KR20040087392A - Koturi Kimbap Preparing Machine - Google Patents

Abstract

PURPOSE: An apparatus for production of laver-rolled rice cutting by dividing rice placed on a laver sheet into a plurality of rice clumps and then cutting the central portion of the boundary portion between the rice clumps of the obtained laver rolls and/or the central portion of the rice clumps is provided. It permits mass production of laver-rolled rice cuttings which have excellent taste and nutrition at once as compared conventional laver-rolled rice cuttings. CONSTITUTION: The apparatus for production of laver-rolled rice cuttings comprises: a rice forming part(100) for forming rice to a predetermined thickness by a pushing roller(20), cutting to a predetermined length by a cutting apparatus(30) and transferring by a conveyor belt(40); and a laver-rolled rice forming part(110) containing a transferring apparatus(60) having a plurality of transfer rollers(61), a fixed roller(70), a driving roller(80) and a forming belt(90). The apparatus is characterized in that the rice forming part contains a dividing frame which is assembled in a removable manner on a support frame over the conveyor and a cutting conveyor belt(311) is installed at the lower part of the forming belt. A transverse cutting apparatus(313) having plural transverse cutting blades is mounted on a support frame(312).

Description

Koturi Kimbap Preparing Machine

The present invention relates to an apparatus for producing gimbap, and more specifically, three or more pods with one roll of gimbap by dividing the rice and / or gimbap into several lumps, rolling them into a piece of laver, and then cutting them into equal parts. It relates to a pod gimbap manufacturing apparatus that can produce gimbap.

In general, gimbap is a simple food that forms a unique taste based on the unique taste of Kim and various ingredients in the interior.It is accompanied by many outdoor picnics and outings. It is used a lot as.

In addition, the gimbap is being developed as a simple food that can counter the foreign foods because the variety of foreign foods, such as hamburgers, pizzas are changing the food culture of our country to suit our tastes and supply sufficient nutrition.

1a to 1e is a view showing a conventional method for producing gimbap.

The conventional gimbap is a step of preparing the seaweed 201 (see FIG. 1A), spreading the rice 200 wide on one side of the seaweed 201 (see FIG. 1B), and the contents 202 on the rice 200. Step) (see Fig. 1c), rolling the seaweed (201) to produce a gimbap roll 203 (see Fig. 1d); And cutting the gimbap roll 203 (see FIG. 1E).

In order to reduce the inconvenience caused by the manual work, the automatic gimbap manufacturing apparatus as shown in Figures 2 to 9 has been proposed through the Republic of Korea Utility Model Registration Application No. 20-1991-0010630.

This design makes gimbap manufacturing efficiency greatly by performing a series of processes to make gimbap, which is completed from a working line for forming rice to a certain thickness and size by putting molded rice on seaweed and putting it into a roll. To increase.

To this end, the gimbab automatic manufacturing device disclosed in the Republic of Korea Utility Model Registration Application No. 20-1991-0010630 is the rice 200 by the pin roll 50 and the compaction forming roller 20 in the hopper 13 to insert the rice In the gimbab automatic manufacturing apparatus having a rice molding portion 100 to be molded to a predetermined thickness and to be transported by a conveyor belt 40 while being cut to a predetermined length by the cutting device 30, the rice molding portion 100 Next, the feeder 60 having a plurality of feed rollers 61 rotated by the driving means is inclined with a predetermined gradient, and is connected to the feeder 60 so as to be rotatable and fixed to the rotatable fixed roller 70. It is formed to be connected to the fixed roll 70 by the drive means to be rotated so that the driving roll 80 is rotatable so that the fixed roll 70 is connected to each other as a forming belt 90 of a predetermined length. On the belt 90 It is characterized in that the gimbap can be molded into a roll shape.

This will be described in detail with reference to the accompanying drawings.

As shown in FIG. 3, a driving means mounting portion 11 is provided in which a driving device (not shown) is mounted to the rear of the apparatus main body 10, and the driving means are controlled in the front portion of the driving means mounting portion 11. The control box 12 which can be formed is formed. In addition, the front of the drive means mounting portion 11 is provided with components capable of molding gimbap, the left side in the figure is formed with a rice molding unit 100 that can mold the rice to a certain size, After the rice forming unit 100, the gimbap forming unit 110 is formed to roll the rice formed on the right side of the drawing by the seaweed.

Rice molding unit 100 is a hopper (13) that can put a certain amount of rice, a compaction forming roll (20) to chop the rice to a certain thickness, and the rice compacted by the compaction forming roll (20) is suitable The lower portion of the cutting device 30 that can be cut to size includes a conveyor belt 40 capable of transferring the shaped rice as described above. The pin roll 50 is formed in the hopper 13 as shown in FIGS. 2 and 3, and the direction of the arrow in FIG. 3 is adjusted while adjusting the amount of rice 200 injected into the hopper 13 by the rotation of the pin roll 50. As a result, the action that the rice 200 is pushed uniformly occurs. As shown in FIG. 4, a plurality of pins 52 having a predetermined length are alternately formed on the hollow cylindrical pin roll shaft 51 as shown in FIG. 4, and the pin roll shaft 51 is driven as described above. It is connected to the drive shaft 53 is rotated by the drive means in the means mounting portion 11 to enable the pin roller 50 to rotate at a constant speed.

Next, the compaction forming roll 20 is formed at the opening side of the hopper 13 and rotates to discharge the bob 200 in the hopper 13 onto the conveyor belt 40 while functioning to compact it to a predetermined thickness. The gap with the surface of the conveyor belt 40 can be adjusted. The thickness of the rice discharged through the opening of the hopper 13 can be arbitrarily adjusted. And. As shown in FIG. 5, the compaction forming roll 20 has a spiral groove 21 formed in a spiral at equal intervals on the circumferential surface, and is made of a non-adhesive material, so that the compaction forming roll 20 may be rotated. The transfer of the conveyor belt 40 prevents rice from drying, scattering, or sticking to the outer surface of the compaction roll 20. In addition, similarly to the pin roll 50, the compaction forming roll 20 is connected to the driving shaft 23, in which the compaction forming roll shaft 22 is rotated by the driving means in the driving means mounting portion 11, as shown in FIG. The compaction forming roll 20 is to be rotated at a constant speed.

In addition, the cutting device 30 is formed on the conveyor belt 40 as shown in Figure 2 and 3 cut the rice proceeding on the conveyor belt 40 at a predetermined interval to the compaction forming roll 20 of the The rice is minced by a certain size. As shown in FIG. 6, the cutting device 30 is supported by a fixing bracket 31 fixed to the front portion of the driving means mounting portion l1 of the machine body l0. The driving source is connected to the driving device in the driving means mounting portion 11 so that the rotating power transmission shaft 32 is freely supported by the fixing bracket 31 by the holding bracket 33. In addition, the cutting blade support 34 is fixed to both sides of the power transmission shaft 32, the other end of the cutting blade support 34, the rotating shaft 35 is free to rotate by the bearing (35-1) This is connected across.

In addition, a vertical rod 37 on which the cutting blade 36 is fixed to the tip is supported by the support bracket 38 at the central portion of the pivot shaft 35, and the vertical rod 37 is the retaining bracket 33. 6 and the springs 39 are connected in the up and down directions as shown in FIG. 6, so that the cutting blade 36 cuts in the vertical movement by the drive of the power transmission shaft 32. By the elastic force of the coaxial 35 and the spring 39, the rice on the conveyor belt 40 which the cutting blade 36 runs at a constant speed can be cut | disconnected to a predetermined length by moderate play.

In addition, the conveyor belt 40 is formed in the rice forming part 100, as shown in Figure 2 and 3, and is guided to the plurality of belt roll 41 to be driven in the direction of the arrow of FIG. have. The belt rolls 41 are connected to a driving device (not shown) installed in the driving means mounting portion 11 of the device body 10 so that the conveyor belt 40 can travel and move as it rotates at a constant speed. . In addition, the upper portion of the conveyor belt 40 has a belt support 42 which is fixed to the front portion of the drive means mounting portion 11 to have a width approximately the same as the width of the conveyor belt 40, the conveyor belt as shown in FIG. The sliding rice can be guided, so that the transfer can be carried out while the underside of the conveyor belt 40 is supported by the belt support 42, so that the molded rice on the conveyor belt 40 can be moved. The tension can be transferred.

Next, in FIG. 1 and FIG. 7, the conveying device 60 is connected to the conveyor belt 40 of the rice forming part 100 and is rotated by a driving device (not shown) in the driving means mounting part 11. Of the feed rollers 61 are arranged to be inclined at a predetermined gradient to put the laver on the transfer rollers 61, so that the formed rice that is transferred from the conveyor belt 40 of the rice forming unit 100 is placed on the laver. It may be or may be attached to the laver, it is possible to transfer the laver and the laver rice raised to the gimbap molding unit 110 to be described later. As shown in Fig. 7, the conveying device 60 has a chain wheel 62 formed thereon while one end of the feed roller 61 having a predetermined diameter is supported on the front panel of the drive means mounting portion 11, respectively. The transmission chains 63 are each capable of rotating with a constant rotational force.

The power transmission is one of the transfer rollers 61 is connected to the power shaft 64 is connected to the drive device, the driving force of the chain is transmitted, and the power transmission chain 63 to the holding chain wheel 65 It can be driven at a moderate tension. In addition, the other end of the transfer roller 61 is supported to be freely rotated on the roller support 66, the roller support 66 is to be supported by a support bracket 67, and also a support bracket (67) is fixed to the front portion of the drive means mounting portion 11 of the device body 10, it is fixed so that the transfer device 60 can be maintained as shown in Figure 1 at an appropriate inclination angle.

Next, Figures 8 and 9 show the gimbap molding unit 110 of the present invention, the fixed roll 70 and the fixed roll 70 by a predetermined distance away from the rotatable fixed roller 70 in succession to the transfer device (60) 70 and the rotatable driving roll 80 is connected to the fixed roll 70 and a predetermined length of the forming belt 90, so that the gimbap on the forming belt 90 It is intended to be molded into a roll shape.

As shown in FIG. 8, the fixed roller 70 is freely rotated by the fixed shaft 71, and the driving roller 80 is formed on the driving means mounting part 11 of the device body 10. It is connected to the drive roller driving shaft 81 is connected to (not shown) is formed to be free to rotate. In addition, the driving roller 80 is formed to be movable in the direction of the arrow is coupled to the driving roller driving shaft 81 of the arc-shaped drive shaft guide hole 82 of the appropriate length as shown in FIG. In addition, both ends of the driving roller 80 are connected to the driving roller support 83 as shown in FIG. 8, and the other end of the driving roller support 83 is freely connected to the central axis 84. Thus, the driving roller 80 is formed to be movable toward the fixed roller 70 about the central axis 84 in the direction of the arrow.

The fixed roller 70 and the driving roller 80 are fixed at both ends of the molding belt 90 which can be bent on the surface thereof, and the fixed roller 70 and the driving roller 80 are formed in a predetermined length as shown in the drawing. It is connected to each other by a certain interval by the belt for 90, the laver 201, the molded rice 200 and the gimbap inside 202 on the forming belt 90 rolled in a rolled shape as shown in Figure 9 gimbap Will complete.

Therefore, according to the automatic kimbap manufacturing apparatus, the rice put in the hopper 13 is uniformly pushed in the direction of the arrow of FIG. 2 while controlling the injection amount by the rotation of the pin roll 50 is discharged toward the opening of the hopper 13 At this time, the rice 200 is pushed or scattered or compacted by the rotation of the compaction forming roller 20 in which the spiral corrugated groove 21 having a non-adhesive material is formed and the conveyance travel of the conveyor belt 40. It is primarily molded to a predetermined width and thickness without being pressed onto the roll 20 and is conveyed to the right side of FIG. 3 by the conveyor belt 40.

The primary molded rice as described above is cut and molded to a suitable length by the vertical operation of the cutting device 30 to exit the conveyor belt 40. The cut rice on the conveyor belt 40 is transferred onto the seaweed (Hatae) located in the transfer roller 61 of the transfer device 60. When the appropriate amount of gimbap 202 is put therein, the transfer device 60 is As the feed roller 61 is rotated by the drive of the power transmission chain 63 while being inclined at a predetermined inclination angle, the rice 200, the kimbap 202, and the seaweed (200) with the gimbap forming unit 110, which is a secondary molding process, is rotated. 201) is transferred.

The rice 200 and the gimbap 202 and the seaweed 201 transferred to the conveying device 60 are placed on the forming belt 90, and the rice 200 and the gimbap placed on the forming belt 90. When the contents of the core 202 and the seaweed 201 are guided and moved to the drive shaft guide hole 82 by the drive of the drive roller driving side 81 of the drive roller 80 in the direction of the arrow in FIG. The molding belt 90 is struck down by its own weight, and the contents of the rice 200, the inside of the kimbap 202, and the seaweed 201 are secondly molded into a round bar shape.

Subsequently, when the driving roller driving shaft 81 of the driving roller 80 receives the rotational force by the driving device in the state in which the driving roller 80 is in contact with the fixed roller 70, the fixed roller 70 and the driving roller 80 9) rotates in the direction of the arrow as shown in FIG. 9, the forming belt 90 is rotated so that the excess laver is completely dried, the operation of gimbap molding is completed. In addition, when the molding operation of the gimbap is completed, the driving roller 80 is reversed in the direction opposite to the arrow in FIG. 8, thereby allowing the rolled-out gimbap roll 203 to be shaped.

As described above, according to the automatic kimbap manufacturing apparatus disclosed in the Republic of Korea Utility Model Registration Application No. 20-1991-0010630, from the working line for forming the rice to a certain thickness and size, put the formed rice on the seaweed and then put into the gimbap into a roll shape By doing so, the work to complete the gimbap can be automatically performed by a series of processes, it is possible to increase the production and work efficiency by increasing the production of gimbap manufacturing.

By the way, the gimbap manufactured by such a gimbap automatic manufacturing apparatus, as can be seen in Figure 1e, the pod portion is generated at both ends of the gimbap, so-called pod gimbap (205), a more specifically picture is shown in Figure 10 . The pod gimbap (205) contains more of the contents of the inside than the rice, so the taste is more excellent than the general gimbap, can take a large amount of nutrients through the contents of the seaweed, and the pressure compared to the center of gimbap This is a little more added, so it retains the curly character of rice, making it a more preferred part for consumers.

In particular, despite the consumer's preference, until now, no automatic gimbap manufacturing apparatus has been developed to produce only pod gimbap, so pod gimbap can be obtained only two per line of gimbap. Yield is relatively lower than the general gimbap, had a problem that can not rely on manual work to increase the yield.

The present invention has been proposed in order to solve the problems of the conventional automatic gimbap manufacturing apparatus as described above, and has an object to obtain a number of pod gimbap from one gimbap roll when manufacturing gimbap.

1a to 1e is a view showing step by step a conventional method for producing gimbap.

2 is a perspective view of a conventional gimbap automatic manufacturing device

Figure 3 is a longitudinal sectional view schematically showing the rice forming unit of the automatic gimbap manufacturing apparatus shown in FIG.

4 is a perspective view of the pin roll shown in FIG.

5 is a perspective view of the compaction forming roll shown in FIG.

6 is a partially enlarged perspective view of the cutting device shown in FIG.

7 is a perspective view of the transfer device shown in FIG.

8 is a perspective view of the gimbap forming unit shown in FIG.

9 is a side view showing a state in which the gimbap is molded by the gimbap forming belt shown in FIG.

10 is a photo showing a typical gimbap and pod gimbap.

11 is a perspective view of the pod gimbap production apparatus according to the present invention.

12 is a longitudinal sectional view schematically showing the rice forming part shown in FIG. 11;

FIG. 13 is a partially enlarged perspective view illustrating the split mold illustrated in FIG. 11 in more detail.

14 is a cross-sectional view taken along line AA of FIG. 13.

15 is a partially enlarged perspective view illustrating the transverse cutting device shown in FIG. 11 in more detail.

FIG. 16 is a longitudinal sectional view along the insertion slot of the cutting blade block shown in FIG. 15; FIG.

17 is a partially enlarged perspective view illustrating a state in which a power plate is installed in the cutting blade block illustrated in FIG. 15.

Figure 18a to 18f is a view showing a step by step the process of manufacturing pod gimbap by.

19 is a view showing a state in which a short gimbap genus is applied.

Explanation of symbols on the main parts of the drawings

10: main unit 11: drive unit mounting portion

13: Hopper 20: compaction forming roll

30: cutting device 40: conveyor belt

50: pin roll 60: feeder

90: forming belt 100: rice forming unit

110: gimbap molding unit 301: split frame

303: dividing blade 304: fitting protrusion

305: fitting groove 311: cutting conveyor belt

313: horizontal cutting device 317: cutting blade block

319: insertion slot 321: transverse cutting blade

323: cutting blade pressure plate 325: eccentric cam

327: electric plate

In order to achieve this object, the present invention is to be formed into a certain thickness by the compaction forming roller while the rice fed into the hopper is discharged from the rice discharge port by the pin roll and cut to a certain length by a cutting device and then conveyed by the conveyor belt A rice forming part to be provided, a conveying device having a plurality of conveying rollers installed to have a predetermined inclination in succession with the rice forming part, and a fixed roller and a fixed roller installed so as to be rotated in succession to the conveying device. In the gimbap automatic manufacturing apparatus consisting of a gimbap forming part consisting of a driving roller and a molding belt wound around the fixed and the driving roller rotatably installed so as to be rotated in contact with the fixed roller by the drive means at regular intervals, the rice molding Blowing on the conveyor belt between the compaction roll and the cutting device Pod gimbap is provided with a split frame detachably fitted on a support frame, and a cutting conveyor belt having a transverse cutting device having a plurality of transverse cutting edges mounted on the support frame downstream of the forming belt. Provide the device.

Hereinafter, a pod gimbap manufacturing apparatus according to a preferred embodiment of the present invention will be described in detail with reference to the accompanying drawings.

The pod gimbap manufacturing apparatus of the present invention has a structure similar to that of a conventional gimbap manufacturing apparatus as shown in FIG. 11 to produce pod gimbap as shown in FIGS. 18a to 18f. That is, the gimbab manufacturing apparatus of the present invention is largely embedded with various parts and the drive means mounting portion 11 serving as a structure, the rice forming unit 100 for molding the rice 400 of the gimbap roll 403, and the molded rice It consists of a gimbap forming part 110 to make a gimbap roll (403) by rolling the (400) with a laver (401), and in particular, a gimbap roll (403) in the downstream end of the gimbap forming part (110) The conveyor belt 311 for cutting | disconnecting with a cutting machine is provided, The horizontal cutting device 313 is mounted on this belt 311, The said compaction shaping | molding roller 20 and the said cutting of the rice shaping | molding part 100 are cut out. The partition frame 301 is detachably mounted between the devices 30.

Here, the rice forming unit 100 is a compaction forming roller mounted on the hopper 13, the rice discharge port 54 of the hopper 13 is filled with the gimbap rice 400, as in the conventional laver manufacturing apparatus 20, a conveyor belt 40 for transferring the rice discharged from the rice discharge port 54 to the downstream side, and a cutting device 30 for cutting the rice compacted by the compaction forming roll 20 to a predetermined length, In particular, the split mold 301 is mounted between the compaction forming roller 20 and the cutting device 30, and the pin roll 50 as shown in FIG. 4 is mounted in the hopper 13, and the hopper is rotated. (13) The inside of the rice 200 is discharged uniformly in the direction of the arrow.

The partition frame 301 is detachably mounted on the support frame 43 of the belt 40 to be positioned above the conveyor belt 40, as shown in more detail in FIG. 13, which is the simplest form of such mounting means. As shown, the concave-convex coupling means composed of the fitting protrusion 304 formed on the split mold 301 and the fitting groove 305 processed on the support frame 43 may be employed.

As shown in FIG. 13, the partition frame 301 detachably mounted on the conveyor belt 40 is a frame body 302 forming an outer body and at least one split blade 303 attached to the inside of the frame body 302. And it is composed of the fitting protrusion (304).

Here, the frame 302 is a rectangular frame to form the skeleton of the split frame 301, and is formed by attaching a long flat frame in a rectangular shape, especially in the case of the lower plate 306 (frame) Unlike other plates having a rectangular cross section of 302, as shown in FIG. 14, the bob 400 riding the belt 40 like an edge and part of a spatula by having an arcuate cross-sectional shape convexly curved upwards. It is preferable that the belt 40 be easily detached from the belt 40 and divided by the dividing blade 303. In particular, as shown in FIG. 14, the upstream edge 307 of the lower plate 306 is lower than the bottom of the frame 302. By protruding, the surface of the belt 40 is pushed by the edge 307 so that the split mold 301 and the conveyor belt 40 come into close contact with each other. Thus, the rice 400 is divided between the split mold 301 and the conveyor belt 40. To get out of this More preferably.

As shown in FIG. 13, the dividing blades 303 vertically attached to the upper and lower inner circumferential surfaces of the frame 302 are arranged so that the blades stand toward the bob 200 of the domain, which is transferred from the hopper 13. The rice 200 is divided into two pieces 400 or more, and for this purpose, at least one or more may be provided with up to 5 to 6, and the splitting blade 303 may be divided into various types from one to six, for example. The frame 301 is provided so that it can be replaced as needed. In addition, the fitting protrusion 304 fitted to the fitting groove 305 formed on the left and right sides of the support frame 43 protrudes at a lower end of the outer side of the split frame 301, and the pair of fitting grooves 305 are The left and right upper surface inner edge portions of the support frame 43 are machined to face each other.

The conveying device 60 which allows the seaweed 401 to be spread under the rice 400 divided into a predetermined number by the splitting frame 301 is also rotated by the driving means as in the conveying device of the conventional gimbap manufacturing device. A plurality of feed rollers 61 is provided. In addition, the gimbap forming unit 110 is connected to the conveying device 60 and the gimbap forming unit 110, as in the conventional gimbap manufacturing apparatus, the fixed roll 70, the driving roll 80 and the amount It consists of a forming belt 90 wound around the rolls 70 and 80.

And, on the downstream end side of the gimbap forming unit 110, a cutting conveyor belt 311 is continuously installed as shown in Figure 11, wherein the transverse cutting device 313 is a support frame as shown in Figure 15 A plurality of transverse cutting edges 305 are provided to cut the gimbap roll 403 as shown in FIG. 18D, mounted on the upper portion 312, and more specifically, the supporting frame 312 and the cutting edge block 317. ), The transverse cutting blade 321, the cutting blade pressing plate 323, the eccentric cam 325.

Here, the support frame 312 is a cross-sectional frame shaped to form the outer body of the transverse cutting device 313, as shown in Figure 15, the belt 311 to support the cutting conveyor belt 311 It is formed integrally on the support frame 312 attached to the drive means mounting portion 11 between the front and rear support rolls (333, 335).

The cutting edge block 317 attached to the middle portion of the inner circumferential surface of the support frame 312 penetrates up and down with a plurality of insertion slots 319 having a rectangular cross section arranged in parallel to mount the plurality of transverse cutting edges 321. Formed. At this time, the insertion slot 319 is formed in the same number to correspond one-to-one with the transverse cutting edge 321, the number of the transverse cutting edge 321, that is, the insertion slot 319 is the dividing blade 303 of the split frame 301 The number of splitting edges 303 is 2n + 1, and the number of splitting edges 303 is 5 to 6 at most when the number of splitting blades 303 is n. In this case, the minimum number of transverse cutting edges 321 necessary, that is, the number of insertion slots 319 is 11 to 13 pieces.

As shown in FIG. 16, the transversal cutting edge 321 inserted and mounted in each insertion slot 319 has a blade 345 formed at a lower end thereof, and the top surface protrudes from side to side. The protrusion 343 is fitted to a guide rod 341 attached to the shoulder 337 protruding from the upper portion of the inner circumferential surface of the slot 319 to elastically up and down by a spring 339 inserted around the guide rod 341. It is supported to have, the lateral cutting blade 321 and the spring 339 is to have a length enough to cut the gimbap roll 403 when the lateral cutting blade 321 is pressed by the pressure plate 323.

In order to repeatedly press the transverse cutting edge 321 as described above, the upper end of the support frame 312 is equipped with a repeating press means such as an eccentric cam 325. As shown in FIG. 15, the eccentric cam 325 is rotated by driving of the driving motor 347 or the like mounted on the wall of the driving means mounting portion 11. At this time, the cutting blade pressing plate 323 is installed above the cutting blade block 317 so as to selectively press any lateral cutting edge 321 by the rotation of the eccentric cam 325, the pressing plate 323 At least one pressing protrusion 325 protrudes and is formed at a bottom thereof so as to be inserted into a selected slot among the insertion slots 319. At this time, since the number of the pressing protrusions 325 is determined according to the number of the cutting blades 321 according to the number of the cutting blades 303 of the dividing frame 301, for example, the number of the cutting blades 303 as shown in FIG. In the case of three, the number of the pressing protrusions 325 becomes seven, and thus the pressing plate 323 is provided with various kinds according to the number of the pressing protrusions 325.

However, when pressing the pressure plate 323 directly by the eccentric cam 325 as described above, since the pressure plate 323 may be separated from the insertion slot 319 during operation, the cutting blade pressure plate 323 as shown in FIG. ) Between the eccentric cam 325 can be installed. The driving plate 327 is a rectangular flat plate, and the through-holes on the left and right sides are inserted and coupled to the guide rods 329 attached to the left and right sides of the upper surface of the cutting blade block 317 so as to be movable up and down, and around the guide rods 329. It is elastically supported by a spring 331 fitted in the.

Now, the operation of the pod gimbap manufacturing apparatus according to the present invention configured as described above.

The pod gimbap manufacturing apparatus of the present invention is a predetermined number of rice 200 to be used for gimbap according to the number of dividing blades 303 of the split mold 301 in the rice forming unit 100, similar to the conventional gimbap automatic manufacturing apparatus Divide into To this end, first, the rice 200 used for the gimbap is discharged to the conveyor belt 40 by the rotation of the pin roller 50 from the hopper 13. When discharging, the rice 200 is molded to a certain thickness by the compaction forming roller 20 installed in the rice discharge port 54 and transferred to a lump, and then passes through the dividing frame 301 shown in FIG. As such, the rice is divided into three portions. The cutting device 30 is then cut to a length capable of making one roll 403.

Next, the seaweed 401 is spread under the rice 400 as shown in FIG. 18A while passing through the conveying device 60, and as shown in FIG. 402 is placed.

Subsequently, the gimbap in the unfolded state reaches to the gimbap forming unit 110 as shown in FIG. 18b, and as a conventional gimbap manufacturing apparatus, one gimbap roll 403 by the forming belt 90 in the manner described in FIG. 9. To dry).

Then, the gimbap roll 403 that reached the cutting conveyor belt 311 passes through the transverse cutting device 313 in the middle of the lump of rice 400 in the position shown by the dashed line (aa, bb) in Figure 18d The portion and the middle portion between the rice 400 and the rice 400 are cut to produce six pod gimbap 405 as shown in FIG. 18F. To this end, the eccentric cam 325 is rotated 180 degrees in the position shown in Figure 15, and thus the pressing plate 323 is pressed downward by the eccentric cam 325 is inserted into which five pressing protrusions 325 are inserted The gimbap roll 403 is pushed down in the slot 319 to cut the gimbap roll 403 as shown in FIG. 18F. At this time, the gimbap roll 403 detection sensor (not shown) may be installed on the inner circumferential surface of the support frame 312 to match the cutting timing.

As described above, in cutting the gimbap roll 403, the pressing plate 323 is replaced with two pressing protrusions 325 so that the gimbap roll 403 is located at a position shown by a dashed-dotted line (aa) in FIG. 18D. To be cut between the rice 400 and the pod gimbap 407 in which pods are generated on both sides as shown in FIG. 18E, and the number of cutting sites can be changed by replacing the splitting frame 301 and the pressure plate 323. It may be. In addition, by cutting the gimbap genus 502 slightly longer than the width of the lumps of rice 400 as shown in FIG. 19, a more natural pod gimbap having different lengths of the gimbap genus 502 may be prepared, at this time gimbap By changing the type of the genus (402,502), one gimbap roll (403) can also be used to produce a different taste of gimbap, even in short gimbap like shrimp and distinctly different top and bottom parts left and right centered on the cutting site It may be used evenly arranged one by one. The pod gimbap 205 cut in this way is not shown but is stored in a container installed at a downstream end of the cutting conveyor belt 311.

As described above, according to the pod gimbap manufacturing apparatus according to the present invention, after making the rice rolls by dividing the rice into a plurality of rice lumps on the seaweed, by cutting the central portion of the boundary between the rice lumps and / or the central portion of the rice lumps, general gimbap Compared to the pod gimbap with excellent taste and nutrition compared to the one can be produced at a time, it is possible to provide the pod gimbap cheaper to consumers.

Claims (5)

The rice introduced into the hopper 13 is discharged from the rice discharge port 54 by the pin roll 50 so as to be molded to a predetermined thickness by the compaction forming roll 20 and cut into a predetermined length by the cutting device 30. The rice forming unit 100 to be conveyed by the conveyor belt 40, the conveying device having a plurality of feed rollers 61 are installed to have a predetermined inclination in succession to the rice forming unit 100 and rotated by a driving means ( 60, and the fixed roll 70 and the fixed roll 70 is installed so as to be rotated in succession to the conveying device 60 at a predetermined interval and can be contacted by turning to the fixed roll 70 by a driving means. In the gimbap automatic manufacturing device consisting of a gimbap forming part 110 consisting of a driving roller (80) installed so as to be rotatable so as to be wound around the fixed and driving rollers (70, 80), The rice forming unit 100 has a split frame 301 that is detachably fitted onto the support frame 43 above the conveyor belt 40 between the compaction forming roller 20 and the cutting device 30. We have On the downstream side of the forming belt 90, a cutting conveyor belt 311 in which a transverse cutting device 313 having a plurality of transverse cutting edges 305 is mounted on the support frame 312 is installed. Pod gimbap manufacturing equipment. According to claim 1, The dividing frame 301 is a frame body 302 constituting an outer body, at least one or more split blades 303 mounted between the upper and lower inner circumferential surfaces of the frame 302, and a fitting protrusion protruding from the left and right outer peripheral surfaces of the frame 302. 304, the pod gimbap manufacturing, characterized in that the fitting groove 305 is fitted to the fitting projection 304 corresponding surface of the support frame 43 is processed Device. The method of claim 2, The frame 302 of the dividing frame 301 has a lower plate 306 curved convexly upward in a cross-sectional arc shape, and the upstream side edge 307 of the belt 40 is in close contact with the surface of the conveyor belt 40. Pod gimbap manufacturing apparatus, characterized in that protruding downward. According to claim 1, The lateral cutting device 313 is a support frame 312, a cutting blade block 317 attached to the inner peripheral surface of the support frame 312 above the cutting conveyor belt 311 of the cutting blade block 317 At least one or more of the plurality of transverse cutting edges 321 inserted into and mounted in a plurality of insertion slots 319 to have elasticity up and down, and inserted into the insertion slots 319 above the block 317 and the transverse cutting At least one of the cutting blade pressing plate 323 protruding downward from at least one pressure protrusion 325 on the bottom surface of the blade 321 to be selectively pressed, and repeatedly rotated at least one of the transverse cutting blade 321 Pod gimbap manufacturing apparatus, characterized in that consisting of the eccentric cam (325) for pressing downward. The method of claim 4, wherein The driving plate 327 is inserted between the cutting blade presser plate 323 and the eccentric cam 325 so as to be supported by the spring 331 on guide bars 329 provided at both ends of the block 317. Pod gimbap manufacturing apparatus, characterized in that.