured to allow water vapor in the storage container to permeate and drain.

Optionally, the back surface of the storage container is provided with a mounting frame protruding backwards, and the mounting frame is arranged to gradually increase in protruding distance along the upward extending direction so as to form an inclined angle with the back surface of the storage container; the cold wind mouth is prescribed a limit to the mounting frame includes: the upper guide rail groove is used for accommodating the top end of the temperature-controllable plate; the lower guide rail groove is used for accommodating the bottom end of the temperature-controllable plate; the upper guide rail groove and the lower guide rail groove jointly limit the movable space of the temperature-controllable plate.

Optionally, the mounting frame is adjacent to the air supply outlet of the storage compartment.

Optionally, the driving device is disposed on the storage container, and includes: a drive motor; an electric gear installed at an output shaft of the driving motor; the controllable temperature adjusting plate is provided with a rack, the electric gear is meshed with the rack, and the driving motor drives the controllable temperature adjusting plate to move through the electric gear and the rack.

Optionally, the drive means is disposed adjacent to the top of the mounting frame.

According to the refrigerator, the cold air port is formed in the back of the storage container, the temperature-controllable plate is arranged at the cold air port, the communication surface between the cold air port and the air supply air channel is opened and closed by controlled translation of the temperature-controllable plate, and when the cold air port is opened by the temperature-controllable plate, low-temperature air flow in the air supply air channel can enter the storage container through the cold air port, so that the temperature in the storage container is quickly reduced, a fresh-keeping environment can be rapidly formed in the storage container, and the fresh-keeping capacity of the storage container is improved.

Furthermore, the refrigerator provided by the invention is characterized in that a ventilation area is formed in the top surface of the storage container, the deoxygenation assembly is arranged above the ventilation area and is configured to be started after the temperature-controllable temperature-adjusting plate closes the cold air port and when the oxygen concentration in the storage container is higher than a preset oxygen concentration threshold value, so that oxygen in the storage container is consumed through electrochemical reaction, and therefore, after the temperature in the storage container is quickly reduced, the oxygen concentration in the storage container can also be reduced, and the storage container forms a low-temperature low-oxygen fresh-keeping atmosphere.

Furthermore, the refrigerator is provided with a ventilation area on the top surface of the storage container, and the oxygen removal moisture permeable assembly is integrated above the ventilation area, wherein the oxygen removal assembly is arranged above the middle part of the ventilation area and is configured to consume oxygen in the storage container through electrolytic reaction under the action of electrolytic voltage, and the moisture permeable assembly is arranged on two sides of the oxygen removal assembly and is configured to allow water vapor in the storage container to permeate and discharge, so that low-oxygen atmosphere can be formed in the storage container, excessive water vapor can be prevented from generating condensation or dripping, and the fresh-keeping effect of the storage container is improved.

Furthermore, the refrigerator is characterized in that the ventilating area of the storage container is provided with the deoxidizing area and the water removing area, the deoxidizing and moisture permeable assembly is provided with the supporting plate, the deoxidizing assembly with the deoxidizing effect is arranged in the deoxidizing cavity of the supporting plate, the moisture permeable assembly with the moisture permeable effect is arranged in the water removing cavity of the supporting plate, so that the deoxidizing assembly can be limited above the deoxidizing area, the moisture permeable assembly is limited above the water removing area, and meanwhile, the deoxidizing assembly, the moisture permeable assembly and the supporting plate are integrated into a whole, the deoxidizing and moisture permeable assembly can be simply and conveniently arranged above the ventilating area of the storage container, and the mounting difficulty of the deoxidizing and moisture permeable assembly is reduced.

The above and other objects, advantages and features of the present invention will become more apparent to those skilled in the art from the following detailed description of specific embodiments thereof, taken in conjunction with the accompanying drawings.

Drawings

Some specific embodiments of the invention will be described in detail hereinafter by way of example and not by way of limitation with reference to the accompanying drawings. The same reference numbers in the drawings identify the same or similar elements or components. Those skilled in the art will appreciate that the drawings are not necessarily drawn to scale. In the drawings:

fig. 1 is a schematic view of a refrigerator according to one embodiment of the present invention;

FIG. 2 is a schematic view of a storage device in a refrigerator according to one embodiment of the present invention;

fig. 3 is an exploded view of a storage device in the refrigerator shown in fig. 2;

FIG. 4 is an enlarged view of a portion of FIG. 2 at A;

FIG. 5 is a schematic view of a temperature-controllable plate of the storage device in the refrigerator shown in FIG. 3;

FIG. 6 is an enlarged view of a portion of FIG. 2 at B;

FIG. 7 is a schematic view illustrating a cylinder of a storage container of the storage device in the refrigerator of FIG. 3;

FIG. 8 is a schematic view of an oxygen scavenging, moisture permeable assembly of the storage device in the refrigerator of FIG. 3;

FIG. 9 is a schematic view of a tray of an oxygen scavenging moisture permeable assembly of the storage device in the refrigerator shown in FIG. 8;

FIG. 10 is another schematic view of a tray of the oxygen scavenging moisture permeable assembly of the storage device in the refrigerator shown in FIG. 8;

FIG. 11 is an enlarged view of a portion of FIG. 10 at C;

FIG. 12 is a schematic view of a blower assembly and an oxygen scavenging assembly of the oxygen scavenging moisture permeable assembly of the storage device in the refrigerator shown in FIG. 8;

FIG. 13 is a schematic view of the oxygen scavenging assembly shown in FIG. 12;

FIG. 14 is an exploded view of the oxygen scavenging assembly shown in FIG. 13;

FIG. 15 is an exploded view of the fan assembly shown in FIG. 12;

FIG. 16 is an exploded view of the moisture permeable assembly of the oxygen scavenging moisture permeable assembly of the storage device of the refrigerator shown in FIG. 3;

FIG. 17 is a schematic view of a cover plate of the storage device in the refrigerator shown in FIG. 3;

fig. 18 is a control flowchart of a refrigerator according to an embodiment of the present invention.

Detailed Description

Fig. 1 is a schematic diagram of a refrigerator 10 according to one embodiment of the present invention. In this embodiment, the refrigerator 10 may be an air-cooled refrigerator 10, and the air-cooled refrigerator 10 cools the storage compartment 111 by using air flow circulation.

The refrigerator 10 may generally include: the inner container 110, the storage container 200 and the temperature-controllable plate 700 may further include: a temperature sensor 240, an oxygen scavenging moisture permeable assembly 300, an oxygen concentration sensor 250, a drive device 800, and an evaporator 102, a supply air fan 104, and a duct cover 130. Wherein, oxygen removal moisture permeable component 300 includes: a pallet 310, a moisture permeable assembly 340, an oxygen scavenging assembly 320, and a fan assembly 330. The storage container 200, the temperature-controllable plate 700, the driving device 800, the oxygen-removing moisture-permeable assembly 300, the temperature sensor 240 and the oxygen concentration sensor 250 inside the storage container 200 can be integrated into a whole to form the storage device 150. The storage device 150 may be directly placed in the refrigerator 10.

The inner container 110 has a storage chamber 111 formed therein, and an air duct 112 is formed at the rear side of the storage chamber 111. In this embodiment, the storage compartment 111 may be one and may be a refrigerating compartment, and in alternative embodiments, the storage compartment 111 may be multiple and include a refrigerating compartment and a freezing compartment. The air supply duct 112 is communicated with the storage compartment 111 through the air supply outlet 131, an air return opening 132 is arranged between the storage compartment 111 and the back wall of the inner container 110, air supply airflow after heat exchange with the evaporator 102 enters the storage compartment 111 from the air supply outlet 131, flows through the storage compartment 111 and then flows into the air return opening 132, and a flow channel of the air supply airflow forms the air supply duct 112.

And an air duct cover 130 disposed at a front side of the back wall of the inner container 110 to define the air supply duct 112 with the back wall of the inner container 110. The air supply port 131 and the air return port 132 are opened in the duct cover 130.

Fig. 2 is a schematic view of a storage device 150 in a refrigerator 10 according to an embodiment of the present invention, and fig. 3 is an exploded view of the storage device 150 in the refrigerator 10 shown in fig. 2.

The storage container 200 is disposed in the storage compartment 111, and preferably, may be disposed in a refrigerating compartment. The storage container 200 may be a drawer, the interior of which forms a storage space, and which includes a cylinder 220 having a forward opening and a drawer body 210 drawably disposed in the cylinder 220. The back wall of the storage container 200 is adjacent to the duct cover 130.

The rear surface of the storage container 200 is provided with a mounting frame 230 protruding backward, and the mounting frame 230 is arranged to gradually increase in protruding distance along the upward extending direction, so as to form an inclined angle with the rear surface of the storage container 200; the mounting frame 230 defines a cool air port 231, that is, the back of the storage container 200 is opened with the cool air port 231. The middle portion of the mounting frame 230 is hollow, the middle portion is the cold air port 231, and the surface of the mounting frame 230 facing away from the storage container 200 is arranged to be inclined downward. The mounting frame 230 is disposed adjacent to the supply air outlet 131 of the storage compartment 111, so that the supply air flow at least partially flows through the cooling air outlet 231 and then enters the storage container 200.

Fig. 4 is a partially enlarged view of a point a in fig. 2.

The middle portion of the mounting frame 230 is hollowed out to form a square or other mounting area with a shape matching the shape of the temperature-controllable plate 700. The installation frame 230 includes: an upper rail groove 232 and a lower rail groove 233. An upper rail groove 232 for receiving a top end of the temperature-controllable plate 700; a lower rail groove 233 for receiving a bottom end of the temperature-controllable plate 700; the upper rail groove 232 and the lower rail groove 233 together define a moving space of the temperature-controllable plate 700. The mounting frame 230 is in a square frame shape and comprises an upper beam, a bottom beam and two side frames, wherein an upper guide rail groove 232 is formed in the upper beam, a lower guide rail groove 233 is formed in the bottom beam, and the upper guide rail groove 232 and the lower guide rail groove 233 are both in groove shapes and are respectively used for accommodating the top end and the bottom end of the temperature-controllable plate 700. The temperature-controllable plate 700 reciprocates along the movable space defined by the upper rail groove 232 and the lower rail groove 233 in the process of opening or shielding the cold air vent 231.

Fig. 5 is a schematic view of a temperature-controllable temperature-adjusting plate 700 of the storage device 150 in the refrigerator 10 shown in fig. 3.

And the temperature-controllable plate 700 is arranged at the cold air port 231 and is configured to be controlled to translate so as to open and close a communication surface between the cold air port 231 and the air supply duct 112.

Offer cold wind mouth 231 at the back of storing container 200, and set up controllable temperature regulation board 700 in cold wind mouth 231 department, utilize the controlled translation of controllable temperature regulation board 700 to adjust the area of intercommunication between cold wind mouth 231 and the air supply wind channel 112, when controllable temperature regulation board 700 opens cold wind mouth 231, cold wind mouth 231 is in open state, the area of intercommunication between cold wind mouth 231 and the air supply wind channel 112 is the biggest, low temperature air current in the air supply wind channel 112 can get into storing container 200 through cold wind mouth 231 in, thereby make the temperature in the storing container 200 reduce fast, be favorable to making to form the low temperature fresh-keeping environment in the storing container 200 rapidly, the fresh-keeping ability of storing container 200 has been improved.

The temperature sensor 240 is disposed in the storage container 200 and configured to detect a temperature in the storage container 200 after the storage container 200 is closed.

The temperature-controllable temperature-adjusting plate 700 is configured to open the cold air port 231 when the temperature in the storage container 200 is higher than a first preset temperature threshold value, so as to rapidly reduce the temperature in the storage container 200; the temperature-controllable plate 700 is further configured to shield the cold air port 231 when the temperature in the storage container 200 falls below a second preset temperature threshold; the first preset temperature threshold is greater than the second preset temperature threshold.

After the storage container 200 is opened, gas exchange will occur with air in the external environment, resulting in temperature rise and oxygen concentration rise inside the storage container 200, and therefore, after the storage container 200 is closed, it is generally necessary to determine whether rapid cooling of the storage container 200 and oxygen removal for the storage container 200 are required according to the actual storage environment temperature and the actual oxygen concentration, so as to create a low-temperature fresh-keeping atmosphere again. In this embodiment, after the storage container 200 is closed, it is determined whether the storage container 200 is rapidly cooled, and when the temperature in the storage container 200 is within the preset fresh-keeping temperature range, it is determined whether the storage container 200 is deaerated.

That is, when storing container 200 has cooling demand and deoxidization demand simultaneously, utilize controllable temperature adjusting plate 700 to open cold wind mouth 231 earlier and come rapid cooling, after storing container 200 reached predetermined fresh-keeping temperature range, controllable temperature adjusting plate 700 of control shields cold wind mouth 231 and makes storing container 200 form confined storing environment, then open deoxidization subassembly 320 to storing container 200 internal environment deoxidization again, can make the fresh-keeping environment of quick formation low temperature hypoxemia in the storing container 200, the refrigerator 10 of this embodiment can be applicable to and deposit alone of the material or the medicine that require very harsh to storing environment.

When the temperature in the storage container 200 is higher than the first preset temperature threshold, which means that the actual storage environment temperature in the storage container 200 is higher at this time, the controllable temperature-adjusting plate 700 needs to be controlled to open the cold air port 231, so that the communication area between the air supply duct 112 and the cold air port 231 is increased (the cold air port 231 is completely opened), and air supply flow can directly enter the storage container 200, so that the temperature in the storage container 200 is rapidly reduced, and a low-temperature fresh-keeping environment is formed again; when the temperature in the storage container 200 drops below the second preset temperature threshold value, it means that the actual storage environment temperature in the storage container 200 at this moment has dropped to the preset fresh-keeping temperature range, the controllable temperature-adjusting plate 700 is controlled to shield the cold air inlet 231 at this moment, so that the cold air inlet 231 is in a closed state, the communication area between the cold air inlet 231 and the air supply duct 112 is minimum (the communication area at this moment is zero), so that a closed low-temperature storage environment is formed in the storage container 200, and the independent storage of food materials is facilitated.

In other alternative embodiments, the temperature-controllable plate 700 may be configured to be controlled to translate to adjust the communication area between the cool air outlet 231 and the air supply duct 112, for example, the temperature-controllable plate 700 may have a plurality of working positions, and the temperature-controllable plate 700 may change the communication area between the cool air outlet 231 and the air supply duct 112 according to the temperature in the storage container 200. When the temperature in the storage container 200 is higher than a first preset temperature threshold, the temperature-controllable temperature-adjusting plate 700 may be located at a first position (i.e., the cold air port 231 is completely opened), so that the communication area between the cold air port 231 and the air supply duct 112 is a first communication area, and the storage container 200 is rapidly cooled under the action of the air supply flow; when the temperature in the storage container 200 is higher than the third preset temperature threshold (the third preset temperature threshold is smaller than the first preset threshold and is greater than the second preset temperature threshold), the controllable temperature-adjusting plate 700 is located at the second position (i.e. only one half of the cold air port 231 is opened), so that the storage container 200 can be rapidly cooled under the action of the air supply flow, the phenomenon that the original low-oxygen atmosphere is seriously damaged due to the overlarge opening degree of the cold air port 231 can be avoided, and the storage container 200 can rapidly recover the low-temperature low-oxygen fresh-keeping environment after being closed.

The temperature controllable plate 700 is provided at the top and bottom thereof with catching portions 710, and the catching portions 710 limit the position of the temperature controllable plate 700 by catching with the upper and

lower rail grooves

232 and 233 of the mounting frame 230. The controlled temperature adjustment plate 700 is provided with a rack 720, and the rack 720 may be located above the top of the controlled temperature adjustment plate 700.

Fig. 6 is a partially enlarged view at B in fig. 2.

The driving device 800 is disposed on the storage container 200, and includes: a drive motor 810 and a motorized gear 820. An electric gear 820 mounted on an output shaft of the driving motor 810; the electric gear 820 is engaged with the rack 720 of the temperature-controllable plate 700, and the driving motor 810 drives the temperature-controllable plate 700 to move through the electric gear 820 and the rack 720.

FIG. 7 is a schematic view of the barrel 220 of the storage container 200 of the storage device 150 in the refrigerator 10 shown in FIG. 3;

the storage container 200 is provided with a ventilation region 221 and a non-ventilation region 222 on the top surface thereof. The top surface of the storage container 200 may have a rectangular shape, the air permeable region 221 may be disposed at a middle position of the top surface, and a region between the air permeable region 221 and the outer periphery of the top surface may be the non-air permeable region 222. The ventilation area 221 is provided with through holes 410 arranged in an array, and the gas in the storage container 200 can escape from the through holes 410. The breathable zone 221 includes an oxygen scavenging zone 420 and a water scavenging zone 430. The oxygen removing region 420 is located in the middle of the ventilation region 221, and the oxygen removing region 420 is recessed towards the inside of the storage container 200 to form a recessed portion 421, and the recessed portion 421 can accommodate external components. The water removing area 430 is close to the oxygen removing area 420 and is positioned at two sides of the oxygen removing area 420; a plurality of pillars 431 are disposed on a surface of the water removing region 430 facing away from the storage container 200. The non-permeable region 222 is not provided with a through hole and is in a closed state. The top surface of the storage container 200 is further provided with a plurality of screw holes 440, and the plurality of screw holes 440 are located at the periphery of the ventilation region 221, i.e. the portion where the non-ventilation region 222 is connected with the ventilation region 221, and are used for connecting and fixing with an external component.

Fig. 8 is a schematic view of the oxygen scavenging, moisture permeable assembly 300 of the storage device 150 in the refrigerator 10 shown in fig. 3.

The oxygen removal moisture permeable assembly 300 is disposed above the air permeable area on the top surface of the storage container 200, and includes a support plate 310, an oxygen removal assembly, a fan assembly 330, and a moisture permeable assembly 340.

Fig. 9 is a schematic view of the pallet 310 of the oxygen scavenging moisture permeable assembly 300 of the storage device 150 in the refrigerator 10 shown in fig. 8, and fig. 10 is another schematic view of the pallet 310 of the oxygen scavenging moisture permeable assembly 300 of the storage device 150 in the refrigerator 10 shown in fig. 8.

The supporting plate 310 is covered on the air permeable area 221 to form a framework of the oxygen removal and moisture permeable assembly 300, and has a containing cavity for accommodating the oxygen removal assembly 320, the fan assembly 330 and the moisture permeable assembly 340, and the oxygen removal assembly 320, the fan assembly 330 and the moisture permeable assembly 340 can be respectively installed in the containing cavity so as to be integrated with the supporting plate 310.

The integrated oxygen removal moisture permeable assembly 300 comprises an oxygen removal assembly 320 with an oxygen removal function, a fan assembly 330 with an air supply function, a moisture permeable assembly 340 with a moisture permeable function, and the oxygen removal and moisture permeable functions; the integrated oxygen-removing moisture-permeable component 300 can be installed above the air-permeable area 221 at one time, so that the step-by-step installation is avoided, the installation steps are simplified, the operation is simple and convenient, and the installation difficulty is low.

The pallet 310 forms oxygen scavenging cavities 311 above and facing away from the oxygen scavenging region 420. The bottom wall of the oxygen-removing cavity 311 is provided with an oxygen-removing opening 511, and the periphery of the oxygen-removing opening 511 extends towards the side wall of the oxygen-removing cavity 311 to form a pallet 512, and the pallet 512 limits the oxygen-removing assembly 320 to the bottom of the oxygen-removing cavity 311. That is, the portion of the pallet 310 above the oxygen removing region 420 is recessed toward the oxygen removing region 420 to form the oxygen removing cavities 311, and the shape of the oxygen removing cavities 311 is matched with the shape of the recessed portions 421 so that the oxygen removing cavities 311 can be inserted into the recessed portions 421; the bottom of the oxygen removal chamber 311 includes an oxygen removal port 511 and a pallet 512, the oxygen removal port 511 being configured to allow passage of gas escaping from the oxygen removal region 420, the pallet 512 being configured to receive the oxygen removal assembly 320, and the pallet 512 being provided with pallet screw holes 513, the oxygen removal assembly 320 being threadably secured to the pallet 512.

Fig. 11 is a partial enlarged view at C in fig. 10.

The portion of the supporting plate 310 facing the upper side of the dewatering area 430 is formed with a dewatering cavity 312, a plurality of limiting claws 514 are arranged on the side wall of the dewatering cavity 312, and the moisture permeable assembly 340 is limited in the dewatering cavity 312 by the plurality of limiting claws 514. That is, the moisture permeable assembly 340 is disposed between the water removal region 430 and the supporting plate 310, and the plurality of limiting claws 514 clamp the moisture permeable assembly 340 in the water removal cavity 312. The bottom wall of the dewatering cavity 312 is also correspondingly provided with through holes 530 arranged in an array, and the through holes 530 are configured to allow water vapor permeated and exhausted through the moisture permeable component 340 to be exhausted from the through holes 530.

The supporting plate 310 is provided with an oxygen removing cavity 311 for accommodating the oxygen removing component 320 and the fan component 330, and a water removing cavity 312 for accommodating the moisture permeable component 340. The location and shape of the oxygen scavenging cavities 311 correspond to the location and shape of the oxygen scavenging regions 420, and the location and shape of the water scavenging cavities 312 correspond to the location and shape of the water scavenging regions 430, so that the trays 310 can be placed directly over the top surface of the storage container 200 for quick installation. The water removal cavity 312 of the supporting plate 310 is close to the oxygen removal cavity 311, so that the moisture permeable component 340 is close to the oxygen removal component 320, water vapor generated by the oxygen removal component 320 through an electrolytic reaction can be rapidly discharged through the moisture permeable component 340, excessive water vapor can be prevented from being retained in the storage container 200, and the humidity in the storage container 200 can be favorably kept in a proper range.

Fig. 12 is a schematic view of the fan assembly 330 and the oxygen removal assembly 320 of the oxygen scavenging moisture permeable assembly 300 of the storage device 150 in the refrigerator 10 shown in fig. 8.

And the oxygen removing assembly 320 is arranged at the bottom of the oxygen removing cavity 311 and is configured to consume oxygen inside the storage container 200 through electrochemical reaction under the action of electrolytic voltage. That is, the oxygen scavenging assembly 320 is disposed within the recessed portion 421.

Because the oxygen density is bigger, concentrates on the bottom of storing container 200, and the oxygen concentration of keeping away from bottom position department is less relatively, sets up deoxidization district 420 to sunken to storing container 200 inside, can impel deoxidization subassembly 320 and the interior oxygen full contact of storing container 200, improves electrochemical reaction's rate.

Fig. 13 is a schematic view of the oxygen scavenging assembly 320 shown in fig. 12, and fig. 14 is an exploded view of the oxygen scavenging assembly 320 shown in fig. 13.

An oxygen scavenging assembly 320 having an electrolysis portion 322 facing the exterior of the container 200 for electrolyzing water vapor outside the container 200 through an electrochemical reaction, and an oxygen consuming portion 323 facing the interior of the container 200 for consuming oxygen inside the container 200 through an electrochemical reaction.

In this embodiment, the oxygen scavenging assembly 320 can be disposed above the oxygen scavenging region 420 and within the oxygen scavenging cavity 311. The oxygen consumption part 323 faces the storage container 200, and oxygen in the storage container 200 can contact the oxygen consumption part 323 through the oxygen removing region 420. And an electrolytic part 322 facing away from the inside of the storage container 200 and exposed to the outside of the storage container 200. A proton exchange membrane 324 for transporting hydrogen ions may be disposed between the oxygen consumption part 323 and the electrolysis part 322.

That is, the oxygen removing assembly 320 performs an electrochemical reaction using water vapor outside the storage container 200 and oxygen inside the storage container 200 as reactants to reduce the oxygen content inside the storage container 200. The electrochemical reaction comprises two half reactions which respectively occur in an electrolysis part 322 and an oxygen consumption part 323, the electrolysis part 322 electrolyzes water vapor outside the storage container 200 under the action of electrolysis voltage to generate hydrogen ions and oxygen, a proton exchange membrane 324 is configured to transport the hydrogen ions from one side of the electrolysis part 322 to one side of the oxygen consumption part 323, and the oxygen consumption part 323 prompts the hydrogen ions generated by the electrolysis part 322 to electrochemically react with the oxygen inside the storage container 200 to generate water to consume the oxygen inside the storage container 200 under the action of the electrolysis voltage, so that a low-oxygen fresh-keeping environment is formed inside the storage container 200.

The oxygen scavenging assembly 320 further comprises: a motherboard 321, two resilient plates 325 and at least one gasket 326.

A motherboard 321 forming a base of the oxygen removing assembly 320, wherein a notch 521 is arranged at the middle part of the motherboard 521, and the notch 521 can be rectangular; the periphery of the notch 521 is provided with an internal screw hole 522 for being fixed with other components of the oxygen removal assembly 320 through screw connection, and the edge of the motherboard 321 is also provided with an external screw hole 523 for being fixed with the pallet 512 of the oxygen removal cavity 311 through screw connection.

And two elastic plates 325 arranged at the outer side of the electrolysis part 322, wherein each elastic plate 325 is a rectangular thin plate, the middle part of the elastic plate is hollowed out, and the position and the shape of the hollowed-out part are matched with the position and the shape of the notch 521 of the mother plate 321 so as to allow gas to pass through. The wind machine frame screw holes 524 are formed beside the top points of the hollowed-out parts and used for fixing the wind machine frame 332 of the oxygen removal moisture permeable assembly 300 above the oxygen removal assembly 320 through screw threads, the edge parts of the elastic plates 325 are also provided with motherboard screw holes 525, and the positions and the number of the motherboard screw holes 525 are matched with those of the inscribed screw holes 522 of the motherboard 321 so as to fix the multilayer structure of the oxygen removal assembly 320 on the motherboard 321 through screw threads.

And at least one gasket 326 positioned between the mother plate 321 and the oxygen consumption part 323, wherein each gasket 326 is a rectangular thin ring, and the size of the outer ring is the same as that of the oxygen consumption part 323 and the electrolysis part 322. Each washer 326 is made of an elastic material to cushion the compressive force between adjacent layers.

That is, the oxygen removing assembly 320 has at least 7-layer structure, which is composed of two elastic plates 325, an electrolysis part 322, a proton exchange membrane 324, an oxygen consumption part 323, at least one gasket 326 and a mother plate 321 from outside to inside. In the electrolysis process, the oxygen consumption part 323 consumes oxygen in the storage container 200 on one hand, and the generated water vapor can increase the humidity in the storage container 200 on the other hand, so that the fresh-keeping effect of the storage container 200 is improved.

The oxygen concentration sensor 250 is provided in the storage container 200, and is configured to detect the oxygen concentration in the storage container 200 after the temperature-controllable panel 700 shields the cold air port 231. The oxygen concentration sensor 250 may be disposed on an inner wall of the storage container 200. After the controllable temperature adjusting plate 700 shields the cold air inlet 231, it means that the storage container 200 is in a closed state at this moment, and the temperature in the storage container 200 is within a preset fresh-keeping temperature range, and at this moment, whether the storage container 200 is deaerated to create a low-temperature and low-oxygen fresh-keeping environment needs to be judged according to the actual oxygen concentration.

The oxygen removal assembly 320 is configured to be turned on when a power-on condition is reached, which may be set according to actual needs, for example, the oxygen removal assembly 320 may be configured to be turned on when the oxygen concentration in the storage container 200 is higher than a preset oxygen concentration threshold.

Set up ventilative regional 221 at the top surface of storage container 200, set up deoxidization subassembly 320 in ventilative regional 221 top, configure to and shield behind cold wind mouth 231 and start when oxygen concentration in storage container 200 is higher than the predetermined oxygen concentration threshold value at controllable temperature control plate 700 to through the oxygen in the electrochemical reaction consumption storage container 200, thereby can be after the temperature in the storage container 200 of quick reduction, can also reduce the oxygen concentration in the storage container 200, make and form the fresh-keeping atmosphere of low temperature hypoxemia in the storage container 200 fast.

The oxygen scavenging assembly 320 is also configured to shut down when its operating time period is greater than or equal to a preset operating time period.

During operation of the oxygen scavenging assembly 320, since the container 200 is relatively closed, the oxygen content in the container 200 will decrease continuously, resulting in a decrease in the concentration of the reactant in the electrochemical reaction performed by the oxygen scavenging assembly 320, and accordingly the efficiency of the electrochemical reaction will decrease or even no electrochemical reaction will occur at all, and at this time, if power is continuously supplied to the oxygen scavenging assembly 320, the oxygen content in the container 200 cannot be significantly reduced, and little benefit is gained while consuming electric energy. Additionally, the life of the oxygen scavenging assembly 320 is related to the operating time, the longer the operating time, the shorter the life, and thus the need to control the single operation operating duration of the oxygen scavenging assembly 320. When the operating time of the oxygen removal assembly 320 is greater than or equal to the predetermined operating time, meaning that the electrolytic efficiency of the oxygen removal assembly 320 is already low, the electrochemical reaction of the oxygen removal assembly 320 needs to be terminated to avoid wasting too much electrical energy and compromising the life of the oxygen removal assembly 320.

The preset operating time of the oxygen removal assembly 320 may be set according to actual requirements, and within the preset operating time, the oxygen concentration of the storage container 200 may be reduced below the preset oxygen concentration threshold.

Fig. 15 is an exploded view of the fan assembly 330 shown in fig. 12. The blower assembly 330, disposed within the oxygen scavenging cavity 311, above the oxygen scavenging assembly 320, i.e., on the side of the electrolysis portion 322 facing away from the proton exchange membrane 324, is configured to facilitate the creation of an airflow directed toward the side of the oxygen scavenging assembly 320 facing away from the interior of the storage container 200 to provide water vapor to the oxygen scavenging assembly 320. The fan assembly 330 includes an electrolysis fan 331 and a fan frame 332. In this embodiment, the electrolysis fan 331 may be a micro axial fan having a rotation axis perpendicular to the electrolysis portion 322, and configured to blow the water vapor outside the storage container 200 toward the electrolysis portion 322. Since the reactant of the electrolysis unit 322 is water vapor, the electrolysis unit 322 needs to be continuously replenished with water so that the electrolysis reaction can be continuously performed. When the oxygen removing assembly 320 is started to work, the control circuit respectively supplies power to the oxygen consumption part 323 and the electrolysis part 322, meanwhile, the electrolysis fan 331 is started, and the electrolysis fan 331 blows air to the electrolysis part 322 and simultaneously blows water vapor in the air to the electrolysis part 322 so as to provide reactants to the electrolysis part 322. Since the interior temperature of the refrigerator 10 is generally low, the storage compartment has a relatively humid atmosphere containing a large amount of water vapor in the air. Therefore, the electrolysis fan 331 can cause the air in the storage compartment to provide sufficient reactant to the electrolysis portion 322 without providing a separate water source or delivery device for the oxygen removal assembly 320.

Set up electrolysis fan 331 and deoxidization subassembly 320 jointly in deoxidization chamber 311, shortened the distance between electrolysis fan 331 and the deoxidization subassembly 320, improved electrolysis fan 331's air supply efficiency, electrolysis fan 331 opens the back and can provide the required vapor of electrolytic reaction for deoxidization subassembly 320 fast, is favorable to improving the electrolytic efficiency of deoxidization subassembly 320, realizes falling the oxygen fast.

And a fan frame 332 for fixedly supporting the electrolysis fan 331. The blower frame 332 is disposed on a side of the electrolysis blower 331 facing the electrolysis part 322, and may be disposed between the electrolysis blower 331 and the elastic plate 325 of the oxygen removing assembly 320, for example. The electrolysis fan 331 can be fixed on the fan frame 332 by screwing, and the air supply area of the electrolysis fan 331 is opposite to the circular opening 531 in the middle of the fan frame 332 and can blow the air flow to the inside of the oxygen removing component 320 and the electrolysis part 322. The fan frame 332 can fixedly support the electrolysis fan 331, prevent the electrolysis fan 331 from shaking during operation, and simultaneously enable a certain distance to be formed between the electrolysis fan 331 and the elastic plate 325, so as to facilitate gas circulation. The fan frame 332 is further provided with fan frame screw holes 532, and the number and position of the fan frame screw holes 532 are matched with the number and position of the fan screw holes 524, so that the fan frame 332 can be fixed above the oxygen removing assembly 320 by screwing.

The side of the fan frame 332 back facing the oxygen removal assembly 320 is used for fixing the electrolytic fan 331, the side facing the oxygen removal assembly 320 is fixed with the oxygen removal assembly 320 in a threaded manner, the fan frame 332 has the functions of fixedly supporting the electrolytic fan 331 and connecting the oxygen removal assembly 320, the oxygen removal assembly 320 and the electrolytic fan 331 are integrated into a whole through double fixing functions, the electrolytic fan 331 is close to the oxygen removal assembly 320, and a structural foundation is provided for shortening the distance between the electrolytic fan 331 and the oxygen removal assembly 320.

Fig. 16 is an exploded view of the moisture permeable assembly 340 in the oxygen scavenging moisture permeable assembly 300 of the storage device 150 in the refrigerator 10 shown in fig. 3.

The moisture permeable assembly 340, which is disposed between the water removal region 430 and the support plate 310 and located in the water removal cavity 312 of the support plate 310, is configured to allow water vapor in the storage container 200 to permeate and drain, and includes a moisture permeable film 341 and a moisture permeable bottom plate 342.

The moisture permeable film 341 is configured to allow water vapor in the storage container 200 to slowly permeate therethrough and be discharged to the outside of the storage container 200, so that the humidity in the storage container 200 is always maintained within a suitable range, and condensation or dripping due to excessive moisture in the space is prevented. In this embodiment, the moisture permeable film 341 may be a pervaporation film having a hydrophilic layer and a hydrophobic layer, one side of the hydrophilic layer facing away from the hydrophobic layer is exposed above the water removing area 430, i.e., faces the water removing area 430, one side of the hydrophobic layer facing away from the hydrophilic layer faces away from the water removing area 430, and water vapor in the storage container 200 can be permeated through the moisture permeable film 341 and discharged to the outside of the storage container 200. The moisture permeable film 341 can prevent the permeation of other gases while allowing the permeation of water vapor, thereby preventing the exchange of gases between the inside and the outside of the container 200.

The appearance of moisture-permeable membrane 341 and the appearance looks adaptation of the diapire of dewatering chamber 312 can seal dewatering chamber 312 just, and the confined space that moisture-permeable membrane 341 and layer board 310 formed can block except that the gas exchange takes place outside water district 430 and the confined space, consequently, set up moisture-permeable membrane 341 between dewatering district 430 and layer board 310, can make storing container 200 keep the state of relative confined, be favorable to maintaining good fresh-keeping atmosphere, improve fresh-keeping effect.

The moisture permeable base plate 342 is disposed adjacent to the bottom of the moisture permeable film 341 and above the plurality of columns 431. That is, the plurality of columns 431 support the moisture permeable base plate 342, the moisture permeable base plate 342 supports the moisture permeable film 341, and the dual support structure formed by the plurality of columns 431 and the moisture permeable base plate 342 can prevent the moisture permeable film 341 from being deformed by the influence of gravity. If the moisture permeable film 341 deforms, a gap may be formed between the moisture permeable film 341 and the sidewall of the water removing cavity 312, so that a closed space cannot be formed between the moisture permeable film 341 and the supporting plate 310, and the fresh-keeping effect of the storage container 200 is reduced. The moisture-permeable bottom plate 342 is also correspondingly provided with through holes 540 arranged in an array, and the positions and the sizes of the through holes 540 are matched with those of the through holes 530 on the bottom wall of the water removing cavity 312, so as to allow the gas escaping from the water removing area 430 to pass through.

The top surface of the storage container 200 is provided with a ventilation area 221, the oxygen removal and moisture permeation assembly 300 is integrated above the ventilation area 221, wherein the oxygen removal assembly 320 is arranged above the middle part of the ventilation area 221 and is configured to consume oxygen inside the storage container 200 through an electrolytic reaction under the action of electrolytic voltage, the moisture permeation assembly 340 is arranged on two sides of the oxygen removal assembly 320 and is configured to allow water vapor in the storage container 200 to permeate and discharge, so that a low-oxygen atmosphere can be formed in the storage container 200, excessive water vapor can be prevented from generating condensation or dripping, and the fresh-keeping effect of the storage container 200 is improved.

The oxygen removal region 420 and the water removal region 430 are arranged on the air permeable region 221 of the storage container 200, the supporting plate 310 is arranged in the oxygen removal moisture permeable assembly 300, the oxygen removal assembly 320 with the oxygen removal effect is arranged in the oxygen removal cavity 311 of the supporting plate 310, the moisture permeable assembly 340 with the moisture permeable effect is arranged in the water removal cavity 312 of the supporting plate 310, so that the oxygen removal assembly 320 can be limited above the oxygen removal region 420, the moisture permeable assembly 340 can be limited above the water removal region 430, meanwhile, the oxygen removal assembly 320, the moisture permeable assembly 340 and the supporting plate 310 are integrated, the oxygen removal moisture permeable assembly 300 can be simply and conveniently arranged above the air permeable region 221 of the storage container 200, and the installation difficulty of the moisture permeable assembly 300 is reduced.

Fig. 17 is a schematic view of a cover plate 350 of the storage device 150 in the refrigerator 10 shown in fig. 3.

In this embodiment, the storage device 150 in the refrigerator 10 may further include: a cover plate 350 configured to cover over the oxygen scavenging moisture permeable assembly 300 to keep the appearance neat. The cover panel 350 includes a top cover portion 351 covering the top surface of the storage container 200, and a connecting portion 352 extending along the rear surface of the storage container 200 to form the connecting portion 352, wherein the top cover portion 351 is used to be fixedly connected to the storage container 200. The top cover portion 351 is also provided with through holes 550 arranged in an array, wherein the through holes 410 above the water removal region 430 are configured to allow water vapor escaping from the water removal region 430, the moisture permeable bottom plate 342, the moisture permeable film 341 and the bottom wall of the water removal cavity 312 to be discharged to the outside of the storage container 200, and the through holes 410 above the oxygen removal region 420 are configured to allow gas outside the storage container 200 to enter the storage container 200 and blow towards the electrolytic portion 322 under the action of the electrolytic fan 331, so as to provide water vapor for the electrolytic portion 322 and provide an escape channel for oxygen generated on the electrolytic portion 322. The connection portion 352 is provided with a plurality of engaging grooves 551, and is configured to engage with the engaging hooks 450 on the rear surface of the storage container 200 to fix the cover plate 350.

The oxygen scavenging moisture permeable assembly 300 also includes multiple sets of fastening screws to enable the securing and clamping of the multi-layer component. Wherein the first set of fastening screws sequentially penetrates through the screw holes at the same positions of the two elastic plates 325, the electrolysis part 322, the proton exchange membrane 324, the oxygen consumption part 323, the gasket 326 and the mother plate 321, and is used for promoting the oxygen removing assembly 320 to form a multilayer structure; the second set of fastening screws sequentially penetrate through the fan frame screw holes 532 and the fan screw holes 524 of the elastic plate 325 of the oxygen removal assembly 320, and are used for fixing the fan frame 332 on the oxygen removal assembly 320; the third set of fastening screws sequentially pass through the circumscribed screw hole 523 of the motherboard 321 of the oxygen removal assembly 320 and the pallet screw hole 513 of the pallet 512, and are used for fixing the oxygen removal assembly 320 on the pallet 512.

The top surface of the storage container 200 is provided with the oxygen removing area 420 and the water removing area 430, the oxygen removing cavity 311 of the supporting plate 310 is inserted into the concave part 421 where the oxygen removing area 420 is located, the oxygen removing component 320 and the electrolytic fan 331 are installed in the oxygen removing cavity 311, and the moisture permeable film 341 and the moisture permeable bottom plate 342 are installed in the water removing cavity 312 of the supporting plate 310 above the water removing area 430, so that the oxygen removing and moisture permeable component 300 can be prevented from occupying too many storage containers 200, and the use efficiency of the storage containers 200 is improved.

In this embodiment, the electrolysis portion 322 and the oxygen consumption portion 323 of the oxygen removing assembly 320 may be connected to the control circuit through wires, and the control circuit of the refrigerator 10 provides the electrolysis voltage thereto. In other alternative embodiments, the electrolytic voltage of the oxygen scavenging assembly 320 may also be supplied by the cell, with the electrolysis portion 322 and the oxygen-consuming portion 323 being in communication with the anode and cathode, respectively, of the cell, and the oxygen scavenging assembly 320 being brought into an electrolytic operating state. If the user does not need to use the oxygen removal function, the oxygen removal moisture permeable assembly 300 can be removed as a whole.

When the oxygen removal moisture permeable assembly 300 is assembled, the oxygen removal assembly 320 and the fan assembly 330 can be integrated into a whole, and then the oxygen removal assembly and the fan assembly are fixed in the oxygen removal cavity 311 through screws, and the moisture permeable film 341 and the moisture permeable bottom plate 342 are sequentially clamped in the water removal cavity 312.

When the oxygen removal moisture permeable assembly 300 is installed, the assembled oxygen removal moisture permeable assembly 300 is placed above the top surface of the storage container 200, the oxygen removal cavity 311 of the support plate 310 is inserted into the recessed portion 421 of the top surface of the storage container 200, the oxygen consumption portion 323 faces the inside of the storage container 200, and the electrolysis portion 322 faces the outside of the storage container 200. The support plate 310 of the oxygen-removing moisture-permeable assembly 300 can be fixed on the top surface of the storage container 200 in any manner according to actual requirements, for example, the support plate can also be fixed by screw connection. The plurality of screw holes 440 are formed in the periphery of the ventilation region 221, and the screw holes 313 are formed in positions of the supporting plate 310 corresponding to the plurality of screw holes 440, so that the supporting plate 310 is fixed to the storage container 200 in a screwing manner, the supporting plate 310 is attached to the top surface of the storage container 200, and the sealing effect is enhanced.

Above the oxygen removing area 420, a closed space is formed by the supporting plate 310 and the oxygen removing component 320, and above the water removing area 430, a closed space is formed by the supporting plate 310 and the moisture permeable component 340, so that a relatively closed structure is formed inside the storage container 200, and the proper fresh-keeping atmosphere can be maintained while oxygen reduction and moisture permeability are realized, and the fresh-keeping effect is improved.

The cover plate 350 of the storage device 150 may be mounted on the top surface of the storage container 200 in any manner according to actual needs, for example, the cover plate may be fixed to the buckle 450 by using a snap 551. The plurality of buckles 450 are arranged on the part of the back plate close to the top surface of the storage container 200 and the non-air-permeable area 222 on the top surface, the plurality of clamping grooves 551 are correspondingly arranged on the connecting part 352 of the cover plate 350, the buckles 450 of the storage container 200 are inserted into the clamping grooves 551 of the cover plate 350, the cover plate 350 can be clamped and fixed, and the storage device 150 with the functions of oxygen removal and moisture permeation is formed.

Fig. 18 is a control flowchart of the refrigerator 10 according to one embodiment of the present invention.

In step S1802, the temperature in the container 200 is acquired. Storage container 200 can lead to its inside original low temperature fresh-keeping environment to be destroyed with the outside air intercommunication under the state of being opened, consequently, storage container 200 is closed the back, needs confirm again whether inside actual storing temperature satisfies the storing requirement, if unsatisfied, then need control controllable temperature adjusting plate 700's translation and carry out rapid cooling to build low temperature fresh-keeping atmosphere again.

Step S1804, determining whether the temperature is greater than a first preset temperature threshold, if so, performing step S1806, and if not, performing step S1812. When the temperature is higher than the first preset temperature threshold, which means that the actual storage environment temperature in the storage container 200 is higher at this time, the controllable temperature adjustment plate 700 needs to be controlled to open the cold air port 231, so that the communication area between the air supply duct 112 and the cold air port 231 is increased, the air supply airflow can directly enter the storage container 200, the temperature in the storage container 200 is rapidly reduced, and the low-temperature fresh-keeping environment is formed again; when above-mentioned temperature is not more than first predetermined temperature threshold value, it is lower to mean the actual storing ambient temperature in the storing container 200 this moment, need not to carry out rapid cooling and can make the temperature in the storing container 200 resume to the fresh-keeping temperature range of predetermineeing fast in, need not to control controllable thermoregulation board 700 and open cold wind mouth 231 this moment, keep confined low temperature storing environment in the storing container 200, be favorable to realizing depositing alone of edible material, also be convenient for utilize deoxidization subassembly 320 to carry out the deoxidization to confined storing container 200.

In step S1806, the controllable temperature adjustment plate 700 opens the cold air port 231.

Step S1808, determining whether the temperature in the storage container 200 is less than a second preset temperature threshold, if yes, performing step S1810, and if no, performing step S1808.

In step S1810, the temperature-controllable plate 700 shields the cold air inlet 231. After the controllable temperature adjusting plate 700 shields the cold air inlet 231, it means that the storage container 200 is in a closed state at this moment, and the temperature in the storage container 200 is within a preset fresh-keeping temperature range, and at this moment, whether the storage container 200 is deaerated to create a low-temperature and low-oxygen fresh-keeping environment needs to be judged according to the actual oxygen concentration.

In step S1812, the oxygen concentration in the container 200 is acquired. Storage container 200 can lead to its inside original storing atmosphere to be destroyed with the outside air intercommunication under the state of being opened, consequently, storage container 200 is closed the back, whether needs to confirm inside oxygen concentration again and satisfies the storing requirement, if unsatisfied, then need start deoxidization subassembly 320 and carry out the deoxidization, builds the fresh-keeping atmosphere of hypoxemia again.

Step S1814, determining whether the oxygen concentration is greater than a preset oxygen concentration threshold, if so, executing step S1816, otherwise, executing step S1802.

Step S1816, the oxygen removing assembly 320 is turned on, and the electrolytic fan 331 is turned on. The electrolysis fan 331 facilitates the airflow outside the storage container 200 to flow to the electrolysis portion 322 of the oxygen removal assembly 320, so as to supplement the water vapor required for the electrochemical reaction for the electrolysis portion 322, accelerate the electrochemical reaction rate, and improve the oxygen removal efficiency of the oxygen removal assembly 320.

In step S1818, it is determined whether the operating time of the oxygen removing assembly 320 is greater than or equal to the preset operating time, if yes, step S1820 is executed, and if not, step S1818 is executed. Under the storing container 200 keeps closed state, when the operating duration of deoxidization subassembly 320 is more than or equal to predetermines the operating duration, can reduce the oxygen concentration in the storing container 200 to predetermineeing below the reasonable concentration threshold value, for avoiding consuming too much electric energy, deoxidization subassembly 320 and electrolysis fan 331 shut down.

In step S1820, the oxygen removal unit 320 is stopped, and the electrolytic fan 331 is stopped.

In the refrigerator 10 of this embodiment, the back of the storage container 200 is provided with the cold air port 231, the temperature-controllable plate 700 is disposed at the cold air port 231, and controlled translation of the temperature-controllable plate 700 is used to open and close the communication surface between the cold air port 231 and the air supply duct 112, when the cold air port 231 is opened by the temperature-controllable plate 700, low-temperature air flow in the air supply duct 112 can enter the storage container 200 through the cold air port 231, so that the temperature in the storage container 200 is rapidly reduced, which is beneficial to rapidly forming a fresh-keeping environment in the storage container 200, and improves the fresh-keeping capability of the storage container 200; the refrigerator 10 of the embodiment opens the ventilation area 221 on the top surface of the storage container 200, and the oxygen removing assembly 320 is disposed above the ventilation area 221, and is configured to be turned on after the temperature-controllable temperature-adjusting plate 700 closes the cold air port 231 and when the oxygen concentration in the storage container 200 is higher than a preset oxygen concentration threshold value, so as to consume oxygen in the storage container 200 through electrochemical reaction, thereby rapidly reducing the temperature in the storage container 200, and then reducing the oxygen concentration in the storage container 200, so that the storage container 200 forms a low-temperature and low-oxygen fresh-keeping atmosphere.

It should be understood by those skilled in the art that, unless otherwise specified, terms used to indicate orientations or positional relationships in the embodiments of the present invention, such as "upper," "lower," "inner," "outer," and the like, are based on the actual use state of the refrigerator, and are only used for convenience of description and understanding of the technical solutions of the present invention, and do not indicate or imply that the devices or components referred to must have a specific orientation, and thus, are not to be construed as limiting the present invention.

Thus, it should be appreciated by those skilled in the art that while various exemplary embodiments of the invention have been shown and described in detail herein, many other variations or modifications which are consistent with the principles of this invention may be determined or derived directly from the disclosure of the present invention without departing from the spirit and scope of the invention. Accordingly, the scope of the invention should be understood and interpreted to cover all such other variations or modifications.

Claims

1. A refrigerator, comprising:

the inner container is internally provided with a storage chamber and an air supply duct positioned at the rear side of the storage chamber;

the storage container is arranged in the storage chamber; a cold air port is formed in the back of the storage container;

the controllable temperature adjusting plate is arranged at the cold air port and configured to be controlled to translate so as to open and close a communication surface between the cold air port and the air supply duct;

the top surface of the storage container is provided with a ventilation area; the breathable region comprises: an oxygen removal zone and a water removal zone;

the refrigerator also comprises an oxygen removal moisture permeable assembly which is arranged on the air permeable area; the moisture permeable subassembly of deoxidization still includes:

the supporting plate covers the ventilation area, and an oxygen removal cavity is formed above the supporting plate back to the oxygen removal area;

an oxygen removal assembly having an oxygen consuming portion facing the interior of the container and configured to consume oxygen from the interior of the container through an electrochemical reaction; the deoxidizing component is arranged in the deoxidizing cavity; a water removing cavity is formed above the supporting plate facing the water removing area;

the moisture permeable assembly is arranged in the water removal cavity and is configured to allow water vapor in the storage container to permeate and drain; and is

The position and the appearance in deoxidization chamber with the position and the appearance in deoxidization district are corresponding, the position and the appearance in except that the water chamber with it is corresponding to remove the position and the appearance in water district, make the layer board cover in storage container's top surface top is in order to realize quick installation.

2. The refrigerator of claim 1, further comprising:

a temperature sensor disposed in the storage container and configured to detect a temperature in the storage container after the storage container is closed;

the temperature-controllable temperature-regulating plate is configured to open the cold air port when the temperature in the storage container is higher than a first preset temperature threshold value so as to rapidly reduce the temperature in the storage container;

the temperature-controllable temperature-regulating plate is further configured to shield the cold air port when the temperature in the storage container falls below a second preset temperature threshold; the first preset temperature threshold is greater than the second preset temperature threshold.

3. The refrigerator of claim 1, further comprising:

the oxygen concentration sensor is arranged in the storage container and is configured to detect the oxygen concentration in the storage container after the temperature-controllable plate shields the cold air port;

the oxygen removal assembly is configured to be turned on when the oxygen concentration within the storage container is above a preset oxygen concentration threshold.

4. The refrigerator of claim 3, wherein

The oxygen removal assembly is also configured to shut down after its operating time period is greater than or equal to a preset operating time period.

5. The refrigerator of claim 1, wherein

The oxygen removing area is positioned in the middle of the ventilation area;

the water removal zone is positioned on two sides of the oxygen removal zone.

6. The refrigerator of claim 1, wherein

The back surface of the storage container is provided with a mounting frame which protrudes backwards, and the mounting frame is arranged to gradually increase the protruding distance along the upward extending direction, so that an inclined angle is formed between the mounting frame and the back surface of the storage container; the mounting frame defines the cold air vent, and the mounting frame includes:

the upper guide rail groove is used for accommodating the top end of the temperature-controllable plate;

the lower guide rail groove is used for accommodating the bottom end of the temperature-controllable plate;

the upper guide rail groove and the lower guide rail groove jointly limit the activity space of the temperature-controllable plate.

7. The refrigerator of claim 6, wherein

The mounting frame is adjacent to the air supply outlet of the storage compartment.

8. The refrigerator of claim 7, further comprising:

drive arrangement, set up in on the storing container, it includes:

a drive motor;

an electric gear installed at an output shaft of the driving motor; the temperature-controllable plate is provided with a rack, the electric gear is meshed with the rack, and the driving motor drives the temperature-controllable plate to move through the electric gear and the rack.

9. The refrigerator of claim 8, wherein

The driving device is arranged adjacent to the top of the mounting frame.