Electromagnetic wave processing device and refrigerator having the same

Abstract

The application provides an electromagnetic wave processing device and a refrigerator with the same. The processing device comprises a cylinder, a door, an electromagnetic wave generating system and a detection module. The cylinder and the door are respectively provided with shielding features. The detection module is arranged outside the shielding features and is used to determine whether electromagnetic wave leakage occurs in the processing device. The detection module comprises a detection circuit and a conversion circuit. The detection circuit is arranged to emit light when electromagnetic wave leakage occurs in the processing device. The detection circuit comprises a light emitting element. The conversion circuit is arranged to generate a reference signal according to the light intensity of the light emitted by the light emitting element. The conversion circuit is used to regulate the electromagnetic wave generating system so as to reduce the amount of electromagnetic wave leakage of the processing device. The conversion circuit comprises a light sensing element. The application not only effectively reduces the influence or interference on surrounding food and electrical devices, but also forms line isolation between the detection circuit and the conversion circuit, thereby avoiding instant damage to the conversion circuit and other control elements connected with the conversion circuit when the amount of electromagnetic wave leakage is too large.

Description

Technical Field

[0001] This invention relates to the field of refrigeration and freezing, and in particular to an electromagnetic wave processing device and a refrigerator having the processing device. Background Technology

[0002] During the freezing process, the quality of food is preserved; however, frozen food needs to be thawed before processing or consumption. To facilitate freezing and thawing for users, current technology generally uses electromagnetic waves to thaw food, and the electromagnetic wave generating system is placed in the refrigerator.

[0003] However, the electromagnetic waves generated by the electromagnetic wave generating system can easily affect or interfere with the food stored at low temperatures and the electrical components placed around it. Although setting electromagnetic shielding features in the cavity can effectively reduce electromagnetic wave leakage, the shielding features will degrade in performance after long-term use, and too much electromagnetic wave will leak into the vicinity of the cavity, resulting in the above-mentioned serious effects or interference. Summary of the Invention

[0004] One objective of the first aspect of the present invention is to overcome at least one technical defect in the prior art and to provide an electromagnetic wave processing device.

[0005] A further objective of the first aspect of the present invention is to improve the safety of the processing apparatus.

[0006] Another further object of the first aspect of the present invention is to simplify the structure of the processing apparatus.

[0007] A second aspect of the present invention is to provide a refrigerator having the electromagnetic wave processing device.

[0008] According to a first aspect of the present invention, an electromagnetic wave processing apparatus is provided, comprising: A cylindrical container used to hold the material to be processed; The door is used to open and close the loading and unloading port of the cylinder, and the cylinder and the door are respectively provided with shielding features; An electromagnetic wave generating system, at least partially disposed within or accessible to the cylinder, for processing the object to be processed using electromagnetic waves; and A detection module, disposed on the outside of the shielding feature, is used to determine whether the processing device experiences electromagnetic wave leakage; wherein, the detection module includes: A detection circuit, configured to emit light when electromagnetic wave leakage occurs in the processing device, includes a light-emitting element; and The conversion circuit is configured to generate a reference signal based on the light intensity emitted by the light-emitting element, and to regulate the electromagnetic wave generating system to reduce the electromagnetic wave leakage of the processing device. The conversion circuit includes a photosensitive element.

[0009] Optionally, the value of the reference signal is proportional to the electromagnetic wave leakage; wherein, During the initial matching phase, the electromagnetic wave generating system is configured to stop operating when the value of the reference signal exceeds a first threshold; and During the continued processing phase, the electromagnetic wave generating system is configured to reduce its electromagnetic wave generation power or stop operating when the value of the reference signal exceeds a second threshold; wherein, If no electromagnetic wave leakage occurs in the processing device, the power of the electromagnetic wave generated by the electromagnetic wave generation system is greater in the continued processing stage than in the initial matching stage, and the second threshold is greater than the first threshold.

[0010] Optionally, the photosensitive element is a photodiode or a photoresistor.

[0011] Optionally, the detection circuit further includes: The detection circuit is configured to collect electrical signals related to electromagnetic wave leakage from the processing device; and The rectifier and filter circuit is configured to convert the electrical signal acquired by the detection line into a DC signal and to power the light-emitting element.

[0012] Optionally, the shielding feature is set to ground; and The detection circuit is configured to be electrically connected to the shielding feature at a first connection point and a second connection point, wherein the distances between the first connection point and the second connection point and the grounding point of the shielding feature are different.

[0013] Optionally, the door body includes: A shielding plate is disposed at the opening of the cylinder, serving as at least part of the shielding feature of the door; wherein the shielding plate comprises: The main body, at least partially disposed within the cylinder, forms a gap with the shielding features of the cylinder extending along the depth direction of the cylinder; and A flange is provided at the end of the main body near the pick-and-place opening and extends outward in the radial direction of the pick-and-place opening; wherein, The one with the higher potential between the first connection point and the second connection point is located at the portion of the flange at the end of the gap.

[0014] According to a second aspect of the present invention, a refrigerator is provided, comprising: The enclosure includes at least one inner liner; At least one door for opening and closing the opening for taking out or placing the at least one inner liner; and According to any of the above-described processing devices, the cylinder and the door are disposed within an inner liner; wherein... The conversion circuit is located in the inner liner.

[0015] Optionally, the inner liner is provided with a pre-embedded box, the pre-embedded box forming an installation space recessed away from the cylinder and the door; and the refrigerator further includes: The mounting box is secured in the mounting space of the pre-embedded box, and the conversion circuit is located inside the mounting box.

[0016] Optionally, the detection circuit is disposed in the mounting box.

[0017] Optionally, the door body includes: Support components; The rear cover is disposed on the side of the support member near the opening, and together with the support member, forms an accommodating space; A shielding plate, disposed in the accommodating space, serves as at least part of the shielding feature of the door; and A front cover is disposed on the front side of the support member, and the light-emitting element is fixed between the front cover and the support member; wherein, The front cover is provided with a transmissive area so that the light emitted by the light-emitting element can be transmitted to the outside of the door.

[0018] The electromagnetic wave processing device of the present invention emits light when electromagnetic wave leakage occurs through a detection circuit. The conversion circuit generates a reference signal based on the light intensity emitted by the detection circuit, and then adjusts the electromagnetic wave generation system according to the reference signal to reduce the amount of electromagnetic wave leakage. This not only effectively reduces the impact or interference on surrounding food and electrical devices, but also forms line isolation between the detection circuit and the conversion circuit, preventing instantaneous damage to the conversion circuit and other control components connected to the conversion circuit when the amount of electromagnetic wave leakage is too large, thus further improving the reliability of the processing device.

[0019] Furthermore, this application creatively recognizes that when electromagnetic wave leakage occurs, the shielding feature of the processing device will undergo an induced voltage change under the action of external electromagnetic waves. By capturing this voltage change, it is possible to determine whether electromagnetic wave leakage has occurred in the processing device. This invention connects the detection circuit to a first connection point and a second connection point at different distances from the shielding feature and the grounding point, and positions the one with the higher potential between the first and second connection points at the portion of the flange located at the end of the gap. This results in a simple structure and lower production costs.

[0020] Furthermore, the present invention provides a pre-embedded box in the inner liner of the refrigerator, places the conversion circuit in the mounting box within the pre-embedded box, and places the light-emitting element in the door of the processing device. This not only facilitates the overall assembly and wiring of the refrigerator and further improves the safety of the refrigerator, but also allows the conversion circuit to sense changes in light intensity when the door is opened, thereby regulating the electromagnetic wave generation system and reducing the impact of electromagnetic waves on the user.

[0021] 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 of the invention in conjunction with the accompanying drawings. Attached Figure Description

[0022] The following sections will describe some specific embodiments of the invention in detail by way of example and not limitation, with reference to the accompanying drawings. The same reference numerals in the drawings denote the same or similar parts or portions. Those skilled in the art should understand that these drawings are not necessarily drawn to scale. In the drawings: Figure 1 This is a schematic structural diagram of an electromagnetic wave processing device according to an embodiment of the present invention; Figure 2 yes Figure 1 A schematic axonometric view of the cylinder and door body; Figure 3 yes Figure 2 A schematic sectional view of the cylinder and door shown; Figure 4 yes Figure 3 A schematic enlarged view of a portion of the central region A; Figure 5 Looking from back to front Figure 2 A schematic isometric view of the central gate; Figure 6 yes Figure 5 A schematic exploded view of the door shown; Figure 7 yes Figure 1 A schematic structural diagram of the detection module; Figure 8 This is a schematic isometric view of a refrigerator according to an embodiment of the present invention; Figure 9 yes Figure 8 A schematic exploded view of the refrigerator shown; Figure 10 yes Figure 9 A schematic isometric view of the pre-embedded box in the middle; Figure 11 yes Figure 9 A schematic exploded view of the mounting box; Figure 12 It is a different perspective. Figure 11 A schematic exploded view of the upper middle cover. Detailed Implementation

[0023] Figure 1 This is a schematic structural diagram of an electromagnetic wave processing apparatus 100 according to an embodiment of the present invention; Figure 2 yes Figure 1 A schematic isometric view of the cylinder 210 and the door 300 in the middle; Figure 3 yes Figure 2 A schematic cross-sectional view of the cylinder 210 and the door 300 shown. See also Figures 1 to 3 The electromagnetic wave processing device 100 may include a cylinder 210 for accommodating the object to be processed 500, a door 300 for opening and closing the loading and unloading port of the cylinder 210, and an electromagnetic wave generating system.

[0024] The opening of the cylinder 210 can face forward. The cylinder 210 can be assembled and fixed by a lower box and an upper cover located above the lower box.

[0025] The door 300 may include a drawer 350 for holding the item to be processed 500 and for sliding in the front-back direction to facilitate the user to take the item to be processed 500.

[0026] The electromagnetic wave generating system may be at least partially located inside or accessible to the cylinder 210 to process the object 500 to be processed by electromagnetic waves.

[0027] The electromagnetic wave generating system may include a frequency source 410, a power amplifier 420, a radiating antenna 430, and a power supply module 440.

[0028] Specifically, the frequency source 410 can be configured to generate electromagnetic wave signals. The power amplifier 420 can be electrically connected to the frequency source 410 to amplify the power of the electromagnetic wave signals.

[0029] The radiating antenna 430 can be installed inside the cylinder 210 and electrically connected to the power amplifier 420 to radiate the amplified electromagnetic waves into the cylinder 210.

[0030] The power supply module 440 can be configured to be electrically connected to the frequency source 410 and the power amplifier 420 to provide power to the frequency source 410 and the power amplifier 420.

[0031] The cylinder 210 and the door 300 may each be provided with electromagnetic shielding features and be electrically connected when the door 300 is in the closed state, so as to improve the safety of the processing device 100.

[0032] In some embodiments, the cylinder 210 may be made of a conductive material, i.e., the shielding feature of the cylinder 210 is the cylinder 210 itself.

[0033] In other embodiments, the shielding feature of the cylinder 210 may be a conductive layered structure disposed on the cylinder 210, such as a metal coating.

[0034] In some embodiments, when the door 300 is in the closed state, the shielding features of the cylinder 210 and the shielding features of the door 300 may be grounded to improve the safety of the processing device 100.

[0035] Figure 4 yes Figure 3 A schematic enlarged view of a central region A. See also Figure 4 The cylinder 210 may be provided with at least one swing component 220, which is used to electrically connect with the shielding feature of the door 300 as a connection shielding feature when the door 300 is in the closed state. In this invention, at least one can be one, two, or more than two.

[0036] Each swing assembly 220 may include a fixing member fixedly connected to the cylinder 210, a limiting shaft 221 fixed to the fixing member, a swing member 222 that can swing about the limiting shaft 221, and a torsion spring for causing the swing member 222 to return to its original position.

[0037] The swing member 222 can move from a first position to a second position under the action of the door 300 during the closing process, and maintains an electrical connection with the shielding features of the door 300 between the first and second positions to improve the reliability of electromagnetic shielding. The fixing member, the limiting shaft 221, and the swing member 222 can all be made of conductive material.

[0038] The cylinder 210 may also be provided with at least one cover 230. Each cover 230 may be provided on the outside of the cylinder 210 and cover one or more swing components 220.

[0039] The processing device 100 may also include a controller 450 for controlling the operation of the frequency source 410, the power amplifier 420 and the power supply module 440.

[0040] Figure 5 Looking from back to front Figure 2 A schematic isometric view of the central gate body 300; Figure 6 yes Figure 5 A schematic exploded view of the door 300 shown. See also Figures 3 to 6 The door body 300 may include a support member 310, a rear cover 320, a shielding plate 330, and at least one connecting plate.

[0041] The back cover 320 is located on the side of the support member 310 near the access opening, and together with the support member 310, forms an accommodating space. The drawer 350 may be located on the side of the back cover 320 away from the support member 310 and is integrally formed with the back cover 320.

[0042] The shielding plate 330 can be disposed within the accommodating space. Each connecting plate can be configured to be partially electrically connected to the shielding plate 330 and partially located outside the accommodating space to be electrically connected to the shielding features of the cylinder 210.

[0043] The support member 310 and the rear cover 320 may be made of insulating material, while the shielding plate 330 and the connecting plate may be made of conductive material, in order to reduce the heat transfer efficiency of the user-accessible parts of the door 300 while forming an effective and reliable shielding feature for the door 300. That is, the shielding feature of the door 300 includes the shielding plate 330 and the connecting plate.

[0044] In some embodiments, the projection of the shielding plate 330 onto an imaginary plane perpendicular to the pick-up and drop-off port may be at least partially located within the cylinder 210 to achieve a reliable metal closed loop with the cylinder 210, thereby reducing the requirements for the sealing performance of the door 300 and the cylinder 210.

[0045] The depth direction of the cylinder 210 is perpendicular to the loading and unloading port of the cylinder 210. In the illustrated embodiment, the depth direction is the front-to-back direction.

[0046] In some embodiments, each connecting plate may include a fixing part 341 and at least one connecting part 342.

[0047] The fixing part 341 can be fixedly connected to the rear cover 320 and located outside the accommodating space for fixing the connecting plate and / or making conductive contact with the swing member 222.

[0048] Each connection portion 342 may be configured to be partially located inside the accommodating space and electrically connected to the shielding plate 330.

[0049] The rear cover 320 may have at least one through hole. At least one connecting part 342 may be configured to pass through at least one through hole into the receiving space.

[0050] The back cover 320 may include a receiving portion 321 that arches away from the support 310 to form at least a partial receiving space.

[0051] The fixing part 341 can be fixedly connected to the peripheral plate 3212 of the receiving part 321. The angle between the fixing part 341 and the depth direction of the cylinder 210 can be 5° to 15°, for example 5°, 7° or 15°, so as to facilitate the swinging member 222 to swing and improve the reliability of the conductive connection between the connecting plate and the swinging member 222.

[0052] In some embodiments, the number of connecting plates may be multiple, specifically including two first connecting plates 340a and two second connecting plates 340b.

[0053] Two first connecting plates 340a can be respectively disposed on opposite sides of the rear cover 320, and their projections on an imaginary plane parallel to the pick-up and drop-out port are U-shaped.

[0054] The two second connecting plates 340b can be configured to seal the gap between the ends of the two first connecting plates 340a.

[0055] In some embodiments, the shielding plate 330 may include a body 331 and a flange 332.

[0056] The main body 331 can be disposed in the accommodating space formed by the accommodating part 321, that is, at least partially located inside the cylinder 210, forming a gap 3311 extending in the depth direction with the cylinder 210.

[0057] The flange 332 can be provided at the end of the main body 331 near the support member 310 (or the pick-up and drop-off port) and extend outward in the radial direction of the pick-up and drop-off port.

[0058] The flange 332 can be formed with a first step portion 3321 and a second step portion 3322.

[0059] The first step portion 3321 can be fixedly connected to the periphery of the opening of the receiving portion 321 to fix the shielding plate 330 itself.

[0060] The second step portion 3322 may be disposed on the side of the first step portion 3321 away from the support member 310, and configured to be electrically connected to the connecting portion 342 to improve connection reliability and structural compactness.

[0061] In some embodiments, the door 300 may further include a front cover 360. The front cover 360 may be disposed on the front side of the support member 310 and snapped to the support member 310, for covering the front surface, upper end surface and two lateral end surfaces of the support member 310.

[0062] In some embodiments, the door 300 may further include an upper trim panel 370. The upper trim panel 370 may be configured to be snapped into the front cover 360 and cover the upper end face and two lateral end faces of the front cover 360.

[0063] In some embodiments, the door 300 may further include a lower trim panel 380. The lower trim panel 380 may be configured to be snapped into connection with the support member 310 and form an upwardly recessed handle to facilitate the user opening and closing the door 300.

[0064] Figure 7 yes Figure 1 A schematic structural diagram of the detection module 600. (See attached diagram.) Figure 1 , Figure 3 and Figure 7 In particular, the processing device 100 may also include a detection module 600.

[0065] The detection module 600 can be disposed on the outside of the shielding feature to determine whether electromagnetic wave leakage has occurred in the processing device 100. In this invention, "electromagnetic wave leakage" means that the electromagnetic wave leakage exceeds a safety threshold.

[0066] The detection module 600 may include a detection circuit 610 and a conversion circuit 620.

[0067] The detection circuit 610 may be configured to emit light when electromagnetic wave leakage occurs in the processing device 100. The detection circuit 610 may include a light-emitting element 611.

[0068] The conversion circuit 620 can be configured to generate a reference signal based on the light intensity emitted by the light-emitting element 611, which is used to regulate the electromagnetic wave generating system and reduce the electromagnetic wave leakage of the processing device 100. The conversion circuit 620 may include a photosensitive element 621.

[0069] The electromagnetic wave processing device 100 of the present invention emits light when electromagnetic wave leakage occurs through the detection circuit 610. The conversion circuit 620 generates a reference signal based on the light intensity of the light emitted by the detection circuit 610. The electromagnetic wave generation system can then be adjusted according to the reference signal to reduce the amount of electromagnetic wave leakage. This not only effectively reduces the impact or interference on surrounding food and electrical devices, but also forms line isolation between the detection circuit 610 and the conversion circuit 620, preventing instantaneous damage to the conversion circuit 620 and other control components connected to the conversion circuit 620 when the amount of electromagnetic wave leakage is too large, thus further improving the reliability of the processing device 100.

[0070] In some embodiments, the photosensitive element 621 may be a photodiode. Correspondingly, the reference signal may be a voltage signal.

[0071] In other embodiments, the photosensitive element 621 may be a photoresistor. Accordingly, the reference signal may be a voltage signal or a current signal.

[0072] In some embodiments, the value of the reference signal may be proportional to the amount of electromagnetic wave leakage.

[0073] The controller 450 can be configured to stop the electromagnetic wave generation system from operating during the initial matching phase (by adjusting the frequency or impedance matching circuit to achieve impedance matching between the electromagnetic wave generation system and the object to be processed 500) when the value of the reference signal is greater than a first threshold, so as to stop electromagnetic wave leakage.

[0074] The controller 450 can also be configured to, during the continued processing phase (heating of the workpiece 500 after impedance matching), when the value of the reference signal is greater than a second threshold, control the electromagnetic wave generating system to reduce the power of the electromagnetic waves it generates or stop operating, so as to mitigate or stop electromagnetic wave leakage.

[0075] In the absence of electromagnetic wave leakage, the power of the electromagnetic waves generated by the electromagnetic wave generation system can be greater in the continued processing stage than in the initial matching stage, thereby improving the processing efficiency of the object 500.

[0076] The second threshold can be greater than the first threshold. The first threshold can correspond to an electromagnetic radiation density of 5 W / m².2 The second threshold can correspond to an electromagnetic radiation density of 40 W / m². 2 .

[0077] In some further embodiments, the controller 450 may be configured to, during the continued processing phase, when the value of the reference signal first appears to be greater than a second threshold, control the electromagnetic wave generating system to reduce the power of the electromagnetic waves it generates (e.g., reduce by 50%), and if the value of the reference signal is still greater than the second threshold after the power reduction, control the electromagnetic wave generating system to stop operating, so as to improve safety and user experience.

[0078] In some embodiments, the detection circuit 610 may further include a detection line 612 and a rectifier filter circuit 613.

[0079] The detection circuit 612 can be configured to acquire and process electrical signals related to electromagnetic wave leakage from the device 100; The rectifier and filter circuit 613 can be configured to convert the electrical signal collected by the detection line 612 into a DC signal and power the light-emitting element 611.

[0080] In some embodiments, the detection line 612 may include a receiving antenna disposed outside the shielding features of the door 300 and the cylinder 210 to receive leaked electromagnetic waves.

[0081] In other embodiments, the detection circuit 610 may be configured to be electrically connected to the shielding feature of the door 300 or the shielding feature of the cylinder 210 at a first connection point and a second connection point, i.e., the detection line 612 is an electrical connection. The distances between the first connection point and the second connection point and the grounding point of the shielding feature are different, so as to determine whether electromagnetic wave leakage has occurred in the processing device 100 by the induced voltage change of the shielding feature under the action of leakage electromagnetic waves.

[0082] In some further embodiments, the shielding feature of the cylinder 210 may be grounded to ensure the reliability of the electrical connection.

[0083] The detection circuit 610 can be configured to be electrically connected to the shielding feature of the door 300 to improve the sensitivity of electromagnetic wave leakage detection.

[0084] In some further embodiments, the detection circuit 610 may be configured to be electrically connected to the edge of the shielding plate 330 to improve the sensitivity of electromagnetic wave leakage detection.

[0085] Specifically, the one with the higher potential among the first connection point and the second connection point can be located at the end of the flange in the gap 3311.

[0086] Figure 8 This is a schematic isometric view of a refrigerator 800 according to an embodiment of the present invention; Figure 9 yes Figure 8 A schematic exploded view of the refrigerator 800 shown. See also Figure 8 and Figure 9 The present invention also provides a refrigerator 800. The refrigerator 800 may include a cabinet, at least one door 820, and a processing device 100 of any of the foregoing embodiments.

[0087] The enclosure may include an outer casing, at least one inner liner 810, and insulation material disposed between the outer casing and the inner liner 810. At least one door 820 is used to open and close the access port of at least one inner liner 810. The cylinder 210 and the door 300 may be disposed within one inner liner 810.

[0088] In some embodiments, the electromagnetic wave generating system may be at least partially disposed on the outside of the insulation material to facilitate heat dissipation. The conversion circuit 620 may be disposed in the inner liner 810 to facilitate electrical connection with the electromagnetic wave generating system.

[0089] The refrigerator 800 may also include a pre-embedded box 830 and an installation box 840. The pre-embedded box 830 may be disposed in the inner liner 810 and form an installation space recessed in a direction away from the cylinder 210 and the door 300.

[0090] The mounting box 840 can be secured to the mounting space of the pre-embedded box 830. The conversion circuit 620 can be installed inside the mounting box 840.

[0091] In some further embodiments, the detection circuit 610 may also be disposed within the mounting box 840 to reduce the influence of other light on the detection results. In this embodiment, the detection line 612 includes a receiving antenna.

[0092] In some further embodiments, the light-emitting element 611 may be fixed between the front cover 360 and the support member 310, so that the conversion circuit 620 can also sense changes in light intensity when the door 820 is opened, regulate the electromagnetic wave generating system, and reduce the impact of electromagnetic waves on the user.

[0093] The front cover 360 and the upper trim panel 370 are respectively provided with a transmission area 361 and a transmission area 371, so that the light emitted by the light-emitting element 611 can be transmitted to the outside of the door 300.

[0094] Figure 10 yes Figure 9 A schematic isometric view of the embedded box 830. See also Figure 10 In some embodiments, the inner liner 810 may have an installation opening 811. The embedded box 830 may include a body 831, a sealing plate 832, at least one lug 833, and at least one resilient buckle 834.

[0095] The main body 831 may include a base plate 8311, two first side plates 8312 connected to the base plate 8311 and disposed opposite to each other, and two second side plates 8313 connected to the two first side plates 8312 and connected to the base plate 8311, so as to define an installation space.

[0096] The sealing plate 832 may be configured to extend radially outward from the two first side plates 8312 and the two second side plates 8313, be disposed on the outside of the inner liner 810 and abut against the periphery of the mounting opening 811 to seal the mounting opening 811.

[0097] The lug 833 may be configured to extend radially outward from the end of a first side plate 8312 away from the bottom plate 8311, be disposed on the inner side of the inner liner 810 and abut against the periphery of the mounting opening 811, so as to limit the movement of the embedded box 830 in a direction perpendicular to the mounting opening 811. In the illustrated embodiment, the number of lugs 833 may be two.

[0098] A resilient snap fastener 834 may be disposed at the end of another first side plate 8312 away from the bottom plate 8311, configured to pass through the mounting opening 811 from the outside to the inside relative to the inner liner 810 and abut against the periphery of the mounting opening 811, so as to facilitate the installation of the embedded box 830, and further limit the movement of the embedded box 830 in a direction perpendicular to the mounting opening 811. In the illustrated embodiment, the number of resilient snap fasteners 834 may be one.

[0099] Figure 11 yes Figure 9 A schematic exploded view of the mounting box 840; Figure 12 It is a different perspective. Figure 11 Schematic exploded view of the upper middle cover 840b. See also Figures 10 to 12 In a further embodiment, the elastic buckle 834 may include a connecting portion 8341, a guide portion 8342, and a stop portion 8343.

[0100] The connecting part 8341 may be configured to extend from the first side plate 8312 in a direction away from the sealing plate 832.

[0101] The guide portion 8342 may be configured to extend obliquely from the extended end of the connecting portion 8341 toward the sealing plate 832, and the guide portion 8342 is located on the side of the connecting portion 8341 away from the lug 833, so as to guide the resilient snap 834 through the mounting opening 811.

[0102] The stop portion 8343 may be configured to extend obliquely from the extended end of the guide portion 8342 toward the connecting portion 8341, for abutting against the periphery of the mounting opening 811.

[0103] In some further embodiments, the projection of the resilient snap 834 onto the base plate 8311 may be at least partially located within the mounting space.

[0104] The mounting box 840 has at least one slide 841, which is configured to slide relative to at least one resilient snap 834 to guide the mounting box 840 into the pre-embedded box 830.

[0105] In some further embodiments, the first side plate 8312 with lug 833 may also be provided with at least one locking block 835.

[0106] The mounting box 840 is provided with at least one slot 842, which is used to engage with at least one locking block 835 to fix the mounting box 840 to the pre-embedded box 830.

[0107] In some further embodiments, the mounting box 840 may have at least one U-shaped groove 843. Each U-shaped groove 843 is configured to surround a bayonet 842 to improve the deformation capability of the periphery of the bayonet 842.

[0108] In some further embodiments, the mounting box 840 may be provided with at least one limiting rib 844 for abutting against the periphery of the opening of the body 831 to define the position of the mounting box 840 in the pre-embedded box 830 in a direction perpendicular to the mounting opening 811.

[0109] In some further embodiments, the two second side plates 8313 of the main body 831 may each be provided with at least one locking block 835 for engaging with the mounting box 840 to improve the stability of the mounting box 840. In the illustrated embodiment, the number of locking blocks 835 may be three, respectively provided on the two second side plates 8313 and the first side plate 8312 provided with lugs 833.

[0110] In some embodiments, the mounting box 840 may include a lower box 840a for fixing the detection module 600, and an upper cover 840b disposed on the side of the lower box 840a away from the base plate 8311.

[0111] The U-shaped groove 843 can be formed by combining the lower box 840a and the upper cover 840b to reduce production costs.

[0112] In some further embodiments, the lower box 840a may be provided with a plurality of latches 845. The plurality of latches 845 may be respectively provided on two circumferential side plates of the lower box 840a near the two second side plates 8313 to improve the structural strength of the mounting box 840.

[0113] The top cover 840b may have multiple slots 846 correspondingly provided, which are used to secure with multiple latches 845 respectively.

[0114] In some embodiments, the inner liner 810 may have two symmetrical mounting openings 811. Each mounting opening 811 is provided with a pre-embedded box 830 to facilitate assembly of the whole machine and flexible adjustment of the device position.

[0115] Therefore, those skilled in the art should recognize that although numerous exemplary embodiments of the present invention have been shown and described in detail herein, many other variations or modifications conforming to the principles of the present invention can be directly determined or derived from the disclosure of the present invention without departing from the spirit and scope of the invention. Thus, the scope of the present invention should be understood and construed as covering all such other variations or modifications.

Claims

1. An electromagnetic wave processing device, comprising: A cylindrical container used to hold the material to be processed; The door is used to open and close the loading and unloading port of the cylinder, and the cylinder and the door are respectively provided with shielding features; An electromagnetic wave generating system is at least partially disposed within or extends into the cylinder to process the object to be processed via electromagnetic waves. as well as A detection module, disposed on the outside of the shielding feature, is used to determine whether the processing device experiences electromagnetic wave leakage; wherein, the detection module includes: A detection circuit, configured to emit light when electromagnetic wave leakage occurs in the processing device, includes a light-emitting element; and A conversion circuit is configured to generate a reference signal based on the light intensity emitted by the light-emitting element, used to regulate the electromagnetic wave generating system to reduce electromagnetic wave leakage of the processing device. The conversion circuit includes a photosensitive element, and the value of the reference signal is proportional to the electromagnetic wave leakage. In the initial matching phase of achieving impedance matching between the electromagnetic wave generating system and the object to be processed, the electromagnetic wave generating system is configured to stop operating when the value of the reference signal exceeds a first threshold; and In the subsequent processing stage after impedance matching, where the object to be processed is heated, the electromagnetic wave generating system is configured to reduce the power of its generated electromagnetic waves or stop operating when the value of the reference signal exceeds a second threshold; wherein, If no electromagnetic wave leakage occurs in the processing device, the power of the electromagnetic wave generated by the electromagnetic wave generation system is greater in the continued processing stage than in the initial matching stage, and the second threshold is greater than the first threshold.

2. The electromagnetic wave processing device according to claim 1, wherein, The photosensitive element is a photodiode or a photoresistor.

3. The electromagnetic wave processing device according to claim 1, wherein, The detection circuit further includes: The detection circuit is configured to collect electrical signals related to electromagnetic wave leakage from the processing device; and The rectifier and filter circuit is configured to convert the electrical signal acquired by the detection line into a DC signal and to power the light-emitting element.

4. The electromagnetic wave processing device according to claim 1, wherein, The shielding feature is set to ground; and The detection circuit is configured to be electrically connected to the shielding feature at a first connection point and a second connection point, wherein the distances between the first connection point and the second connection point and the grounding point of the shielding feature are different.

5. The electromagnetic wave processing device according to claim 4, wherein, The door body includes: A shielding plate is disposed at the opening of the cylinder, serving as at least part of the shielding feature of the door; wherein the shielding plate comprises: The main body, at least partially disposed within the cylinder, forms a gap with the shielding features of the cylinder extending along the depth direction of the cylinder; and A flange is provided at the end of the main body near the pick-and-place opening and extends outward in the radial direction of the pick-and-place opening; wherein, The one with the higher potential between the first connection point and the second connection point is located at the portion of the flange located at the end of the gap.

6. A refrigerator, comprising: The enclosure includes at least one inner liner; At least one door for opening and closing the opening for taking out or putting in the at least one inner liner; as well as According to any one of claims 1-3, the cylinder and the door are disposed within one of the inner liner; wherein, The conversion circuit is located in the inner liner.

7. The refrigerator according to claim 6, wherein, The inner liner is provided with a pre-embedded box, which forms an installation space recessed away from the cylinder and the door; and the refrigerator also includes: The mounting box is secured in the mounting space of the pre-embedded box, and the conversion circuit is located inside the mounting box.

8. The refrigerator according to claim 7, wherein, The detection circuit is located in the mounting box.

9. The refrigerator according to claim 6, wherein, The door body includes: Support components; The rear cover is disposed on the side of the support member near the opening, and together with the support member, forms an accommodating space; A shielding plate, disposed in the accommodating space, serves as at least part of the shielding feature of the door; and A front cover is disposed on the front side of the support member, and the light-emitting element is fixed between the front cover and the support member; wherein, The front cover is provided with a transmissive area so that the light emitted by the light-emitting element can be transmitted to the outside of the door.

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