KR20110114328A - Apparatus for making korean sausage - Google Patents

Abstract

The present invention relates to a sundae manufacturing apparatus. It comprises a first extrusion unit for extruding the sundae outer material including the noodles and the paper; An outer material conveying tube which receives the outer material extruded from the first extrusion part into its inlet and discharges it into its outlet; A second extrusion unit for extruding the inner material to be inserted into the central axis of the outer material; The inner material conveying tube, which receives the inner material discharged from the second extruding part, is discharged to the inlet and discharged to the outlet, has a smaller diameter than the outer material conveying tube, and a part thereof is disposed to pass through the outlet of the outer material conveying tube; ; It characterized in that it comprises an oil supply unit for supplying oil to the surface of the inner material passing through the inner material transport tube by supplying oil into the inner material transport tube.
The sundae manufacturing apparatus of the present invention made as described above continuously extrudes the outer material and the inner material, and can continuously produce the dual structure of the outer structure in which the outer material and the inner material are separated, and further, oil is applied to the surface of the inner material during the extrusion process. Since the inner material and the outer material are separated by the oil coating layer, the inner material does not become stained with the color of the outer material, so that the cross-sectional shape is clearly separated, thereby producing a large amount of sundae with a different and soft taste.

Description

Sundae manufacturing equipment {Apparatus for making korean sausage}

The present invention relates to a sundae manufacturing apparatus.

Sundae is a food made by filling the sun's intestines with sundae ingredients mixed with vermicelli, sesame seeds and other necessary ingredients, and steamed it with steam. Such sundae is different depending on the province, so-called Byeongcheon Sundae, Abai Sundae, Baekam Sundae and the like are known.

However, the sundae described above has a very dark color as a whole by the prophets contained therein, and the figure itself does not stimulate the taste or visually look luxurious. Accordingly, there have been attempts to make sundaes different, and so-called sundaes with a so-called multi-structure, for example, are placed in the inside of sundae (vegetables such as vegetables). (Korean Patent Publication No. 2004-0027853)

By the way, since the production of the multi-stage is made by hand, the productivity is very low, and it takes a long time to make, and in particular, the density of the internal materials is uneven. In addition, since the inside of the small intestinal sheath is somewhat chewy and difficult to taste.

The present invention has been made to solve the above problems, by continuously co-extrusion of the outer material and the inner material, it is possible to continuously produce a double-structured sequence of the outer material and the inner material separated, and also to apply oil to the surface of the inner material during the extrusion process Since the inner material and the outer material can be coated by the oil coating layer, the inner material does not become stained with the color of the outer material, so the cross-sectional shape is clearly separated and the sundae manufacturing apparatus for manufacturing the dual sundae with soft and taste is provided. There is this.

Sundae manufacturing apparatus of the present invention for achieving the above object, the first extrusion unit for extruding the sundae outer material including the instant noodles and fiber; The outer material extruded from the first extruded part is taken into the inlet and discharged to the outlet, and the outer peripheral part supports the sundae shell so that the outer shell is released along the material when the outer material is discharged through the outlet. An outer material conveying tube having an outer shell supporting portion for supporting the outer shell; A second extrusion part for extruding the inner material to be inserted into the central axis of the outer material wrapped in the outer shell; The inner material conveying tube, which receives the inner material discharged from the second extruding part, is discharged to the inlet and discharged to the outlet, has a smaller diameter than the outer material conveying tube, and a part thereof is disposed to pass through the outlet of the outer material conveying tube; ; It characterized in that it comprises an oil supply unit for supplying oil to the surface of the inner material passing through the inner material transport tube by supplying oil into the inner material transport tube.

In addition, the outlet of the inner material conveying tube, protrudes to the outside of the outer material conveying tube passing through the outlet of the outer material conveying tube, characterized in that protruding by a distance of at least three times the diameter of the inner material conveying tube.

In addition, the outlet of the material transfer tube is characterized in that it takes the form of a cross section of a circular or polygonal.

In addition, the second extrusion unit; A screw feeder installed in the upper open chamber, including a screw feeder for receiving the rotational force from the motor to axially rotate and discharging the material into the chamber through a discharge hole formed in one wall of the chamber, wherein the discharge hole is formed. The front portion of the side wall, passing through the inner material passing through the discharge hole therein is characterized in that the extrusion block for reducing the flow cross-sectional area to be delivered to the inner material conveying tube detachable.

In addition, the inner material transfer tube, after passing through the tube wall surface of the outer material transfer tube enters the inside of the outer material transfer tube, and extends along the longitudinal direction of the outer material transfer tube to pass through the outlet of the outer material transfer tube It is characterized by.

The sundae manufacturing apparatus of the present invention made as described above continuously extrudes the outer material and the inner material, and can continuously produce the dual structure of the outer structure in which the outer material and the inner material are separated. Since the inner material and the outer material are separated by the oil coating layer, the inner material does not become stained with the color of the outer material, so that the cross-sectional shape is clearly separated, thereby producing a large amount of sundae with a different and soft taste.

1 is a view showing the overall structure of the sundae manufacturing apparatus according to an embodiment of the present invention.
2 is a cross-sectional view showing the internal structure of the transfer tube shown in FIG.
3 is a cross-sectional view taken along the line III-III of FIG. 2.
4 is an exploded perspective view of the second extrusion part illustrated in FIG. 1.
5 and 6 are cutaway perspective views of the extrusion block shown in FIG.
FIG. 7 is a cross-sectional view of a portion of the second extrusion part illustrated in FIG. 4.
8 and 9 are views showing another example of the material transfer tube that can be used in the sundae manufacturing apparatus shown in FIG.
10 to 12 are views showing, for example, a cross section of sundae manufactured by a sundae manufacturing apparatus according to an embodiment of the present invention.

Hereinafter, one embodiment according to the present invention will be described in detail with reference to the accompanying drawings.

Basically, the sundae manufacturing apparatus 11 which concerns on a present Example is an apparatus for continuous production of the sundae 41 of the cross-sectional shape shown, for example in FIGS. 10-12.

1 is a view showing the overall structure of the sundae manufacturing apparatus according to an embodiment of the present invention.

As shown, the sundae manufacturing apparatus 11 which concerns on this embodiment is the 1st extrusion part 13 which extrudes the outer material (41a of FIG. 10), and the surface extruded from the said 1st extrusion part 13 The outer material transfer tube 17 through which the material passes therein, the second extruded part 21 through which the inner material (41c in FIG. 10) is extruded, and the inner material extruded from the second extruded part 21, Sok material transfer tube 19 to be inserted into the material (41a) and the oil supply portion 25 for supplying sesame oil or perilla oil or olive oil, sunflower seed oil or grape seed oil into the inside material material tube (19). .

First, the first extruded portion 13 is a hopper 15 for receiving the outer material including vermicelli, seonji, and other seasonings, which are general sundae materials, and guided downward, and the outer material introduced through the hopper 15. It includes a screw feeder (13a) for pushing the outer material transfer tube 17, and a first motor (13b) for rotating the screw feeder (13a). The motor 13b and the screw feeder 13a are connected by a chain 13c.

In addition, the second extrusion unit 21 serves to push the inner material into the inner material transport tube 19, and the inner material received through the hopper 23 and the hopper 23 to receive the inner material downward. It consists of a screw feeder (21a) for extruding the inner material conveying tube 19, the second motor (21b) is connected to the screw feeder (21a) and the chain (21c) and axially rotates the screw feeder (21a). As the first and second motors 13b and 21b, VS motors capable of controlling the rotational speed are used.

The inner material may be any material as long as the outer material and taste can be combined. For example, rice cakes, vegetables, grains, carrots, zucchini, and cheese can be used. In particular, the rice cake may be applied to the rice cakes of various colors in addition to white.

The outer material transfer tube 17 has its inlet (17a in FIG. 1) fixed to the first extruded portion 13 and bent downward to extend vertically, and then in front of the second extruded portion 21. It is bent once again to take the form of a horizontal extension.

2, the structure of the outer material transfer tube 17 and the inner material transfer tube 19 will be described first.

As shown in FIG. 2, the outer material transfer tube 17 has an inlet 17a for receiving the outer material pushed out of the first extrusion part 13, and enters the inlet 17a and flows inside. It has an outlet 17b for discharging the outer material to the outside.

In particular, the outer material transfer tube 17 is bent twice so that the inlet 17a and the outlet 17b are not located in a straight line. In other words, the outer material transfer tube 17 is horizontally extended from the inlet 17a and then bent downward to extend vertically, and then bent horizontally to extend in the horizontal direction. The horizontally bent portion described above is the curved portion 17e and the straight portion 17f from the curved portion 17e to the outlet 17b.

In addition, the outer skin supporting part 17c is provided in the linear extension part 17f. An outer shell (31 in FIG. 1) to be used for the outer circumferential surface of the outer shell supporting portion 17c as a portion having a smaller diameter than the other portion is fitted. The shell 31 is the intestines of pigs used in general sundae. The shell 31 is released in the state in which the outer material and the inner material are extruded in a state of being fitted to the outer shell support 17c.

In addition, since the outer diameter of the outer shell support part 17c is smaller than that of other parts, the outer material which has flowed through the outer material transfer tube 17 inside the outer shell support part 17c is agglomerated to increase the density. In other words, Sundae becomes hard and elastic.

Meanwhile, the inner material conveying tube 19 is a pipe having a constant diameter, and passes through the through hole 17g formed in the outer material conveying tube 17, and a part of the inner material conveying tube 19 passes into the outer material conveying tube 17. Is inserted. The inner material conveying tube 19 inserted into the outer material conveying tube 17 extends in the horizontal direction so that its front end passes through the outlet 17b to protrude out of the outer material conveying tube 17. The protruding length (S) is at least three times the diameter of the inner material transfer tube (19).

The inner material conveying tube 19 is a pipe which receives the inner material extruded from the second extrusion part 21 as the inlet 19a and then sends it out to the outlet 19b. In particular, since the outlet 19b of the inner material conveying tube 19 protrudes by a distance S from the outlet 17b of the outer material conveying tube 17, the boundary between the outer material and the inner material is reliably kept. If the outlet 19b does not protrude, the inner material is buried in the outer material.

In addition, the holder 17d is provided in the through hole 17g of the outer material transfer tube 17 so as to support the inner material transfer tube 19. The holder 17d is a tubular part welded to the outer material transfer tube 17 and supports the inner material transfer tube 19 to its inner circumferential surface. Reference numeral w denotes a weld. The inner material conveying tube 19 is in close contact with the inner circumferential surface of the holder 17d does not move back and forth, left and right. In particular, by moving the inner material transport tube 19 in the longitudinal direction can be removed from the outer material transport tube (17). This means that the material transfer tube 19 of various shapes, for example, shown in FIG. 7 or 8 may be selectively replaced.

Returning to FIG. 1 again, the description will be continued.

As described above, the outer material passes through the outer material transfer tube 17 and is discharged in the direction of arrow b, and the inner material passes through the inner material transfer tube 19 and is discharged in the direction of arrow a. In particular, the outer shell 31 supported by the outer shell supporting portion 17 is sequentially released along the outer material by the discharge of the outer material.

In particular, an oil coating layer (41d in Figure 10) is applied to the outer peripheral surface of the material discharged in the direction of the arrow a. The oil coating layer 41d is applied in advance before the inner material is surrounded by the outer material. An oil supply part 25 is provided to form the oil coating layer 41d, and a plurality of oil holes (19c in FIG. 3) are formed in the inner material transfer tube 19.

The oil supply part 25 includes an oil injection ring 25b surrounding the oil hole 19c of the inner material transport tube 19 and sealingly coupled to the periphery of the inner material transport tube 19, and a pump 25c for pumping the prepared oil. ), And an oil supply pipe 25a connecting the pump 25c and the oil injection ring 25b.

The oil pumped from the pump 25c is injected into the oil injection ring 25b via the oil supply pipe 25a and then coated on the surface of the inner material through the oil hole 19c as shown in FIG. 3. . As said oil, sesame oil, perilla oil, olive oil, sunflower seed oil, grape seed oil, etc. can be used.

4 is an exploded perspective view of the second extrusion part illustrated in FIG. 1.

Referring to the drawings, it can be seen that a pair of screw feeders 21a are installed in the inside of the chamber 21d open to the top to be rotatable. The chamber 21d is a space where the inner material injected through the hopper 23 is mixed and extruded by the screw feeder 21a.

In addition, a discharge hole 21e extending from side to side is formed in the central portion of the support wall 21f supporting one end of the screw feeder 21. The discharge hole 21e is a hole through which the inner material escapes.

In addition, the guide plate 35 is mounted on the front (extrusion direction reference) outer side of the support wall 21f. The guide plate 35 serves to reduce the flow cross-sectional area of the core material exiting through the discharge hole 21e and to send it to the core material transfer tube 19.

In order to fix the guide plate 35 to the support wall 21f, a female threaded opening 21g is provided in the support wall 21f, and a fixing protrusion 35c having a hole 35d in the guide plate 35. Is provided. When the bolt 35e is fastened with the hole 35d aligned with the female threaded ball 21g, the guide plate 35 is mounted.

In addition, a block installation hole 35b is formed in the center portion of the guide plate 35. The block mounting hole 35b accommodates the cylindrical extrusion block 37 as a hole passing through the guide plate 35. The extrusion block 37 passes the inner material exiting the discharge hole 21e and serves to guide the inner material to the inner material transfer tube 19.

5 and 6 illustrate the extrusion block 37.

As shown in Figs. 5 and 6, the extrusion block 37 has a substantially cylindrical shape and has an extrusion hole 37a at the center thereof. The extrusion hole 37a is a hole through which the inner material passes, and the rear end of the inner material conveying tube 19 is inserted and fixed therein. The size or cross-sectional shape of the extrusion hole 37a may vary depending on the case. The extrusion hole 37a shown in FIG. 6 takes the form of a square cross section.

In addition, a flange portion 37b is provided on the top outer circumferential surface of the extrusion block 37. The flange portion 37b is a protrusion that is caught by the locking step (35k in FIG. 7) in the block mounting hole 35b.

In addition, a guide portion 37c inclined downward from the flange portion 37b toward the extrusion hole 37a is located on the upper surface of the extrusion block 37. The guide portion 37c is an inclined surface for guiding the material passing through the discharge hole 21e to the extrusion hole 37a. The guide portion 37c and the extrusion hole 37a resemble a funnel.

On the other hand, the controller 33 is located on one side of the second extrusion unit 21. The controller 33 is for controlling the first extrusion part 13, the second extrusion part 21, and the oil supply part 25. To this end, the controller 33 is electrically connected to the first motor 13b, the second motor 21b, and the pump 25c.

The controller 33 has a first motor on / off button 33a for turning on and off the first motor 13b, and a first motor speed control switch for adjusting the rotational speed of the first motor 13b during operation ( 33b), a second motor on-off button 33c for turning on and off the second motor 21b, a second motor speed control switch 33d for controlling the rotational speed of the second motor 21b during operation, An oil supply unit operation switch 33e for operating the pump 25c of the oil supply unit 25 is provided.

The controller 33 may control the extrusion speed of the outer material and the inner material extruded through the controller 33 and may also adjust the oil supply amount.

 FIG. 7 is a cross-sectional view of a portion of the second extrusion part illustrated in FIG. 4.

As shown in the drawing, the extrusion block 37 is fitted into the block mounting hole 35b of the guide plate 35. As described above, the flange portion 37b of the extrusion block 37 is caught and supported by the locking step 35k. In particular, a guide surface 35f is formed on the surface of the guide plate 35 facing the support wall 21f. The guide surface 35f is an inclined surface that collects the material coming out through the discharge hole 21e into the extrusion block 37.

In addition, it can be seen that the rear end of the inner material transfer tube 19 is inserted and fixed in the extrusion hole 37a of the extrusion block 37.

8 and 9 are views showing another example of the material transfer tube that can be used in the sundae manufacturing apparatus shown in FIG.

Referring to Figure 8, it can be seen that the cross section of the outlet 19b of the inner material transport tube 19 takes the form of a triangle. Thus, by making the cross section of the exit 19b into a triangle, the sundae of the type shown in FIG. 11 can be manufactured, for example.

9, it can be seen that the outlet 19b has a rectangular cross-sectional shape. By forming the outlet 19b in a quadrangle, the sequence of the shape shown in FIG. 12 can be obtained. In the present embodiment, the shape of the outlet 19b of the inner material transfer tube 19 is only a circle, a triangle, and a rectangle, but the shape of the outlet 19b can be changed as desired.

10 to 12 are views showing, for example, a cross section of sundae manufactured by a sundae manufacturing apparatus according to an embodiment of the present invention.

As shown in the drawing, the sundae 41 manufactured by the sundae manufacturing apparatus 11 according to the present embodiment has a core material 41c having a predetermined cross-sectional shape and an oil coating layer 41d coated on the surface of the core material 41c. ) And an outer material 41c separated from the inner material 41c by the oil coating layer 41d and surrounding the inner material 41c, and an outer shell 31 surrounding the outer material 41a.

The method of manufacturing sundae 41 using the sundae manufacturing apparatus 11 of this embodiment which has the said structure is as follows.

First, the first and second motors 13b and 21b are driven through the controller 33, and the previously prepared outer material 41a and inner material 41c are first and second through the hoppers 15 and 23. 2 Insert into the extruded parts 13 and 21.

The outer material introduced into the first extrusion part 13 is extruded by the screw feeder 13a and is discharged in the direction of arrow b through the inside of the outer material transfer tube 17. In the meantime, the inner material injected into the second extrusion part 21 exits in the direction of arrow a via the inner material conveying tube 19 by the operation of the screw feeder 21a. As the outer material and the inner material exit the outlet in the direction of the arrow, the outer shell 31 is released to surround the outer material.

Of course, the oil must be supplied to the inside of the inner material transfer tube 19 by driving the oil supply unit 25 during the process.

In any case, the above-described process yields a sundae 41 having a double structure of a core material having a predetermined cross-sectional shape and an outer material surrounding the core material.

While the present invention has been particularly shown and described with reference to exemplary embodiments thereof, it is to be understood that the invention is not limited to the disclosed exemplary embodiments, but, on the contrary, is intended to cover various modifications and equivalent arrangements included within the spirit and scope of the appended claims.

11: Sundae Manufacturing Equipment 13: First Extruder 13a: Screw Feeder
13b: 1st motor 13c: chain 15: hopper
17: Material transfer tube 17a: Inlet 17b: Outlet
17c: outer shell support 17d: holder 17e: curved portion
17f: Straight extension part 17g: Through hole 19: Material feed tube
19a: entrance 19b: exit 19c: oil hole
21: 2nd extrusion part 21a: screw feeder 21b: 2nd motor
21c: Chain 21d: Chamber 21e: Outlet hole
21f: support wall 21g: female screw mouth 23: hopper
25: Oil supply part 25a: Oil supply pipe 25b: Oil injection ring
25c: pump 31: jacket 33: controller
33a: 1st motor on-off button 33b: 1st motor speed control switch
33c: 2nd motor on-off button 33d: 2nd motor speed control switch
33e: oil supply operation switch 35: guide plate 35b: block mounting hole
35c: fixing protrusion 35d: hole 35e: bolt
35f: Guide surface 35k: Jam jaw 37: Extrusion block
37a: extrusion hole 37b: flange portion 37c: guide portion
41: Sundae 41a: Material 41c: Material
41d: oil coating layer

Claims (5)

A first extrusion part for extruding the sundae outer material including the vermicelli and the wire;
The outer material extruded from the first extruded part is taken into the inlet and discharged to the outlet, and the outer peripheral part supports the sundae shell so that the outer shell is released along the material when the outer material is discharged through the outlet. An outer material conveying tube having an outer shell supporting portion for supporting the outer shell;
A second extrusion part for extruding the inner material to be inserted into the central axis of the outer material wrapped in the outer shell;
The inner material conveying tube, which receives the inner material discharged from the second extruding part, is discharged to the inlet and discharged to the outlet, has a smaller diameter than the outer material conveying tube, and a part thereof is disposed to pass through the outlet of the outer material conveying tube; ;
And an oil supply unit supplying oil to the inside of the inner material transport tube to apply oil to a surface of the inner material passing through the inner material transport tube. The method of claim 1,
The outlet of the inner material conveying tube, passing through the outlet of the outer material conveying tube protrudes to the outside of the outer material conveying tube, the sundae manufacturing apparatus, characterized in that protruded by a distance of at least three times the diameter of the inner material conveying tube. 3. The method according to claim 1 or 2,
The outlet of the inner material transfer tube Sundae manufacturing apparatus characterized in that it takes the form of a cross-section of a circular or polygonal. 3. The method according to claim 1 or 2,
The second extrusion unit;
It is installed in the upper chamber, the screw feeder for receiving the rotational force from the motor to rotate and discharge the material inside the chamber through the discharge hole formed in one side wall of the chamber,
In the front portion of the one side wall is formed with the discharge hole, the extrusion block for passing the inner material passing through the discharge hole therein and reducing the flow cross-sectional area to be delivered to the inner material transport tube, characterized in that detachable Sundae manufacturing equipment. The method of claim 1,
The inner material transfer tube passes through the tube wall of the outer material transfer tube and enters the inner material transfer tube, and then extends along the longitudinal direction of the outer material transfer tube and passes through the outlet of the outer material transfer tube. Sundae manufacturing apparatus.

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