KR20240006399A - Food waste dispoeser - Google Patents

Abstract

A food waste disposal machine is started. The disclosed food waste disposer includes a cover housing, a processing device located within the cover housing to accommodate food waste, an exhaust pipe configured to be connected to the processing device to guide air containing moisture, and capable of collecting condensate in the exhaust pipe; , a water storage container removable outside the cover housing, a water storage housing configured to detachably accommodate the water storage container, and a water storage container coupled to the water storage housing, when located adjacent to the water storage container, the amount of condensate collected in the water storage container. and a sensor module including a water level sensor configured to output a signal regarding the water level, wherein the water level sensor detects the level of condensate in the water storage container by contacting the water storage container when the water storage container is accommodated in the cover housing. It may be configured to detect.

Description

Food waste disposer{FOOD WASTE DISPOESER}

This disclosure relates to a food waste disposer. More specifically, the invention relates to a food waste disposal device that includes a water storage device configured to store condensate generated while processing food waste.

A food waste processor is a device that processes food waste by drying, stirring, and pulverizing the food waste.

A food waste processor may include a processing device in which food waste is dried, stirred, and pulverized.

The food waste processor may be provided with an exhaust pipe that defines an exhaust flow path connected to the grinding device to discharge odors generated during the food waste treatment process to the outside.

Moisture in the air passing through the exhaust passage may condense and liquefy into condensate. The food waste disposer may include a water storage device including a water storage container to collect condensate. A storage space may be defined to store condensate in a storage container.

One aspect of the present disclosure is to provide a food waste disposer that can easily clean the water storage container by having a detachable water storage container.

One aspect of the present disclosure is to provide a food waste disposer equipped with a water level sensor that does not interfere with the movement of the water storage container during the process of separating the water storage container to the outside.

One aspect of the present disclosure is to provide a food waste disposer in which condensate does not leak from the water storage container during the process of separating the water storage container to the outside even if the water level sensor is located inside the housing.

One aspect of the present disclosure seeks to provide a food waste disposer configured to position a water level sensor close to the condensate detected by the water level sensor.

One aspect of the present disclosure is to provide a food waste disposer that can indirectly pressurize the water level sensor toward condensate to prevent damage to the water level sensor.

One aspect of the present disclosure seeks to provide a food waste disposer including a sensor module configured to easily accommodate a water level sensor therein.

The technical problems to be achieved in this document are not limited to the technical problems mentioned above, and other technical problems not mentioned can be clearly understood by those skilled in the art from the description below. There will be.

In order to solve the above problem, a food waste disposer according to the spirit of the present disclosure includes a cover housing, a processing device located within the cover housing to accommodate food waste, and a processing device connected to the processing device to guide air containing moisture. An exhaust pipe configured to collect condensate in the exhaust pipe, a water storage container removable outside the cover housing, and, when located adjacent to the water storage container, configured to output a signal regarding the level of condensate collected in the water storage container. It includes a sensor module including a water level sensor. When the water storage container is separated from the sensor module, condensed water in the water storage container may be prevented from leaking outside the water storage container.

The water storage container is located within the cover housing and may be movable between a receiving position in contact with the sensor module and a separation position located outside the cover housing.

A water storage space for accommodating condensed water in the water storage container is defined, and the water level sensor can be prevented from being positioned on the water storage space when the water storage container is in the receiving position.

The water storage container has an opposing container surface facing the sensor module when the water storage container is in the receiving position, and the sensor module faces the opposing container surface so as to be in close contact with the water storage container when the water storage container is in the receiving position. , may have an opposing module surface corresponding to the opposing container surface.

The sensor module may further include a pressing member configured to press the water level sensor in a direction toward the water storage container when the water storage container is in the receiving position.

The sensor module includes a case in which the water level sensor is located inside,

The pressing member may indirectly press the water level sensor in a direction toward the water storage container by pressing the case when the water storage container is in the receiving position.

It further includes a water storage housing capable of accommodating the water storage container, and the sensor module further includes a first case in which the water level sensor can be positioned inside and a second case coupleable to the water storage housing, and the first case is It may be coupled to the second case so as to be able to move forward and backward relative to the second case.

The pressing member may be positioned between the first case and the second case to elastically support the first case in a direction toward the water storage container by being compressed when the water storage container is in the receiving position.

The first case may be moved from the first case position to a second case position spaced apart in the receiving direction while the water storage container is moved from the separated position in the receiving direction toward the receiving position.

It may include a first part case having an opening so that the water level sensor can be seated, and a second part case detachably coupled to the first part case to prevent the water level sensor from being removed from the first part case. .

The water storage housing has a first opposing housing surface that faces the water storage container when the water storage container is in the receiving position, and a second opposing housing surface that is opposite to the first opposing housing surface, and the second case includes: It may include two case bodies, a support flange portion bent from the second case body and capable of contacting the first opposing housing surface, and a support protrusion extending from the second case body and capable of supporting the second opposing housing surface.

A guide slit extending in a direction from the separation position of the water storage container toward the receiving position is defined in the second case, and the first case is guided by the guide slit, at least a portion of which can be accommodated in the guide slit. It may include slit protrusions.

The sensor module may further include a pressure damper positioned between the first case and the pressing member so that the pressure applied to the first case by the pressing member is evenly distributed.

It further includes a heating device configured to heat the processing device to evaporate moisture of the food waste contained in the processing device, and an exhaust fan configured to be coupled to the exhaust pipe to move air containing moisture in the processing device to the exhaust pipe. can do.

The water storage container may be positioned in the direction of gravity with respect to the exhaust pipe so that condensed water generated in the exhaust pipe is concentrated.

A food waste disposer according to the spirit of the present disclosure includes a cover housing, a processing device located within the cover housing, a heat generating device configured to heat the processing device, an exhaust pipe configured to be connected to the processing device, and capable of collecting condensate in the exhaust pipe. and a water storage container that is movable from a receiving position located within the cover housing to a separation position located outside the cover housing, and when located adjacent to the water storage container, outputs a signal regarding the level of condensate collected in the water storage container. and a water level sensor configured to press the water level sensor in a direction toward the water storage container. When the water storage container is spaced apart from the water level sensor, condensed water in the water storage container can be prevented from leaking out of the water storage container.

It further includes a case capable of accommodating the water level sensor, wherein the pressing member includes a pressing motor, a gear configured to be coupled to a rotation axis of the pressing motor, and meshes with the gear, and the gear rotates to pressurize the case. Possible racks may be included.

The water level sensor may be in contact with the outer surface of the water storage container and may output a signal regarding the level of condensate in the water storage container according to a change in capacitance of the water storage container.

A water storage container hole is defined on the water storage container, the water level sensor protrudes on the water storage container to be retractable through the water storage container hole, and a valve is located within the water storage container and positioned adjacent to the water storage container hole. A case, a water reservoir valve whose movement is guided by the valve case, a valve elastic member positioned between the valve case and the water reservoir valve to enable compression, and a valve sealing member that seals between the water reservoir hole and the water reservoir valve. may further include.

A food waste disposer according to the spirit of the present disclosure includes a cover housing, a processing device located within the cover housing to accommodate food waste to be processed, an exhaust pipe configured to be connected to the processing device to guide air containing moisture, and A sensor module including a water storage container configured to collect condensate in the exhaust pipe, a water level sensor located within the cover housing and configured to, when in contact with the water storage container, output a signal regarding the level of condensate collected in the water storage container. Includes.

According to an embodiment of the present disclosure as a means of solving the above problem, the food waste disposer includes a water storage device connected to the exhaust flow path, and the water storage device is capable of removably receiving the water storage container, so that the water storage container can be separated. .

According to one embodiment of the present disclosure, the food waste disposer includes a water level sensor that prevents contact with the water storage container while the water storage container moves in the separation direction, so that the movement of the water storage container is not hindered.

According to an embodiment of the present disclosure, the food waste disposer includes a water level sensor capable of measuring the water level of condensate in contact with the outside of the water storage container even if the water level sensor is located inside the housing, so that in the process of separating the water storage container to the outside, , the aim is to provide a food waste disposer that does not leak condensate from the water storage container.

According to one embodiment of the present disclosure, the food waste disposer includes a pressing member capable of moving the water level sensor in a direction toward condensate, thereby positioning the water level sensor close to the condensate detected by the water level sensor.

According to an embodiment of the present disclosure, the food waste disposer is a case that can accommodate the water level sensor inside, and includes a case in which the water level sensor moves together when the case is pressed, thereby indirectly pressing the water level sensor toward the condensate, thereby adjusting the water level Sensor damage can be prevented.

According to an embodiment of the present disclosure, a food waste disposer includes a first part case that can accommodate the water level sensor inside and a second part case that can be assembled with the first part case so that the water level sensor is not removed to the outside. By including, it is possible to provide a sensor module configured to easily accommodate the water level sensor in the first case.

The effects that can be obtained from the present disclosure are not limited to the effects mentioned above, and other effects not mentioned can be clearly understood by those skilled in the art from the description below. will be.

1 is a perspective view showing a food waste disposer from the front according to an embodiment of the present disclosure.
FIG. 2 is a perspective view showing the cover device of the food waste disposer shown in FIG. 1 from the front in an open state.
FIG. 3 is a perspective view of the food waste disposer shown in FIG. 1 from the rear.
FIG. 4 is a cross-sectional view of the food waste disposer shown in FIG. 1.
Figure 5 is an enlarged view of part A of the food waste disposer of Figure 4.
FIG. 6 is an exploded view showing a partial configuration of the food waste disposer shown in FIG. 1 from the front.
FIG. 7 is an exploded perspective view of a portion of the food waste disposer shown in FIG. 1 from the rear.
FIG. 8 is a diagram illustrating the air flow path from the rear during the sterilization process of the food waste disposer shown in FIG. 1.
FIG. 9 is a diagram illustrating the air flow path from the rear during the food waste disposal process of the food waste disposer shown in FIG. 8.
FIG. 10 is a side view showing the air flow path of the food waste disposer shown in FIG. 9.
FIG. 11 is a perspective view showing a water storage device of the food waste disposer shown in FIG. 9.
FIG. 12 is a perspective view showing the water storage container separated from the water storage device of the food waste disposer shown in FIG. 11.
FIG. 13 is a perspective view showing the water storage device of the food waste disposer shown in FIG. 11 as seen from the rear.
FIG. 14 is an exploded view of the water storage device of the food waste disposer shown in FIG. 13.
FIG. 15 is a cross-sectional perspective view showing a cross-section of the food waste disposer shown in FIG. 13.
FIG. 16 is a perspective view showing the sensor module of the food waste disposer shown in FIG. 13.
FIG. 17 is an exploded view showing the sensor module of the food waste disposer shown in FIG. 16.
FIG. 18 is a cross-sectional perspective view showing a cross-section of the sensor module of the food waste disposer shown in FIG. 16.
FIG. 19 is a perspective view showing the sensor module of the food waste disposer shown in FIG. 16 mounted on a water storage housing.
FIG. 20 is a cross-sectional view showing the water storage container separated from the water storage device of the food waste disposer shown in FIG. 11.
FIG. 21 is a cross-sectional view showing a water storage container accommodated in the water storage device of the food waste disposer shown in FIG. 20.
FIG. 22 is an enlarged view of the sensor module in the water storage device of the food waste disposer shown in FIG. 21.
FIG. 23 is a cross-sectional view of the water storage device of the food waste disposer shown in FIG. 20 cut from another direction.
FIG. 24 is an enlarged cross-sectional view showing the sensor module in the water storage device of the food waste disposer shown in FIG. 23.
FIG. 25 is a control block diagram showing how the water level sensor shown in FIG. 23 operates.
Figure 26 is an enlarged cross-sectional view of the sensor module of a food waste disposer according to an embodiment of the present disclosure.
Figure 27 is an enlarged cross-sectional view of the sensor module of a food waste disposer according to an embodiment of the present disclosure.
Figure 28 is an enlarged cross-sectional view of the sensor module of a food waste disposer according to an embodiment of the present disclosure.
Figure 29 is an exploded view showing a portion of a first case and a second case of a food waste disposer according to an embodiment of the present disclosure.
Figure 30 is an exploded view showing a portion of a first case and a second case of a food waste disposer according to an embodiment of the present disclosure.
Figure 31 is an exploded view showing a valve module of a food waste disposer according to an embodiment of the present disclosure.
FIG. 32 is a cross-sectional view showing the water storage container equipped with the valve module of the food waste disposer shown in FIG. 31 in a receiving position.
FIG. 33 is a cross-sectional view showing the water storage container equipped with the valve module of the food waste disposer shown in FIG. 31 in a separated position.

The various embodiments of this document and the terms used herein are not intended to limit the technical features described in this document to specific embodiments, and should be understood to include various changes, equivalents, or replacements of the embodiments.

In connection with the description of the drawings, similar reference numbers may be used for similar or related components.

The singular form of a noun corresponding to an item may include one or more of the above items, unless the relevant context clearly indicates otherwise.

As used herein, “A or B”, “at least one of A and B”, “at least one of A or B”, “A, B or C”, “at least one of A, B and C”, and “A Each of phrases such as “at least one of , B, or C” may include any one of the items listed together in the corresponding phrase, or any possible combination thereof.

The term “and/or” includes any element of a plurality of related described elements or a combination of a plurality of related described elements.

Terms such as "first", "second", or "first" or "second" may be used simply to distinguish one element from another, and may be used to distinguish such elements in other respects, such as importance or order) is not limited.

One (e.g. first) component is said to be "coupled" or "connected" to another (e.g. second) component, with or without the terms "functionally" or "communicatively". Where mentioned, it means that any of the components can be connected to the other components directly (e.g. wired), wirelessly, or through a third component.

Terms such as “include” or “have” are intended to designate the presence of features, numbers, steps, operations, components, parts, or combinations thereof described in this document, but are not intended to include one or more other features, numbers, or steps. , does not exclude in advance the possibility of the existence or addition of operations, components, parts, or combinations thereof.

When a component is said to be “connected,” “coupled,” “supported,” or “in contact” with another component, this means not only when the components are directly connected, coupled, supported, or in contact, but also when a third component This includes cases where it is indirectly connected, coupled, supported, or contacted through.

When a component is said to be located “on” another component, this includes not only cases where a component is in contact with another component, but also cases where another component exists between the two components.

Meanwhile, the terms “up and down direction,” “bottom side,” and “front and back direction” used in the following description are defined based on the drawings, and the shape and location of each component are not limited by these terms.

Specifically, as shown in FIG. 2, the direction in which the grip portion of the food waste disposer 1 faces is defined as the front, and the rear, left and right sides, and top and bottom sides are defined based on this direction.

Food described below may refer to items that can be eaten by humans or animals. However, food may not be limited to what is edible. Food can be organic. However, anything can become food, even if it is inorganic, as long as it contains moisture.

Food waste can refer to food that has lost its usefulness. For example, it can refer to leftover food after a meal or food that has been unopened for a long time.

The food waste disposer 1 may refer to a device capable of processing food waste. For example, it may refer to a device that grinds food to reduce the volume of food waste or evaporates moisture from food to reduce the weight of food waste.

Hereinafter, embodiments according to the present invention will be described in detail with reference to the attached drawings.

1 is a perspective view showing a food waste disposer from the front according to an embodiment of the disclosed invention. Figure 2 is a perspective view showing the cover device of the food waste disposer in an open state from the front according to an embodiment of the disclosed invention. Figure 3 is a perspective view showing a food waste disposer from the rear according to an embodiment of the disclosed invention.

Referring to FIGS. 1 to 3 , the food waste disposer 1 may include a housing 10 and a cover device 30 that covers the top of the housing 10 .

The housing 10 may form the exterior of the food waste disposer 1. For example, the housing 10 may include a base housing 900 and a first cover housing 12 and a second cover housing 13 disposed on the base housing 900.

The base housing 900 may form the bottom surface 412 of the food waste disposer 1, and the first cover housing 12 and the second cover housing 13 may form the side surface of the food waste disposer 1. can do.

The base housing 900, the first cover housing 12, and the second cover housing 13 may be separably coupled.

1 to 3, the first cover housing 12 and the second cover housing 13 are shown as being formed separately, but this is not limited to this, and the first cover housing 12 and the second cover housing 13 are It can also be formed integrally.

A user or an installer can easily access various parts disposed inside the food waste disposer 1 by separating the first cover housing 12 and the second cover housing 13 from the base housing 900.

The first cover housing 12 of the food waste disposer 1 may include a storage device receiving portion 121a and a grip groove 122a.

The storage device receiving portion 121a may be formed by opening a portion of the front of the first cover housing 12. The storage device receiving portion 121a may be provided to accommodate the storage case 81 of the storage device 80, which will be described later. The storage case 81 may be provided to be withdrawn forward or retracted backward with respect to the storage device receiving portion 121a.

For example, the storage case 81 may slide along the front-back direction of the food waste disposer 1 and be withdrawn from or retracted into the storage device accommodating portion 121a.

A gripping portion 83 capable of being gripped may be formed on the exposed portion 82 of the storage case 81.

The exposed portion 82 of the storage case 81 may form the front of the storage case 81. The exposed portion 82 of the storage case 81 may be exposed to the outside of the food waste disposer 1 through the storage device receiving portion 121a of the first cover housing 12.

The holding part 83 of the storage case 81 may have a shape that is recessed from the front to the rear of the exposed part 82 of the storage case 81.

Although not shown in the drawing, the exposed portion 82 of the storage case 81 may include a window. The user can visually check the amount of food waste collected inside the storage case 81 through a window made of transparent material.

The grip groove 122a of the first cover housing 12 may be formed by cutting a portion of the first cover housing 12. The user can hold the food waste disposer 1 through the grip groove 122a and move the position of the food waste disposer 1.

The food waste disposer 1 may include a housing discharge portion 131a provided at the rear of the second cover housing 13.

The housing discharge portion 131a may be provided to communicate with the filter discharge portion 153 (see FIG. 4) of the filter assembly 150. Through this, the air filtered inside the filter assembly 150 can be discharged to the outside of the food waste disposer 1 through the filter discharge part 153 and the housing discharge part 131a.

A water storage container 530 may be disposed below the filter assembly 150. The water storage container 530 may be detachably mounted on the base housing 900. The water storage container 530 may be provided to collect condensed water generated from the deodorizing device 100. Detailed information regarding this will be described later.

The food waste disposer 1 may include a hinged housing 14. The hinge housing 14 may be provided to connect the housing 10 and the cover device 30. For example, the hinge housing 14 may be connected to the cover device 30 and coupled to the second cover housing 13 . Accordingly, the cover device 30 can be provided to be rotatable with respect to the housing 10 through the configuration of the hinge housing 14 .

The cover device 30 may be provided to open or close the open upper surface of the housing 10. The cover device 30 may be rotatably mounted on the housing 10 to cover the upper portion of the housing 10.

For example, the cover device 30 may be provided to cover the open upper surfaces of the first cover housing 12 and the second cover housing 13.

The cover device 30 may be mounted on the housing 10 to cover the top of the processing device 40. The cover device 30 may be provided to transfer the air within the processing device 40 to the deodorizing device 100 with the housing 10 closed. Detailed information regarding this will be described later.

Figure 4 is a cross-sectional view of a food waste disposer according to an embodiment of the disclosed invention. Figure 5 is an enlarged view of part A of Figure 4.

Hereinafter, the overall configuration of the food waste disposer 1 according to an embodiment of the disclosed invention will be described with reference to FIGS. 1 to 5.

Referring to FIGS. 4 and 5, the food waste disposer 1 includes a cover device 30 mounted on the outside of the housing 10 to open or close the upper surface of the processing device 40, and the inside of the housing 10. It may include a processing device 40 accommodated in.

The cover device 30 may include a top plate 31, an upper frame 32, a middle frame 33, and a lower frame 34.

The top plate 31 may form the upper surface of the food waste disposer 1. For example, when the cover device 30 closes the upper part of the housing 10, the top plate 31 may be provided on the upper surface of the food waste disposer 1. The top plate 31 may form the upper exterior of the food waste disposer 1.

The upper frame 32, middle frame 33, and lower frame 34 may be disposed below the top plate 31. The upper frame 32 may be combined with the middle frame 33. The middle frame 33 may be combined with the lower frame 34. The middle frame 33 may be disposed between the upper frame 32 and the lower frame 34.

A predetermined accommodation space may be formed between the upper frame 32 and the middle frame 33. A predetermined accommodation space may be formed between the middle frame 33 and the lower frame 34.

For example, the upper frame 32 and the middle frame 33 may be combined to form a space spaced apart at regular intervals up and down. Additionally, the middle frame 33 and the lower frame 34 may be combined to form spaces spaced apart at regular intervals up and down.

Cover device 30 may include a cover frame 36 and a cover gasket 35.

The cover frame 36 may form the lower surface of the cover device 30. The cover frame 36 may be provided in a size that can be accommodated in the food waste inlet at the top of the processing device 40. The cover frame 36 may include an inlet hole 361 (see FIG. 2) through which air flows from the processing device 40. Air inside the processing device 40 may flow through the inlet hole 361 of the cover frame 36 to the guide duct 37, which will be described later.

The cover frame 36 may be provided in a shape corresponding to the inlet of the processing device 40. Referring to FIG. 2, as the inlet of the processing device 40 is provided in a circular shape, the cover frame 36 may also be provided in a circular shape. However, the shape of the cover frame 36 and the inlet of the processing device 40 is not limited to this.

The cover gasket 35 may be arranged to cover the outer edge of the cover frame 36.

The cover gasket 35 may be provided to seal between the cover frame 36 and the inlet of the processing device 40. The cover gasket 35 may be provided to contact the upper edge of the processing device 40.

For example, the cover gasket 35 may be provided to prevent air in the processing device 40 from leaking out of the cover device 30 when the cover device 30 closes the upper part of the housing 10. there is. Accordingly, the cover gasket 35 may be provided to prevent air containing contaminants inside the processing device 40 from leaking out of the food waste disposer 1 without passing through the deodorizing device 100.

The cover gasket 35 may be made of a material having a predetermined elasticity.

The cover device 30 may be provided to be rotatable with respect to the housing 10 based on the cover device rotation axis 3. For example, the cover device rotation axis 3 may be coupled to the hinge housing 14 so that the cover device 30 can rotatably open or close the upper part of the housing 10 .

However, the operation of the cover device 30 is not limited to this, and the upper part of the housing 10 can be opened or closed by sliding or completely separating from the housing 10 without a separate hinge housing 14.

Cover device 30 may include a locking member 4.

The locking member 4 may be mounted on the middle frame 33. The locking member 4 may be provided to be elastically movable along the front-back direction of the food waste disposer 1.

The locking member 4 may be provided to be inserted into the receiving frame 21, which will be described later. Accordingly, the locking member 4 may be provided to maintain the closed state of the cover device 30 when the cover device 30 closes the upper part of the housing 10.

However, the shape of the locking member 4 is not limited to this, and the locking member 4 may be provided in a hook shape to temporarily fix the position of the cover device 30.

The cover device 30 may include a circulation fan 2, a fan rotation shaft 8, and a fan driving unit 6.

The circulation fan (2) may be disposed between the middle frame (33) and the lower frame (34). The fan driving unit 6 may be disposed between the upper frame 32 and the middle frame 33.

The fan rotation shaft 8 may be provided to connect the fan drive unit 6 and the circulation fan 2 to transmit the power of the fan drive unit 6 to the circulation fan 2. The fan rotation shaft 8 may pass through the middle frame 33 and be coupled to the circulation fan (2).

The circulation fan 2 may be provided on the upper side of the processing device 40 so that the heat inside the grinding case 41 of the processing device 40 can be evenly spread.

For example, as the heat generating device 60 provided at the lower portion of the processing device 40 heats the processing device 40, the food waste inside the processing device 40 may be heated.

At this time, the portion of the food waste inside the processing device 40 adjacent to the heating device 60 is heated more. Accordingly, heat may be transferred unevenly to the food waste contained in the processing device 40.

Therefore, by disposing the circulation fan 2 on the cover device 30, the heat inside the processing device 40 can be circulated evenly. In other words, the circulation fan 2 may be provided to cause a convection phenomenon inside the grinding case 41.

Accordingly, the temperature inside the grinding case 41 can be made almost uniform regardless of its location, and the drying efficiency of the food waste contained inside the grinding case 41 can be improved.

Cover device 30 may include a guide duct 37 .

The guide duct 37 may be provided to penetrate the lower frame 34. The guide duct 37 may be provided to rotate together with the cover device 30 as the cover device 30 rotates.

For example, when the cover device 30 closes the upper part of the housing 10, one end of the guide duct 37 may be arranged to face the inside of the crushing case 41 together with the cover frame 36. .

For example, when the cover device 30 closes the upper part of the housing 10, one end of the guide duct 37 may be provided to face downward.

The guide duct 37 may be mounted inside the cover device 30. One end of the guide duct 37 may be fixed to the lower frame 34. One end of the guide duct 37 may be open toward the cover frame 36. The other end of the guide duct 37 may be coupled to the connecting duct 38, which will be described later.

The guide duct 37 may extend in a curved shape. However, the shape of the guide duct 37 is not limited to this. For example, it is enough for the guide duct 37 to be shaped so as to guide the air in the pulverizing case 41 to the exhaust pipe.

The guide duct 37 may form a guide passage G through which air of the processing device 40 flows. The guide passage G may be in communication with the processing device 40. More specifically, one end of the guide duct 37 is provided to be open toward the cover frame 36, so that the air of the processing device 40 flowing in through the inlet hole 361 of the cover frame 36 is guided. It may flow into the duct (37).

The cover device 30 may include a connecting duct 38 and a duct sealing member 39.

The connecting duct 38 may be coupled to the other end of the guide duct 37. For example, the connecting duct 38 may be coupled to the rear end of the guide duct 37. The connecting duct 38 may be coupled to the duct mounting portion 341 of the lower frame 34.

The connecting duct 38 may be provided to connect the guide duct 37 accommodated in the cover device 30 and the exhaust portion 213 formed in the receiving frame 21. One end of the connecting duct 38 is connected to the guide duct 37, and the other end of the connecting duct 38 may protrude to the outside of the cover device 30 through the duct mounting portion 341.

Connecting duct 38 may include a pusher 381. The pusher 381 may protrude outward from the rear of the cover device 30.

The pusher 381 may be provided to press the blocking member 92 that maintains the exhaust portion 213 of the receiving frame 21, which will be described later, in a closed state. Detailed information regarding this will be described later.

The duct sealing member 39 may be coupled to the other end of the connecting duct 38. For example, the duct sealing member 39 may be coupled to a portion of the connecting duct 38 protruding to the outside of the cover device 30 through the duct mounting portion 341.

The duct sealing member 39 may be provided to seal between the connecting duct 38 of the cover device 30 and the exhaust portion 213 of the receiving frame 21. The duct sealing member 39 is such that when the cover device 30 closes the upper part of the housing 10, the air flowing into the connecting duct 38 through the guide duct 37 flows through the connecting duct 38 and the exhaust section ( 213) can be provided to prevent leakage through the gap between the two. Therefore, air containing contaminants may not leak to the outside without passing through the deodorizing device.

The processing device 40 is disposed below the cover device 30 and can be opened or closed by the cover device 30 .

The processing device 40 may include a grinding case 41 in which food waste is processed. Food waste processing can be used as a term to refer to the drying, stirring, and grinding operations of food waste. Alternatively, food waste processing may be used as a term referring to one of drying, stirring, or grinding of food waste.

The processing device 40 may be provided to accommodate food waste. The processing device 40 may be disposed inside the housing 10 and be detachably provided outside the housing 10 . Processing device 40 may include a handle 413 . The user may grasp the handle 413 to separate the processing device 40 from the inside of the housing 10 to the outside.

The upper part of the grinding case 41 may be open to form an inlet. The user can input food waste into the processing device 40 through the inlet of the grinding case 41.

The inlet of the grinding case 41 may be closed by the cover frame 36 of the cover device 30. The cover gasket 35 of the cover device 30 may be provided to seal the gap between the inlet of the grinding case 41 and the cover frame 36.

The grinding case 41 may include a side wall 411 and a bottom surface 412.

A fixed grinder 43 may be mounted on the side wall 411 of the grinding case 41. A rotary grinder 42 may be connected to the first driving device 72 and rotatably disposed on the bottom surface 412 of the grinding case 41.

The rotating grinder 42 and the fixed grinder 43 may be provided to grind food waste through interaction with each other.

The rotary grinder 42 may include a rotary body 421 to which the grinder shaft 71 of the first driving device 72 is coupled. The rotary grinder 42 may include a first grinder 422, a second grinder 423, and a third grinder 424 extending in the radial direction from the rotary body 421. The first grinder 422, the second grinder 423, and the third grinder 424 may be arranged at different heights to stir and grind food waste.

In FIG. 4, the rotary grinder 42 is shown as including a first grinder 422 to a third grinder 424, but the number of grinders is not limited thereto.

A transfer unit 4121 may be formed on the bottom surface 412 of the grinding case 41. The transfer unit 4121 may be formed by cutting a portion of the bottom surface 412 of the grinding case 41. Food waste processed inside the grinding case 41 may be transferred to the storage device 80 through the transfer unit 4121.

A rotating shaft receiving portion 4122 may be formed on the bottom surface 412 of the grinding case 41. The rotation axis receiving portion 4122 may be formed to extend upward from the center of the grinding case 41. The grinder shaft 71 of the first driving device 72 is inserted into the rotation axis receiving portion 4122 to transmit power to the rotation body 421 of the rotation grinder 42.

Processing device 40 may include a valve assembly 44 .

The valve assembly 44 may include a valve case 441 and a ball valve 442.

The valve case 441 may be coupled to the lower part of the grinding case 41. The valve case 441 may be coupled to the grinding case 41 at a position in communication with the transfer unit 4121 of the grinding case 41.

The valve case 441 may be provided to accommodate the ball valve 442 therein. Specifically, the valve case 441 may cover the outside of the ball valve 442 so that the ball valve 442 can rotate inside.

The ball valve 442 may be rotatably provided inside the valve case 441. The ball valve 442 may be provided to open and close the transfer unit 4121 of the grinding case 41 through rotation.

The ball valve 442 may pass through the transfer unit 4121 of the grinding case 41 and be disposed to protrude upward from the bottom surface 412 of the grinding case 41. Accordingly, the lower surface of the third grinder 424 of the rotary grinder 42 may be recessed inward to correspond to the protruding shape of the ball valve 442. The third grinder 424 may be provided to avoid interference with the ball valve 442.

Additionally, due to the shape of the third grinder 424, a protrusion 4123 may be formed on the bottom surface 412 of the grinding case 41.

The protrusion 4123 may be provided to protrude upward from the bottom surface 412.

By forming a protrusion 4123 corresponding to the recessed shape of the third grinder 424 on the bottom surface 412 of the grinding case 41, the third grinder 424 is positioned on the bottom surface 412 of the grinding case 41. All food waste accumulated in can be transferred to the transfer unit 4121 and efficient agitation of the food waste can be performed.

The ball valve 442 may be provided in a ball shape so that a portion of its inner side is open.

The ball valve 442 of the valve assembly 44 may rotate by receiving driving force from the driving device 70. For example, the ball valve 442 may be provided to receive driving force from the second driving device 73 and rotate to open or close the transfer portion 4121 of the pulverizing case 41.

In addition, the second driving device 73 is configured to prevent the ball valve 442 from being separated from the second driving device 73 when the ball valve 442 is rotated to open the transfer unit 4121. may interfere with the upward movement of .

Through this, it is possible to prevent food waste from leaking when the user separates the processing device 40 without being aware that the transfer unit 4121 is open.

The food waste disposer 1 may include a heat generating device 60.

The heating device 60 may include a heating frame 61 and a heating wire 62 accommodated inside the heating frame 61.

The heating frame 61 may be placed in contact with the lower part of the processing device 40. The bottom surface 412 of the processing device 40 can be heated by the heating wire 62 accommodated inside the heating frame 61.

The food waste disposer 1 may include a driving device 70.

The driving device 70 may be disposed below the heating device 60.

The driving device 70 may include a first driving device 72 (see FIG. 6) and a second driving device 73 (see FIG. 6). The first driving device 72 may transmit driving force to the rotary grinder 42 of the processing device 40, and the second driving device 73 may transmit driving force to the valve assembly 44 of the processing device 40. there is.

The food waste disposer 1 may include a storage device 80.

The storage device 80 may be placed inside a storage frame. The storage device 80 may be connected to the transfer duct 27. The upper end of the transfer duct 27 may be connected to the valve assembly 44, and the lower end of the transfer duct 27 may be connected to the storage device 80.

Food waste processed in the processing device 40 may be transferred to the transfer duct 27 as the valve assembly 44 opens the transfer unit 4121. Food waste transferred to the transfer duct 27 may be stored in the storage device 80.

The storage device 80 may be disposed at the front lower portion of the processing device 40 to store food waste processed from the processing device 40 .

The storage device 80 may include a storage case 81 and an exposed portion 82 coupled to the storage case 81 and exposed to the outside of the food waste disposer 1. A gripping portion 83 may be formed at the top of the exposed portion 82. Accordingly, the user can hold the grip portion 83 and separate the storage device 80 from the housing 10 to empty the storage device 80 of the food waste collected in the storage device 80 .

The food waste disposer 1 may include an electrical unit 7. Electrical components such as various circuit boards may be placed in the electrical unit 7.

The food waste disposer 1 may include a controller. The controller can control various parts of the food waste disposer 1. Accordingly, the controller can control the stroke of the food waste disposal machine 1 due to the electronic signal generated from the electrical unit 7.

The food waste disposer 1 may include an exhaust opening and closing device 90.

The exhaust opening and closing device 90 may include a frame coupling body 91 and a blocking member 92. The blocking member 92 may be provided to open or close the exhaust portion 213 of the receiving frame 21. The blocking member 92 may be in a position to close the exhaust unit 213 when the cover device 30 opens the upper part of the housing 10.

The frame coupling body 91 may be connected to the end of the first exhaust pipe 110, which will be described later. The frame coupling body 91 may be coupled to the lower part of the receiving frame 21.

The frame coupling body 91 may be provided to connect the receiving frame 21 and the first exhaust pipe 110. The frame coupling body 91 may form a communication space 2131 therein. The communication space 2131 may be provided to communicate with the guide passage G of the guide duct 37. The communication space 2131 may be provided to communicate with the first exhaust passage F1 of the first exhaust pipe 110.

The blocking member 92 may be elastically supported by the frame coupling body 91. The blocking member 92 may be coupled to the frame coupling body 91 to maintain the exhaust portion 213 of the receiving frame 21 closed. The blocking member 92 may be movably disposed within the communication space 2131.

The food waste disposer 1 may include a deodorizing device 100.

The deodorizing device 100 may be connected to the cover device 30. The deodorizing device 100 may include a first exhaust pipe 110 connected to the cover device 30.

The first exhaust pipe 110 may include a first inlet 111 connected to the communication space 2131 of the frame coupling body 91. The first exhaust pipe 110 may form a first exhaust flow path F1 through which air of the processing device 40 flows.

The deodorizing device 100 may be placed at the rear of the food waste disposer 1. Details regarding the deodorizing device 100 will be described later.

The food waste disposer 1 may include a water storage container 530.

The water storage container 530 may be placed in the base housing 900 to collect condensed water generated in the exhaust passage of the deodorizing device 100.

For example, the water storage container 530 may be mounted on the water storage housing 540 of the base housing 900. The water storage container 530 may form a condensate collection space 521 therein. The water storage container 530 may be disposed below the filter assembly 150 and connected to the filter assembly 150. Details regarding the water storage container 530 will be described later.

Referring to FIG. 5, the air flow in a state where the cover device 30 closes the upper part of the housing 10 will be described.

As shown in FIG. 5, when the cover device 30 closes the upper part of the housing 10, the pusher 381 formed on the connecting duct 38 is connected to the blocking member 92 disposed on the inside of the receiving frame 21. ) can be pressurized.

For example, the pusher 381 may pass through the exhaust portion 213 of the receiving frame 21 and pressurize the blocking member 92 . As the blocking member 92 is pressed and rotates toward the communication space 2131, the blocking member 92 may open the exhaust portion 213 of the receiving frame 21.

As the blocking member 92 opens the exhaust portion 213 of the receiving frame 21, the interior of the connecting duct 38 and the communication space 2131 may be connected to each other to allow air to flow.

In addition, the communication space 2131 is provided to communicate with the first inlet 111 of the first exhaust pipe 110, and the pusher 381 presses the blocking member 92 to press the first inlet 111 of the first exhaust pipe 110. The inlet 111 can be opened.

That is, when the cover device 30 closes the upper part of the housing 10, the blocking member 92 can elastically move to a position where the exhaust portion 213 is opened.

Accordingly, air inside the processing device 40 may flow into the cover device 30 through the inlet hole 361 of the cover frame 36 of the cover device 30. Air passing through the inlet hole 361 may flow into the guide duct 37 of the cover device 30. In other words, the air in the processing device 40 may flow along the guide passage G.

Thereafter, the air that has passed through the guide duct 37 and the connecting duct 38 may flow into the communication space 2131 through the exhaust portion 213 of the open receiving frame 21.

Air flowing into the communication space 2131 may flow along the first exhaust flow path F1 through the first inlet 111 of the first exhaust pipe 110. This air flow can be formed by an exhaust fan 140, which will be described later.

FIG. 6 is an exploded front view of a partial configuration of a food waste disposal machine according to an embodiment of the disclosed invention. FIG. 7 is an exploded perspective view of a portion of a food waste disposal machine according to an embodiment of the disclosed invention, showing it from the rear.

The food waste disposer 1 may include a plurality of internal frames 20. In FIG. 6 , the cover device 30 and the first cover housing 12 are omitted for convenience of explanation.

Hereinafter, the detailed structure of the internal frame 20 of the food waste disposer 1 and the arrangement of various devices will be described.

Referring to FIGS. 6 and 7 , the food waste disposer 1 may include a receiving frame 21 .

The receiving frame 21 may include a base portion 211, a hinge mounting portion 212, an exhaust portion 213, and an opening portion 214.

The receiving frame 21 may be disposed between the housing 10 and the processing device 40 to cover the outside of the processing device 40. For example, the base portion 211 of the receiving frame 21 may be disposed between the housing 10 and the processing device 40 to cover the outside of the processing device 40.

The hinge mounting portion 212 may be formed at the rear of the base portion 211. The hinge housing 14 may be coupled to the hinge mounting portion 212 of the receiving frame 21. The cover device 30 may be rotatably coupled to the hinge mounting portion 212 of the receiving frame 21.

The exhaust part 213 may be formed at the rear of the base part 211. The exhaust unit 213 may be provided to connect the guide passage G of the cover device 30 and the exhaust passage of the deodorizing device 100.

The exhaust unit 213 may communicate with the guide passage (G) and the exhaust passage. The exhaust portion 213 may be formed by cutting a portion of the inner portion of the base portion 211.

The receiving frame 21 may include a communication space 2131 connected to the exhaust unit 213. The communication space 2131 may be formed at the rear of the receiving frame 21. The exhaust opening and closing device 90 may be accommodated in the communication space 2131.

The opening portion 214 may be formed to be open on the inside of the base portion 211. The processing device 40 can be separated to the outside of the receiving frame 21 through the opening 214 . The opening 214 may be provided to communicate with the inlet of the processing device 40.

The food waste disposer 1 may include a support frame 22, a case frame 24, and a fixing frame 25.

The support frame 22 may be disposed below the heating device 60 to support the heating device 60 and the processing device 40. A fixing frame 25 may be disposed in front of the support frame 22. The fixing frame 25 may include a frame fixing part 251 coupled to the case frame 24.

Case frame 24 may be provided to accommodate processing device 40 . The case frame 24 may be provided in a shape corresponding to the processing device 40. For example, the case frame 24 may be provided in a substantially cylindrical shape with the upper and lower surfaces open.

The case frame 24 may include a processing device accommodation space 241. The processing device 40 may be arranged to be spaced apart from the case frame 24 at a certain distance in the processing device accommodation space 241 .

The case frame 24 may include a case fixing part 242. The case fixing part 242 may be coupled to the frame fixing part 251 of the fixing frame 25. Accordingly, the case frame 24 can be fixed to the fixing frame 25.

The case frame 24 may include a frame coupling portion 243. The case frame 24 may be coupled to the lower part of the receiving frame 21 by a frame coupling portion 243. Accordingly, the case frame 24 can be fixed relative to the receiving frame 21.

The food waste disposer 1 may include a side frame 23. The side frames 23 may be provided in pairs.

A pair of side frames 23 may be arranged to face each other. The side frame 23 may be coupled to both sides of the receiving frame 21. The side frame 23 may be combined with the second cover housing 13.

The side frame 23 is disposed on the left and right sides of the food waste disposer 1 to cover the processing device 40, the heating device 60, the driving device 70, the storage device 80, and the deodorizing device 100. You can.

Referring to FIGS. 4 and 6 , the food waste disposer 1 may include a storage frame. The storage frame may include a first storage frame 261 and a second storage frame 262. However, the first storage frame 261 and the second storage frame 262 may be formed integrally.

The storage frame may form a space in which the storage device 80 can be accommodated. The storage frame may be connected to the transfer duct 27.

The storage frame stores food waste when the storage device 80 is not accommodated inside the housing 10 and food waste is transferred through the transfer duct 27 or when the user withdraws the storage device 80. It may be arranged so that food waste does not affect other internal parts of the food waste disposer 1 in the unexpected case of leakage from the device 80 .

The food waste disposer 1 may include a first partition plate 28 disposed at the rear of the storage device 80 to partition the electrical unit 7.

The driving device 70 of the food waste disposer 1 may include a first driving device 72 and a second driving device 73.

The first driving device 72 may include a grinder shaft 71 extending upwardly through the center of the heating device 60 to provide power to the rotary grinder 42.

The second drive device 73 may be provided to provide power to the valve assembly 44 . The first driving device 72 and the second driving device 73 may each be controlled by a controller.

The heating device 60 may include a first shaft penetrating part 63 and a first valve penetrating part 64. The support frame 22 may include a second shaft penetrating part 221 and a second valve penetrating part 222.

The first shaft penetrating portion 63 and the second shaft penetrating portion 221 may be formed parallel to each other in the vertical direction. The first valve penetration part 64 and the second valve penetration part 222 may be formed parallel to each other in the vertical direction.

The grinder shaft 71 of the first driving device 72 may be provided to penetrate the first shaft penetrating portion 63 and the second shaft penetrating portion 221. Accordingly, the first driving device 72 can transmit driving force to the processing device 40 through the support frame 22 and the heat generating device 60.

As the valve assembly 44 of the processing device 40 is formed to protrude downward from the grinding case 41, the valve assembly 44 includes the first valve penetration portion 64 and the second valve penetration portion 222. It may protrude to the lower part of the heating device 60 and the support frame 22.

The valve assembly 44 protruding from the lower portion of the heating device 60 and the support frame 22 may be driven by the second driving device 73.

The ball valve 442 of the valve assembly 44 may be rotated by the second driving device 73 to open or close the transfer portion 4121 of the pulverizing case 41.

The food waste disposer 1 may include a cooling fan 5.

The cooling fan 5 may be disposed below the heating device 60. The cooling fan 5 may be provided to circulate the air inside the housing 10 so that the heat inside the housing 10 can be discharged to the outside. The cooling fan 5 may be disposed on one side of the driving device 70. The cooling fan 5 may be disposed in front of the exhaust fan 140.

The deodorizing device 100 may be placed in an area behind the processing device 40 . The deodorizing device 100 may be disposed inside the second cover housing 13.

Referring to FIGS. 6 and 7 , the deodorizing device 100 may include a first exhaust pipe 110, an exhaust fan 140, a second exhaust pipe 130, and a filter assembly 150.

The exhaust fan 140 may be disposed inside the housing 10 to create air flow. The exhaust fan 140 may be disposed at the rear of the housing 10. The exhaust fan 140 may be provided to suck air from the processing device 40. The first exhaust pipe 110 and the second exhaust pipe 130 may be connected to the exhaust fan 140.

The first exhaust pipe 110 may be connected to the exhaust fan 140 on the upstream side of the exhaust fan 140, and the second exhaust pipe 130 may be connected to the exhaust fan 140 on the downstream side of the exhaust fan 140. . The first exhaust pipe 110 may be connected to the exhaust fan 140 to form a first exhaust passage F1 (see FIG. 8) communicating with the guide passage G.

The first exhaust pipe 110 may form a first exhaust flow path F1 (see FIG. 8). The second exhaust pipe 130 may form a second exhaust flow path (F2, see FIG. 8). The first exhaust flow path (F1) and the second exhaust flow path (F2) may be collectively referred to as exhaust flow paths.

The first exhaust pipe 110 and the second exhaust pipe 130 may be provided to allow air introduced from the processing device 40 by the exhaust fan 140 to flow.

The filter assembly 150 may be provided to adsorb contaminants from air flowing along the first exhaust pipe 110 and the second exhaust pipe 130. A filter that filters contaminants in the air may be provided inside the filter assembly 150.

The filter assembly 150 may be connected to the exhaust passage through an exhaust pipe to adsorb contaminants from the air flowing along the first exhaust passage F1 and the second exhaust passage F2.

Air introduced from the processing device 40 into the first exhaust pipe 110 and the second exhaust pipe 130 may flow along the exhaust flow path. The filter assembly 150 may be connected to the exhaust flow path. More specifically, the filter assembly 150 may be connected to the exhaust passage through the first exhaust pipe 110 and the second exhaust pipe 130.

The water storage container 530 may be connected to the filter assembly 150 and the second exhaust pipe 130. Accordingly, the air flowing inside the second exhaust pipe 130 may pass through the inside of the water storage container 530 and flow into the filter assembly 150.

The water storage container 530 may be mounted on the water storage housing 540 of the base housing 900. The water storage container 530 may include a water storage cover 510.

The water storage cover 510 may form the upper surface of the water storage container 530. The water storage cover 510 may include an exhaust pipe connection portion 514 connected to the second exhaust pipe 130. For example, the exhaust pipe connection portion 514 of the water storage cover 510 may be coupled to the coupling flange 133 of the second exhaust pipe 130.

The water storage cover 510 may include a filter mounting portion 512. The filter mounting portion 512 may extend to the upper part of the water storage cover 510 and be connected to the lower part of the filter assembly 150. The filter mounting unit 512 may form a path through which air flowing into the water storage container 530 through the second exhaust pipe 130 flows to the filter assembly 150.

The water storage container 530 may include a filter sealing member 513 coupled to the filter mounting portion 512. The filter sealing member 513 may be provided to seal the gap between the water storage container 530 and the filter assembly 150.

The water storage container 530 may include a container holding portion 533. The container holding part 533 may be exposed to the outside of the second cover housing 13 of the food waste disposer 1. The user can hold the container gripper 533 to separate the water storage container 530 from the housing 10 and remove the collected condensate.

The filter assembly 150 may include a filter case 151 in which a filter is accommodated. The filter case 151 may be combined with the filter mounting plate 152. The filter mounting plate 152 may be combined with the second partition plate 29 that partitions the front section 7 at the rear.

A filter discharge portion 153 may be formed at the rear of the filter case 151. The air flowing through the first exhaust pipe 110 and the second exhaust pipe 130 passes through the inside of the water storage container 530 and flows to the filter assembly 150, and then contaminants are removed by the filter assembly 150. It may be discharged to the outside of the food waste disposer 1 through the filter discharge unit 153.

FIG. 8 is a diagram illustrating an air flow path from the rear during a sterilization process of a food waste disposer according to an embodiment of the disclosed invention. FIG. 9 is a diagram illustrating an air flow path from the rear during a food waste disposal process of a food waste disposer according to an embodiment of the disclosed invention. FIG. 10 is a side view illustrating an air flow path of a food waste disposer according to an embodiment of the disclosed invention.

8 to 10, the overall air flow will be described when the sterilization process and the food waste disposal process of the disclosed invention are performed.

The first exhaust pipe 110 may include a first inlet 111 and a first outlet 112. As described above, the first inlet 111 may be provided to communicate with the guide passage G and the communication space 2131 when the cover device 30 closes the upper part of the housing 10. Air inside the processing device 40 may flow into the first exhaust pipe 110 through the first inlet 111.

The first outlet 112 may be provided to communicate with the exhaust fan case 142. The first outlet 112 may be provided so that air flowing into the first exhaust pipe 110 through the first inlet 111 flows out to the exhaust fan 140. The first exhaust flow path F1 may be formed between the first inlet 111 and the first outlet 112.

The first exhaust passage F1 may communicate with the guide passage G when the cover device 30 is closed with respect to the housing 10 .

The second exhaust pipe 130 may form a second exhaust flow path F2.

The second exhaust pipe 130 may be connected to the exhaust fan 140 to form a downstream portion of the exhaust flow path formed by the exhaust fan 140.

The second exhaust pipe 130 may include a second inlet 131 and a second outlet 132. The second inlet 131 may be provided to communicate with the exhaust fan case 142. The second inlet 131 may be provided so that air flowing through the first exhaust passage F1 flows into the second exhaust pipe 130.

The second outlet 132 may be provided to communicate with the water storage container 530. The second outlet 132 may be provided so that air flowing into the second exhaust pipe 130 through the second inlet 131 flows out into the water storage container 530. The second exhaust flow path F2 may be formed between the second inlet 131 and the second outlet 132.

The second exhaust pipe 130 may include a coupling flange 133 coupled to the water storage cover 510 of the water storage container 530.

The water storage container 530 may be disposed between the second exhaust pipe 130 and the filter assembly 150. The water storage container 530 may be provided to collect condensate generated from air flowing through the first exhaust flow path F1 and the second exhaust flow path F2. The water storage cover 510 of the water storage container 530 may be connected to the second exhaust pipe 130 and the filter assembly 150.

During the food waste treatment process, the air inside the processing device 40 flows into the first exhaust pipe 110 through the first inlet 111, flows along the first exhaust flow path F1, and flows through the first outlet 112. ) flows to the exhaust fan 140.

Thereafter, the air flows into the second exhaust pipe 130 through the second inlet 131, flows along the second exhaust passage F2, and flows into the water storage container 530 through the second outlet 132. . The air flowing into the water storage container 530 may flow into the filter assembly 150 through the filter connection portion 154 to remove contaminants and then be discharged to the outside through the filter discharge portion 153.

Air flow can be formed even when no food waste disposal process is performed. For example, the exhaust fan 140 may operate even when the processing device 40 does not grind, stir, and dry food waste.

Therefore, it can perform the function of filtering and then discharging bad odors that may be generated under any circumstances inside the food waste disposer.

FIG. 11 is a perspective view showing the water storage device 500 of the food waste disposer 1 shown in FIG. 9. FIG. 12 is a perspective view showing the water storage container 530 separated from the water storage device 500 of the food waste disposer 1 shown in FIG. 11. FIG. 13 is a perspective view showing the water storage device 500 of the food waste disposal machine 1 shown in FIG. 11 as seen from the rear.

With reference to FIGS. 11 to 13 , a water storage device 500 according to an embodiment of the present disclosure will be described.

The food waste disposer 1 may include a water storage device 500. The water storage device 500 may be connected to the exhaust pipes 110 and 130. The water storage device 500 may communicate with an exhaust flow path defined by the exhaust pipes 110 and 130.

Air containing moisture may be located in the exhaust pipes 110 and 130. Air containing moisture may condense as it passes through the exhaust pipes 110 and 130.

More specifically, the air can be heated by the heating device 60 included in the food waste disposer 1. The heating device 60 may be configured to heat the processing device to evaporate moisture in the food waste contained in the processing device.

As the heated air flows along the exhaust pipes 110 and 130, the temperature may decrease. Air whose temperature has dropped may contain moisture. As the temperature decreases, moisture can liquefy into a liquid state. Liquid moisture can be called condensate.

The exhaust pipes 110 and 130 may be configured to be connected to a processing device to guide air containing moisture.

The water storage device 500 may be a device configured to collect condensed water. The water storage device 500 may be provided in the direction of gravity with respect to the exhaust pipes 110 and 130. The water storage container 530 may be positioned in the direction of gravity with respect to the exhaust pipes 110 and 130 so that condensed water generated in the exhaust pipes 110 and 130 is concentrated.

Condensate located in the exhaust pipes 110 and 130 may be moved to the water storage device 500 under gravity. However, the present invention is not limited thereto, and the food waste disposer 1 may include a component that moves condensed water to the water storage device 500 .

The food waste disposer 1 may include an exhaust fan 140. The exhaust fan 140 may be coupled to the exhaust pipes 110 and 130 to move air containing moisture within the processing device to the exhaust pipes 110 and 130.

Referring to FIG. 12, the water storage device 500 may include a water storage container 530 that stores condensed water. A water storage space 530S may be defined in the water storage container 530 to accommodate condensed water. The entrance into the water storage space (530S) can be referred to as the water storage opening (530A).

The water storage container 530 may be capable of collecting condensate in the exhaust pipes 110 and 130. The water storage container 530 may be removable to the outside of the cover housings 12 and 13.

The water storage container 530 may have a substantially rectangular parallelepiped shape. Water storage opening 530A may be defined on one side of a cuboid. For example, the water storage container 530 may be configured as a rectangular parallelepiped with a water storage opening 530A on one side and only the other five sides. However, it is not limited to this, and any shape provided to accommodate condensate is sufficient.

The water storage container 530 may be made of plastic. However, it is not limited to this and may include metal materials.

The water storage container 530 may be manufactured through an injection process. However, it is not limited to this and can be manufactured through an appropriate process depending on the material.

The water storage container 530 can be separated outside the cover housings 12 and 13 (FIG. 9). As a result, the water storage container 530 can be easily cleaned. Since the condensate that can be stored in the water storage container 530 is connected to the treatment device, it may be contaminated. Therefore, the inside of the water storage container 530 may also be contaminated by contaminated condensate. Since the water storage container 530 can be separated from the cover housings 12 and 13, the water storage container 530 can be kept clean. In the case of the food waste disposer 1 used at home, hygiene may be more important since it is located inside the house.

The direction in which the water storage container 530 is accommodated in the cover housings 12 and 13 may be referred to as the receiving direction D1. The direction in which the water storage container 530 is separated from the cover housings 12 and 13 may be referred to as the separation direction D2. For example, the receiving direction D1 may be forward. The separation direction D2 may be rearward.

The position where the water storage container 530 is accommodated in the cover housings 12 and 13 may be referred to as the storage position of the water storage container 530. The position where the water storage container 530 is separated from the cover housings 12 and 13 may be referred to as the separation position of the water storage container 530. The position between the receiving position and the separation position can be referred to as the transition position. The transition position may be a position where at least a portion of the water storage container 530 is accommodated in the cover housings 12 and 13.

In other words, the water storage container 530 is located within the cover housings 12 and 13 and may be in a receiving position in contact with the sensor module 700. The water storage container 530 may be in a separate position located outside the cover housings 12 and 13.

The water storage container 530 may be in contact with the sensor module 700 at the receiving position.

The water storage container 530 may include a container holding portion 533 so that the user can easily take it out of the cover housings 12 and 13. The container holding part 533 may be located on the side of the water storage container 530 in the separation direction D2. The container holding part 533 may have a shape that is easy for a user to hold. The container holding part 533 may be located at the top of the water storage container 530. A gripping recess 533S that is concave toward the water storage space 530S may be provided on the lower side of the container gripping portion 533. The user can put his hand into the grip recess 533S, grab the container grip portion 533, and take the water storage container 530 out of the cover housings 12 and 13.

The water storage container 530 may include a gasket contact portion 532 located on the edge of the water storage opening 530A. The gasket contact portion 532 may be configured to contact the gasket 520, which will be described later. This will be described later with reference to the related drawings.

When the water storage container 530 is separated from the sensor module 700, condensed water in the water storage container 530 may be prevented from leaking to the outside of the water storage container 530.

The water storage device 500 may include a water storage cover 510 configured to cover the water storage container 530 . The water storage cover 510 may be configured to cover the water storage space 530S of the water storage container 530. In other words, the water storage cover 510 may be configured to cover the water storage opening 530A of the water storage container 530.

The water storage cover 510 may be connected to the exhaust pipes 110 and 130. Condensed water formed in the exhaust pipes 110 and 130 may be moved to the water storage container 530 through the water storage cover 510.

The water storage cover 510 may communicate with the outside of the cover housings 12 and 13. As a result, the air passing through the exhaust passages in the exhaust pipes 110 and 130 can be moved toward the filter assembly 150 (FIG. 4).

The water storage cover 510 may be made of plastic. However, it is not limited to this, and may have a metal material, etc.

The water storage cover 510 may be formed by injection molding. However, it is not limited to this and can be formed by an appropriate process such as a press process.

The water storage cover 510 may include a water storage cover body 511. The water storage cover body 511 may be a component that defines the main appearance of the water storage cover 510.

The water storage cover 510 may include an exhaust pipe connection portion 514 extending from the water storage cover body 511. The exhaust pipe connection portion 514 may be connected to the exhaust pipes 110 and 130.

The exhaust pipe connection portion 514 may have a bent shape. The exhaust pipes 110 and 130 may extend vertically downward. It may be difficult for the water storage container 530 to be located directly below the exhaust pipes 110 and 130. The exhaust pipe connection portion 514 may be bent from the exhaust pipes 110 and 130 toward the water storage container 530 in order to connect the exhaust flow path and the water storage space 530S. For example, the exhaust pipe connection portion 514 may have a pipe shape bent at a right angle.

The exhaust pipe connection portion 514 may be formed separately from the water storage cover body 511. The exhaust pipe connection portion 514 and the water storage cover body 511 may be coupled by a fastening member. However, the present invention is not limited to this, and the exhaust pipe connection portion 514 and the water storage cover body 511 may be formed integrally.

An exhaust pipe connection hole 514H communicating with the exhaust pipes 110 and 130 may be defined in the exhaust pipe connection portion 514.

The water storage cover 510 may include a filter mounting portion 512 extending from the water storage cover main body 511. The filter mounting portion 512 may be configured to couple the water storage cover 510 with the filter assembly 150. A filter connection hole 512H communicating with the filter assembly 150 may be defined on the filter mounting portion 512.

The filter mounting portion 512 may be configured to extend toward the filter assembly 150 . For example, the filter mounting portion 512 may extend upward.

The filter mounting portion 512 may have an elliptical cross-section or a shape in which two opposing corners are rounded and the remaining opposing corners are long. However, it is not limited to this.

The water storage device 500 may include a filter sealing member 513 positioned to surround the filter mounting portion 512 . Because condensate can be contaminated, it is necessary to prevent condensate or bad odors from leaking between the filter mounting portion 512 and the filter assembly 150. The filter sealing member 513 may seal between the filter mounting portion 512 and the filter assembly 150.

The filter mounting portion 512 may be made of an elastic material. For example, the filter mounting part 512 may be made of a rubber material.

The water storage cover 510 may include a cover flange 515 that is bent toward the water storage housing. The cover flange 515 may be positioned to correspond to the edge of the water storage cover 510.

The water storage device 500 may include a water storage housing 540 capable of accommodating the water storage container 530 . A water storage container 530 accommodating space 540S in which the water storage container 530 is accommodated may be defined in the water storage housing 540 .

The water storage housing 540 may be configured to surround the water storage container 530. However, since the water storage opening 530A of the water storage container 530 can be covered by the water storage cover 510, the water storage housing 540 surrounds the remaining surface of the water storage container 530 that is not covered by the water storage cover 510. It can be configured as follows.

The water storage container 530 may be separated from the water storage housing 540. A receiving opening 540A may be defined in the water storage housing 540 to separate the water storage container 530 from the water storage housing 540 . Receiving opening 540A may be defined in separation direction D2. For example, receiving opening 540A may be defined at the rear of water storage housing 540 .

One side of the water storage housing 540 may be covered by a water storage cover 510 . The water storage cover 510 may cover the water storage housing 540 and the water storage container 530 together.

The water storage housing 540 may have a substantially rectangular parallelepiped shape. However, the surface covered by the water storage cover 510 may have a mounting opening 541A (FIG. 14) defined. A receiving opening 540A may be defined on the surface on which the water storage container 530 moves. That is, the water storage housing 540 may have a rectangular parallelepiped shape with two open faces.

When the water storage container 530 is in the receiving position, it may be located between the water storage cover 510 and the water storage housing 540.

The water storage housing 540 may be combined with the water storage cover 510. The water storage cover 510 may be coupled to the water storage housing 540 by a fastening member.

The water storage housing 540 may be made of plastic. However, the water storage housing 540 may be made of a metal material, etc., so it is not limited thereto.

The water storage housing 540 may be formed through an injection process. However, it is not limited to this.

The water storage housing 540 may include a side water storage housing 542 to define a side surface. For example. The side water storage housing 542 may be located on the left and right sides of the water storage housing 540, respectively. The side water storage housing 542 may have the shape of a wall extending toward the water storage cover 510. For example, the side water storage housing 542 may extend upward.

The water storage housing 540 may include an opposing housing wall 543 positioned in the direction in which the water storage container 530 is accommodated. The opposing housing wall 543 may be located between the side reservoir housings 542 located on the left and right sides. For example, opposing housing wall 543 may be positioned in front of water storage housing 540.

The opposing housing wall 543 may have the shape of a wall extending substantially along the direction in which the side water storage housing 542 extends. For example, opposing housing wall 543 may extend upward.

Opposite housing wall 543 may include module insert 544H onto which sensor module 700 is mounted. This will be described later with reference to the related drawings.

The water storage device 500 may include a base housing 900. That is, the base housing 900 may be included in the housing 10 and the water storage device 500 at the same time. The base housing 900 may be configured to define the lower exterior of the food waste disposer 1.

The base housing 900 may be formed integrally with the water storage housing 540. The base housing 900 may be connected to the water storage housing 540. The water storage housing 540 may be coupled to one side of the base housing 900.

The base housing 900 may be located below the water storage housing 540. One side of the water storage housing 540 may be defined by the base housing 900. The base housing 900 may define the lower exterior of the water storage housing 540. An accommodation space 540S in which the water storage container 530 is accommodated may be defined by the water storage housing 540, the base housing 900, and the water storage cover 510. Additionally, the receiving opening 540A may be defined by the water storage housing 540, the base housing 900, and the water storage cover 510.

However, it is not limited to this. The base housing 900 may be positioned to be spaced apart from the water storage housing 540. The water storage housing 540 may be positioned in the direction of gravity with respect to the exhaust pipes 110 and 130 to collect condensed water formed in the exhaust pipes 110 and 130. Accordingly, the water storage housing 540 may be located on the lower side of the food waste disposer 1. In order for the water storage housing 540 to be positioned inside the cover housings 12 and 13, the water storage housing 540 may be supported. The water storage housing 540 and the base housing 900 may be located on the lower side of the food waste disposer (1). Accordingly, the base housing 900 can support the water storage housing 540.

To facilitate the separation of the water storage container 530 from the water storage housing 540, the water storage housing 540 may be located at the rear of the food waste disposer 1. Accordingly, the water storage housing 540 may be coupled to the base housing 900 at the upper rear of the base housing 900.

The water storage housing 540 may include water storage housing support ribs 541 that support the sides to enhance strength.

The base housing 900 may have a substantially flat shape.

The base housing 900 may include a plurality of ribs on the inside to lighten the weight and improve strength. A plurality of ribs may be located on the lower side of the base housing 900.

The base housing 900 may be made of plastic. However, it is not limited to this and may be made of metal.

The base housing 900 may be formed through an injection process. However, it is not limited to this, and may be formed through an appropriate process depending on the material.

The water storage device 500 may include a water storage housing door 550 configured to open or close the receiving opening 540A.

The water storage housing door 550 may define the appearance of the food waste disposer 1. As a result, the aesthetics of the food waste disposer 1 can be improved by preventing the components such as the water storage container 530 from being exposed to the outside.

The water storage housing door 550 may be coupled to the base housing 900. The water storage housing door 550 may be rotatably coupled to the base housing 900 to open or close the receiving opening 540A. However, the present invention is not limited thereto, and the water storage housing 540 may be slidably coupled to the base housing 900.

The water storage housing door 550 may pivot based on the water storage door rotation axis 550I. The water storage door rotation axis 550I may be positioned downward with respect to the water storage door. As a result, the water storage housing door 550 can be rotated downward to prevent it from being closed by gravity.

The water storage housing door 550 may include a plastic material. However, it is not limited to this and may also include metal materials.

The water storage housing door 550 may be formed through an injection process. However, it is not limited to this and may be formed according to an appropriate process depending on the material.

The water storage housing door 550 may include a protruding grip portion 551 that can be held by a user.

The grip portion 551 may be located on the upper part of the water storage housing door 550. As a result, the user can easily grip the device without having to extend his/her hand toward the floor.

The water storage device 500 may include a locking device 600 that is provided to limit the movement of the water storage container 530.

The locking device 600 may be positioned to be in contact with the water storage container 530.

When the movement of the water storage container 530 is restricted by the locking device 600, the space between the water storage container 530 and the water storage cover 510 may be sealed.

The locking device 600 may include a support plate 610 configured to support the water storage container 530 .

The support plate 610 is coupled to the water storage container 530 and may be disposed between the water storage container 530 and the base housing 900.

The support unit may move the water storage container 530 by pressing the support plate while the water storage container 530 is moved from the unlocked position to the locked position.

The support plate 610 may support the lower side of the water storage container 530. However, the present invention is not limited thereto, and the support plate 610 may be positioned anywhere that can support the water storage container 530. The support plate 610 can support the top, left and right sides, front and rear of the water storage container 530.

The support plate 610 may have the shape of a flat plate. However, the present invention is not limited thereto, and the support plate 610 may have a shape capable of uniformly pushing the bottom of the water storage container 530. For example, the support plate 610 may include a shape that protrudes toward the water storage container 530 symmetrically with respect to the center of the water storage container 530 .

The support plate 610 may include a plastic material.

The support plate 610 may be formed through an injection process.

The support plate 610 may be movable together with the water storage container 530 when the water storage container 530 is moved from the locking position to the unlocking position.

The water storage container 530 may be able to slide relative to the support plate 610 while being separated out of the cover housings 12 and 13.

The locking device 600 may include a locker 620 coupled to the support plate 610.

The locker 620 may be rotated based on the locker rotation axis 620I.

The locker 620 may be configured to move the support plate 610. The locker 620 can move the support plate 610 by rotating and pushing the base housing 900. As a result, the water storage container 530 can be moved toward the gasket 520. Accordingly, the user can easily change the position of the water storage container 530 by manipulating the locker 620 exposed to the outside. However, the locker 620 may not be limited thereto as long as it is configured to move the support plate 610. For example, the locker 620 may include a motor and a lifting device that can be operated from the outside.

The locker 620 may be made of plastic.

The locker 620 may be formed through an injection process.

The locking device 600 may include a sub locker 630 coupled to the support plate 610.

The sub locker 630 may have a configuration corresponding to the locker 620.

In particular, referring to FIG. 13 , the water storage device 500 may include a sensor module 700. The sensor module 700 may include a water level sensor 710 (not shown). The sensor module 700 may be configured for sensing by the water level sensor 710.

The water level sensor 710 may be a sensor that outputs a signal corresponding to the amount of condensate stored in the water storage container 530. This will be described later along with related drawings.

The sensor module 700 may be mounted on the water storage housing 540. Sensor module 700 may be coupled to an opposing housing wall 543 of water storage housing 540 . The sensor module 700 may be coupled to the module insertion portion 544H of the opposing housing wall 543. For example, the sensor module 700 may be coupled to the front part of the water storage housing 540.

The sensor module 700 may be positioned to face a surface defined in the direction in which the water storage container 530 is inserted from the separated position to the receiving position.

The water level sensor 710 may be configured to output a signal regarding the water level of the water storage container 530 when the water storage container 530 is in the receiving position.

When the sensor module 700 is located adjacent to the water storage container 530, it may include a water level sensor 710 configured to output a signal regarding the level of condensate collected in the water storage container 530.

The water level sensor 710 is located within the cover housings 12 and 13 and may be configured to output a signal regarding the level of condensate collected in the water storage container 530 when it contacts the water storage container 530.

Water storage device 500 may include a mounted sensor 570 . The mounting sensor 570 may be configured to output a signal corresponding to the water storage device 500 when it is located in the receiving position.

Mounted sensor 570 may include a micro switch. A micro switch may be a sensor that outputs a signal as it is pressed.

The mounting sensor 570 may be coupled to the base housing 900.

Mounted sensor 570 may be positioned adjacent to water storage housing 540 .

The water storage device 500 may include a mounting lever 571 to press the mounting sensor 570. The mounting lever 571 may press the mounting sensor 570 as it is pressed by the water storage container 530.

The mounting lever 571 may be made of plastic. However, it is not limited to this and may be made of a metal material.

The mounting lever 571 may be formed through an injection process. However, it is not limited to this and can be formed through a process suitable for the material.

Below, we will look at the water storage device 500 in more detail.

FIG. 14 is an exploded view of the water storage device 500 of the food waste disposer 1 shown in FIG. 13. FIG. 15 is a cross-sectional perspective view showing a cross-section of the food waste disposer 1 shown in FIG. 13.

With reference to FIGS. 14 and 15 , the water storage device 500 according to an embodiment of the present disclosure will be described in more detail.

The water storage device 500 may include a gasket 520 . The gasket 520 may be configured to seal between the water storage cover 510 and the water storage container 530.

The gasket 520 may be positioned between the water storage container 530 and the water storage cover 510 to seal between the water storage container 530 and the water storage cover 510 when the water storage container 530 is in the locking position. .

The gasket 520 may be positioned between the water storage cover 510 and the water storage container 530. The gasket 520 may be positioned along a gap defined between the water storage cover 510 and the water storage container 530.

Gasket 520 may extend along water storage opening 530A. For example, the gasket 520 may have a square ring shape.

The gasket 520 may be coupled to the water storage cover 510. The water storage cover 510 may include a groove to accommodate the gasket 520. The gasket 520 may be positioned to contact the gasket contact portion 532 of the water storage container 530.

The gasket contact portion 532 of the water storage container 530 may extend toward the outside of the water storage space 530S. The gasket contact portion 532 may be bent and extended.

The thickness of the gasket 520 where the gasket contact portion 532 contacts may be thinner than the thickness where the gasket contact portion 532 contacts the water storage cover 510 . As a result, the gasket 520 is stably coupled to the water storage cover 510 and can be easily deformed when it comes into contact with the water storage container 530.

The gasket 520 may have a deformable elastic material. For example, the gasket 520 may be made of rubber. Accordingly, when the water storage container 530 and the water storage cover 510 are pressed toward the gasket 520, the gasket 520 may be deformed. Accordingly, the gasket 520 can fill the gap defined between the water storage container 530 and the water storage cover 510.

The gasket 520 may be formed through an injection process. However, it is not limited to this and can be formed through a process suitable for the material.

The water storage housing 540 may include an opposing housing wall 543 located in the receiving direction D1 of the water storage container 530 .

The opposing housing wall 543 may include a module insert 544H configured to be more concave in the receiving direction D1. A module insertion hole 544H defined to allow the sensor module 700 to pass through may be provided in the module insertion portion 544H.

The module insertion hole 544H may have a shape corresponding to the sensor module 700. The module insertion hole 544H may have a rectangular shape.

The module insertion hole 544H may be formed by cutting.

The module insertion hole 544H may be provided as a protrusion insertion hole 544H defined so that the support protrusion 735 (FIG. 16) of the sensor module 700 is inserted. The protrusion insertion hole 544H may be defined to correspond to the support protrusion 735. The protrusion insertion hole 544H may be shaped so that the support protrusion 735 cannot be easily removed in the direction opposite to the insertion direction after the support protrusion 735 is inserted.

The module insertion portion 544 may include a module mounting space 544S in which the sensor module 700 is seated.

The water storage housing 540 may include a stopper 611. The stopper 611 may be configured to prevent the water storage container 530 from moving further toward the opposing housing wall 543 when it is placed in the receiving position.

The stopper 611 may have a shape that protrudes toward the water storage container 530 when the water storage container 530 is in the receiving position. The stopper 611 may have an angle greater than the angle formed by the surface defined on the separation direction D2 side with the base housing 900 than the angle formed by the surface defined on the receiving direction D1 side with the base housing 900. It can be defined so that: For example, the stopper 611 may be defined so that a surface defined on the separation direction D2 side is substantially perpendicular to the base housing 900. The stopper 611 may be defined so that a surface defined on the receiving direction D1 side has an angle of substantially 10 to 80 degrees with the base housing 900.

As a result, the water storage container 530 can be prevented from moving further in the receiving direction D1 by contacting the stopper 611 while moving into the receiving room. Additionally, when the water storage container 530 moves in the separation direction D2, the movement can be prevented from being restricted by the stopper 611.

The stopper 611 may be configured to move in a direction perpendicular to the receiving direction D1. For example, the stopper 611 may be configured to move in the up and down direction.

The stopper 611 may be configured to have elasticity. The stopper 611 may be configured to have a fixed end at one end and a free end at the other end. Accordingly, even if the stopper 611 moves, it can be restored to its original position.

The stopper 611 may have a substantially square shape. At this time, one corner may be fixed and the remaining three corners may be free. Slits may be provided surrounding the three free edges. A protruding shape may be placed on a free edge opposite to one fixed edge.

The water storage container 530 may include a stopper receiving groove 531H forming portion that defines the stopper receiving groove 531H so that the stopper 611 can be accommodated. The stopper receiving groove 531H may have a shape corresponding to the protruding shape of the stopper 611.

With particular reference to FIG. 14, the configuration of the water storage device 500 will be described again.

A water storage housing 540 having an accommodation space 540S may be disposed on the base housing 900.

The locking device 600 may be arranged to be accommodated within the water storage housing 540.

The sensor module 700 may be disposed through the opposing housing wall 543 of the water storage housing 540 .

A water storage container 530 having a water storage space 530S may be disposed on the locking device 600. Water storage vessel 530 may have an opposing vessel wall 534 facing sensor module 700 . Opposing vessel wall 534 may have an opposing vessel surface 534A contactable with sensor module 700.

Opposing vessel side 534A may face sensor module 700 when reservoir 530 is in the receiving position.

A water storage cover 510 may be disposed to cover the water storage space 530S. The water storage cover 510 may be combined with the water storage housing 540.

A gasket 520 may be disposed along the edge of the water storage cover 510. The gasket 520 may be arranged to be in contact with the water storage container 530.

The stopper 611 may be seated within the stopper accommodating portion 531 when the water storage container 530 is in the accommodating position. As a result, the water storage container 530 can be placed at a preset position. For example, the preset position where the water storage container 530 is accommodated may be a position where the water storage container 530 is in contact with the sensor module 700.

When the water storage container 530 is placed in the receiving position, the opposing container wall 534 of the water storage container 530 may contact the sensor module 700. Opposite vessel wall 534 may pressurize sensor module 700. As a result, the sensor module 700 can become closer to the water level sensor 710 included.

The sensor module 700 may be coupled to the water storage housing 540. Sensor module 700 may be coupled to an opposing housing wall 543 of water storage housing 540 . Accordingly, the sensor module 700 can be positioned to face the water storage housing 540 in the receiving direction D1 with respect to the water storage housing 540 while the water storage housing 540 moves from the separation position to the receiving position. there is. Accordingly, the water storage housing 540 may be provided to press the sensor module 700 while the water storage housing 540 moves in the receiving direction D1.

The locking device 600 may be configured to restrict movement of the water storage container 530 when it is in the receiving position. The locking device 600 may be moved from an unlocking position that allows movement of the water storage container 530 from the receiving position to a separation position to a locking position that limits movement of the water storage container 530 .

That is, the water storage container 530 may be allowed to move in the locking position. The movement of the water storage container 530 may be restricted in the unlocked position. The water storage container 530 may be moved toward the water storage cover 510 while being moved from the locking position to the locking position.

When the locking device 600 is in the locking position, the water storage container 530 may be positioned to be in close contact with the gasket 520. When the water storage container 530 is in close contact with the gasket 520, negative pressure may be generated between the water storage container 530 and the gasket 520. As a result, the water storage container 530 can be in close contact with the gasket 520.

When the locking device 600 is moved from the unlocked position to the locked position, it can move the water storage container 530 toward the gasket 520. The locking device 600 may move the water storage container 530 toward the water storage cover 510. However, without being limited thereto, the locking device 600 may move the water storage container 530 to an appropriate position to limit the movement of the water storage container 530.

The user can move the support plate 610 by manipulating the locker 620. The water storage container 530 may move toward the water storage cover 510 as the support plate 610 moves.

The gasket 520 may be positioned in close contact with the water storage cover 510. As a result, a gap may not be provided between the water storage container 530 and the gasket 520 and between the gasket 520 and the water storage cover 510. The water storage container 530 may be covered by a water storage cover 510 configured to cover the water storage opening 530A (FIG. 14). The water storage cover 510 may be connected to the exhaust pipes 110 and 130 (FIG. 4) on one side, and may be connected to the filter assembly 150 (FIG. 4) on the other side. That is, the water storage container 530 may be positioned to prevent the flow path from the exhaust pipes 110 and 130 to the filter assembly 150 from communicating with the outside when the locking device 600 is in the locking position. The air inside the exhaust pipes 110 and 130 of the food waste processor 1 may be mixed with bad odors generated from the processing device (FIG. 4). Therefore, if the flow path from the exhaust pipes 110 and 130 to the filter assembly 150 communicates with a flow path other than the designated path, bad odor may be emitted along an undetermined path. In particular, since the food waste disposer 1 is generally used indoors, if the passage from the exhaust pipes 110 and 130 to the filter assembly 150 is not sealed, bad odors may be released indoors. In order to create a comfortable indoor environment, the flow path from the exhaust pipes 110 and 130 to the filter assembly 150 needs to be sealed.

Below, we will look at the sensor module 700 in more detail.

FIG. 16 is a perspective view showing the sensor module 700 of the food waste disposer 1 shown in FIG. 13. FIG. 17 is an exploded view showing the sensor module 700 of the food waste disposer 1 shown in FIG. 16.

With reference to FIGS. 16 and 17 , the configuration of the sensor module 700 according to an embodiment of the present disclosure will be described.

The sensor module 700 may refer to a configuration related to the water level sensor 710.

The sensor module 700 may include a water level sensor 710. The water level sensor 710 may be configured to output a signal in response to the level of condensate contained in the water storage container 530.

The water level sensor 710 can detect the water level of condensate in a non-contact manner. That is, the water level sensor 710 can detect the level of condensate water without contacting the condensate water. The water level sensor 710 may output a signal corresponding to the level of condensate by changing the capacitance of the contacting element. That is, the water level sensor 710 may be a capacitive sensor. As a result, corrosion of the water level sensor 710 may be delayed because it does not come into contact with water. However, without being limited thereto, the water level sensor 710 may be configured to maintain the following effects while being in contact with condensate.

In other words, the water level sensor 710 may contact the outer surface of the water storage container 530 and may output a signal regarding the level of condensate in the water storage container 530 according to a change in the electrostatic capacity of the water storage container 530.

The water level sensor 710 may be electrically connected to a processor 1110 (FIG. 25), which will be described later.

The water level sensor 710 may include a conductive wire 711 to be connected to the processor 1110.

The sensor module 700 may include cases 720 and 730 that can accommodate the water level sensor 710.

The water level sensor 710 may be prevented from being positioned on the water storage space 530S when the water storage container 530 is in the receiving position. Because of this, condensed water may not contact the water level sensor 710. When condensate comes into contact with the water level sensor 710, the water level sensor 710 may be contaminated. As a result, sensitive detection by the water level sensor 710 may become difficult. The lifespan of the water level sensor 710 may be shortened.

The cases 720 and 730 may include a first case 720 capable of accommodating the sensor module 700 and a second case 730 coupled to the first case 720.

The water level sensor 710 may be located inside the first case 720.

The second case 730 may be coupleable to the water storage housing 540.

The first case 720 may be coupled to the second case 730 so that it can move forward and backward relative to the second case 730 .

The first case 720 includes a first part case 720a with one side open so that the water level sensor 710 can be inserted, and a second part configured to cover one open side of the first part case 720a. It may include a case 720b.

In other words, the first case 720 may include a first part case 720a having an opening so that the water level sensor 710 can be seated. The first case 720 may include a second part case 720b that is detachably coupled to the first part case 720a to prevent the water level sensor 710 from being removed from the first part case 720a. there is. Accordingly, the water level sensor 710 can be easily accommodated in the first case 720.

In other words, the first case 720 may include the first part case 720a. The first part case 720a may include an opposing module portion 721 configured to face the water storage container 530 when the water storage container 530 is in the receiving position. The opposing module portion 721 may have an opposing module surface 721A facing the water storage container 530.

The opposing module surface 721A may face the opposing container surface 534A and correspond to the opposing container surface 534A, so as to be in close contact with the water storage container 530 when the water storage container 530 is in the receiving position. That is, the opposing module surface 721A may have the same slope as the opposing container surface 534A.

The water level sensor 710 may contact the first part case 720a on the side facing the water storage container 530 of the first part case 720a. That is, the water level sensor 710 may be arranged to contact the opposing module portion 721. The opposing module portion 721 may have a shape corresponding to the water level sensor 710. When the water level sensor 710 has a square plate shape, the opposing module unit 721 may also have a square plate shape. Accordingly, the water level sensor 710 can be prevented from being separated from the first part case 720a.

The first part case 720a may have a substantially rectangular parallelepiped shape. Thereby, the water level sensor 710 can be accommodated. However, the present invention is not limited thereto, and the first part case 720a may have a shape corresponding to the water level sensor 710. For example, when the water level sensor 710 has a circular shape, the first part case 720a may have a circular shape in a corresponding part.

One of the six sides of the rectangular parallelepiped of the first part case 720a may be provided with an opening.

The first part case 720a may be made of plastic.

The first part case 720a may be formed through an injection process.

An extension hook hole 723H may be defined in the first part case 720a. An extension hook 723 may be inserted into the second part case 720b, which will be described later, in the extension hook hole 723H so that the first part case 720a and the second part case 720b are combined.

A plurality of extension hook holes 723H may be provided. The plurality of extension hook holes 723H may include a first extension hook hole 723Ha and a second extension hook hole 723Hb located on the upper and lower surfaces of the first part case 720a, respectively. As a result, the first part case 720a and the second part case 720b can be stably coupled. However, it is not limited to this, and may be positioned on each opposing surface among the surfaces surrounding the opposing module portion 721 of the first part case 720a. For example, the extension hook hole 723H may be defined on the right and left sides of the first part case 720a, respectively.

A coupling hook hole 724H may be defined in the first part case 720a. A coupling hook 724 of the second part case 720b, which will be described later, may be inserted into the coupling hook hole 724H so that the first part case 720a and the second part case 720b are coupled.

A plurality of coupling hook holes 724H may be provided. The plurality of coupling hook holes 724H may include a first coupling hook 724a hole and a second coupling hook 724b hole located on the right side and the left side, respectively. However, it is not limited to this, and may be positioned on each opposing surface among the surfaces surrounding the opposing module portion 721 of the first part case 720a. Additionally, it can be prevented from being disposed on the surface of the first part case 720a where the first extension hook hole 723Ha and the second extension hook hole 723Hb are located. For example, the extension hook hole 723H may be defined on the upper and lower surfaces of the first part case 720a, respectively.

The first case 720 may include a second part case 720b. The second part case 720b may be combined with the first part case 720a to accommodate the water level sensor 710 therein.

The second part case 720b may be provided to cover the opening defined in the first part case 720a. The second part case 720b may be coupled to the first part case 720a at the opening side defined in the first part case 720a.

The second part case 720b may have a substantially flat shape. However, the present invention is not limited thereto, and the second part case 720b may have a shape corresponding to the opening of the first part case 720a. For example, when the shape of the opening defined in the first part case 720a is circular, the second part case 720b may have a hemispherical shape.

The second part case 720b may be made of plastic.

The second part case 720b may be formed through an injection process.

The second part case 720b may include a second part case body 722. The second part case body 722 may define the appearance of the second part case 720b.

The second part case body 722 may have a flat shape.

The second part case 720b may include an extension hook 723 that is provided to be inserted into the extension hook hole 723H. The extension hook 723 may be inserted into the extension hook hole 723H to couple the first part case 720a and the second part case 720b.

The extension hook 723 may extend from the second part case body 722.

The extension hook 723 may extend toward the first case 720. The extension hook 723 may be provided to extend toward the rear. However, the present invention is not limited thereto, and the extension hook 723 may be provided to extend toward the extension hook hole 723H.

The extension hook 723 may have a hook shape that protrudes toward the outside of the second part case 720b. However, the present invention is not limited thereto, and the extension hook 723 may have a shape that is inserted into and fixed to the extension hook hole 723H. For example, the extension hook 723 may protrude toward the inside of the second part case 720b and be inserted into the extension hook hole 723H.

The extension hook 723 may be configured to be inclined so that the end becomes sharper as it extends toward the extension hook hole 723H. The extension hook 723 may have a surface that slopes downward toward the rear. As a result, the extension hook 723 can be easily inserted into the extension hook hole 723H.

The slope of the extension hook 723 may be a continuous slope. However, the present invention is not limited thereto, and the extension hook 723 may be inclined corresponding to a portion inserted into the extension hook hole 723H.

The extension hook 723 may have a step in the hook shape in the opposite direction toward the first part case 720a. The extension hook 723 can be prevented from being separated from the extension hook hole 723H by the step.

The extension hook 723 may be configured to be elastically movable with respect to the second part case 720b. The extension hook 723 may be configured to be elastically deformable. Accordingly, the user can move the position of the extension hook 723 and easily insert the extension hook 723 into the extension hook hole 723H.

There may be multiple extension hooks 723. The plurality of extension hooks 723 includes a first extension hook 723a configured to be inserted into the first extension hook hole 723Ha and a second extension hook 723b configured to be inserted into the second extension hook hole 723Hb. It can be included.

The first extension hook hole 723Ha may be located on the upper side of the second part case body 722. The second extension hook hole 723Hb may be located on the lower side of the second part case body 722. However, the present invention is not limited thereto, and the first extension hook 723a and the second extension hook 723b may be positioned to correspond to the first extension hook hole 723Ha and the second extension hook hole 723Hb, respectively.

The second part case 720b may include a coupling hook 724. The coupling hook 724 may be inserted into the coupling hook hole 724H.

The coupling hook 724 may be provided to extend from the second part case body 722.

The coupling hook 724 may extend toward the first case 720. The coupling hook 724 may be provided to extend toward the rear. However, the present invention is not limited thereto, and the coupling hook 724 may be provided to extend toward the coupling hook hole 724H.

The coupling hook 724 may have a hook shape that protrudes toward the outside of the second part case 720b. However, the present invention is not limited thereto, and the coupling hook 724 may have a shape that is inserted into and fixed to the coupling hook hole 724H. For example, the coupling hook 724 may protrude toward the inside of the second part case 720b and be inserted into the coupling hook hole 724H.

The coupling hook 724 may be configured to be inclined such that its end becomes sharper as it extends toward the coupling hook hole 724H. The coupling hook 724 may have a surface that slopes downward toward the rear. As a result, the coupling hook 724 can be easily inserted into the coupling hook hole 724H.

The slope of the coupling hook 724 may be a continuous slope. However, it is not limited to this, and the coupling hook 724 may be inclined corresponding to a portion inserted into the coupling hook hole 724H.

The coupling hook 724 may have a step in the hook shape in the opposite direction toward the first part case 720a. The coupling hook 724 may be prevented from being separated from the coupling hook hole 724H by the step.

The coupling hook 724 may be configured to be elastically movable with respect to the second part case 720b. The coupling hook 724 may be configured to be elastically deformable. Accordingly, the user can move the position of the coupling hook 724 and easily insert the coupling hook 724 into the coupling hook hole 724H.

There may be a plurality of coupling hooks 724. The plurality of coupling hooks 724 includes a first coupling hook 724a configured to be inserted into the first coupling hook 724a hole and a second coupling hook 724b configured to be inserted into the second coupling hook 724b hole. It can be included.

The first coupling hook 724a hole may be located on the right side of the second part case body 722. The second coupling hook 724b hole may be located on the left side of the second part case body 722. However, the present invention is not limited thereto, and the first coupling hook 724a and the second coupling hook 724b may be positioned to correspond to the first coupling hook 724a hole and the second coupling hook 724b hole, respectively.

The coupling hook 724 may be formed singly. A conductor groove 711Hb may be defined in a portion where the aforementioned second coupling hook 724b hole can be located.

A conductor groove 711Hb may be defined in the second part case 720b. The conductive wire groove 711Hb may be a groove defined through which the conductive wire 711 of the water level sensor 710 passes.

The conductor groove 711Hb may be provided to be concave from the left side of the second part case body 722 toward the right side. However, it is not limited to this, and may be configured to be concave from the edge of the second part case body 722 toward the inside of the second part case body 722. Alternatively, the second part case body 722 may have a hole shape defined to allow the conductive wire 711 to pass through.

The conductor groove 711Hb may have a tapered shape with the ends coming together toward the inside of the second part case body 722.

The second part case 720b may include a slit protrusion 725. The slit protrusion 725 may be inserted into a guide slit 732H, which will be described later.

The slit protrusion 725 may be configured to be coupled to the second part case body 722.

The slit protrusion 725 may be configured to extend from the second part case body 722. The slit protrusion 725 may extend toward the guide slit 732H. The slit protrusion 725 may extend forward. However, the present invention is not limited thereto, and the slit protrusion 725 may be extended to be accommodated in the guide slit 732H.

The slit protrusion 725 may extend in a direction opposite to the extension hook 723 at a position corresponding to the extension hook 723 . The slit protrusion 725 may extend in a direction opposite to the extension hook 723. As a result, the slit protrusion 725 can be supported by the extension hook 723. Accordingly, damage to the slit protrusion 725 can be prevented.

The slit protrusion 725 may have a hook shape that protrudes toward the outside of the second part case 720b. However, the present invention is not limited thereto, and the slit protrusion 725 may have a shape that is inserted into and fixed to the guide slit 732H. For example, the slit protrusion 725 may protrude toward the inside of the second part case 720b and be inserted into the guide slit 732H.

The slit protrusion 725 may be configured to be inclined so that the end becomes sharper as it extends toward the guide slit 732H. The slit protrusion 725 may have a surface that slopes downward toward the front. As a result, insertion of the slit protrusion 725 into the guide slit 732H can be facilitated.

The slope of the slit protrusion 725 may be a continuous slope. However, it is not limited to this, and the slit protrusion 725 may be inclined corresponding to the portion inserted into the guide slit 732H.

The slit protrusion 725 may have a hook shape with a step in the opposite direction toward the first part case 720a. The slit protrusion 725 can be prevented from being separated from the guide slit 732H by the step.

The guide slit 732H, which will be described later, may have a longer shape than the slit protrusion 725 to enable the slit protrusion 725 to move. Accordingly, the slit protrusion 725 may be able to move in the front-back direction. However, it is not limited thereto, and the guide slit 732H slides the first case 720 relative to the second case 730 in the direction in which the first case 720 and the second case 730 are coupled. It can be defined as possible.

The slit protrusion 725 may be configured to be elastically movable with respect to the second part case 720b. The slit protrusion 725 may be configured to be elastically deformable. Accordingly, the user can move the position of the slit protrusion 725 and easily insert the slit protrusion 725 into the guide slit 732H.

There may be a plurality of slit protrusions 725. The plurality of slit protrusions 725 may include a first slit protrusion 725a configured to be inserted into the first guide slit 732Ha and a second slit protrusion 725b configured to be inserted into the second guide slit 732Hb. You can.

The first guide slit 732Ha may be located on the upper side of the second part case body 722. The second guide slit 732Hb may be located on the lower side of the second part case body 722. However, the present invention is not limited thereto, and the first slit protrusion 725a and the second slit protrusion 725b may be positioned to correspond to the first guide slit 732Ha and the second guide slit 732Hb, respectively.

The second part case 720b may include a protruding guide boss space 727S so that a pressure damper 750, which will be described later, can be coupled.

The guide boss space 727S may be provided to protrude from the second part case body 722 toward the first case 720.

The guide boss space 727S may have a cylindrical shape. However, the guide boss space 727S is not limited thereto and may have a shape corresponding to the shape of the pressure damper 750.

A guide boss space 727S space (FIG. 18) may be defined at the center of the cylinder of the guide boss space 727S.

The sensor module 700 may include a second case 730. The second case 730 may be combined with the first case 720 to define the appearance of the sensor module 700.

The first case 720 may have an opening defined on one side. Other configurations may be accommodated in the first case 720 through the opening.

The first case 720 may have a substantially rectangular parallelepiped shape. However, the present invention is not limited thereto, and the first case 720 may be prepared to correspond to the shape of the second case 730 corresponding to the first case 720.

The first case 720 may be configured such that, among the six sides included in the rectangular parallelepiped, the side facing the second part case 720b is defined as an opening. The opening may have a rectangular shape. However, the present invention is not limited thereto, and the opening may have a shape corresponding to the shape of the second part case 720b.

The second case 730 may include a second case body 731. The second case body 731 may define the appearance of the second case 730.

A guide slit 732H may be defined to accommodate the slit protrusion 725 in the second case 730. The guide slit 732H guides the movement of the slit protrusion 725 so that the first case 720 can slide relative to the second case 730.

That is, the slit protrusion 725 may include at least a portion of the slit protrusion 725 that can be accommodated within the guide slit 732H so that it is guided by the guide slit 732H. By this, the movement of the first case 720 can be guided.

The guide slit 732H may extend in the second case 730 in a direction from the separated position of the water storage container 530 to the receiving position.

The guide slit 732H may be defined to extend in the front-to-back direction.

The second case 730 may include a guide slit portion 732 to define a guide slit 732H.

The guide slit portion 732 may have a rectangular shape. However, the guide slit portion 732 is not limited thereto, and may have a shape corresponding to the guide slit 732H in order to define the guide slit 732H.

A slit may be formed in at least a portion of the first case 720 surrounding the guide slit portion 732. Slits may be defined on the left and right sides of the guide slit portion 732. The guide slit portion 732 may have a free end and a fixed end. The fixed end may be located in front of the guide slit portion 732. The free end may be disposed behind the guide slit portion 732. The free end may be disposed in a direction toward the slit protrusion 725. As a result, the guide slit portion 732 can be moved to allow elastic deformation. The guide slit portion 732 can move in the vertical direction.

When the slit protrusion 725 is inserted into the guide slit 732H, the guide slit portion 732 moves to the outside of the second case 730, making it easy for the slit protrusion 725 to be inserted into the guide slit 732H. You can do it.

A plurality of guide slit portions 732 may be provided. The plurality of guide slit portions 732 may include a first guide slit portion 732 provided on the upper side and a second guide slit portion 732 provided on the lower side. However, the present invention is not limited thereto, and the first guide slit portion 732 and the second guide slit portion 732 may be disposed at positions corresponding to the first slit protrusion 725a and the second slit protrusion 725b.

While the first slit protrusion 725a is inserted into the first guide slit 732Ha, the first guide slit portion 732 may be moved upward by being pressed by the first slit protrusion 725a. When the first slit protrusion 725a is inserted into the first guide slit 732Ha, the first guide slit portion 732 may be moved downward again and returned to its original position.

While the second slit protrusion 725b is inserted into the second guide slit 732Hb, the second guide slit portion 732 may be moved downward by being pressed by the second slit protrusion 725b. When the second slit protrusion 725b is inserted into the second guide slit 732Hb, the second guide slit portion 732 may be moved upward again and returned to its original position.

The first case 720 is a second case ( 730) can be moved to location.

A slit flow groove 732c may be defined surrounding the guide slit portion 732. The guide slit portion 732 can be moved by the slit flow groove 732c. Accordingly, the slit protrusion 725 can be easily accommodated in the guide slit 732H.

The second case 730 may include a support flange portion 734. The support flange portion 734 may be supported by the water storage housing 540 (FIG. 15).

The support flange portion 734 may be in contact with the water storage housing 540. This will be described later along with related drawings.

The support flange portion 734 may extend toward the outside of the first case 720 along the opening. The support flange portion 734 may be bent along the edge of the second case 730 and extend toward the outside of the second case 730.

The support flange portion 734 may be located in the same plane as the plane extending the opening defined in the second case 730.

The support flange portion 734 may be provided on the left and right sides of the second case 730, respectively. Accordingly, the support flange portion 734 can support the second case 730 in a balanced manner. However, it is not limited to this and may be provided on both sides based on the first case 720.

The support flange portion 734 may be configured to extend from the left and right sides of the second case 730 to a portion of the upper portion and a portion of the lower portion. A first guide slit part 732 and a second guide slit part 732 may be located on the upper and lower sides of the second case 730. Accordingly, the support flange portion 734 may be positioned so as not to overlap the first guide slit portion 732 and the second guide slit portion 732.

The support flange portion 734 may be positioned so as not to overlap the support protrusion 735, which will be described later. Since the support protrusion 735 may be provided on the left or right side of the second case 730, the support flange portion 734 may be disconnected at that portion.

The second case 730 may include a support protrusion 735. The support protrusion 735 may be configured to support the water storage housing 540 .

The support protrusion 735 may be provided to extend from the second case body 731. The support protrusion 735 may be provided to protrude from the second case body 731 toward the left or right. The support protrusion 735 may extend substantially to the opening defined in the second case 730 .

The support protrusion 735 may be coupled to the second case body 731 at an angle. The protrusion defined in the module insertion portion 544H due to the inclination can easily penetrate the insertion hole 544H (FIG. 14).

The end of the support protrusion 735 may be configured to share the same plane as the plane containing the opening. As a result, the end portion can support the water storage housing 540.

A plurality of support protrusions 735 may be provided. The plurality of support protrusions 735 may include a first support protrusion 735a located on the left side of the second case body 731 and a second support protrusion 735b located on the right side of the second case body 731. You can. By this, the second case body 731 can be supported in a balanced manner. However, the present invention is not limited thereto, and the first support protrusion 735a and the second support protrusion 735b may be located on opposite sides of the case bodies 720 and 730, respectively.

The support protrusion 735 may have an inclined surface 735A that slopes toward the center toward the front so as to be easily accommodated in the protrusion insertion hole 745H.

The inclined surface 735A may include a first inclined surface 735Aa and a second inclined surface 735Ab provided on the first support protrusion 735a.

A conductor hole 711Ha may be defined in the second case 730 so that the conductor 711 of the water level sensor 710 extends to the outside of the second case 730. The conductor hole 711Ha may be defined in the front part of the first case 720.

The sensor module 700 may include a pressing member 740. The pressing member 740 may be configured to move the water level sensor 710 closer to the measurement target.

The pressing member 740 may be disposed between the first case 720 and the second case 730. The pressing member 740 may be disposed between the second part case 720b and the second case 730.

The pressing member 740 may be positioned to be compressed between the second part case 720b and the second case 730. The pressing member 740 may press both the second part case 720b and the second case 730 so that the second part case 720b and the second case 730 move away from each other.

When the water storage container 530 is in the receiving position, the pressing member 740 can indirectly press the water level sensor 710 in a direction toward the water storage container 530 by pressing the cases 720 and 730. Because of this, the pressing member 740 does not directly contact the water level sensor 710, and the lifespan of the water level sensor 710 can be increased.

The pressing member 740 may be configured to press the water level sensor 710 in a direction toward the water storage container 530 when the water storage container 530 is in the receiving position. Because of this, the water level sensor 710 can be attached closer to the water storage container 530.

The pressing member 740 can accommodate the guide boss space 727S. By this, the pressing member 740 can be prevented from being removed from a predetermined position.

The pressing member 740 may be a spring. However, the present invention is not limited to this, and may be configured to pressurize the first case 720 and the second case 730 in a direction that separates the first case 720 and the second case 730. For example, the pressing member 740 may have the shape of a rod that extends in the transverse direction.

The pressing member 740 is compressed when the water storage container 530 is in the receiving position, thereby elastically supporting the first case 720 in the direction toward the water storage container 530. It may be located between (730). Because of this, when the water storage container 530 is in the receiving position, the water level sensor 710 can be brought into closer contact with the water storage container 530. As a result, the water level sensor 710 can sensitively generate a signal that detects the level of condensate in the water storage container 530.

The pressing member 740 may be made of metal.

The pressing member 740 may be formed by bending a wire.

The sensor module 700 may include a pressure damper 750. The pressure damper 750 may be configured to distribute pressure to the object being pressed by the pressure member 740.

That is, the pressure damper 750 is located between the first case 720 and the pressure member 740 so that the pressure applied to the first case 720 by the pressure member 740 is evenly distributed. ) may include.

The pressure damper 750 may be disposed between the pressure member 740 and the second part case 720b. Accordingly, the pressure damper 750 can press the second part case 720b by pressing the pressing member 740 while pressing the first part case 720a. The second part case 720b may receive pressure distributed by the pressure damper 750.

The pressure damper 750 may have a circular ring shape. However, the present invention is not limited thereto, and the ring-shaped center hole may be defined to correspond to the guide boss space 727S.

The pressure damper 750 can accommodate the guide boss space 727S.

The pressure damper 750 may have a ring shape. As a result, the pressure of the pressing member 740 can be uniformly distributed by having a shape corresponding to the cross section of the pressing member 740. However, the present invention is not limited thereto, and the pressure damper 750 may have a shape that corresponds to the cross section of the pressure member 740 or may have an expanded shape.

The pressure damper 750 may have a sponge material. Accordingly, the pressure damper 750 can absorb or disperse the impact caused by the pressure member 740. However, the present invention is not limited thereto, and the pressure damper 750 may be made of a material that absorbs shock. For example, the pressure damper 750 may be made of a rubber material.

The pressure damper 750 may be formed by a rubber molding method.

FIG. 18 is a cross-sectional perspective view showing a cross-section of the sensor module 700 of the food waste disposer 1 shown in FIG. 16.

With reference to FIG. 18 , the sensor module 700 according to an embodiment of the present disclosure will be described in more detail.

The water level sensor 710 may be located within the first case 720.

The first case 720 may include a water level sensor 710 mounting portion 726 that protrudes inward to guide the position where the water level sensor 710 is inserted.

The water level sensor 710 mounting portion 726 is a space corresponding to the water level sensor 710 so that the first case 720 is placed at a preset position during the process of inserting the water level sensor 710 into the first case 720. can be formed. The water level sensor 710 may be accommodated in a space defined to correspond to the water level sensor 710 by the water level sensor 710 mounting portion 726.

The second case 730 may be combined with the first case 720. The first case 720 may be coupled to the second case 730 to be relatively movable. The first case 720 may be movable in the accommodation direction D1 or the separation direction D2 with respect to the second case 730 .

The first case 720 may include a first part case 720a in which an opening configured to receive the receiving sensor is defined. The first case 720 may include a second part case 720b to cover the opening defined in the first part case 720a.

The second part case 720b may include an extension hook 723 and a coupling hook 724 configured to be coupled to the first part case 720a. As a result, the first part case 720a and the second part case 720b can be coupled to limit movement.

The second part case 720b may include a slit protrusion 725 to be slidingly coupled to the first case 720. When the slit protrusion 725 is moved in the receiving direction D1 or the separation direction D2 within the guide slit 732H defined in the first case 720, the second part case 720b moves in the receiving direction D1 ) or can be moved in the separation direction (D2). When the second part case 720b is moved in the receiving direction D1 or the separation direction D2, the first part case 720a may be moved in the receiving direction D1 or the separation direction D2.

The second case 730 may include a receiving guide protrusion 736. The receiving guide protrusion 736 may interact with the guide boss space 727S to prevent the second part case 720b from moving beyond a preset path.

The receiving guide protrusion 736 may be accommodated within the guide boss space 727S defined at the center of the guide boss space 727S. The guide boss space 727S may be positioned to surround at least a portion of the receiving guide protrusion 736.

The guide boss space 727S may be defined so that the receiving guide protrusion 736 can move. Accordingly, while the first case 720 is moved in the accommodation direction D1 or the separation direction D2, the accommodation guide protrusion 736 can be prevented from contacting the guide boss space 727S. However, when the first case 720 significantly deviates from the preset path, the receiving guide protrusion 736 contacts the guide boss space 727S, thereby preventing the first case 720 from deviating from the path. You can.

The receiving guide protrusion 736 may be located on the center side of the second case 730. If the path of the first case 720 deviates from the center of the second case 730 and is far from the receiving guide protrusion 736, the guide boss space This is because it easily meets (727S) and limits the movement of the first case (720). However, without being limited thereto, the accommodation guide protrusion 736 may be positioned to prevent the accommodation guide protrusion 736 from easily contacting the guide boss space 727S despite the movement of the first case 720. .

The receiving guide protrusion 736 may be provided to protrude toward the second part case body 722.

The second case 730 may include a pressure guide rib 738. The pressing guide rib 738 may be configured to prevent the pressing member 740 from deviating from a preset position of the second case 730.

The pressure guide rib 738 may be configured to protrude from the inner surface of the second case body 731 toward the second part case 720b.

The pressing member 740 may be inserted into the pressing guide rib 738 and coupled to the second case 730.

The pressure guide rib 738 may include a first pressure guide rib 738a configured to guide the pressure member 740 on the outside of the pressure member 740.

The pressure guide rib 738 may include a second pressure guide rib 738b configured to guide the pressure member 740 on the inside of the pressure member 740.

The pressing member 740 may be positioned between the first pressing guide rib 738a and the second pressing guide rib 738b. The pressing member 740 may be accommodated in the space between the first pressing guide rib 738a and the second pressing guide rib 738b.

The pressing member 740 may be configured to press the first case 720 in the separation direction D2. The pressing member 740 may press the second part case 720b of the first case 720. The pressing member 740 may press the inside of the second case 730 and, by reaction thereto, pressurize the second part case 720b.

The pressure damper 750 may be configured so that the pressure member 740 evenly pressures the second part case 720b. If the pressure damper 750 is not present, the pressure of the pressure member 740 may be concentrated on a portion of the second part case 720b, causing the pressure to not be smooth and noise to occur.

FIG. 19 is a perspective view showing the sensor module 700 of the food waste disposer 1 shown in FIG. 16 mounted on the water storage housing 540.

With reference to FIG. 19, it will be described that the sensor module 700 according to an embodiment of the present disclosure is coupled to the water storage housing 540.

The sensor module 700 may be coupled to the water storage housing 540. Sensor module 700 may be coupled to the water reservoir opposing housing wall 543 of housing 10 .

The sensor module 700 may be coupled to the opposing housing wall 543 through the receiving opening 540A (FIG. 13) of the water storage housing 540. The sensor module 700 may be coupled to the opposing housing wall 543 in the receiving direction D1.

The sensor module 700 may be coupled to the opposing housing wall 543 through a module insertion hole 544H (FIG. 14) defined in the module insertion portion 544H. The sensor module 700 may be positioned so that the first case 720 on which the water level sensor 710 is mounted faces the water storage container 530. Accordingly, when the water storage container 530 is located in the receiving position, the water level sensor 710 and the water storage container 530 can be located closer.

The support flange portion 734 of the sensor module 700 may be supported by the opposing housing wall 543. The support flange portion 734 may be in contact with the opposing housing wall 543 while the sensor module 700 is moved in the receiving direction D1. The support flange portion 734 may contact the module insertion portion 544H (FIG. 14). By this, the sensor module 700 can be prevented from moving forward. The sensor module 700 can be prevented from being separated from the water storage housing 540 in the receiving direction D1.

Opposite housing wall 543 may have a first opposing housing surface 546a defined to face reservoir 530 . Opposing housing wall 543 may have a second opposing housing wall 543 located opposite the first opposing housing wall 543 .

That is, the water storage housing 540 may have a first opposing housing surface 546a facing the water storage container 530 when the water storage container 530 is in the receiving position. The water storage housing 540 may have a second opposing housing surface 546b that is opposite to the first opposing housing surface 546a.

The support flange portion 734 may be bent in the second case body 731.

The support flange portion 734 may contact the first opposing housing surface 546a.

While the sensor module 700 moves in the receiving direction D1, the support protrusion 735 may move through the protrusion insertion hole 544H. The support protrusion 735 may be deformed toward the second case body 731, then return to its original state and pass through the protrusion insertion hole 544H.

Support protrusion 735 of sensor module 700 may be supported by opposing housing wall 543. The support protrusion 735 may contact the wall of the opposing housing 10 when the sensor module 700 is mounted in the module insertion portion 544H. The support protrusion 735 of the sensor module 700 may contact the second opposing housing surface 546b. By this, the sensor module 700 can be prevented from moving backward.

The support protrusion 735 may extend from the second case body 731 to support the second opposing housing surface 546b.

The sensor module 700 may be coupled to the water storage housing 540 with its forward movement restricted by the support flange portion 734 and its rearward movement restricted by the support protrusion 735 .

The module coupling portion may be arranged to retreat in the receiving direction (D1). Accordingly, when the water storage container 530 is in the receiving position, the first case 720 of the sensor module 700 can be moved in the receiving direction D1 by a preset value. Accordingly, the water level sensor 710 can move toward the water storage container 530.

Below, we will look at the case where the water storage container 530 moves from the separated position to the receiving position. First, let's look at the case where the water storage container 530 is in the separated position.

FIG. 20 is a cross-sectional view showing the water storage container 530 separated from the water storage device 500 of the food waste disposer 1 shown in FIG. 11.

With reference to FIG. 20 , a case where the water storage container 530 according to an embodiment of the present disclosure is in a separated position will be described.

When the water storage container 530 is in the separated position, the water storage container 530 may be located outside the receiving space 540S defined inside the water storage housing 540. The water storage container 530 may be located at the rear of the receiving space 540S.

The water storage housing door 550 may be positioned to open the receiving opening 540A so that the water storage container 530 can move into the receiving space 540S.

The locker 620 may be positioned in an unlocked position so that the water storage container 530 can be moved to the receiving space 540S.

The sensor module 700 may be positioned with the first case 720 moved to its maximum in the separation direction D2. However, even in this case, the first case 720 may be pressed toward the separation direction D2.

The water storage container 530 may be slidably moved into the receiving space 540S.

FIG. 21 is a cross-sectional view showing the water storage container 530 accommodated in the water storage device 500 of the food waste disposal machine 1 shown in FIG. 20. FIG. 22 is an enlarged view of the sensor module 700 in the water storage device 500 of the food waste disposer 1 shown in FIG. 21. FIG. 23 is a cross-sectional view of the water storage device 500 of the food waste disposal machine 1 shown in FIG. 20 cut from another direction. FIG. 24 is an enlarged cross-sectional view showing the sensor module 700 in the water storage device 500 of the food waste disposer 1 shown in FIG. 23.

With reference to FIGS. 21 to 24 , a case where the water storage container 530 according to an embodiment of the present disclosure is in the receiving position will be described.

The water storage container 530 may be moved in the receiving direction D1.

The stopper 611 may be accommodated in the stopper accommodating groove 531H of the stopper accommodating portion 531 while the water storage container 530 moves in the accommodating direction D1. When the stopper 611 is accommodated in the stopper receiving groove 531H, the movement of the water storage container 530 in the receiving direction D1 may be restricted.

The position of the water storage container 530 when the stopper 611 is accommodated in the stopper accommodating groove 531H may be referred to as the accommodating position.

When the water storage container 530 is located in the receiving position, the first case 720 may be pressed in the separation direction D2 by the pressing member 740. By this, the water level sensor 710 can be indirectly pressed toward the water storage container 530.

When the water level sensor 710 is pressed toward the water storage container 530, the water level sensor 710 may be positioned closer to the water storage container 530. Accordingly, the water level sensor 710 can more sensitively output a signal related to a change in capacitance of the water storage container 530.

In this case, the first case 720 may be pressurized by the water storage container 530.

Since the movement of the second case 730 in the receiving direction D1 is restricted by the support flange portion 734, the movement of the second case 730 may be restricted even if the water storage container 530 is moved. Accordingly, the first case 720 can be relatively moved by the second case 730.

FIG. 25 is a control block diagram showing how the water level sensor 710 shown in FIG. 23 operates.

With reference to FIG. 25, control of the control unit 1100 according to an embodiment of the present disclosure will be described.

The food waste disposer 1 may include a control unit 1100. The control unit 1100 may include a processor 1110 that performs calculations and a memory 1120 that stores data.

The memory 1120 may store or remember a program (a plurality of instructions) or data for processing signals and providing control signals.

The memory 1120 includes volatile memory 1120 such as Static Random Access Memory (S-RAM) and Dynamic Random Access Memory (D-RAM), Read Only Memory (ROM), It may include a non-volatile memory 1120 such as Erasable Programmable Read Only Memory (EPROM). The memory 1120 may be provided integrally with the processor 1110 or may be provided as a semiconductor device separate from the processor 1110.

The processor 1110 may further include a processing core (e.g., an arithmetic circuit, a memory circuit, and a control circuit) that processes signals and outputs control signals based on the program or data stored in the memory 1120 (191). there is.

The processor 1110 may be electrically connected to the water level sensor 710. The processor 1110 may be electrically connected to the memory 1120.

The processor 1110 may obtain the water level value of the water storage container 530 based on the signal output by the water level sensor 710 in response to the water level of the water storage container 530.

The food waste disposer 1 may include an output unit 1200 controlled by a signal generated from the processor 1110. The output unit 1200 may include a user interface.

The user interface can receive touch input and output images. The user interface may include, for example, an input button for obtaining user input, and a display for displaying information about the water level of the water storage container 530 in response to the user input.

Each of the plurality of buttons may obtain a user input and provide an electrical signal (eg, a voltage signal or a current signal) representing the obtained user input to the processor 1110.

The processor 1110 may control the output unit 1200 to display information about the water level value on the output unit 1200 based on the acquired water level value.

The food waste disposer 1 may include a communication module 1300 capable of communicating with the processor 1110.

The communication module 1300 may receive data about the water level from a content source connected to the network.

The communication module 1300 may include a wired communication module 1310 that receives data about the water level from a content source by wire and a wireless communication module 1320 that receives data about the water level wirelessly from a content source.

The wired communication module 1310 may receive data streams from content sources using various communication standards. For example, the wired communication module 1310 may receive data about the water level from a content source using Ethernet (IEEE 802.3 technical standard).

The wired communication module 1310 is a wired communication terminal for wired connection to the network and/or a communication circuit (e.g., a processor 1110 and/or a memory 1120 that modulates and/or demodulates data for wired communication). For example, it may include a wired communication interface controller).

The wireless communication module 1320 can exchange wireless signals with an audio device using various wireless communications. Additionally, the wireless communication module 1320 may receive a data stream from a content source via an audio device.

For example, the wireless communication module 1320 can connect to a wireless repeater using WiFi (IEEE 802.11 technical standard) wireless communication and receive data about the water level from a content source through the wireless repeater. there is.

Wi-Fi wireless communication can provide direct communication (peer to peer communication) between nodes (e.g., display devices, audio devices, etc.) without going through a wireless repeater. In this way, direct communication using Wi-Fi wireless communication is called “WiFi P2P” or “WiFi direct.” The wireless communication module 1320 can exchange data with the audio device 200 using the Wi-Fi P2P communication standard.

In addition, the wireless communication module 1320 communicates data with the processor 1110 using Bluetooth® (IEEE 802.15.1 technical standard) or ZigBee® (IEEE 802.15.4 technical standard) wireless communication. You can give and receive. Alternatively, the wireless communication module 1320 may exchange data with an audio device using near field communication (NFC).

The wireless communication module 1320 is a communication circuit (e.g., a wireless communication interface) including an antenna for transmitting and receiving a wireless signal and/or a processor 1110 and/or a memory 1120 for decoding/encoding data for wireless communication. controller) may be included.

Hereinafter, a food waste disposer 1 according to another embodiment of the present disclosure will be disclosed. In describing the embodiment, the same reference numerals may be assigned to the same components as those shown in FIGS. 1 to 25 and the description may be omitted.

Embodiments described in this disclosure may be implemented together without being inconsistent with each other. Each embodiment can be implemented in combination with each other or by changing some configurations.

FIG. 26 is an enlarged cross-sectional view of the sensor module 700 of the food waste disposer 1 according to an embodiment of the present disclosure.

With reference to FIG. 26, a pressing member 740 according to an embodiment of the present disclosure will be described.

The food waste disposer 1-1 may include a sensor module 700 including a pressing member 740-1. The pressing member 740-1 may be positioned between the first case 720 and the second case 730 to press the first case 720 toward the water storage container 530.

The pressing member 740-1 may include a pressing motor 741. The pressurizing motor 741 may be electrically connected to the processor 1110 (FIG. 25). The processor 1110 may control the operation of the pressurizing motor 741-1.

The pressurizing motor 741 may include a stator (not shown) and a rotor (not shown) that is rotatable with respect to the stator. The rotor may be connected to the rotation axis of the pressing motor 741-1. The rotor can rotate through magnetic interaction with the stator, and the rotation of the rotor can rotate the rotation axis.

The pressurizing motor 741-1 may include, for example, a BrushLess Direct Current Motor (BLDC Motor) or a Permanent Magnet Synchronous Motor (PMSM) whose rotation speed is easy to control.

The food waste disposer 1 may include a motor drive (not shown). The motor drive may receive a driving signal for rotating the rotation shaft, and may provide a driving current for rotating the rotation axis of the pressing motor 741-1 to the pressing motor 741-1 based on the driving signal from the processor 1110. can be supplied. For example, the motor drive may receive a drive signal including a speed command of the pressurizing motor 741-1, and provide a driving signal to the pressurizing motor 741 so that the rotational speed of the pressing motor 741-1 follows the speed command. Driving current can be supplied.

The motor drive may provide the driving current value supplied to the pressing motor 741-1 and the rotation speed of the pressing motor 741-1 to the processor 1110. The processor 1110 may check the rotation of the rotation shaft based on the driving current of the pressing motor 741-1. Additionally, the processor 1110 may identify the operating frequency of the rotation axis based on the rotation speed of the pressing motor 741-1.

For example, when the pressurizing motor 741-1 is a non-commutator direct current motor, the motor drive may supply pulse width modulated direct current to the pressurizing motor 741-1. When the pressing motor 741-1 is a permanent magnet synchronous motor, the motor drive can supply alternating current to the pressing motor 741-1 using vector control.

Pressure member 740 may include gear 742. The gear 742 may be configured to transmit the power of the pressing motor 741.

The rotation axis of the pressing motor 741-1 may be connected to the center of the gear 742-1. Gear 742-1 may rotate based on rotation of the rotation axis.

Gear 742-1 may be a spur gear. However, the present invention is not limited thereto, and the gear 742-1 may be a gear 742-1 capable of transmitting the power of the pressurizing motor 741-1.

Gear 742-1 may be made of metal.

Gear 742-1 may be formed by a mold.

The pressing member 740-1 may include a rack 743-1. The rack 743-1 may be configured to interact with the gear 742-1.

The rack 743-1 may be positioned to mesh with the gear 742-1.

The gear 742-1 may rotate as the rotation axis of the pressing motor 741-1 rotates. As the gear 742-1 rotates, the rack 743-1 may move in the separation direction D2 or the accommodation direction D1. When the rack 743-1 is moved in the separation direction D2, the first case 720 may be pressed toward the separation direction D2.

The rack 743-1 may be made of metal.

The rack 743-1 may be formed by a mold.

That is, the pressing member 740-1 is meshed with the pressing motor 741-1, the gear 742-1 configured to be coupled to the rotation axis of the pressing motor 741-1, and the gear 742-1 , As the gear 742-1 rotates, it may include a rack 743-1 capable of pressing the cases 720 and 730.

FIG. 27 is an enlarged cross-sectional view of the sensor module 700 of the food waste disposer 1-2 according to an embodiment of the present disclosure.

With reference to FIG. 27, a first case 720-2 according to an embodiment of the present disclosure will be described.

In the embodiment described with reference to FIGS. 1 to 25 , the first part case 720a and the second part case 720b may be formed integrally. As a result, the production time of the first case 720-2 can be shortened. That is, the first case 720-2 may be formed as a single piece.

Figure 28 is an enlarged cross-sectional view of the sensor module 700-3 of the food waste disposer 1-3 according to an embodiment of the present disclosure.

With reference to FIG. 28, a sensor module 700 according to an embodiment of the present disclosure will be described.

The food waste disposer 1 may include a sensor module 700-3.

The water level sensor 710-3 included in the sensor module 700-3 may be positioned to directly contact the opposing container wall 534 of the water storage container 530.

Sensor module 700 may be positioned between an opposing vessel wall 534 of water storage vessel 530 and an opposing housing wall 543 of water storage housing 540 .

The sensor module 700-3 is positioned between the water level sensor 710-3 and the opposing housing wall 543 of the water storage housing 540 to press the water level sensor 710-3 toward the water storage container 530-3. It may include a pressing member 740-3 that is disposed.

The sensor module 700-3 may include a pressure damper 750-3 located between the pressure member 740-3 and the sensor module 700-3.

The sensor module 700-3 may include a pressure guide rib 738-3 positioned to guide the pressure member 740-3.

Pressure guide ribs 738-3 may be located on opposing housing walls 543. The pressure guide rib 738-3 may protrude from the opposing housing wall 543 toward the water level sensor 710-3.

The pressure guide rib 738-3 may be formed integrally with the opposing housing wall 543 of the water storage housing 540.

The pressure guide rib 738-3 may include a first pressure guide rib 738a-3 and a second pressure guide rib 738b-3.

In contrast to the embodiment described with reference to FIGS. 1 to 25 , the sensor module 700-3 may not include the cases 720 and 730.

Figure 29 is an exploded view showing a portion of the first case 720-4 and the second case 730-4 of the food waste disposer 1-4 according to an embodiment of the present disclosure.

With reference to FIG. 29, a structure for guiding the movement of the sensor module 700-4 according to an embodiment of the present disclosure will be described.

The food waste disposer 1-4 may include a sensor module 700-4 including a first case 720-4 and a second case 730-4.

The first case 720-4 may include a second part case 720b-4.

The second part case 720b-4 may include a guide boss space 727S-4 extending into the inner space of the second case 730-4.

A protruding guide groove 727H-4 may be defined inside the guide boss space 727S-4 of the second part case 720b-4.

The protruding guide groove 727H-4 may be positioned adjacent to the edge of the guide boss space 727S-4.

The protruding guide groove 727H-4 may extend in the radial direction based on the guide boss space 727S-4.

The protruding guide groove 727H-4 may extend in an extension direction based on the guide boss space 727S-4.

The second case 730-4 may include a receiving guide protrusion 736-4 corresponding to the position where the pressing member 740 is located.

The receiving guide protrusion 736-4 may protrude toward the guide boss space 727S-4.

The receiving guide protrusion 736-4 may include a protrusion guide rib 737-4 that protrudes in the radial direction.

The protruding guide rib 737-4 may extend along the receiving guide rib in the longitudinal direction of the receiving guide rib.

The protrusion guide rib 737-4 of the second case 730-4 may be accommodated in the protrusion guide groove 727H-4 defined in the second part case 720b-4. Accordingly, the movement of the protrusion guide rib 737-4 can be guided by the protrusion guide groove 727H-4. The protrusion guide rib 737-4 may be accommodated in the protrusion guide groove 727H-4 and moved in the accommodation direction D1 or the separation direction D2.

The protrusion guide rib 737-4 of the second case 730-4 may be provided to correspond to the protrusion guide groove 727H-4. As a result, the protruding guide rib 737-4 can be prevented from moving other than in the receiving direction D1 or the separation direction D2.

Compared to the embodiment described with reference to FIGS. 1 to 25 , the present embodiment may further include additional components for guiding the movement of the first case 720.

Figure 30 is an exploded view showing a portion of the first case 720-5 and the second case 730-5 of the food waste disposer 1-5 according to an embodiment of the present disclosure.

With reference to FIG. 30, a structure for guiding the movement of the sensor module 700-5 according to an embodiment of the present disclosure will be described.

The food waste disposer 1-5 may include a sensor module 700-5 including a first case 720-5 and a second case 730-5.

The first case 720-5 may include a second part case 720b-5.

The second part case 720b-5 may include a slit protrusion 725-5 that protrudes toward the outside of the second part case 720b-5.

The slit protrusion 725-5 may extend toward the second case 730-5. The slit protrusion 725-5 may extend in the receiving direction D1 or the separation direction D2.

A slit guide groove (725H-5) may be defined in the slit protrusion (725-5). The slit guide groove 725H-5 may extend in the receiving direction D1 or the separation direction D2.

The second case 730-5 may include a guide slit portion 732-5.

The second case 730-5 may include a slit guide rib 733-5 that protrudes from the guide slit portion 732-5 toward a space defined inside the second case 730-5.

The slit guide rib 733-5 may extend along the receiving direction D1 or the separation direction D2.

The slit guide rib 733-5 can be accommodated in the slit guide groove 725H-5. The slit guide rib 733-5 is accommodated in the slit guide groove 725H-5, and the slit protrusion 725-5 can be moved in the accommodation direction D1 or the separation direction D2. As a result, the slit protrusion 725 can be prevented from moving in a direction other than the receiving direction D1 or the separation direction D2.

Slits may be defined on both sides of the guide slit portion 732-5. As a result, the guide slit portion 732-5 can have fluid movement. The slit guide rib 733-5 protruding from one side of the guide slit portion 732-5 may move according to the movement of the guide slit portion 732-5. As a result, friction between the second part case 720b-5 and the first case 720-5 can be reduced. Accordingly, the guide slit portion 732-5 can reduce noise generated while the second part case 720b-5 moves with respect to the first case 720-5.

Compared to the embodiment described with reference to FIGS. 1 to 25 , the present embodiment may further include additional components for guiding the movement of the first case 720.

Figure 31 is an exploded view showing the valve module 800-6 of the food waste disposer 1-6 according to an embodiment of the present disclosure. FIG. 32 is a cross-sectional view showing the water storage container 530 on which the valve module 800-6 of the food waste disposer 1-6 shown in FIG. 31 is mounted in the receiving position. FIG. 33 is a cross-sectional view showing the water storage container 530-6 on which the valve module 800-6 of the food waste disposer 1-6 shown in FIG. 31 is mounted in a separated position.

With reference to FIGS. 31 to 33, the valve module 800-6 included in an embodiment of the present disclosure will be described.

In the embodiment described with reference to FIGS. 1 to 25 , it was mainly assumed that the water level sensor 710-6 does not come into contact with condensate. However, the water level sensor 710-6 in this embodiment may be in contact with condensate.

However, when the water level sensor 710-6 can contact condensate, the water level sensor 710-6 may be positioned to avoid the movement path of the water storage container 530 so as not to interfere with the movement of the water storage container 530.

In order for the water level sensor 710-6 to be located in the water storage space 530S inside the water storage container 530, the water level sensor 710-6 may have a shape that protrudes downward from the water storage opening 530A. However, with this shape, the water level sensor 710 may contact the opposing container wall 534 of the water storage container 530 while the water storage container 530 is moved from the receiving position to the separation position. Movement of the water storage container 530 outside the cover housings 12 and 13 may be restricted.

The food waste disposer 1-6 may include a component that moves the water level sensor 710-6 to prevent the water level sensor 710-6 from coming into contact with the water storage container 530. However, in this case, additional production costs and time may be required because a separate component for moving the water level sensor 710-6 is added.

The water level sensor 710-6 may be positioned through the opposing container wall 534 of the water storage container 530 when the water storage container 530 is in the receiving position. The water level sensor 710-6 may not restrict movement of the water storage container 530 to the receiving position or separation position.

However, when the water level sensor 710-6 penetrates the water storage container 530, it is necessary to prevent leakage of condensate through the water storage container hole 535H-6 defined in the water storage container 530.

In particular, as shown in FIG. 31, the food waste disposer 1-6 may include a valve module 800-6. The valve module 800-6 may be configured to prevent condensate contained in the water storage container 530 from leaking.

The valve module 800-6 may include a valve case 810-6 that forms an exterior and has a valve case hole 810H-6 through which detergent can flow into the valve case 810-6.

The valve case 810-6 is located within the water storage container 530 and may be positioned adjacent to the water storage container hole 535H.

A water storage container valve 830-6 may be provided at the rear of the valve case 810-6 to open and close the water storage container hole 535H-6.

The movement of the water storage container valve 830-6 may be guided by the valve case 810-6.

A water level sensor 710-6 may be inserted into the water storage container hole 535H-6.

The water level sensor 710-6 may protrude from the water storage container 530 so as to be retractable through the water storage container hole 535H.

The water storage container valve 830-6 can be moved into the water storage space 530S to prevent condensate from leaking into the water storage container hole 535H-6. As a result, the water storage container hole 535H can be opened or closed.

The water storage container valve 830-6 may cover the water storage container hole 535H-6.

The water storage container valve 830-6 may be provided with a valve pressurizing part 831 that is provided so that the water level sensor 710-6 can pressurize it.

The water storage container valve 830-6 may include a valve guide protrusion 832-6 that protrudes from the center of the pressurizing portion through the front center of the valve case 810-6.

The water storage container valve 830-6 may include a valve guide rib 833-6 that protrudes in the radial direction of the valve guide protrusion 832-6 to prevent the water storage container valve 830-6 from rotating. . The valve guide rib 833-6 may extend in the longitudinal direction of the valve guide protrusion 832-6.

A valve protrusion groove 812H-6 may be defined at the front center of the valve case 810-6. A valve protrusion groove (812H-6) may be provided to correspond to the cross-sectional shape of the valve guide protrusion (832-6) and the valve guide rib (833-6).

The valve module 800-6 may include a valve elastic member 820 that elastically biases the water storage container valve 830-6 to the water storage container hole 535H-6. The valve elastic member 820-6 may be positioned to surround the valve guide protrusion 832-6 and the valve guide rib 833-6. The valve elastic member 820-6 may press the inner surface of the valve case 810-6 and the valve pressing portion 831-6 of the water storage container valve 830-6.

The valve elastic member 820-6 may be positioned between the valve case 810-6 and the water reservoir valve 830-6 to be compressible.

The valve module 800-6 is coupled to be adjacent to the rim of the valve pressurizing portion 831-6 of the water storage container valve 830-6, and the water storage container valve 830-6 and the water storage container hole 535H-6. It may include a valve sealing member 840-6 configured to seal the gap.

The valve sealing member 840-6 may seal between the water storage container hole 535H-6 and the water storage container valve 830-6.

In particular, as shown in FIGS. 32 and 33, while the water storage container 530 moves from the separation position to the receiving position, the water level sensor 710-6 presses the water storage container valve 830-6 and simultaneously stores water. It can be moved through the container hole 535H-6.

The sensor module 700-6 leaks condensate between the water storage container hole 535H-6 and the water level sensor 710-6 while the water level sensor 710-6 passes through the water storage container hole 535H-6. To prevent this, a module sealing member 712-6 may be included.

The module sealing member 712-6 may be provided to correspond to the water storage container hole 535H-6.

The module sealing member 712-6 may be made of an elastic material.

When the water storage container 530 is in the receiving position, the water level sensor 710-6 may space the water storage container valve 830-6 from the water storage container hole 535H-6. At the same time, the valve sealing member 840-6 may be positioned to be spaced apart from the water storage container hole 535H-6.

Condensate may be moved toward the water level sensor 710-6 through the valve case hole 810H-6. The water level sensor 710-6 may contact the condensate and output a signal corresponding to the level of the condensate.

At the same time, condensed water contained in the water storage container 530 can be prevented from leaking to the outside of the water storage container 530.

In the above, specific embodiments are shown and described. However, it is not limited to the above-described embodiments, and those skilled in the art can make various changes without departing from the gist of the technical idea of the invention as set forth in the claims below. .

Food waste disposer: 1
Housing: 10
Cover housing: 12, 13
Exhaust pipe: 110, 130
Exhaust fan: 140
Base housing: 900
Water storage device: 500
Water reservoir cover: 510
Gasket: 520
Water storage vessel: 530
Water storage space: 530S
Water reservoir opening: 530A
Opposite vessel wall: 534
Opposite vessel side: 534A
Locking device: 600
Support plate: 610
Locker: 620
Sub locker: 630
Water reservoir: 540
Capacity: 540S
Receiving opening: 540A
Opposite housing wall: 543
First opposing housing side: 546a
Second opposing housing side: 546b
Sensor module: 700
Water level sensor: 710
Pilot: 711
Case: 720, 730
Case 1: 720
1st part case: 720a
Extension hook hole: 723H
Combined hook hole: 724H
Opposite module section: 721
Opposite module side: 721A
Second part case: 720b
2nd part case body: 722
Extension hook: 723
Combined hook: 724
Slit projection: 725
Case 2: 730
Second case body: 731
Guide slit part: 732
Guide slit: 732H
Support flange part: 734
Support projection: 735
Slope: 735A
Pressurized member: 740
Pressurized damper: 750
Valve module: 800
Control: 1100
Acceptance direction: D1
Separation direction: D2

Claims (20)

cover housing;
a processing device positioned within the cover housing to receive food waste;
an exhaust pipe configured to be connected to the processing device to guide air containing moisture;
a water storage container capable of collecting condensate in the exhaust pipe and removable to the outside of the cover housing; and
a water storage housing configured to detachably accommodate the water storage container; and
A sensor module including a water level sensor coupled to the water storage housing and configured to output a signal regarding the level of condensate collected in the water storage container when located adjacent to the water storage container,
The water level sensor is configured to detect the level of condensate in the water storage container by contacting the water storage container when the water storage container is accommodated in the cover housing. According to paragraph 1,
The water storage container is,
a receiving location located within the cover housing and in contact with the sensor module; and
A food waste disposer movable between separation positions located outside the cover housing. According to paragraph 2,
A water storage space for accommodating condensate is defined in the water storage container,
The water level sensor is prevented from being positioned on the water storage space when the water storage container is in the receiving position. According to paragraph 3,
When in the receiving position, the water storage container has an opposing container side facing the sensor module,
The sensor module faces the opposing container surface so as to come into close contact with the water storage container when the water storage container is in the receiving position, and has an opposing module surface corresponding to the opposing container surface. According to paragraph 2,
The sensor module further includes a pressing member configured to press the water level sensor in a direction toward the water storage container when the water storage container is in the receiving position. According to clause 5,
The sensor module includes a case in which the water level sensor is located inside,
The pressing member indirectly presses the water level sensor in a direction toward the water storage container by pressing the case when the water storage container is in the receiving position. According to clause 5,
The sensor module is,
A first case in which the water level sensor can be located inside; and
Further comprising a second case that can be coupled to the water storage housing,
The food waste disposer wherein the first case is coupled to the second case such that the first case can move forward and backward relative to the second case. In clause 7,
The pressing member is compressed when the water storage container is in the receiving position, and is positioned between the first case and the second case so that the first case is elastically supported in a direction toward the water storage container. . In clause 7,
The food waste disposer wherein the first case is moved from the first case position to a second case position spaced apart in the receiving direction while the water storage container is moved from the separated position in a receiving direction toward the receiving position. According to clause 8,
In the first case,
a first part case having an opening so that the water level sensor can be seated; and
A food waste disposer comprising a second part case detachably coupled to the first part case to prevent the water level sensor from being removed from the first part case. In clause 7,
The water storage housing has a first opposing housing surface facing the water storage container when the water storage container is in the receiving position, and a second opposing housing surface opposite the first opposing housing surface,
In the second case,
second case body;
a support flange portion bent from the second case body and contactable with the first opposing housing surface; and
A food waste disposer comprising a support protrusion extending from the second case body and capable of supporting the second opposing housing surface. In clause 7,
A guide slit extending in a direction from the separation position of the water storage container toward the receiving position is defined in the second case,
The first case is a food waste disposer comprising at least a portion of a slit protrusion that can be accommodated in the guide slit so as to be guided by the guide slit. In clause 7,
The sensor module further includes a pressure damper positioned between the first case and the pressing member to evenly distribute the pressure applied to the first case by the pressing member. According to paragraph 1,
a heating device configured to heat the processing device to evaporate moisture of food waste contained in the processing device; and
The food waste disposer further includes an exhaust fan configured to be coupled with the exhaust pipe to move air containing moisture within the treatment device to the exhaust pipe. According to paragraph 1,
The water storage container is located in a direction of gravity with respect to the exhaust pipe so that condensed water generated in the exhaust pipe is concentrated. cover housing;
a processing device located within the cover housing;
a heating device configured to heat the processing device;
an exhaust pipe configured to be connected to the processing device;
a water storage container capable of collecting condensate in the exhaust pipe and movable from a receiving position located within the cover housing to a separated position located outside the cover housing;
a water level sensor configured to output a signal regarding the level of condensate collected in the water storage container when located adjacent to the water storage container; and
and a pressing member configured to press the water level sensor in a direction toward the water storage container,
A food waste disposer in which condensed water in the water storage container is prevented from leaking outside the water storage container when the water storage container is separated from the water level sensor. According to clause 16,
Further comprising a case capable of accommodating the water level sensor,
The pressing member is,
pressurizing motor;
a gear configured to be coupled to the rotation axis of the pressing motor; and
A food waste disposer comprising a rack that engages with the gear and pressurizes the case when the gear rotates. According to clause 16,
The water level sensor is capable of contacting the outer surface of the water storage container, and is capable of outputting a signal regarding the level of condensate in the water storage container according to a change in capacitance of the water storage container. According to clause 16,
A water storage container hole is defined on the water storage container,
The water level sensor protrudes on the water storage container to be retractable through the water storage container hole,
a valve case located within the water storage container and adjacent to the water storage container hole;
a water storage container valve whose movement is guided by the valve case;
a valve elastic member positioned between the valve case and the water reservoir valve to be compressible; and
The food waste disposer further includes a valve sealing member sealing between the water storage container hole and the water storage container valve. cover housing;
a processing device positioned within the cover housing to receive food waste to be disposed of;
an exhaust pipe configured to be connected to the processing device to guide air containing moisture;
a water storage container configured to collect condensate in the exhaust pipe;
A food waste disposer comprising a sensor module positioned within the cover housing and including a water level sensor configured to, when in contact with the water storage container, output a signal regarding the level of condensate collected in the water storage container.

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