KR20120084129A - Apparatus having food garbage disposal and kitchen drier - Google Patents

Abstract

PURPOSE: A complex food waste treating apparatus is provided to enlarge the useful space of a kitchen and to minimize the size of the apparatus by integrating a food waste treating part and a drying chamber receiving part. CONSTITUTION: A complex food waste treating apparatus includes an integrated casing(10), a food waste treating part(100), a drying chamber receiving part(300), and a food waste collecting part(400). The food waste treating part includes a door(102), a rotary drying furnace, and a duct. The rotary drying furnace agitates, pulverizes, and dries food waste in the door and discharges the dried food waste. Bad odor and moisture from the food waste treating process is induced to a sewage draining pipe. The drying chamber receiving part sterilizes and dries kitchen supplies in a drying chamber based on waste heat from the rotary drying furnace. The food waste collecting part includes a food waste collecting container.

Description

Food waste complex processing device {APPARATUS HAVING FOOD GARBAGE DISPOSAL AND KITCHEN DRIER}

The present invention relates to a complex kitchen equipment for automatically processing various food waste, and at the same time to sterilize and dry the kitchen utensils, more specifically, the food waste treatment unit is built into the integrated casing, adjacent kitchen utensils, In other words, the food waste complex processing apparatus for efficiently sterilizing and drying the kitchen utensils in the drying room by using the waste heat generated by the operation of the rotary drying furnace of the food waste processing unit is integrally arranged to dry the dishcloth, cutlery, knife and cutting board. It is about.

In general, food wastes discharged from homes and restaurants are collected in separate public collection bins to remove moisture and landfill, or to be used as livestock feed or compost after processing. However, most food wastes are collected in a wet state, so the water content is high and the volume is large. Thus, when the garbage is too much water, it easily rots, and when the weight increases with the volume, there is a problem in handling such as transportation or processing after transportation.

Such food waste is most desirable to minimize the amount of food ingested and left, so the order diet system that reduces the amount of food left is widely made by social enlightenment, but its effectiveness is very poor. Therefore, it is desirable to actively reduce food waste at the waste generating site, and the food waste processor developed for this purpose.

Such a conventional food waste processor not only can reduce wet weight by drying wet food waste by heating, but also finely grind to reduce volume.

However, the existing food waste processor is a door opening and closing method for operating these components by pulverizing food waste, removing moisture from the heating furnace, and opening the bottom of the drying furnace to empty the resultant waste. Motors and mechanisms are installed.

Therefore, the conventional food waste processor is structurally complicated to produce a high production cost, the obstacles to commercialization due to frequent failures. In addition, conventionally, such a food waste processor is not only required in the kitchen, but also a separate kitchen appliance drying apparatus for drying and sterilizing kitchen utensils such as dishcloths, cutlery, knives, and cutting boards is required.

Such a kitchen apparatus drying apparatus is generally provided with a heating heater and an ultraviolet germicidal lamp, and after use, sterilizes and dries the wet dishcloth, cutlery, knife and cutting board inside, and reuses it in a clean state at all times. Makes this possible.

However, such a conventional kitchen appliance drying apparatus is occupied separately in the kitchen as a stand alone structure, most of which is inconvenient to use because there is a limitation in installing it in a narrow kitchen. In addition, such a conventional kitchen appliance drying apparatus requires a separate heater for internal heating, which increases the energy consumption of the kitchen, causing a large increase in cost.

Therefore, such a conventional kitchen appliance drying apparatus is a problem in the industry to solve the problem of the place constraints on the arrangement in the kitchen, and to effectively secure the heat source required to heat the inside is a problem in the art.

An object of the present invention is to solve the conventional problems as described above, by increasing the utilization of the narrow kitchen space by integrating the food waste treatment unit and the drying chamber storage unit, by using the waste heat generated by the rotary drying furnace of the food waste treatment unit It is to provide an improved food waste composite treatment device to further increase the energy saving effect by increasing the temperature of the drying chamber located in the upper part and sterilizing drying treatment.

And another object of the present invention is drying and grinding at the same time by heating and stirring in the rotary drying furnace of the food waste treatment unit, equipped with a heater at the bottom of the drying furnace to remove the moisture generated in the process, the upper surface Exhaust connector is installed, and the screw coupled to the drying furnace is rotated forward and reverse by the motor forward and reverse rotation operation of the drive unit, and the processed food waste can be rotated by rotating the drying furnace containing the processed waste. It is to provide a food waste composite treatment device that can significantly reduce the manufacturing cost and enable economic waste disposal by simplifying the structure by allowing the discharge to be removed by.

In addition, another object of the present invention, by eliminating the existing bottom lap method that frequently occurs when the waste treatment operation in the rotary drying furnace of the food waste treatment unit, regardless of the type of food waste, smooth processing of stirring, grinding, drying, rotation and discharge Food waste (integrated weight loss treatment and kitchen sterilization drying room) that can improve the productivity (efficiency) of the waste disposal work by ensuring stable waste disposal operation without difficulty of inputting and discharging waste due to screws. It is to provide a food waste complex treatment device.

Another object of the present invention is to reduce the smell and moisture generated during food waste treatment by connecting to the sewer pipe through ducts and dampers to prevent the odor from flowing back into the kitchen so that food waste can be reduced and disposed more sanitarily. The present invention provides an improved food waste reduced weight composite treatment apparatus.

According to an aspect of the present invention,

An integrated casing made of a box-shaped hollow structure; One side of the casing is formed with a door into which food waste is input, and inside the door is provided with a rotary drying furnace that automatically executes stirring, pulverization, drying and discharging of food waste, and does not leak out odors and moisture generated during processing. Food waste treatment unit provided with a duct leading to the sewage pipe; The drying chamber is disposed adjacent to the food waste processing unit, and the drying chamber is provided in the casing to open and close the drawer. The drying chamber may sterilize and dry the kitchen utensils contained in the drying chamber using waste heat generated from the rotary drying furnace of the food waste processing unit. pay; And a food waste collection unit configured to receive food wastes processed by the food waste processing unit therein, the food waste collection unit containing food wastes to the outside, and including a food waste processing unit and a drying chamber storage unit. To provide.

And the present invention preferably the food waste treatment unit is connected to the lower end of the both ends of the door hinged to the casing open and close to the casing, the upper end of the door through the hook on the inner side of the door It is rotatably connected, the lower end is provided with an input receiver which is supported on the inner step of the input hopper so as to slide in the width direction of the input hopper, and when the door is opened horizontally with respect to the casing, Open side by side horizontally and placed on the upper surface, when the door is closed vertically with respect to the casing, the feed tray is vertically placed while being inclined with respect to the door interlocked with the food waste placed on the feed tray and the door Food waste complex configured to be pushed into the feed hopper It provides an apparatus.

In another aspect, the present invention preferably provides a food waste composite treatment device for forcibly discharging the smell and water generated during the processing of food waste in the rotary drying furnace to the sewer pipe having an exhaust fan in the middle.

In the present invention, the duct is preferably a trap is connected to the rear side of the exhaust fan, the inside of the trap is open during operation of the exhaust fan to exhaust the smell and moisture to the drain side, the self-weight when the exhaust fan is stopped Provided is a food waste composite processing apparatus that is closed by the () to automatically rotate the membrane plate to block the odor of the sewage pipe backflow.

In addition, the present invention preferably is the food waste treatment unit, the upper portion of the fixed body portion to form an input hopper open to the door side and the lower portion to form a discharge hopper; The rotary drying furnace is disposed so as to be rotatable in the main body, and forms an accommodation space in which predetermined waste is contained therein through an upper inlet, and is installed at both sides of the lower side to heat-dry the waste. ; A screw rotating inside the drying furnace to agitate and crush the waste contained in the drying furnace; A driving unit having a motor connected to the screw shaft at an outer side of the main body to rotate the screw forward and backward; And a moving unit screwed to the screw shaft, wherein the moving unit is constrained to rotate between the inner surface of the main body and the outer surface of the drying furnace so that the screw moves forward and backward along the screw shaft during forward and reverse rotation operation. In the state of being in close contact with the outer surface of the drying furnace to transfer the rotational force of the screw shaft to the drying furnace, the power connection unit for forward and reverse rotation integrally with the screw shaft; including stirring, grinding, drying and discharge of food waste Provides a food waste complex processing device that automatically executes.

And the present invention preferably comprises a first body of the semi-cylindrical structure and a semi-cylindrical structure of the semi-cylindrical structure is bolted in a circumferential direction and integrally fixed to the first drying body, the first body An exhaust port is formed at an upper portion of the waste to be heated by a heater, and an opening of a size larger than that of the exhaust hole is formed at an upper portion of the second body. 2 provides a food waste composite processing apparatus that is distinguished from the first and second bodies by forming a jaw protruding from the body.

In another embodiment, the rotary drying furnace may include a plurality of first locking protrusions having a linear bar shape formed in multiple stages so as to protrude upward to a height close to the screw at regular intervals in the circumferential direction on the inner circumferential surfaces of the first and second bodies. And a plurality of second and third locking protrusions having a linear bar shape extending in front and rear inner surfaces of the first and second bodies, respectively, to protrude from the inside of the first and second bodies. Provided is a food waste composite processing apparatus for crushing and stirring waste by interaction with a rotating screw in the.

And the present invention is preferably the screw is one end of the screw shaft in the center thereof is connected to the drive shaft of the motor to be separated horizontally through the shaft coupling, is supported on one side of the body portion, the other end of the screw shaft Is rotatably supported by the shaft support bushing on the other side of the main body, and the screw shaft is freely rotated forward and backward with respect to the main body by the forward and reverse rotation operation of the motor, and the screw shaft is the front and rear surfaces of the drying furnace. The screw shaft is rotatably connected to the drying furnace by connecting the center through the first and second bushings, respectively, to provide a food waste processing apparatus.

In addition, the present invention preferably the screw is provided with a plurality of spiral grinding blades along the central screw axis in the circumferential equal intervals of the screw shaft, each of the grinding blades in three different positions in the three directions about the screw axis The grinding blades each have a circumferential angle of 120 degrees or less, so that the horizontal side portions of the screw shafts at which one of the grinding blades are located form empty spaces, respectively, to input or discharge garbage into the drying furnace. Provided is a food waste composite processing device configured not to interfere.

And the present invention preferably has a spiral portion that the moving unit is screwed in a position between the shaft coupling of the screw shaft and the first bushing, and a plurality of wings extending horizontally side by side on both sides of the spiral portion And the plurality of wing parts is supported on a first supporting jaw whose lower surfaces protrude horizontally from the front inner side of the main body portion to the drying furnace side, and the plurality of wing portions have the upper surfaces of the first wing from the front outer side of the drying furnace. Supported by a second support jaw horizontally protruding from the upper portion of the support jaw to the main body side, the wing portion is constrained by the first and second support jaws, respectively, during the forward and reverse rotation operation of the screw shaft, so that the spiral portion is connected to the screw shaft. Therefore, to provide a food waste composite treatment device configured to move forward, backward linearly.

In addition, the present invention preferably the power connecting portion is a multi-sided support surface that is helically coupled to the helical portion of the moving unit forms a polygonal outer circumferential surface, the second support jaw protruding from the front outer side of the drying furnace in accordance with the polygonal outer circumferential surface of the spiral portion When the moving unit advances toward the drying furnace side and the polygonal outer circumferential surface of the spiral portion is coupled to the polygonal support surface of the second support jaw, the moving unit is pressed (locked) to the outer wall of the drying furnace, and the moving unit is the second of the drying furnace. Provided is a food waste composite processing apparatus that is locked to the support jaw.

And the present invention preferably the first stopper of a certain height protrudes on one side of the inner surface, the second stopper protrudes from the lower position than the first stopper on the other side of the inner side, the inner side of the main body The drying furnace located in the drying furnace is formed to selectively engage the first stopper or the second stopper protruding from the one side of the outer surface, when the locking jaw is supported in contact with the first stopper of the main body of the drying furnace When the inlet is located in the upper part of the waste is put into the inside, the stirring and crushing is carried out, and when the drying furnace is rotated so that the inlet is directed to the discharge hopper on the lower side of the body portion, the locking jaw from the first stopper to the second Rotation and support by the stopper limits the rotation of the drying furnace to 180 degrees, and the inlet of the drying furnace acts as an outlet. It provides a food waste composite treatment device for discharging the treated waste to the outside through the discharge hopper.

In another aspect, the present invention preferably comprises a UV lamp fixed to the inside of the upper cover made of a mirror-shaped reflector of the casing, an infrared lamp fixed to the rear wall of the casing, circulating the internal hot air to dry It is equipped with a blower (blower), and sterilization drying through radiant heat transmitted from the food waste treatment unit during the normal sterilization drying of kitchen utensils, hot air circulation by the blower, and the front panel of the drying room during the rapid sterilization drying of kitchen utensils By pressing a button provided in the user to further light the ultraviolet lamp and the infrared lamp to provide a food waste composite processing apparatus for sterilizing kitchen utensils.

And the present invention preferably provides a food waste composite processing apparatus configured to be completely isolated from the food waste processing unit and the food waste processing unit is separated from the odor and moisture generated in the food waste processing unit therein.

According to the food waste composite processing apparatus of the present invention, by integrating the food waste processing unit and the drying chamber storage unit, the kitchen environment can be improved by improving the utilization of the narrow kitchen space through a more compact structure, and the manufacturing cost can be greatly reduced, and the price is lower. Can contribute to popularization.

In addition, according to the present invention, the waste heat generated by the food waste treatment unit can be utilized in the drying compartment storage unit, so that the dishcloth, knife, cutting board, and cutlery used in the kitchen can be sterilized and dried at low energy costs. In addition to innovative energy savings, the hygienic treatment of kitchen utensils can be achieved.

In addition, according to the food waste composite processing apparatus of the present invention, the food waste is agitated, pulverized and dried in a built-in rotary drying furnace, and the odors and moisture generated in the process are led to the sewer pipe and forcedly discharged. When completed, the operation of the screw and the moving unit by the motor driving force of the drive is made of a simple structure to remove the food waste by discharging it to the lower collection by rotating the drying furnace, it is possible to significantly reduce the manufacturing cost through a compact structure. Therefore, according to the present invention, it is possible to contribute to popularization at a lower price, and obtain a very useful effect of achieving economical waste disposal work.

In addition, according to the food waste composite processing apparatus of the present invention, by unifying the inlet and outlet of the drying furnace, the outlet of the size of the inlet can be formed, thereby eliminating problems such as foreign matter jamming when discharging the waste put into the drying furnace, Even when the foreign substance is inadvertently introduced, the occurrence of breakdown is remarkably suppressed, and regardless of the type of food waste, it is possible to smoothly handle the stirring, grinding, drying, rotating, and discharging, so that stable waste disposal operation occurs without failure. It is possible to obtain an excellent effect that can greatly improve the productivity of the treatment operation.

1 is an external perspective view showing a food waste composite processing apparatus according to the present invention.
Figure 2 is an exploded perspective view showing a food waste composite processing apparatus according to the present invention.
3 is a perspective view illustrating the internal arrangement of the food waste treatment unit, the drying chamber accommodating unit, and the food waste collection unit by removing a part of the casing from the food waste complex processing apparatus according to the present invention.
Figure 4 is a perspective view showing an open state of the door of the food waste processing unit provided in the food waste composite processing apparatus according to the present invention.
Figure 5 is a side cross-sectional view showing a state in which the door of the food waste treatment unit provided in the food waste composite processing apparatus according to the present invention.
Figure 6a is an enlarged view showing a half-open state of the food waste processing unit provided in the food waste composite processing apparatus according to the present invention.
6B is an enlarged view illustrating a state in which the door of the food waste processing unit provided in the food waste composite processing apparatus according to the present invention is vertically closed.
Figure 7a is an enlarged view showing a closed state of the trap plate provided in the food waste composite processing apparatus according to the present invention.
Figure 7b is an enlarged view showing a state that the membrane plate of the trap provided in the food waste composite processing apparatus according to the present invention.
8 is an exploded perspective view of the food waste processing unit provided in the food waste composite processing apparatus according to the present invention.
9 is a plan view showing a food waste processing unit provided in the food waste composite processing apparatus according to the present invention.
10 is a cross-sectional view taken along line AA of FIG. 9 as a food waste treatment unit provided in the food waste composite processing apparatus according to the present invention.
11a is a cross-sectional view of a rotary drying furnace provided in the food waste composite processing apparatus according to the present invention.
Figure 11b is a side view showing the front structure of the rotary drying furnace each provided in the food waste composite processing apparatus according to the present invention.
Figure 11c is a side view respectively showing the rear structure of the rotary drying furnace provided in the food waste composite processing apparatus according to the present invention.
Figure 12a is a perspective view showing a screw provided in the rotary drying furnace of the food waste composite processing apparatus according to the present invention.
Figure 12b is a side view showing a screw provided in the rotary drying furnace of the food waste composite processing apparatus according to the present invention.
Figure 12c is a front view showing a screw provided in the rotary drying furnace of the food waste composite processing apparatus according to the present invention.
Figure 13 is a perspective view showing a power connection provided in the rotary drying furnace of the food waste composite processing apparatus according to the present invention.
Figure 14a is a perspective view showing a moving unit provided in the rotary drying furnace of the food waste composite processing apparatus according to the present invention.
Figure 14b is a perspective view showing a second support jaw of the drying furnace coupled with the moving unit provided in the power connection of the food waste composite processing apparatus according to the present invention.
15 is a perspective view illustrating a state in which the drying furnace of the food waste composite processing apparatus according to the present invention is supported by the first and second stoppers of the main body and is limited to 180 degrees of rotation.
Figure 16a is a cross-sectional view showing an injection state in which the catching jaw provided in the drying furnace of the food waste composite processing apparatus according to the present invention is supported by the first stopper of the main body portion so that garbage can be introduced into the drying furnace.
Figure 16b is a discharge state in which the locking jaw provided in the drying furnace of the food waste composite processing apparatus according to the present invention is rotated 180 degrees from the first stopper to the second stopper of the main body to discharge the waste from the inside of the drying furnace through the discharge hopper to the outside. It is a cross-sectional view.

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

Food waste composite treatment apparatus 1 according to the present invention as shown in Figure 1 as a whole, by combining the food waste treatment unit 100 and the drying chamber storage unit 300, it is made of a more compact structure.

The food waste composite processing apparatus 1 according to the present invention includes an integrated casing 10 having a box-shaped hollow structure as shown in FIG. 1.

Such a casing 10 is provided with a food waste processing unit 100, a drying chamber storage unit 300 and a food waste collection unit 400, as shown in Figures 2 and 3 described later in the interior space, The lower surface is preferably provided with four height-adjustable leg 20, the height can be adjusted.

Food waste composite processing apparatus 1 according to the present invention is provided with a food waste processing unit 100 inside the casing 10, such a food waste processing unit 100 is a food waste on one side of the front of the casing (10) A door 102 to be introduced is formed, and inside the door 102 is a rotary drying furnace 130 which automatically executes stirring, grinding, drying, and discharging of food waste, and externally removes odors and moisture generated during processing. The duct 250 leading to the sewer pipe (not shown) without outflow is connected to the rotary drying furnace 130.

4, 5, 6a and 6b, the food waste treatment unit 100, the lower end of both sides of the door 102 is connected to the casing 10 by a hinge (102a) casing (10) Open and close).

In addition, the door 102 of such a food waste treatment unit 100 is connected to the upper end rotatably through the hook 104a on the inner side of the door 102, the lower end of the inner step of the input hopper 111 It is provided with the input receiving part 104 supported by 111a and arrange | positioned so that sliding in the width direction of the input hopper 111 is possible.

When the door 102 is opened horizontally with respect to the casing 10, as shown in FIG. 5, the feed receiver 104 is opened horizontally side by side with respect to the door 102 and is placed on the upper surface thereof. When the door 102 is closed vertically with respect to the casing 10, as shown in FIG. 6B, the food waste placed on the feeding tray 104 is placed in an inclined state with respect to the door 102. In conjunction with the 102, it is configured to push the input hopper 111 side. At this time, the lower end of the feed receiver 104 is supported by the inner step 111a of the feed hopper 111 is to slide in the width direction of the feed hopper 111.

On the other hand, in contrast to the above, when the door 102 is opened horizontally with respect to the casing 10, as shown in FIG. 5, the door 102 is opened horizontally side by side with respect to the door 102 and placed horizontally on the upper surface thereof. . Such a receiving tray 104 may be made of a "┗┛" -shaped cross-section to facilitate the containment of food waste.

The food waste treatment unit 100 includes a rotary drying furnace 130 as shown in FIG. 8 as a whole between the input hopper 111 and the duct 250.

The food waste treatment unit 100 automatically executes stirring, grinding, drying and discharging of food waste, and as shown in FIG. 5, an input hopper 111 is formed at an upper portion thereof and a discharge hopper is disposed at a lower portion thereof. It is provided with a fixed main body 110 formed in a shape forming a 112, the inside of the rotary drying furnace 130 is disposed, the inside of the rotary drying furnace 130 so that the screw 160 is rotatable The motor 172 of the driving unit 170 is disposed outside the main body unit 110.

The rotary drying furnace 130 is a fixed body portion 110 is connected to the inside of the casing 10 through a shock-absorbing and sound-absorbing means such as anti-dust rubber (not shown) to form a casing (10).

9 and 10, the rotary drying furnace 13 is disposed inside the main body 110 so as to be rotatable. Such a drying furnace 130 is internally provided through the upper inlet 140. It forms a receiving space in which a predetermined waste is contained in, and is installed on both sides of the lower end is provided with a heat transfer heater (142a, 142b) for heating and drying the waste.

Such a rotary drying furnace 130 is connected to the first body 132 of the semi-cylindrical structure and the second body of the semi-cylindrical structure that is integrally fixed to the bolt 136 in the circumferential direction to the first body 132 ( 134, and an exhaust port 138 is formed in the upper portion of the first body 132 to exhaust the waste heated by the heaters 142a and 142b, and in the upper portion of the second body 134. The inlet 140 having a larger size than the exhaust port 138 is formed.

In addition, as illustrated in FIGS. 11A and 11B, the exhaust port 138 and the inlet 140 form jaw portions 138a and 140a protruding from the first and second bodies 132 and 134, respectively. The structure is distinguished from the first and second bodies 132 and 134.

In addition, the rotary drying furnace 130 has a structure for crushing and stirring waste more effectively by interacting with the screw 160 rotating inside the first and second bodies 132 and 134. 130, the plurality of first bar protrusions 144 having a straight bar shape are formed on the inner circumferential surfaces of the first and second bodies 132 and 134 so as to protrude upward to a height close to the screw 160 at a predetermined circumferential distance. A plurality of second and third locking protrusions 146 and 148 are formed in a plurality of stages, and the front and rear inner surfaces of the first and second bodies 132 and 134 respectively extend in a plurality of radial bars. Structure.

Therefore, when the screw 160 rotates in the rotary drying furnace 130, the first, second and third locking protrusions 144, 146, and 148 have a large resistance to rubbish in the first and second bodies 132 and 134. This results in more efficient shredding and agitation of the waste.

In addition, the rotary drying furnace 130 according to the present invention includes a screw 160 that rotates inside the drying furnace 130 to stir and crush the waste contained in the drying furnace 130.

As shown in FIG. 10, one end of the screw shaft 161a at the center thereof may be horizontally separated from the drive shaft 174 of the motor 172 through the shaft coupling 162. Is connected, and is supported on one side of the main body 110.

In addition, the other end of the screw shaft 161a is rotatably supported through the shaft support bushing 164 at the other side of the main body 110 so that the screw shaft ( 161a freely rotates forward and reverse with respect to the main body 110.

At the same time, such a screw shaft 161a is rotatably connected to the drying furnace 130. For this purpose, the center of the front and rear surfaces of the drying furnace 130 are penetrated through the first and second bushings 166a and 166b, respectively. It is connected.

Therefore, the forward and reverse rotation operation of the motor 172 allows the screw shaft 161a to freely forward and reverse rotation with respect to the main body 110 and the drying furnace 130.

In addition, such a screw 160, as shown in Figure 12a to 12c, along the screw axis 161a in the center of the plurality of spiral grinding blades (161b) at the circumferentially equal intervals of the screw shaft 161a Equipped.

Each of the grinding blades (161b) is for stirring and crushing the waste during the rotation operation, is formed in three different positions around the screw shaft (161a) in three different positions, each of the grinding blades (161b) As shown in FIG. 12C, the width forms a circumferential angle θ of 120 degrees or less.

Accordingly, such a screw 160 has a horizontal side portion of the screw shaft 161a in which any one of the grinding blades 161b is formed to form an empty space 161c, respectively, as described later, and the drying furnace 130 ) So as not to disturb the input or discharge of garbage into the house.

In addition, the rotary drying furnace 130 according to the present invention is connected to the screw shaft 161a from the outside of the main body 110, the drive unit 170 having a motor 172 for forward and reverse rotation of the screw 160 ).

The motor 172 of the driving unit 170 is horizontally separated from the driving shaft 174 through the shaft coupling 162 at one end of the screw shaft 161a, as shown in FIGS. 8 and 10. As is possible connected, the screw shaft 161a is to be rotated forward and reverse.

The rotary drying furnace 130 according to the present invention transmits the rotational force of the screw shaft 161a which is rotated forward and backward by the motor 172 of the driving unit 170 to the drying furnace 130 as described above. The furnace 130 is provided with a power connection unit 180 that rotates forward and backward integrally with the screw shaft 161a.

As shown in FIGS. 13, 14A, and 14B, the power connection unit 180 includes a moving unit 182 that is screwed to the thread P of the screw shaft 161a, and the moving unit ( 182 is rotated between the inner surface of the body portion 110 and the outer surface of the drying furnace 130 is constrained to move forward and backward along the screw shaft (161a) during the forward and reverse rotation operation of the screw 160. .

However, such a moving unit 182 transmits the rotational force of the screw shaft 161a to the drying furnace 130 in a state of being in close contact with the drying furnace 130, thereby transferring the drying furnace 130 to the screw shaft 161a. It is a structure that rotates forward and reverse together.

To this end, the moving unit 182 of the power connection unit 180 has a thread P at a position between the shaft coupling 162 of the screw shaft 161a and the first bushing 166a, as shown in FIG. 14A. And a spiral portion 184a screwed to the blade) and a plurality of wing portions 184b extending horizontally in parallel to both sides of the spiral portion 184a.

In addition, the plurality of wing portions 184b are respectively supported by the first support jaw 186 protruding horizontally from the inside of the front surface of the main body portion 110 toward the drying furnace 130, and the plurality of wings. The portion 184b is supported by a second support jaw 188 whose upper surface protrudes horizontally from the front outer side of the drying furnace 130 to the main body portion 110 side from the top of the first support jaw 186. In the forward and reverse rotation operation of the screw shaft 161a, the blade 184b is constrained to rotate by the first and second support jaws 186 and 188, respectively.

Accordingly, in the moving unit 182, the spiral portion 184a is linearly moved forward and backward along the thread P of the screw shaft 161a.

In addition, when the moving unit 182 moves toward the drying furnace 130, the power connection unit 180 may have a pressing force acting therebetween to move the moving unit 182 to the second supporting jaw of the drying furnace 130. 188), the spiral portion 184a of the moving unit 182 forms a polygonal outer circumferential surface 190a, as shown in FIG. As shown in FIG. 14B, the second support jaw 188 protruding from the outside of the front surface of the 130 is formed with a polygonal support surface 190b that coincides with the polygonal outer circumferential surface 190a of the spiral portion 184a. do.

Therefore, when the moving unit 182 advances toward the drying furnace 130, a pressing force acts on the drying furnace while the polygonal outer circumferential surface 190a of the spiral portion 184a is coupled to the polygonal support surface 190b of the second support jaw 188. Thus, the moving unit 182 is locked in a state in which it is engaged with the second supporting jaw 188 of the drying furnace 130.

In this state, when the screw shaft 161a is rotated, the moving unit 182 rotates simultaneously with the drying furnace 130 in conjunction with the rotation operation of the screw shaft 161a.

In the rotary drying furnace 130 according to the present invention, when the moving unit 182 and the drying furnace 130 rotate together with the rotation of the screw shaft 161a, the drying furnace is limited to 180 degrees. The inlet 140 of the 130 is arranged in a state located at the bottom from the state located at the top.

In this case, as shown in FIG. 15, the main part 110 has a first stopper 210 of a predetermined height protruding from one side of an inner side thereof, and the other side of the main body 110 from the first stopper 210. The second stopper 212 protrudes from a low position, and the drying furnace 130 located inside the main body 110 forms a locking jaw 214 protruding from one side of the outer side of the first stopper. And to selectively contact 210 or the second stopper 212.

As shown in FIG. 16A, when the locking jaw 214 is supported by being in contact with the first stopper 210 of the main body 110, the inlet 140 of the drying furnace 130 is positioned at an upper portion thereof. The waste is introduced into the inside, and stirring and crushing are performed.

However, when the drying furnace 130 is rotated such that the inlet 140 faces the lower side discharge hopper 112 of the main body 110, as shown in FIG. The second stopper 212 limits the rotation of the drying furnace 130 by 180 degrees by being rotated and supported from the stopper 210 to the second stopper 212, and the inlet 140 of the drying furnace 130 is discharged. It acts as to discharge the waste processed in the interior of the drying furnace 130 to the outside through the discharge hopper (112).

In addition, the food waste treatment unit 100 has a duct 250 for discharging the smell and water generated during the processing of food waste to the sewer pipe, such a duct 250 is shown in Figures 3 and 4 Likewise, the exhaust fan 260 is provided in the middle to forcibly discharge the odor and moisture generated during the processing of food waste in the rotary drying furnace 130 to sewage pipes (not shown).

That is, the front end of the duct 250 is connected to the exhaust port 138 of the rotary drying furnace 130, the rear end thereof is connected to the sewer pipe (not shown) of the kitchen, the structure having an exhaust fan 260 in the middle to be.

And the duct 250 is connected to the trap (270) to the rear side of the exhaust fan 260, such trap 270, as shown in Figure 7a and 7b therein, The membrane is opened during operation of the exhaust fan 260 to exhaust odors and moisture to the sewage pipe side, and when the exhaust fan 260 is stopped, it is closed by its own weight and automatically blocks the odor of the sewage pipe from flowing back. 272) is a rotatable structure.

Such a blocking plate 272 is rotatably connected to the upper side of the vent pipe 274 provided on the inside of the trap 270, the membrane plate 272 is rotated down by its own weight to block the vent pipe 274, exhaust fan ( It is a structure which lifts to the upper side by the ventilation pressure of 260, and opens the vent pipe 274.

On the other hand, the food waste composite processing apparatus 1 according to the present invention, as shown in Figures 3 and 5, the drying chamber accommodating portion 300 is provided inside the casing (10).

The drying chamber accommodating unit 300 is disposed adjacent to the food waste processing unit 100 and separated through the diaphragm 310 so that the smell and moisture generated in the food waste processing unit 100 do not flow.

Such a drying chamber accommodating part 300 is provided with a drying chamber 320 having a rail 312 and a drawer type opening and closing inside the casing 10, as shown in FIGS. 2 and 5. Kitchen utensils contained in the drying chamber 320 to sterilize and dry using the waste heat generated in the rotary drying furnace 130 of the food waste processing unit 100.

The drying chamber accommodating unit 300 is preferably located above the food waste processing unit 100 for heat transfer from the food waste processing unit 100, but the present invention is not limited thereto, and the food waste processing unit ( Of course, it may be located on the left and right sides of the 100, or the lower side thereof, as well as variations in the simple arrangement structure or different structures should be included within the technical scope of the present invention.

In addition, the drying chamber accommodating part 300 includes an ultraviolet lamp 332 fixed to the inside of the upper cover 330 of the casing 10, and an infrared lamp 334 fixed to the rear wall of the casing 10. Is provided with a blower (336) for supplying hot air from the food waste treatment unit 100 into the drying chamber (320).

The upper cover 330 of the drying chamber accommodating part 300 is formed integrally with the casing 10, and is made of a mirror type reflector having a high reflectance in various directions in order to increase the reflection efficiency of the ultraviolet lamp 332, the center of which is The ultraviolet lamp 332 is being fixed to it.

In addition, the drawer-type drying chamber 320 of the drying chamber accommodating part 300 is provided with a kitchen container 342 and a hanger 344 therein to hold kitchen utensils, such as dishcloths, knives, cutting boards and cutlery. .

Therefore, during the general sterilization drying of the kitchen utensils sterilized and dried by the radiant heat transmitted from the food waste processing unit 100 and the hot air circulation by the brower 336, the drying chamber 320 during the rapid sterilization drying of kitchen utensils The user presses the button 346 provided on the front panel of the UV lamp 332 and the infrared lamp 334 to further light up to sterilize the kitchen utensils.

In this case, the blower 336 is connected to a plurality of holes 356 formed at the rear surface of the casing 10 so that the exhaust hole 352 may dry the moisture generated during sterilization drying in the drying chamber 320. To the outside (see FIGS. 2 and 5).

And the food waste composite processing apparatus 1 according to the present invention, as shown in Figures 3 to 5, the food waste processing unit having a food waste disposed in the receiving container 410 therein to receive food waste therein It includes a food waste collection unit 400 to collect and process the outside.

The food waste collection unit 400 is a food waste collection process to the outside, preferably, the storage box 410 is mounted on the front of the casing 10 in a drawer type, the user can be easily removable. In addition, the front of the storage box 410 is formed with a confirmation window 412 made of a transparent material that can be easily confirmed by the user from the outside that the food waste is contained in it can be more convenient for use.

Food waste composite processing apparatus 1 according to the present invention configured as described above, first, as shown in Figure 4 and 5, the door 102 of the food waste processing unit 100 is open, the door 102 Food waste to be processed through the input hopper 111 of the food waste processing unit 100 is introduced into the upper side inlet 140 of the rotary drying furnace 130.

At this time, when the user closes the door 102 from the state in which the door 102 is opened as shown in FIG. 5, as shown in FIG. 6A, the door 102 is placed vertically, while receiving the input 104. The lower end of the) is erected while sliding in the width direction of the input hopper 111 along the inner step 111a of the input hopper 111, as a result, as shown in Figure 6b, the door 102 is completely When closed, the food waste, which is erected on the door 102 and placed on the feed receiver 104, is pushed toward the feed hopper 111 in conjunction with the door 102 to rotary dry the food waste as if it were a dump truck. Injected into the upper inlet 140 of the furnace (130).

When the food waste is introduced into the rotary drying furnace 130 as described above, such waste is easily disposed through the empty space 161c formed between the grinding blades 161b of the screw 160. It is injected inside.

Conventional screw (not shown) is formed without the same empty space around the axis so that the grinding blade is rotated forward and reverse to crush the food. Such a general screw has a problem that the food waste is caught in the crushing wing is not well input when the grinding blade of the screw is located directly under the inlet after the treatment.

However, in the screw 160 of the present invention, each of the grinding blades 161b is formed at different positions in three directions about the screw shaft 161a, and the grinding blades 161b each have a width of 120 degrees or less. Since the circumferential angle θ is formed and the horizontal side portions of the screw shaft 161a each have a hollow space 161c, they do not interfere with the input and discharge of waste into the drying furnace 130 at all. Easy to do (see Figs. 12A and 12B).

Then, in the state in which the waste is put, the motor 172 rotates forward and reverse. Accordingly, the screw 160 rotates forward and backward together through the screw shaft 161a, and the waste contained in the drying furnace 130. The stirring and crushing is made while moving back and forth, and at the same time, the heaters 142a and 142b operate to perform heating.

In this process, as the grinding blades 161b of the screw 160 rotate, the first, second and third locking protrusions 144, 146, and 148 formed on the first and second bodies 132 and 134 of the drying furnace 130. The wastes are then subjected to great resistance to the waste, which in turn causes the waste to be broken and stirred more effectively.

On the other hand, during the forward and reverse rotation operation of the screw 160, the moving unit 182 of the power connection unit 180 is moved forward and backward in the thread (P) portion of the screw shaft (161a).

That is, the screw shaft (161a) is coupled to the motor 172, the threaded portion (P) is formed on the right side, the central spiral portion 184a of the moving unit 182 is screwed to the thread (P) Are combined.

Therefore, when the screw 160 rotates, the moving unit 182 fastened to the thread P also moves along the thread P. At this time, both wing portions 184b of the moving unit 182 are the main body portion ( The lower surface is supported by the first supporting jaw 186 protruding horizontally from the inner side of the front surface toward the drying furnace 130, and the upper surface of the plurality of wing portions 184b is the drying furnace 130. It is supported by the second support jaw 188 protruding horizontally from the front outer side of the upper portion of the first support jaw 186 toward the main body 110, the wing portion during the forward and reverse rotation operation of the screw shaft (161a) 184b is freely constrained by the first and second support jaws 186 and 188, respectively.

Accordingly, the moving unit 182 moves forward along the thread P of the screw 160 when the motor 172 rotates left, and moves along the thread P when the motor 172 rotates right. It moves back and moves straight forward and backward along the thread P of the screw shaft 161a.

As the motor 172 rotates left and right through this operation, the grinding blades 161b of the screw 160 repeat the stirring (mixing) and shredding of food waste, and such stirring and shredding drying are performed. When the ground, the motor 172 starts to rotate continuously in one direction (for example, left turn).

Then, the moving unit 182 moves forward along the thread P, and is closely attached to the second supporting jaw 188 of the drying furnace 130 to be strongly coupled to the drying furnace 130.

In this case, as shown in FIG. 14A, the spiral portion 184a of the moving unit 182 forms a polygonal outer circumferential surface 190a and protrudes from the front outer side of the drying furnace 130. As shown in Figure 14b, by forming a polygonal support surface 190b that is coupled to match the polygonal outer peripheral surface 190a of the spiral portion 184a, it is stably coupled, and the pressing action to the outer wall end surface by drying The moving unit 182 is locked while being engaged with the second supporting jaw 188 of the drying furnace 130, and the plurality of wings formed in the moving unit does not leave the first supporting jaw of the main body part 110 until it is engaged. Rotation to the drying furnace is free.

When the moving unit 182 is engaged with the drying furnace 130 as described above, the screw shaft 161a is rotated by the continuous rotation of the motor 172, and the moving unit 182 coupled to the drying furnace 130 is The drying furnace 130 is rotated.

Such a rotating state of the drying furnace 130 is shown in FIGS. 16A and 16B.

That is, when the drying furnace 130 is rotated, the locking jaw 214 is rotated and supported from the first stopper 210 to the second stopper 212, thereby limiting the rotation of the drying furnace 130 by 180 degrees, and the motor. The rotation of 172 is stopped.

In the rotated state, since the waste inlet 140 faces downward from the top, the inlet 140 acts as an outlet so that the waste in the dried state exits from the interior of the drying furnace 130.

At this time, the waste in the drying furnace 130 is the lower discharge hopper of the main body 110 through the inlet 140 acting as an outlet due to the empty space (161c) between the grinding blades (161b) formed in the screw 160 ( 112) The waste is smoothly discharged to the side.

The food waste discharged in this way is contained in the storage box 410 of the food waste collection unit 400 and collected separately.

After the waste is discharged as described above, the drying furnace 130 again rotates in reverse. In this case, the motor 172 reversely rotates (for example, rotates right), and reversely rotates the screw shaft 161a. At the same time, the moving unit 182 and the drying furnace 130 are reversed from the discharge position shown in Figure 16b to the input position shown in Figure 16a.

At this time, since the drying furnace 130 and the moving unit 182 are engaged with each other, the moving unit 182 and the drying furnace 130 are reversely rotated at the same time as the screw shaft 161a is reversely rotated. The locking jaw 214 of the 130 is supported by rotating from the second stopper 212 to the first stopper 210 to limit the reverse rotation of the drying furnace 130 to 180 degrees, and to input the drying furnace 130. Return to the state.

As such, when the locking step 214 of the drying furnace 130 is supported by the first stopper 210 and the reverse rotation of the drying furnace 130 is blocked, the reverse rotation of the screw shaft 161a is the drying furnace 130. A polygonal outer circumferential surface 190a of the spiral portion 184a of the moving unit 182 is forced out of the polygonal support surface 190b formed at the second support jaw 188 of FIG.

Therefore, the moving unit 182 retreats along the thread P of the screw shaft 161a from the second supporting jaw 188 of the drying furnace 130, and the first supporting jaw 186 of the main body 110. When coupled to the main body 110, the driving of the motor 172 is stopped.

In such a state, new waste is newly introduced into the inlet 140 side of the drying furnace 130, and when the input is completed, the motor 172 is started again and repeats the forward and reverse rotations. Stirring, crushing and drying operation is to be made repeatedly in the interior of the drying furnace (130).

On the other hand, the timing of the rotation stop light of the motor 172 in such an operation process is easily by a number of sensors or electronic control (not shown) mounted on the main body 110, the drying furnace 130 and the motor 172, and the like. It can be controlled.

Through this process, the food waste is processed, and the smell and water generated in the process of the food waste are removed to the outside through the duct 250.

At this time, the exhaust fan 260 provided in the duct 250 is operated to force the odor and moisture to be discharged to the sewer pipe. At this time, the trap 270 provided in the duct 250 is a membrane plate 272 provided therein is lifted by the exhaust pressure of the exhaust fan 260 to open the vent pipe 274, to remove the odor and moisture in the sewage pipe.

In addition, the heat generated during the food waste treatment process by the food waste treatment unit 100 is typically generated at about 50 ° C. Such waste heat is used in the drying chamber 320 of the drying chamber accommodating part 300.

Since the drying chamber accommodating unit 300 is disposed adjacent to the food waste processing unit 100, and is disposed on the upper, left and right sides, or the lower side, the waste heat at 50 ° C. generated by the food waste processing unit 100 is easily radiated and transferred. The drying chamber 320 is heated.

Therefore, the kitchen utensils contained in the drying chamber 320, for example, dishcloths, knives, cutting boards, and cutlery, are dried using waste heat generated by the food waste processing unit 100, and are circulated through the hot air circulation by the blower 336. Sterilized to dry.

If the user wants rapid sterilization drying of the kitchen utensils, the user presses the button 346 provided on the front panel of the drying chamber 320 to further light the ultraviolet lamp 332 and the infrared lamp 334. Sterilization by ultraviolet lamp 332 and additional heating through infrared lamp 334 may be used. Such a drying chamber accommodating part 300 is very convenient because it can sterilize and dry kitchen utensils.

According to the food waste composite processing apparatus of the present invention as described above, by integrating the food waste processing unit 100 and the drying chamber accommodating unit 300, the kitchen environment can be improved and manufacturing cost can be greatly reduced through a more compact structure. It can contribute to popularization at low price.

In addition, according to the present invention, it is possible to economically handle garbage, obtain a very useful effect of sanitizing and disinfecting dishcloths, knives, cutting boards and cutlery used in the kitchen, innovatively saving energy, A very good effect can be obtained which can greatly improve the hygienic kitchen environment.

In addition, according to the food waste composite processing apparatus of the present invention, food waste is agitated, pulverized and dried in the built-in rotary drying furnace 130, and the smell and moisture generated from the food waste are discharged to the exhaust port 138 and the duct 250. Induction and removal, and when the process is complete by the operation of the motor 172 of the driving unit 170, the screw 160 and the moving unit 182 by the operation of the simple structure to discharge and remove the food waste to the lower, by compact One structure can significantly reduce manufacturing costs, contribute to popularization at a lower price, and achieve economic waste disposal.

In addition, the rotary drying furnace 130 of the present invention can secure an outlet of the size of the inlet by unifying the inlet and outlet, each of the grinding blades (161b) provided in the screw 160 has a width of 120 degrees or less in the circumference Since the angle θ is formed, and the horizontal side portion thereof is formed with an empty space 161c, the problem such as a foreign matter jamming during the input and discharge of garbage into the drying furnace 130 is eliminated. In case of injecting foreign substances due to user's carelessness, the occurrence of breakdown is remarkably prevented.

Therefore, the present invention enables a smooth treatment of stirring, pulverization, drying, rotation and discharge irrespective of the type of food waste, thereby making it possible to greatly improve the productivity of waste processing operations by performing a stable waste disposal operation without any trouble.

Although the present invention has been described in detail with reference to specific embodiments thereof with reference to the accompanying drawings, the present invention is not limited to such specific structures. Those skilled in the art will be able to variously modify or change the present invention without departing from the spirit and scope of the present invention as set forth in the utility model registration claims below. However, it is intended that the present invention covers all such modifications and variations as fall within the true scope of the invention.

1 ....... Food Waste Treatment System
10 ...... Casing 20 ...... Adjustable leg
100 ...... Food Waste Disposal Unit 102 ..... Door
102a ...... hinge 104 .....
104a ...... Hook 110 ...... Main Unit
111 ...... Input Hopper 111a .....
112 ...... discharge hopper 130 ...... drying furnace
132 ...... the first body 134 ...... the second body
136 ...... Bolt 138 ...... Vent
140 ...... Inlet 138a, 140a .... Jaw
142a, 142b ...... heater 144,146,148 ...... 1st, 2nd, 3rd locking projection
160 ...... screw 161a ...... screw shaft
161b ...... crushing wing 161c ...... empty space
162 ...... Shaft Coupling 164 ...... Shaft Support Bushing
166a, 166b ..... first and second bushings 170 ..... drive section
172 ...... Motor 174 ...... Drive Shaft
180 ...... Power connection 182 ...... Moving unit
184a ..... spiral 184b ...... wing
186 ...... First Supporting Jaw 188 ...... 2nd Supporting Jaw
190a ..... polygonal outer circumference 190b ...... polygonal support surface
210 ... first stopper 212 ... second stopper
214 ...... Jump 250 ...... duct
260 ....... exhaust fan 270 ...... trap
272 ...... Blank plate 274 .......
300 ...... drying chamber storage 310 ....... diaphragm
312 ...... rail 320 ....... drying chamber
330 ...... top cover 332 ....... ultraviolet lamp
334 ...... infrared lamp 336 ....... blower
342 ...... Suit Canister 344 ....... Hanger
352 ...... vent hole 356 ....... hole
400 ...... Food Waste Collection Unit 410 ....... Storage Box
412 ... confirmation window P ...... Thread
θ ....... circumferential angle

Claims (14)

An integrated casing made of a box-shaped hollow structure;
One side of the casing is formed with a door into which food waste is input, and inside the door is provided with a rotary drying furnace that automatically executes stirring, pulverization, drying and discharging of food waste, and does not leak out odors and moisture generated during processing. Food waste treatment unit provided with a duct leading to the sewage pipe;
The drying chamber is disposed adjacent to the food waste processing unit, and the drying chamber is provided in the casing to open and close the drawer. The drying chamber may sterilize and dry the kitchen utensils contained in the drying chamber using waste heat generated from the rotary drying furnace of the food waste processing unit. pay; And
Food waste processing unit comprising a food waste collection unit for receiving the food wastes processed by the food waste processing unit therein and collecting food wastes to the outside; Complex processing equipment. According to claim 1, wherein the food waste treatment unit is connected to the lower end of the both sides of the door hinged to the casing opening and closing with respect to the casing, the inside of the door is rotated through the hook on the inner side of the door It is connected so that, the lower end is provided with an input receiver which is supported on the inner step of the input hopper to be slidable in the width direction of the input hopper, and when the door is opened horizontally with respect to the casing, the input receiver is parallel to the door It is horizontally open and placed on its upper surface, and when the door is closed vertically with respect to the casing, the feed tray is vertically placed and inclined with respect to the door, so that the food waste placed on the feed tray is interlocked with the door. Food waste, characterized in that configured to be pushed to the input hopper side Sum processing unit. The food waste treatment apparatus of claim 1, wherein the duct of the food waste treatment unit is provided with an exhaust fan in the middle to forcibly discharge the odor and water generated during the treatment of the food waste in the rotary drying furnace to the sewer pipe. 4. The duct of claim 3, wherein a trap is connected to a rear side of the exhaust fan, and the trap is opened during operation of the exhaust fan to exhaust odors and moisture to the sewer side, and to stop the exhaust fan. Food waste composite processing device, characterized in that the membrane is rotatably built to close by the odor of the sewage pipe is automatically closed. The food waste treatment unit according to any one of claims 2 to 4,
An upper part of which forms an input hopper and is opened to the door side, and a lower part of which comprises a fixed main body part forming an discharge hopper;
A rotary drying furnace disposed to be rotatable in the main body, to form an accommodation space in which predetermined waste is contained through an upper inlet, and having an electric heater for heating and drying the waste at a lower end thereof;
A screw rotating inside the drying furnace to agitate and crush the waste contained in the drying furnace;
A driving unit having a motor connected to the screw shaft at an outer side of the main body to rotate the screw forward and backward; And
And a moving unit screwed to the screw shaft, wherein the moving unit is constrained to rotate between an inner surface of the main body and an outer surface of the drying furnace so that the screw moves forward and backward along the screw shaft during forward and reverse rotation operation. In a state in close contact with the outer surface of the drying furnace to transfer the rotational force of the screw shaft to the drying furnace, including a power connection for forward and reverse rotation of the drying furnace integrally with the screw shaft; including agitating, crushing, drying and discharging the garbage automatically Food waste composite processing apparatus, characterized in that to carry out. The method of claim 5, wherein the rotary drying furnace comprises a first body of semi-cylindrical structure, and a second body of semi-cylindrical structure which is fixed integrally by bolted along the circumferential direction to the first body, the first body An exhaust port is formed at an upper portion of the waste to be heated by a heater, and an opening of a size larger than that of the exhaust hole is formed at an upper portion of the second body. 2 is a food waste composite processing apparatus, characterized in that the jaw portion protruding from the body to be distinguished from the first and second body. According to claim 6, wherein the rotary drying furnace is formed in a plurality of first bar protrusions of the linear bar shape so as to project upwardly to the height close to the screw at regular intervals in the circumferential direction on the inner peripheral surface of the first and second body and The front and rear inner surfaces of the first and second bodies respectively include a plurality of second and third locking protrusions having a linear bar shape extending in radial directions to protrude from the inside of the first and second bodies. Food waste complex processing device, characterized in that the crushing and stirring the waste by interaction with the rotating screw. 6. The screw of claim 5, wherein one end of the screw shaft in the center thereof is detachably connected to the drive shaft of the motor through a shaft coupling, and is supported on one side of the main body, and the other end of the screw shaft is The other side of the main body is rotatably supported through the shaft support bushing, the forward and reverse rotation operation of the motor, the screw shaft freely forward and reverse rotation operation relative to the main body portion, the screw shaft is the center of the front and rear of the drying furnace And through the first and second bushings respectively, so that the screw shaft is rotatably connected with respect to the drying furnace. The method of claim 8, wherein the screw is provided with a plurality of spiral grinding blades along the central screw axis at the circumferential equal intervals of the screw shaft, each of the grinding blades are formed in different positions in three directions about the screw axis The grinding blades each have a circumferential angle of 120 degrees or less, so that the horizontal side portions of the screw shafts at which any one of the grinding blades are located form empty spaces, respectively, to allow the input or discharge of garbage into the drying furnace. Food waste composite processing apparatus, characterized in that configured to not interfere. 6. The power connector as set forth in claim 5, wherein the power connecting portion has a spiral portion in which a moving unit is screwed at a position between the shaft coupling of the screw shaft and the first bushing, and a plurality of wings extending horizontally on both sides of the spiral portion. And the plurality of wing portions is supported by a first supporting jaw whose lower surfaces protrude horizontally from the front inner side of the main body portion to the drying furnace side, and the plurality of wing portions have the upper surfaces supporting the first from the front outer side of the drying furnace. It is supported by a second support jaw horizontally protruding from the upper portion of the jaw to the main body side, and the wing portion is constrained by the first and second support jaws respectively during the forward and reverse rotation operation of the screw shaft. Food waste composite processing apparatus, characterized in that configured to move straight forward. 12. The method of claim 10, wherein the power connection portion, the spiral portion of the moving unit forms a polygonal outer circumferential surface, the second support jaw protruding from the outside of the front of the drying furnace has a polygonal support surface for stably mating in accordance with the polygonal outer peripheral surface of the spiral portion When the moving unit moves forward to the drying furnace side and the polygonal outer circumferential surface of the spiral portion is coupled to the polygonal support surface of the second supporting jaw, the moving unit is pressed (locked) to the outer wall of the drying furnace so that the moving unit supports the second support of the drying furnace. Food waste composite processing apparatus, characterized in that the locking is in the state engaged with the jaw. The method of claim 5, wherein the main body portion has a first stopper of a certain height protruding on one side of the inner surface, the second stopper is protruded at a position lower than the first stopper on the other side of the inner side, The drying furnace positioned is formed to selectively engage the first stopper or the second stopper by forming a locking projection protruding from one side of the outer side thereof, and when the locking projection is supported in contact with the first stopper of the main body, the opening of the drying furnace is supported. Is placed in the upper part of which waste is injected into the inside, and stirring and crushing are performed, and when the drying furnace is rotated so that the inlet is directed to the discharge hopper on the lower side of the main body, it is rotated and supported from the first stopper to the second stopper. Thereby limiting the rotation of the drying furnace to 180 degrees, and the inlet of the drying furnace acts as an outlet to dispose of the treated waste to the outside. Food waste complex processing device, characterized in that to eject. The method of claim 1, wherein the drying chamber accommodating unit has an ultraviolet lamp fixed to the inside of the upper cover made of a mirror-shaped reflecting plate of the casing, an infrared lamp fixed to the rear wall of the casing, circulating the internal hot air to dry A blower is provided, and during sterilization and drying of kitchen utensils, sterilization drying is carried out by radiant heat transmitted from the food waste treatment unit and hot air circulation by a blower, and when the sterilization and drying of kitchen utensils is carried out on the front panel of the drying room. The food waste composite processing apparatus, characterized in that for sterilizing the kitchen utensils by further lighting the ultraviolet lamp and the infrared lamp by pressing a button provided. The food waste composite processing apparatus according to claim 13, wherein the drying chamber accommodating unit is completely isolated from the food waste processing unit by a diaphragm so that odors and moisture generated in the food waste processing unit are not transferred to the inside.

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