KR20160007726A - Korean sausage making apparatus - Google Patents

Abstract

Disclosed is a Korean sausage producing device. The Korean sausage producing device according to the present invention comprises: an agitating device for producing Korean sausage stuffing by agitating added Korean sausage ingredients; a Korean sausage stuffing transferring device provided with the Korean sausage stuffing from the agitating device and transferring the Korean sausage stuffing; a Korean sausage stuffing feeding device provided with the Korean sausage stuffing transferred from the Korean sausage stuffing transferring device, having a Korean sausage stuffing feeding unit formed to be coupled with a feeding tube in which pork entrails are inserted, and having a feeding tube coupled to the Korean sausage stuffing feeding unit such that the Korean sausage stuffing is fed in the pork entrails; and a Korean sausage heating device for transferring and heating a Korean sausage produced from the Korean sausage stuffing feeding device.

Description

{KOREAN SAUSAGE MAKING APPARATUS}

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a pendulum manufacturing apparatus, and more particularly, to a pendulum manufacturing apparatus capable of easily manufacturing a pendulum.

Generally, a sundae is made by injecting a net cow into the gut. Various kinds of vegetables and meat are crushed to produce the pellets. Depending on the type of materials to be mixed, such as vegetables or meat, a variety of pure-sized cows can be produced. After washing the internal organs, inject the pills into the interior of the internal organs. We boil or steam the sundae with the pouring of the pouring cow to produce the pudding product.

However, in the past, it took a long time to manufacture an instant noodle, since the noodles were hand-washed, the instant cow was directly made, and the noodle was manually manufactured. In addition, since the built-in cleaning and the manufacture of the pellet are carried out in the same space, foreign matter can enter the pellet.

BACKGROUND ART [0002] The background art of the present invention is disclosed in Korean Patent Registration No. 10-0453272 (registered on October 10, 2004, entitled "Method of Making Vegetable Sauce").

SUMMARY OF THE INVENTION The present invention has been made to overcome the above problems, and it is an object of the present invention to provide a pendulum manufacturing apparatus which can easily manufacture a pendulum.

The apparatus for preparing a puddle according to the present invention comprises: an agitator for producing a puddle by stirring the puddle material; A small-sized small-sized feeding device for feeding a net cow in the stirring device and for transferring a cow-sized cow; Wherein a net cage is provided to be coupled with the injection tube having the built-in fitting therein, and the injection tube is coupled to the crown injection device, A small injection device; And a net heating device for heating while transferring the net produced by the net small-sized small-sized injection device.

The stirring device includes: a supply container rotatably installed on a support, the inertia material being accommodated in the supply container; A discharge driving unit connected to the supply container and rotating the supply container to discharge a gummy material contained in the supply container; An agitating container into which the ingot material discharged from the supply container flows; A stirrer rotatably installed in the stirring container; And an agitating driving unit connected to the agitator to rotate the agitator.

The apparatus may further include a rotation driving unit connected to the stirring container, for rotating the stirring container to supply the pure pot produced in the stirring container to the forward moving small feeding device.

The rotation driving unit may include: a first gear unit fixed to the stirring container; A second gear portion meshing with the first gear portion; A rotating rod connected to the second gear portion to rotate the second gear portion; And a rotating wheel connected to the rotating rod.

The discharging drive unit includes a fork portion rotatably installed on the support base, the fork portion being constrained by the supply container; And a cylinder device hinged to the fork portion and the support, and rotating the fork portion as it is stretched to turn the supply container upside down.

The above - A hopper disposed below the stirring container so that a net coke discharged from the stirring container flows into the hopper; A feed passage connected to the hopper; A conveying auger rotatably coupled to the inside of the conveyance passage and adapted to move a cusp to a cusp unit; And a feed driving unit for rotating the feed auger.

Wherein said pouring and filling device comprises an injection container connected to a discharge side of said forward moving device; An injector connected to the injection container; And an injection unit connected to the injector, for discharging the ultrapure water to be delivered by the injector, and for injecting the injection tube.

The pothole injection part may include an injection nozzle that fits inside the injection tube.

The apparatus of claim 1, further comprising: a heating chamber section for forming a heating atmosphere; A conveyor installed inside the heating chamber for conveying an instantaneous line; And a heating unit for heating the heating chamber unit.

Wherein the conveyor includes a mesh belt unit installed to run on an endless track in the heating chamber unit and having a plurality of meshes formed therein; And a conveyor driving unit for driving the mesh belt unit in an endless track.

The heating unit may be a steam injector for injecting steam into the heating chamber unit.

The present invention further provides a built-in cleaning apparatus for cleaning a built-in interior by spraying washing water into the interior of the interior, wherein the built-in cleaning apparatus comprises: a washing nozzle unit to which washing water is supplied and in which the interior is fitted; And a recovery container for recovering the washing water discharged from the cleaning nozzle unit.

The cleaning nozzle unit may include a washing water pipe to which washing water is supplied; A spray nozzle coupled to an end of the wash water pipe, the spray nozzle having a built-in fitting therein and having a plurality of spray holes formed on an outer surface thereof to spray wash water in a radial direction; And a brush formed on an outer surface of the injection nozzle.

According to the present invention, since a spinneret is manufactured using a spinning machine, the spinneret can be easily manufactured.

Further, according to the present invention, since the net bobbins are sequentially produced through a series of processes, it is possible to prevent foreign matter from entering the net bobbins.

FIG. 1 is a block diagram illustrating a spin-on manufacturing apparatus according to an embodiment of the present invention.
2 is a perspective view illustrating a built-in cleaning apparatus in a spin-on manufacturing apparatus according to an embodiment of the present invention.
FIG. 3 is a cross-sectional view illustrating a built-in cleaning apparatus in a spin-finish manufacturing apparatus according to an embodiment of the present invention.
FIG. 4 is a side view showing an agitating device in a puddle manufacturing apparatus according to an embodiment of the present invention.
FIG. 5 is a side view showing a state where a supply container is installed in a fork portion of an agitating device in a puddle manufacturing apparatus according to an embodiment of the present invention.
6 is a side view illustrating a state in which a fork portion of an agitating device is rotated to turn a supply container upside down in a puddle manufacturing apparatus according to an embodiment of the present invention.
7 is a side view showing a state in which a stirring container of an agitating device in a pour-head manufacturing apparatus according to an embodiment of the present invention discharges a purse into a hopper of a small-sized small-sized transfer apparatus.
8 is a front view showing a state in which a stirring container of an agitating device in a pour-head manufacturing apparatus according to an embodiment of the present invention discharges a net coke to a hopper of a small-sized small transfer apparatus.
FIG. 9 is a side view showing a stirring driving unit in a stirring apparatus of a pour-head manufacturing apparatus according to an embodiment of the present invention.
FIG. 10 is a side view illustrating a line-by-line small-sized transferring apparatus in a spinning apparatus according to an embodiment of the present invention.
FIG. 11 is a side view showing a pour-on-line pouring apparatus in a pour-head manufacturing apparatus according to an embodiment of the present invention.
FIG. 12 is a perspective view illustrating a pouring unit of a pouring machine in a pouring machine in a pouring machine according to an embodiment of the present invention.
FIG. 13 is a side view illustrating a pure water heating apparatus in a pouring apparatus according to an embodiment of the present invention.
FIG. 14 is a front view showing a pendulum stacker in a pendulum manufacturing apparatus according to an embodiment of the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENT Hereinafter, an embodiment of a pendulum manufacturing apparatus according to the present invention will be described with reference to the accompanying drawings. The thickness of the lines and the size of the components shown in the drawings in the course of describing the in-line manufacturing apparatus may be exaggerated for clarity and convenience of explanation. In addition, the terms described below are defined in consideration of the functions of the present invention, which may vary depending on the intention or custom of the user, the operator. Therefore, definitions of these terms should be made based on the contents throughout this specification.

2 is a perspective view illustrating a built-in cleaning apparatus in a spinneret manufacturing apparatus according to an embodiment of the present invention. FIG. 3 is a cross- Sectional view illustrating a built-in cleaning apparatus in a spin-finish manufacturing apparatus according to an embodiment of the present invention.

Referring to FIGS. 1 to 3, the apparatus for producing pure water according to an embodiment of the present invention includes a stirring device 130, a net small-sized transfer device 160, a small-sized small-sized injection device 170, . The pendulum manufacturing apparatus further includes a device (111, 113, 115) for preparing the material and a built-in cleaning apparatus (120).

The apparatuses 111, 113, and 115 for preparing the material include a vegetable washing apparatus 111, a meat grinding apparatus 113, and a feeding device 115 and the like. The various vegetables are washed in the vegetable washing apparatus 111, dehydrated, and then supplied to the stirring apparatus 130. Meat is crushed in a meat grinder 113 and then supplied to an agitator 130. The preheating is supplied to the agitating device 130 by the preheating feeder 115. Only some of the vegetable washing apparatus 111, the meat grinding apparatus 113, and the pre-feeding apparatus 115 may be installed or additional devices may be installed depending on the material to be introduced into the pouring cows. Various vegetables, crushed meat, and pre-pellets, etc., which are put into the stirring apparatus 130, will be referred to as a gypsum material.

The built-in flushing apparatus 120 flushes the interior by spraying the flushing water inside the interior. The built-in cleaning apparatus 120 includes a cleaning nozzle portion 122 to which cleaning water is supplied and to which the interior is fitted and a brush 124 for recovering the cleaning water discharged from the cleaning nozzle portion 122. Since the interior is cleaned in a state where the interior is fitted in the cleaning nozzle 122, the interior can be cleanly cleaned as the interior of the interior is filled with the cleaning water.

The cleaning nozzle unit 122 includes a cleaning water pipe 121, a spray nozzle 123, and a brush 124.

The washing water pipe 121 is connected to a washing water hose (not shown). The injection nozzle 123 is coupled to the end of the washing water pipe 121. The interior of the spray nozzle 123 is sandwiched in a corrugated state. A plurality of spray holes 123a are formed in the spray nozzle 123 so that wash water is sprayed in the radial direction of the spray nozzle 123. [ Therefore, when cleaning the interior of the spray nozzle 123 while gradually removing the interior decoration, the interior of the interior can be cleaned more cleanly since the cleaning water is sprayed in the radial direction of the spray nozzle 123 and collides with the interior of the interior. The brush 124 is formed on the outer surface of the injection nozzle 123. The brush 124 comes into contact with the inside of the interior and scratches the interior, so that the interior can be cleaned cleanly.

FIG. 4 is a side view showing an agitating device in a puddle manufacturing apparatus according to an embodiment of the present invention. FIG. 5 is a side view showing a state where a supply container is installed in a fork portion of an agitating device in a puddle manufacturing apparatus according to an embodiment of the present invention. 6 is a side view illustrating a state in which a fork portion of an agitating device is rotated to turn a supply container upside down in a puddle manufacturing apparatus according to an embodiment of the present invention. 7 is a side view showing a state in which a stirring container of an agitating device in a pour-head manufacturing apparatus according to an embodiment of the present invention discharges a purse into a hopper of a small-sized small-sized transfer apparatus. 8 is a front view showing a state in which a stirring container of an agitating device in a pour-head manufacturing apparatus according to an embodiment of the present invention discharges a net coke to a hopper of a small-sized small transfer apparatus. FIG. 9 is a side view showing a stirring driving unit in a stirring apparatus of a pour-head manufacturing apparatus according to an embodiment of the present invention.

Referring to FIGS. 4 to 9, the stirring device 130 stirs the charged gypsum material to produce a net caster. The stirring apparatus 130 includes a supply container 133, a discharge driving unit 135, a stirring container 141, a stirrer 143, and a stirring driving unit 146.

The supply container 133 is rotatably installed on the support 131. The supply container 133 includes a guide portion 133a protruded upward from the supply container 133. When the supply container 133 is rotated and inverted, the ingot material accommodated in the supply container 133 is discharged along the guide portion 133a. The guide portion 133a is bent in a substantially "U" shape to prevent the ingrown material from flowing outwardly. On both sides of the supply container 133, a coupling holder 134 is formed to protrude.

The discharging drive unit 135 is connected to the supply container 133 and rotates the supply container 133 to discharge the gypsum material contained in the supply container 133. The feed container 133 is turned upside down as the feed drive unit 135 rotates the feed container 133 so that the feed material in the feed container 133 can be smoothly discharged.

The discharge driving part 135 includes a fork part 136 and a cylinder device 137.

The fork portion 136 is formed in a substantially "b" shape. One side of the fork portion 136 is rotatably coupled to the support base 131 by a hinge portion 136b. A restricting clamp 136a is formed on the other side of the fork portion 136 so that a hole (not shown) is formed so as to engage with the engaging holder 134 of the supply container 133. The fork portion 136 prevents the supply container 133 from being separated from the fork portion 136 by restraining the engagement holder 134 to the restraining clamp 136a even if the supply container 133 is inverted. The supply container 133 is detachably coupled to the fork portion 136.

The cylinder device 137 is hinged to the fork portion 136 and the support base 131. Since the cylinder device 137 is hinged to the fork portion 136 and the support base 131, the inclination of the cylinder device 137 can be changed according to the angle at which the fork portion 136 is rotated. The cylinder device 137 rotates the fork portion 136 as it is stretched to turn the supply container 133 upside down. Since the cylinder device 137 reverses the supply container 133, the grate material is smoothly discharged from the supply container 133.

To the agitating container 141, the ingot material discharged from the supply container 133 flows. The upper surface portion of the agitating container 141 is opened to allow the ingot material to flow. At this time, the control box portion 132 is raised to the upper side on the support base 131, and the stirring container 141 is rotatably coupled to the control box portion 132 by the stirring shaft 144.

The stirrer 143 is rotatably installed inside the stirring container 141. The agitator 143 includes a stirring shaft 144 installed to cross the inside of the stirring container 141 and a plurality of stirring blades 145 extending from the stirring shaft 144. The agitating blades 145 are disposed at regular intervals along the agitating shaft 144. As the agitating blade 145 is rotated by the agitating shaft 144, the ingot material accommodated in the agitating container 141 is agitated to produce a net ingot. And the pouring pot refers to a material in which the ingot material is uniformly mixed in the agitating container 141.

The stirring drive unit 146 is connected to the stirrer 143 to rotate the stirrer 143. The stirring driving unit 146 includes a stirring motor 146a coupled to the support table 131, a pulley (not shown) connected to the stirring shaft 144, a belt (not shown) connected to the pulley and the stirring motor 146a 146c. The stirrer driving unit 146 may be of various types as long as the stirrer 143 is rotated.

The stirring device 130 is connected to the stirring container 141 and includes a rotation driving part 150 for rotating the stirring container 141 to supply the raw materials produced in the stirring container 141 to the small- . Since the rotation driving unit 150 inverts the stirring container 141, it can smoothly discharge the pellets stored in the stirring container 141 to the small-sized small feeding device 160.

The rotation driving unit 150 includes a first gear unit 151 fixed to the stirring container 141, a second gear unit 152 engaged with the first gear unit 151, a second gear unit 152, And a rotating wheel 154 connected to the rotating rod 153. The rotating rod 153 rotates the second gear portion 152 and rotates. When the rotary wheel 154 is rotated, the rotary rod 153 and the second gear portion 152 are rotated. At this time, since the second gear portion 152 rotates the first gear portion 151, the stirring container 141 is rotated and turned upside down. The rotation driving unit 150 may be manually driven or may be automatically driven by the motor device.

FIG. 10 is a side view illustrating a line-by-line small-sized transferring apparatus in a spinning apparatus according to an embodiment of the present invention.

Referring to FIG. 10, a net container is supplied to a forward small-sized transfer device 160 in a stirring container 141 of a stirring device 130. The line-by-line small transfer device 160 transfers the line-by-line.

The submerged small conveyance device 160 includes a hopper 161, a conveyance passage portion 163, a conveyance auger 165, and a conveyance driving portion 167.

The hopper 161 is disposed below the stirring container 141 so that the net coke discharged from the stirring container 141 flows. The hopper 161 is formed so as to become narrower from the upper side to the lower side. Therefore, when the stirring container 141 discharges the pure water bottle to the hopper 161, it is possible to prevent the pure water bottle from flowing down to both sides of the stirring container 141.

The transfer passage portion 163 is connected to the hopper 161. The transfer passage portion 163 is connected to the injection pump 170 by a hose or directly. The transfer path portion 163 is formed in various forms.

The transfer auger 165 is rotatably coupled to the inside of the transfer passage portion 163 to move the ultrafilter into the ultrasound injector 170. A spiral blade (not shown) is provided on the outer side of the transfer auger 165.

The feed drive unit 167 rotates the feed auger 165. As the conveying auger 165 is rotated, the trailing edge is conveyed along the conveying passage portion 163.

FIG. 11 is a side view showing a pour-on-line pouring apparatus in a pour-head manufacturing apparatus according to an embodiment of the present invention. FIG. 12 is a perspective view illustrating a pouring unit of a pouring machine in a pouring machine in a pouring machine according to an embodiment of the present invention.

Referring to FIGS. 11 and 12, a net cage transferred from the netting small-sized transfer device 160 is supplied to the small-sized small-sized injection device 170. In the sonocene injector 170, the sonocene injector 175 is formed so that the injector tube 178 with the built-in fitting is engaged. Pure catheterization device 170 causes a cryocontainer to be injected into the intestine after the infusion tube 178 is coupled to the cryocraft infusion section 175. At this time, the end of the built-in unit is caught by the grip portion (not shown) and is poured into the built-in small-sized small-size injector 170 in the closed state. As the cadaver is injected into the intestine, the intestine expands and grows longer. In addition, the organs fitted in the injection tube 178 gradually escape from the injection tube 178. When the interior of the injection tube 178 almost escapes, the sonic injection apparatus 170 stops the supply of the sonic element to the sonic injection unit 175.

The pothole injection section 175 includes an injection nozzle 176 that fits within the injection tube 178. Since the injection tube 178 is fitted into the injection nozzle 176, when the injection tube 178 having the built-in fitting is inserted into the injection nozzle 176, the injection box 176 is filled with the injection box 176, When the intestines are completely removed from the infusion tube 178, the other infusion tube 178 with the intestines inserted is inserted into the infusion nozzle 176, and then the infusion tube is injected into the intestines. The injection tube 178 with the built-in can be precisely fitted to the injection nozzle 176 by a pick-up robot (not shown).

The pothole injection unit 175 may further include a sensor unit (not shown) for sensing that the injection tube 178 is fitted to the injection nozzle 176. When the sensor unit detects that the injection tube 178 is inserted, the sonocentric injection apparatus 170 can supply the in-situ to the sonic injection unit 175. Of course, it is also possible for the operator to manually manipulate the small-sized injection apparatus 170. [

FIG. 13 is a side view illustrating a pure water heating apparatus in a pouring apparatus according to an embodiment of the present invention. FIG. 14 is a front view showing a pendulum stacker in a pendulum manufacturing apparatus according to an embodiment of the present invention.

Referring to FIGS. 13 and 14, the pothole heating apparatus 180 heats a pothole produced by the pothole-pothole injection apparatus 170 while heating the potholes. An example of the instantaneous heating apparatus 180 will be described.

The pseudo-heating apparatus 180 includes a heating chamber portion 181, a conveyor 185, and a heating portion 189.

The heating chamber portion 181 is elongated along the conveying direction of the innermost portion. The heating chamber portion 181 is hermetically sealed to form a heating atmosphere. The heating chamber portion 181 includes a main body 182 on which a heating space is formed and a door portion 183 which is openably provided on the upper side of the main body 182.

The conveyor 185 is installed inside the heating chamber portion 181 to convey the trail. The conveying speed of the conveyor 185 can be appropriately designed in consideration of the time at which the trailing edge is sufficiently ripened, the internal temperature of the heating chamber portion 181, and the like.

The conveyor 185 is installed in the heating chamber portion 181 so as to run in an endless track and includes a mesh belt portion 186 on which a plurality of meshes are formed and a conveyor drive portion 187 for moving the mesh belt portion 186 in an endless track ). Since a plurality of meshes are formed on the mesh belt portion 186 to allow air and moisture to pass therethrough, the mesh belt portion 186 can heat the ingot on the upper and lower sides of the mesh belt portion 186. Further, the water flowing down from the net can be drained to the lower side of the mesh belt portion 186. Thus, the gypsum can be evenly heated and an appropriate amount of water can be contained in the gypsum.

The heating unit 189 may be a steam injector for injecting steam into the heating chamber unit 181. The heating unit 189 may be disposed on the upper side and the lower side of the conveyor 185 or on the upper side of the conveyor 185. The heating unit 189 can be disposed at various positions as long as the steam is uniformly sprayed in the in-order. Since the rootstock is heated by steam having a high thermal conductivity, the speed at which the rootstock ripens can be relatively accelerated.

The trailing edge of the heating section 189 is discharged to the tray 191. The tray 191 is stacked on the sintered stacker 190 by a pick-up robot (not shown). A bracket 193 is provided on both side walls of the net-type stacker 190 to support both sides of the tray 191.

Hereinafter, the operation of the pendulum manufacturing apparatus according to an embodiment of the present invention will be described.

The vegetables are cleaned by the vegetable washing apparatus 111 and then dehydrated to be supplied to the supply container 133. In the meat grinder 113, the meat is crushed to an appropriate size and put into the supply container 133. The pre-feeding device 115 feeds the pre-feeding to the feeding container 133.

And the discharging driver 135 is driven. At this time, when the cylinder device 137 is extended, the fork portion 136 is rotated to the upper side of the support base 131 about the hinge portion 136b. At this time, since the engaging holder 134 of the fork portion 136 is located above the hinge portion, the supply container 133 mounted on the fork portion 136 is reversed from the upper side of the agitating container 141. As the supply container 133 is turned upside down, the ingot material of the supply container 133 flows down along the guide portion 133a and flows into the stirring container 141. When all the ingot material is discharged from the supply container 133, the fork portion 136 comes down as the cylinder device 137 is contracted. When the fork portion 136 descends, the supply container 133 is supported on the bottom surface.

When the inert material is sufficiently supplied to the stirring container 141, the stirrer 143 is rotated as the stirring driving unit 146 is driven. At this time, since the stirring blade 145 is rotated about the stirring shaft 144, the gypsum materials contained in the stirring container 141 are mixed to produce the gypsum.

When the pure vessel is produced in the stirring apparatus 130, the stirring container 141 is rotated around the stirring shaft 144 as the rotation driving unit 150 is driven. The second gear portion 152 rotates the first gear portion 151 as the rotation driving portion 150 is rotated so that the stirring container 141 rotates about the stirring shaft 144. [ When the stirring container 141 is turned upside down, the driving of the rotation driving part 150 is stopped. At this time, the pouring container accommodated in the stirring container 141 flows into the hopper 161 of the small-sized small conveying device 160.

The net coke that has flowed into the hopper 161 flows into the conveyance passage portion 163. As the feed driving unit 167 is driven, the feed auger 165 is rotated to feed the ultrafiltration unit along the feed path unit 163.

The net cage of the transfer passage portion 163 is transferred to the small-sized small injector 170. An injection tube 178 with a built-in fitting is fitted into the injection nozzle 176 by a pick-up robot. Pouring nozzles are injected into the interior through the injection nozzle (176). At this time, the end of the viscera is caught by the grip portion, and the cadaver is injected into the viscera in a clogged state. As the cadaver is injected into the intestine, the intestine expands and grows longer. In addition, the organs fitted in the injection tube 178 gradually escape from the injection tube 178.

When the interior of the injection tube 178 is almost completely removed, the net injection apparatus 170 stops the injection of the ultrapure water into the injection box 175. The grip is completely separated from the injection tube 178, and then the end of the viscera is sealed. When the embryo is completely disengaged from the infusion tube 178, another infusion tube 178 with the intestine inserted is inserted into the infusion nozzle 176 by the pick-up robot. Injection tube 178 is continuously replaced, and the cannula is injected into the intestines.

So that the puddle flows into the puddle heating device 180. At this time, the trailing edge is placed on the conveyor 185. As the conveyor driving unit 187 is driven, the trailing edge is conveyed by the mesh belt unit 186. The heating unit 189 heats the ingot conveyed along the mesh belt unit 186 by injecting steam of a high temperature at an instant. And the ingot is fully ripened while being transported along the mesh belt 146c. The water flowing down from the net can be drained to the lower side of the mesh belt portion 186. Thus, the gypsum can be evenly heated and an appropriate amount of water can be contained in the gypsum.

The trailing edge discharged from the heating chamber portion 181 is contained in the tray 191. The tray 191 is stacked on the primer stacker 190 by a pick-up robot. When all the in-line strips are stacked on the in-line stacker 190, the in-line stacker 190 is moved to store the in-line strip in the storage space.

As described above, since the pendulum is manufactured by a series of devices, the pendulum can be easily manufactured. In addition, since the process of making a net-sized cattle, the process of filling a net-sized cattle into an internal organs, and the process of heating a net-cattle are carried out sequentially, the risk of foreign substances entering the net can be reduced. Also, as the process of manufacturing the spinning wheels is automated, the quality of the spinning wheels can be stabilized.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it will be understood by those of ordinary skill in the art that various changes in form and details may be made therein without departing from the spirit and scope of the invention as defined by the appended claims. I will understand.

Accordingly, the true scope of protection of the present invention should be defined by the claims.

111: Vegetable washing device 113: Meat grinding device
115: prefabricated feeder 120: built-in flushing device
121: wash water pipe 122: wash nozzle part
123: jet nozzle 123a: jet hole
124: Brush 125: Collection container
130: stirrer 131: support
132: Control box 133: Supply container
133a: guide portion 134: engaging holder
135: ejection driving part 136: fork part
136a: restraint clamp 136b: hinge part
137: cylinder device 141: stirring container
143: stirrer 144: stirring shaft
145: stirring blade 146: stirring driving part
146a: Stirring motor 146c: Belt
150: rotation driving part 151: first gear part
152: second gear portion 153: rotating rod
154: rotating wheel 160:
161: Hopper 163:
165: Transfer auger 167:
170: Pure injection device 171: Injector
175: Immediate injection part 176: injection nozzle
178: Infusion tube 180: Purely heated device
181: Heating chamber part 182:
183: Door part 185: Conveyor
186: Mesh belt section 187: Conveyor drive section
189: Heating section 190: Sinker stacker
191: Tray 193: Bracket

Claims (13)

An agitating device for agitating the charged gypsum material to produce a pellet;
A small-sized small-sized feeding device for feeding a net cow in the stirring device and for transferring a cow-sized cow;
Wherein a net cage is provided to be coupled with the injection tube having the built-in fitting therein, and the injection tube is coupled to the crown injection device, A small injection device; And
And a gravity heating device for heating the grains produced by the grains injecting device while heating them.
The method according to claim 1,
The stirring device may further comprise:
A supply container rotatably installed on a support, the supply container receiving a priming material;
A discharge driving unit connected to the supply container and rotating the supply container to discharge a gummy material contained in the supply container;
An agitating container into which the ingot material discharged from the supply container flows;
A stirrer rotatably installed in the stirring container; And
And an agitating driving unit connected to the agitator to rotate the agitator.
3. The method of claim 2,
Further comprising a rotation driving unit connected to the stirring container and rotating the stirring container to supply the pure pot produced in the stirring container to the forward moving small conveying device.
The method of claim 3,
The rotation drive unit includes:
A first gear portion fixed to the stirring container;
A second gear portion meshing with the first gear portion;
A rotating rod connected to the second gear portion to rotate the second gear portion; And
And a rotating wheel connected to the rotating rod.
3. The method of claim 2,
The discharging drive unit includes:
A fork portion rotatably installed on the support, the fork portion restricting the supply container; And
And a cylinder device hinged to the fork part and the support part and rotating the fork part as it is stretched to turn the supply container upside down.
3. The method of claim 2,
The above -
A hopper disposed below the stirring container so that a net coke discharged from the stirring container flows into the hopper;
A feed passage connected to the hopper;
A conveying auger rotatably coupled to the inside of the conveyance passage and adapted to move a cusp to a cusp unit; And
And a feed driving unit for rotating the feed auger.
3. The method of claim 2,
The above-mentioned pouring-in small-
An injection container connected to a discharge side of said forward transfer device;
An injector connected to the injection container; And
And an injection unit connected to the injector, for discharging the ultrapure water to be transferred by the injector, and for injecting the injection tube.
8. The method of claim 7,
And wherein said pouring-in portion comprises an injection nozzle that fits inside said pouring tube.
3. The method of claim 2,
The above-
A heating chamber portion for forming a heating atmosphere;
A conveyor installed inside the heating chamber for conveying an instantaneous line; And
And a heating unit for heating the heating chamber unit.
10. The method of claim 9,
Wherein the conveyor comprises:
A mesh belt part installed to travel in an endless track in the heating chamber part and having a plurality of meshes; And
And a conveyor driving unit for moving the mesh belt unit in an endless track.
10. The method of claim 9,
Wherein the heating unit is a steam injector for injecting steam into the heating chamber unit.
The method according to claim 1,
And a built-in cleaning device for cleaning the interior by spraying wash water into the interior of the interior,
The built-
A cleaning nozzle unit to which cleaning water is supplied and into which the interior is fitted; And
And a recovery container for recovering the cleaning water discharged from the cleaning nozzle unit.
13. The method of claim 12,
The cleaning nozzle unit
A wash water pipe to which wash water is supplied;
A spray nozzle coupled to an end of the wash water pipe, the spray nozzle having a built-in fitting therein and having a plurality of spray holes formed on an outer surface thereof to spray wash water in a radial direction; And
And a brush formed on an outer surface of the spray nozzle.

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