KR100725508B1 - Automatic forming machine of a flavored glutinous rice - Google Patents

Abstract

An automatic forming machine for flavored glutinous rice(Yakbab) designed to automatically form the previously prepared flavored glutinous rice into necessary shape is provided to be able to perform the forming and cutting work of the flavored glutinous rice automatically and improve productivity while reducing personnel expenses. The automatic forming machine for flavored glutinous rice comprises: a transfer tool horizontally installed at a body(100) to transfer flavored glutinous rice in one direction; an inlet and outlet tool installed at the body to deliver the flavored glutinous rice in the progressing direction of the transfer tool; a forming and cutting tool installed at the body to push the delivered flavored glutinous rice to be flattened and cut into necessary shape; a power transfer tool provided on one side of the body to transfer power to the transfer tool, inlet and outlet tool and forming and cutting tool; and a control tool connected to the power transfer tool to control the operation of the power transfer tool. The transfer tool contains a first conveyor with a first rotating roller and first transfer belt and a second conveyor containing a second rotating roller(208) and second transfer belt(210).

Description

Yakbab automatic molding machine {AUTOMATIC FORMING MACHINE OF A FLAVORED GLUTINOUS RICE}

1 is an overall perspective view showing a yakbab automatic molding apparatus according to a preferred embodiment of the present invention;

Figure 2 is an overall perspective view of the yakbab automatic molding apparatus shown from the rear of FIG.

3 is a front view of the protective cover is removed in Figure 1;

4 is a partially enlarged perspective view showing the parts of the gearbox and the feed screw in FIG.

5 is a plan view showing a state in which the gearbox and the conveying screw separated from each other in FIG.

6 is a perspective view of the feed screw in FIG. 4;

FIG. 7 is a perspective view showing the lowering roller shaft and the discharge roller shaft, and the first rotating plate and the second rotating plate before coupling with each other in the state of FIG. 4; FIG.

8 is a perspective view of a state in which the discharging means in Figure 1 mounted on the body;

9 is a front view of the input discharge means in Figure 1;

10 is a plan view of the input discharge means in Figure 1;

Figure 11 is a side view of the input discharge means in Figure 1;

12 is a rear view of the input discharge means in Figure 1;

13 is a perspective view of a discharge roller;

14 is a perspective view of the molding cutting means in FIG.

15 is a front view of FIG. 14;

16 is a right side view of FIG. 14;

17 is a left side view of FIG. 14; And

18 is a top view of FIG. 14.

Explanation of symbols on the main parts of the drawings

100: body 200: first conveyor

206: second conveyor 300: horizontal conveying member

306: feed screw 322: lowering roller

326: discharge roller 410: cutting blade

430: auxiliary drive motor 500: main drive motor

600: control box assembly

The present invention relates to a yakbab automatic molding apparatus, and more particularly to a yakbab automatic molding apparatus capable of automatically performing the molding and cutting operation of the yakbab.

In general, medicinal rice is called an abbreviation or medicinal herb. Wash the rice soaked in water and soak in glutinous rice. It is made by adding steamed, jujube-sealed jujube, and soybean paste, and steaming it again.

The medicinal rice is soaked in a square bowl when it's hot, cool and then sliced and used as a rice. In particular, when cutting a large amount for a wedding hall or group meals, such as a lot of workers had to take a lot of time for this problem. In addition, the size of the cut medicated rice due to the manual operation of the operator was a problem such as not aesthetically good.

Therefore, the present invention is to solve the above problems, an object of the present invention is to provide a yakbab automatic molding apparatus that can be delivered by automatically molding the yakbab to the required shape.

In order to achieve the above objects, the present invention

Medicine rice automatic molding apparatus of the present invention

Body;

A transport means installed horizontally on the top of the body to transport the yakbab in one direction;

An injection-discharge means installed at the top of the body at a portion of the transfer means in contact with the lowering medicine and discharging in the direction of travel of the transfer means;

Molding cutting means adjacent to the discharging direction of the discharging discharging means and installed at the top of the body at which the other part of the discharging means is in contact, and pressing the yakbab discharged from the discharging discharging means flatly and then cutting it into the required shape;

A power transmission means provided on one side of the body to transfer power to the transfer means, the input discharge means and the molding cutting means; And

Control means connected to the power transmission means for controlling the operation of the power transmission means

It is achieved by providing a medicine rice automatic molding apparatus comprising a.

The top of the body is provided with a pair of cross bars arranged in parallel in the longitudinal direction and spaced at a predetermined interval relative to each other, the bottom is provided with a plurality of wheels to move the position of the body.

The transfer means

A plurality of first rotating rollers axially coupled in the width direction so as to be rotatable between the crossbars of the body, a first conveying belt wound around the first rotating rollers and rotatably disposed in the longitudinal direction between the crossbars; A first conveyor consisting of; And

A plurality of second rotating rollers axially rotatably coupled in the width direction between the crosspieces of the body, the second conveying belt being wound around the second rotating rollers and rotatably disposed in the longitudinal direction between the crossbars; It includes a second conveyor consisting of.

The speed of the second conveyor is set faster than the first conveyor so that the cut yakbabs can easily fall off.

The input discharge means is

A gear box installed at one end of the top of the body and having at least one rotating hole formed on one surface thereof, fitted to rotate with the rotating hole, and at least one rotating shaft protruding a first locking protrusion from one side of the outer circumferential surface thereof, and the rotating shafts A horizontal moving member including a feed screw having a rotating shaft groove formed therein so as to be inserted into each of the rotating shaft grooves and provided with a locking groove of the first locking projection at one portion of the rotating shaft groove; And

An input hopper having a vertically open space, a lowering roller provided at the bottom of the input hopper and rotatably horizontally coupled to the inner center of the housing, and rotatably horizontally adjacent to the lowering roller; It comprises an input discharge member consisting of a discharge roller coupled to the shaft.

The diameter of the feed screw is formed smaller from one end to the other end.

The outer circumferential surface of the feed screw is formed with a plurality of spiral grooves along the longitudinal direction.

The input discharging member is detachably coupled to the top of the body, one surface of the crosspiece is provided with a guide bracket protruding in the longitudinal direction on the inner surface, the guide bracket and its adjacent position The crosspiece is provided with a first vertical bracket and a second vertical bracket in turn, and one side of the first vertical bracket is axially rotatably coupled to the first rotating plate having a pair of first rotating protrusions, and the second vertical bracket. A second rotating plate having a pair of second rotating protrusions is rotatably coupled to the other side of the bracket, and both side surfaces of the housing are formed with guide grooves into which the guide guides of the guide brackets are fitted, respectively, the lowering roller. At one end of the lowering roller shaft on which the second locking projection on which the first rotating projection of the first rotating plate is caught extends to an outer circumferential surface thereof, At one end, the discharge roller shaft, on which the third catching projection is placed, is placed on the outer circumferential surface of the second rotating projection.

Molding cutting means

A first sidewall and a second sidewall disposed parallel to each other;

A forming block roller rotatably coupled to one portion between the first side wall and the second side wall, wherein at least one partition blade protrudes from an outer circumferential surface thereof; And

And a rotation cutting member rotatably installed at the other portion between the first side wall and the second side wall to cut a plurality of yakbab passed through the molding block roller.

The rotary cutting member

An installation plate coupled to the top of the first sidewall and the second sidewall;

A cutting cylinder body provided perpendicular to the installation plate;

A cutting cylinder rod mounted to the cutting cylinder body to be lifted and lowered; And

It is connected to the free end of the cutting cylinder rod includes a cutting blade for cutting the yakbab transported on the first conveyor.

A coupling plate is respectively coupled to the top of the first side wall and the second side wall, and each of the coupling plates is provided with a pair of handles parallel to each other.

The molding cutting means is detachably coupled to the top of the body at a position adjacent to the discharge roller of the input discharge member, and the first coupling bracket and the second coupling bracket are coupled to the bottom of the first side wall and the second side wall. One side of the first coupling bracket and the second coupling bracket is formed with a first coupling groove and a second coupling groove, respectively, the crossbar to be inserted into the first coupling groove and the second coupling groove to be detachably fixed A fixing member is provided at the side, and the cross section of the portion adjacent to the second vertical bracket is provided with a driving motor housing in which a driving motor is coupled, and a third rotating plate having a pair of third locking protrusions at one side of the driving motor. The rotatable shop shaft is coupled, one end of the forming block roller extends through the second side wall toward the driving motor, and extends the forming block roller shaft. An outer circumferential surface is provided with a fourth locking protrusion which is caught and rotated together with the third locking protrusion.

The power transmission means

A drive motor installed on one side of the body, a drive shaft rotatably coupled to one side of the drive motor, a drive gear connected to the drive shaft, and a drive unit coupled to one side of the drive gear;

A first driven shaft connected to one of the first rotating shafts of the first conveyor, a first driven gear coupled to the first driven shaft, and a first subordinate gear connected together to one side of the first driven gear. A first follower formed;

A second driven shaft integrally coupled to the second rotating plate of the second vertical bracket, a second driven gear coupled to the second driven shaft, and a second subordinate driven unit connected to one side of the second driven gear; A second follower made of fish;

A third follower comprising a third driven shaft integrally coupled to the first rotating plate of the first vertical bracket, and a third driven gear coupled to the third driven shaft;

A fourth follower comprising a fourth driven shaft connected to one of the second rotating shafts of the second conveyor, and a fourth driven gear coupled to the fourth driven shaft; And

A first chain connecting the drive gear and the first driven gear, a second chain connecting the first subordinate gear and the second driven gear, and connecting the second subordinate gear and the third driven gear And a third chain, and a connecting portion including a fourth chain connecting the sub-drive gear and the fourth driven gear.

The objects and advantages of the present invention will become more apparent from the following detailed description of preferred embodiments with reference to the accompanying drawings.

1 is a view showing a medicine rice automatic molding apparatus according to a preferred embodiment of the present invention. Figure 2 is a view of the yakbab automatic molding apparatus shown in the rear of FIG. 3 is a view showing a state in which the protective cover is removed in FIG.

1 to 3, the automatic medicine rice forming apparatus according to a preferred embodiment of the present invention is configured to include a conveying means, input discharging means, molding cutting means, power transmission means and control means in the body (100).

Body 100 is composed of a plurality of vertical bars (not shown) is connected vertically and horizontally. The pair of crosspieces 102 are disposed parallel to the top of the body 100 in the longitudinal direction and spaced apart from each other at predetermined intervals. A plurality of wheels 104 are provided on the bottom of the body 100 to move the position of the body 100 to the required place.

The transport means is installed horizontally on the top of the body 100 serves to transport the yakbab in one direction. The conveying means includes a first conveyor 200 and a second conveyor 200. The first conveyor 200 is composed of a first rotating roller 202 and the first conveyance belt 204. The first rotating roller 202 is axially coupled in the width direction rotatably between the crosspieces 102 of the body 100. The first conveyance belt 204 is wound around the first rotating rollers 202 and is disposed to be pivotable in the longitudinal direction between the crosspieces 102. The second conveyor 200 is composed of a second rotating roller 208 and the second conveying belt 210. The second rotating roller 208 is axially coupled in the width direction so as to be rotatable between the crosspieces 102 of the body 100. The second conveyance belt 210 is pivotally wound around the second rotating rollers 208 and is disposed to be pivotable in the longitudinal direction between the crosspieces 102. The speed of the second conveyor is set faster than the first conveyor so that the cut yakbabs can easily fall off.

4 is a view showing the parts of the gearbox and the feed screw in FIG. FIG. 5 is a plan view illustrating a state in which the gearbox and the feed screw are separated from each other in FIG. 4. 6 is a perspective view of the feed screw in FIG. 4. 7 is a perspective view showing the lower roller shaft and the discharge roller shaft, and the first rotating plate and the second rotating plate in Fig. 4 before coupling to each other. . 9 is a front view of the input discharge means in FIG. 10 is a plan view of the input discharge means in FIG. 11 is a side view of the input discharge means in FIG. 12 is a rear view of the input discharge means in FIG. 13 is a perspective view of the discharge roller.

Referring again to Figures 1 to 3, the portion of the transfer means is installed on the top of the body 100 in contact with the lowering the yakbab to discharge in the direction of the transfer means.

4 to 13, the input discharging means is composed of a horizontal moving member and the input discharging member.

The horizontal moving member includes a gearbox 302, at least one rotary shaft 304, and a feed screw 306. Gear box 302 is installed on one end of the top of the body 100 is formed with at least one rotation hole on one side. The rotary shaft 304 is fitted to the rotary holes 303 to be rotatably operated, and the first locking protrusion 305 protrudes from one portion of the outer circumferential surface thereof. The feed screw 306 is formed with a rotating shaft groove 308 having a locking groove 310 is open on one side. The rotary shaft grooves 308 are respectively fitted to the rotary shafts 304 so that the rotary shaft grooves 308 are formed therein so as to rotate together. The locking grooves 310 of the first locking protrusions 305 are formed at one portion of the rotary shaft grooves 308. This includes a feed screw 306 provided. Preferably, the diameter of the feed screw 306 may be formed smaller from one end to the other end. The plurality of spiral grooves 312 are formed along the longitudinal direction on the outer circumferential surface of the feed screw 306. These spiral grooves 312 serves to facilitate the transfer of the yakbab.

The input discharge member is composed of an input hopper 316, a housing 318, a lowering roller 322, and a discharge roller 326. The input hopper 316 has a vertically open space. Enclosure 318 is provided at the bottom of the input hopper 316. The lowering roller 322 is axially rotatably horizontally coupled to the inner center of the housing 318. The discharge roller 326 is axially coupled horizontally rotatably to an adjacent position of the lowering roller 322. That is, the discharge roller 326 is disposed directly below the lowering roller 322. Preferably, a thread is formed on the outer circumferential surface of the discharge roller 326. By doing in this way, the discharge effect of a medicine rice can be improved significantly.

The input discharge member is detachably coupled to the top of the body 100. Guide bracket 330 is provided on the surface of one of the crosspieces 102, the guide guide 332 protrudes in the longitudinal direction on the inner side. The first vertical bracket 334 and the second vertical bracket 340 are provided in turn on the guide bracket 330 and the crosspiece 102 at an adjacent position thereof. The first rotating plate 336 is rotatably coupled to one surface of the first vertical bracket 334. The pair of first rotating protrusions 338 is provided at an edge portion of the first rotating plate 336. The second rotating plate 342 is rotatably coupled to the other side of the second vertical bracket 340. The pair of second rotating protrusions 344 is provided at the edge portion of the second rotating plate 342. Guide grooves 320 into which guide guides 332 of the guide bracket 330 are fitted are formed at both side surfaces of the enclosure 318. The lowering roller shaft 324 protrudes from one end of the lowering roller 322. The second locking protrusion 325 is formed on the outer circumferential surface of the lowering roller shaft 324 to catch the first rotating protrusion 338 of the first rotating plate 336. The discharge roller shaft 328 extends to one end of the discharge roller. The third locking protrusion 329 is caught by the second rotating protrusion 344 of the second rotating plate 342.

14 is a perspective view of the molding cutting means in FIG. 15 is a front view of FIG. 14. 16 is a right side view of FIG. 14. 17 is a left side view of FIG. 14. 18 is a top view of FIG. 14.

14 to 18, the molding cutting means is adjacent to the discharge direction of the input discharging means is installed on the top of the body 100 of the portion where the other portion of the conveying means contact and flatten the yakbab discharged from the discharging discharging means Press it firmly and cut it into the required shape.

The shaping means includes a first side wall 400 and a first side wall 400 which are disposed parallel to each other. The molding block roller 431 is rotatably axially coupled to one portion between the first side wall 400 and the second side wall 402. At least one partition blade 431A protrudes from the outer circumferential surface of the molding block roller 431. The rotary cutting member is rotatably installed at the other part between the first side wall 400 and the second side wall 402. The rotary cutting member cuts a plurality of yakbab passed through the molding block roller 431.

The rotary cutting member includes an installation plate 404, a cutting cylinder body 406, a cutting cylinder rod 408, and a cutting blade 410. The mounting plate 404 is coupled to the top of the first sidewall 400 and the second sidewall 402. The cutting cylinder body 406 is positioned perpendicular to the mounting plate 404. The cutting cylinder rod 408 is mounted to the cutting cylinder body 406 to be elevated. The cutting blade 410 is connected to the free end of the cutting cylinder rod 408 to cut the medicine rice transported on the first conveyor 200 to a predetermined size.

The coupling plates 412 are respectively coupled to the tops of the first sidewall 400 and the second sidewall 402. A pair of handles 414 are coupled to each coupling plate 412, which are arranged parallel to each other.

Molding cutting means is detachably coupled to the top of the body 100 in a position adjacent to the discharge roller 326 of the input discharge member, the first coupling to the bottom of the first side wall 400 and the second side wall 402 The bracket 418 and the second coupling bracket 422 are coupled. The first coupling groove 420 and the second coupling groove 424 are formed in one portion of the first coupling bracket 418 and the second coupling bracket 422, respectively. A fixing member is provided in the crosspiece to be detachably fixed to the first coupling groove 420 and the second coupling groove 424. The driving motor housing 428 is adjacent to the second vertical bracket 340. Is provided on the crosspiece 102. The auxiliary drive motor 430 is provided in a part of the drive motor housing 428. The third rotating plate 436 is axially rotatably coupled to one surface of the auxiliary drive motor 430. The pair of third locking protrusions 329 are formed at edge portions of the third rotating plate 436. The forming block roller shaft 432 extends toward one side of the forming block roller 431 through the second side wall 402 and toward the auxiliary driving motor 430. The fourth locking protrusion 434 is provided to rotate together with the third locking protrusion on the outer circumferential surface of the molding block roller shaft 432.

The power transmission means is provided on one side of the body 100 to transfer power to the conveying means, the input discharge means and the molding cutting means.

The power transmission means includes a drive part, a first follower, a second follower, a third follower and a fourth follower. These may be covered by the protective cover 534 to protect from external shocks and foreign matters.

The drive unit includes a main drive motor 501 installed at one portion of the body 100. The drive shaft 500 is pivotally coupled to one surface of the main drive motor 501. The drive gear 502 is connected to the drive shaft 500. The secondary drive gear 504 is coupled to one side of the drive gear 502.

The first follower includes a first follower 506 connected to one of the first rotational shafts 304 of the first conveyor 200. The first driven gear 508 is coupled to the first driven shaft 506. The first subordinate gear 510 is connected to one side of the first driven gear 508 together.

The second follower includes a second follower shaft 512 integrally coupled to the second rotating plate 342 of the second vertical bracket 340. The second driven gear 514 is coupled to the second driven shaft 512. The second subordinate gear 510 is connected to one side of the second driven gear 514.

The third follower is axially coupled integrally with the first rotating plate 336 of the first vertical bracket 334. The third driven gear 520 is coupled to the third driven shaft 518.

The fourth follower includes a fourth follower 522 connected to one of the second rotation shafts 304 of the second conveyor 200. The fourth driven gear 524 is coupled to the fourth driven shaft 522.

The connection part includes a first chain 526 connecting the drive gear 502 and the first driven gear 508, and a second chain 528 connecting the first subordinate gear 510 and the second driven gear 514. The third chain 530 connects the second driven gear 510 and the third driven gear 520, and the fourth chain 532 connects the sub drive gear 504 and the fourth driven gear 524. )

The control means is connected to the power transmission means to control the operation of the power transmission means. The control means comprises a control box assembly 600.

With reference to the accompanying drawings will be described the operation of the automatic medicine rice forming apparatus according to a preferred embodiment of the present invention having the structure as described above.

First, referring to FIGS. 4 to 8 again, the assembling process of the automatic medicine rice forming apparatus of the present invention will be described. Each of the rotating shafts 304 protruding from the rotating hole 303 of the gearbox 302 has a feed screw 306. In this case, the rotation shaft groove 308 and the locking groove 310 of the feed screw 306 are fitted with the rotation shaft 304 and the first locking projection 305 of the rotation shaft 304 are fixed.

In this state, an enclosure 318 is installed between each guide bracket 330. That is, the guide guides 332 of the guide bracket 330 are positioned and mounted in the guide grooves 320 of the enclosure 318, respectively. That is, one end of the lowering roller shaft 324 of the housing 318 is located close to the first rotating plate 336. At this time, the second locking protrusion 325 of the lowering roller shaft 324 is positioned between the first rotating protrusions 338 of the first rotating plate 336. Accordingly, even if there is some variation in the position of the lowering roller shaft 324, the lowering roller shaft 324 of the lowering roller shaft 324 is located as long as the second locking projection 325 is in a radius within which the first rotating protrusion 338 can be contacted. Rotation force may be transmitted to the first rotating plate 336.

At the same time, one end of the discharge roller shaft 328 of the housing 318 is located close to the second rotating plate 342, and at this time, the third locking projection 329 of the discharge roller shaft 328 is the second rotating plate ( 342 is located between the second rotary protrusions 344. Accordingly, even if there is some variation in the position of the discharge roller shaft 328, the discharge roller shaft 328 of the discharge roller shaft 328 is disposed as long as the third locking protrusion 329 is in a radius within which the second locking protrusion 344 may come into contact with the second rotating protrusion 344. Rotation force may be transmitted to the second rotating plate 342.

Next, referring to FIG. 2 and FIG. 14 again, the forming cutting means is disposed in the crosspiece 102 adjacent to the housing 318 of the charging and discharging means. In detail, each crosspiece 102 is located in the first coupling bracket 418 and the second coupling bracket 422 of the molding cutting means, respectively. At this time, the first fixing bolt rod protruding to the upper portion of each crosspiece 102 in the first coupling groove 420 of the first coupling bracket 418 and the second coupling groove 424 of the second coupling bracket 422 440 and the second fixing bolt rods 442 are respectively fitted. Subsequently, the first fixing bolt 440 and the second fixing bolt 442 are fitted with the first support bracket 444 and the second support bracket 446, respectively, so that the first coupling bracket 418 and the second coupling bracket are fitted. In contact with the upper surface of 422. In this state, when the first fixing handle 448 and the second fixing handle 450 is screwed into the first fixing bolt rod 440 and the second fixing bolt rod 442, respectively, the first brace 444 ) And the second bracing 446 are pressed to fix the first coupling bracket 418 and the second coupling bracket 422, respectively.

As described above, the mounting operation of the input discharging means and the molding cutting means is completed. Hereinafter will be described the operation of the medicine rice automatic molding apparatus according to a preferred embodiment of the present invention.

To this end, when the operator operates the control box assembly 600 to output the drive signal, the operator operates the main drive motor 501 and the auxiliary drive motor 430, respectively.

Accordingly, the drive shaft 500 of the main drive motor 501 rotates the drive gear 502 and the sub drive gear 504 together. At this time, the rotation direction is rotated in the direction of the arrow, that is, clockwise as seen in FIG. The rotational force of the drive gear 502 is transmitted to the first driven gear 508 by the first chain 526. The rotational force of the first driven shaft 506 in which the first driven gear 508 is coupled to the shaft is transmitted to the first rotating roller 202 of the first conveyor 200 to move the first conveyance belt 204 in FIG. 3. When looking, turn in the direction of the arrow. Accordingly, the first conveyance belt 204 of the first conveyor 200 starts to rotate in one direction.

Subsequently, the first driven shaft 506 is rotated together with the first subordinate driven gear 510, and the rotational force of the first subordinate driven gear 510 is transferred to the second driven gear 514 by the second chain 528. Delivered. The second driven gear 514 is rotated together with the second driven shaft 512 axially coupled to the second vertical bracket 340. For this reason, the second driven shaft 512 rotates with the second rotating plate 342 on one surface of the second vertical bracket 340 in the opposite direction to the second driven gear 514. Then, the second rotary protrusion 344 formed integrally with the second rotary plate 342 is rotated in one direction. The rotation direction at this time is rotated in the direction of the arrow, that is, counterclockwise as seen in FIG. As the second rotating plate 342 rotates, the second rotating protrusions 344 rotate together and the third locking protrusions 329 installed on the discharge roller shaft 328 on one of the second rotating protrusions 344. ) Is in contact. These contacts transmit the rotational force of the second rotating plate 342 to the discharge roller shaft 328 to force rotation operation. The discharge roller 326 is rotated together with the discharge roller shaft 328.

Since the second driven shaft 512 is integrally formed with the second subordinate gear 510, the second driven shaft 512 is rotated together, and the rotational force of the second subordinate gear 510 is first perpendicular to the third chain 530. The third driven gear 520 axially coupled to the bracket 334 is rotated. Accordingly, the third driven shaft 518 integrally coupled with the third type synchronizing unit 520 is rotated in an arrow direction, that is, in a clockwise direction, about the first vertical bracket 334. As a result, the first rotating plate 336 connected to the third driven shaft 518 is rotated about the first vertical bracket 334. Along with this, the first rotating protrusion 338 integrally formed with the first rotating plate 336 is also rotated together. At this time, the rotation direction is counterclockwise as shown in FIG. One of these first rotating protrusions 338 is in contact with the second locking protrusion 325 provided on the lowering roller shaft 324. These contacts are forcibly rotated by the rotational force of the first rotating plate 336 being transmitted to the lowering roller shaft 324. The lowering roller 322, which is integrally coupled with the lowering roller shaft 324, is rotated together.

On the other hand, the rotational force of the main drive motor 501 is transmitted to the secondary drive gear 504, the rotational force thus transmitted is transmitted to the fourth driven gear 524 by the fourth chain (532). Accordingly, the fourth driven shaft 522 of the fourth driven gear 524 is rotated, and the rotational operation of the fourth driven shaft 522 is transmitted to one of the second rotating rollers 208 so that the second driven roller 208 is rotated. The conveying belt 210 is pivoted.

At the same time, the auxiliary drive motor 430 is operated according to the output signal of the control box assembly 600. The rotational force of the auxiliary drive motor 430 is transmitted to the third rotating plate 436 to allow the third rotating protrusions 438 to rotate together with the third rotating plate 436. One of the third rotation protrusions 438 is in contact with the fourth locking protrusion 434 provided on the outer circumferential surface of the molding block roller shaft 432. The third rotating protrusion 438 contacted in this manner forcibly pushes the fourth locking protrusion 434 to allow the forming block roller 431 to rotate.

Looking at the process of forming and cutting the medicine rice using the medicine rice automatic molding machine operated as described above, first, the operator puts the finished medicine rice into the input hopper 316. Then, the yakbab is forced down in the direction of the feed screw 306 by the rotational force of the lowering roller 322 in the input hopper 316, the yakbab is lowered again by the rotational force of the feed screw 306 discharge roller ( 326 forcibly conveyed. Subsequently, the yakbab is discharged to the outside of the housing 318 by the rotational force of the discharge roller 326 and the first transfer belt 204 below.

The medicine rice thus discharged is transferred in the direction of the molding block roller 431 by the first transfer belt 204. When the medicine rice passes through the molding block roller 431, the medicine rice is pressed to a predetermined size by the molding block roller 431. At the same time, the yakbab is divided into a number of pieces in the longitudinal direction by at least one partition blade 431A formed on the outer peripheral surface of the molding block roller 431. At this time, the forming block roller 431 may optionally use a large number and a small number of cutting blades 410 as necessary. Subsequently, the yakbab is transferred toward the position of the second conveyance belt 210 by the first conveyance belt 204. At this time, according to the output signal of the control box assembly 600, the cutting cylinder rod 408 is instantaneously lowered from the cutting cylinder body 406 provided on the mounting plate 404. At this time, the cutting blade 410 is instantaneously cut in the longitudinal direction passing the yakbab.

Thereafter, the second transfer belt 210 is moved in the state in which the yakbab is cut in the longitudinal direction and the longitudinal direction. At this time, since the movement of the second conveyance belt 210 moves at a higher speed than the first conveyance belt 204, such a speed difference is applied to the second conveyance belt 210 in a state in which each yaw is spaced apart from each other. To be moved. The second conveyance belt 210 is to transfer the yakbabs completed molding and cutting operations to the necessary storage place.

As mentioned above, according to the yakbab automatic molding apparatus according to an embodiment of the present invention, simply put the firstly prepared yakbab in the input hopper, the yakbab is supplied by the lowering roller, the transfer screw, the discharge roller, 1 While being automatically conveyed by the conveying belt, press the mold to a predetermined thickness by the molding compartment roller and cut it in the longitudinal direction. Subsequently, the yakbabs are automatically cut in the longitudinal direction by the cutting blade in a predetermined width. The cut yakbabs are transferred to a second conveyance belt having different speeds, and the conveying operation is performed while being spaced apart from each other. Therefore, the yakbab automatic molding apparatus according to the present invention is a useful invention that can achieve a reduction in labor costs as well as improved productivity because it automatically performs the molding and cutting of a large amount of yakbab.

In the above, the present invention has been described in detail with reference to the above-described embodiments, but the present invention is not limited thereto, and those skilled in the art may change or improve the technology within the scope of ordinary knowledge.

Claims (13)

Body; A transport means installed horizontally on the top of the body to transport the yakbab in one direction; An injection-discharge means installed at the top of the body at a portion of the transfer means in contact with the lowering medicine and discharging in the direction of travel of the transfer means; Molding cutting means adjacent to the discharging direction of the discharging discharging means and installed at the top of the body at which the other part of the discharging means is in contact, and pressing the yakbab discharged from the discharging discharging means flatly and then cutting it into the required shape; A power transmission means provided on one side of the body to transfer power to the transfer means, the input discharge means and the molding cutting means; And Control means connected to the power transmission means for controlling the operation of the power transmission means Medicine rice automatic molding device comprising a. The method of claim 1, wherein the top of the body is provided in parallel to the longitudinal direction and a pair of rungs spaced apart from each other at a predetermined interval, the bottom surface is provided with a plurality of wheels to move the position of the body Yakbab automatic molding machine characterized by. The method of claim 1, wherein the transfer means A plurality of first rotating rollers axially coupled in the width direction so as to be rotatable between the crossbars of the body, a first conveying belt wound around the first rotating rollers and rotatably disposed in the longitudinal direction between the crossbars; A first conveyor consisting of; And A plurality of second rotating rollers axially rotatably coupled in the width direction between the crosspieces of the body, the second conveying belt being wound around the second rotating rollers and rotatably disposed in the longitudinal direction between the crossbars; Second conveyor Medicine rice automatic molding apparatus comprising a. 4. The apparatus for automatically forming medicine rice according to claim 3, wherein the speed of the second conveyor is set faster than that of the first conveyor so that the cut medicine rice can be easily dropped from each other. According to claim 1, wherein the discharging means A gear box installed at one end of the top of the body and having at least one rotating hole formed on one surface thereof, fitted to rotate with the rotating hole, and at least one rotating shaft protruding a first locking protrusion from one side of the outer circumferential surface thereof, and the rotating shafts A horizontal moving member including a feed screw having a rotating shaft groove formed therein so as to be inserted into each of the rotating shaft grooves and provided with a locking groove of the first locking projection at one portion of the rotating shaft groove; And An input hopper having a vertically open space, a lowering roller provided at the bottom of the input hopper and rotatably horizontally coupled to the inner center of the housing, and rotatably horizontally adjacent to the lowering roller; Feeding and discharging member consisting of the discharge roller is axially coupled Medicine rice automatic molding apparatus comprising a. The method of claim 5, wherein the diameter of the feed screw is automatic medicine molding device, characterized in that the smaller formed from one end to the other end. [7] The apparatus of claim 6, wherein a plurality of spiral grooves are formed on an outer circumferential surface of the feed screw along a length direction. The guide bracket of claim 5, wherein the input discharge member is detachably coupled to the top of the body, and one surface of one of the crossbars is provided with a guide bracket in which a guide guide protrudes in a longitudinal direction. A first vertical bracket and a second vertical bracket are provided in turn, and a first rotating plate having a pair of first rotating protrusions is rotatably coupled to one surface of the first vertical bracket. A second rotating plate having a pair of second rotating protrusions is rotatably coupled to the other surface of the second vertical bracket, and both side surfaces of the housing are formed with guide grooves into which the guide guides of the guide brackets are fitted. On one end of the lowering roller, a lowering roller shaft on which a second locking protrusion on which the first rotating protrusion of the first rotating plate is engaged is extended and protrudes on an outer circumferential surface thereof. Yaksang automatic molding apparatus characterized in that the discharge roller shaft on which one end of the discharge roller, the discharge roller shaft on which the third locking projection to the second rotational projection of the second rotating plate is hung is extended. The method of claim 1, wherein the molding cutting means A first sidewall and a second sidewall disposed parallel to each other; A forming block roller rotatably coupled to one portion between the first side wall and the second side wall, wherein at least one partition blade protrudes from an outer circumferential surface thereof; And Rotating cutting member rotatably installed on the other part between the first side wall and the second side wall to cut a plurality of yakbab passed through the molding block roller. Medicine rice automatic molding apparatus comprising a. The method of claim 9, wherein the rotary cutting member An installation plate coupled to the top of the first sidewall and the second sidewall; A cutting cylinder body provided perpendicular to the installation plate; A cutting cylinder rod mounted to the cutting cylinder body to be lifted and lowered; And Cutting blades are connected to the free end of the cutting cylinder rod for cutting the medicine rice transported on the first conveyor Medicine rice automatic molding apparatus comprising a. 10. The apparatus of claim 9, wherein a coupling plate is coupled to the top of the first side wall and the second side wall, and each of the coupling plates is provided with a pair of handles parallel to each other. 10. The method of claim 9, wherein the molding cutting means is detachably coupled to the top of the body in a position adjacent to the discharge roller of the input discharge member, the first coupling bracket and the bottom of the first side wall and the second side wall; A second coupling bracket is coupled, and a first coupling groove and a second coupling groove are formed in one portion of the first coupling bracket and the second coupling bracket, respectively, and are detachable by being fitted into the first coupling groove and the second coupling groove. A fixing member is provided on the crossbar to securely fix the crossbar, and a cross section of the cross section adjacent to the second vertical bracket is provided with a drive motor housing to which a drive motor is coupled, and a pair of third sides of one side of the drive motor. A third rotating plate having a locking projection is coupled to the rotatable shaft, one end of the forming block roller extends the forming block roll shaft toward the driving motor through the second side wall, Yakbap automatic molding apparatus, characterized in that provided on the outer circumferential surface of the mold block roller shaft is a fourth locking projection to be rotated together with the third locking projection. The method of claim 1, wherein the power transmission means A drive motor installed on one side of the body, a drive shaft rotatably coupled to one side of the drive motor, a drive gear connected to the drive shaft, and a drive unit coupled to one side of the drive gear; ; A first driven shaft connected to one of the first rotating shafts of the first conveyor, a first driven gear coupled to the first driven shaft, and a first subordinate gear connected together on one side of the first driven gear. A first follower formed; A second driven shaft integrally coupled to the second rotating plate of the second vertical bracket, a second driven gear coupled to the second driven shaft, and a second subordinate driven unit connected to one side of the second driven gear; A second follower made of fish; A third follower comprising a third driven shaft integrally coupled to the first rotating plate of the first vertical bracket, and a third driven gear coupled to the third driven shaft; A fourth follower comprising a fourth driven shaft connected to one of the second rotating shafts of the second conveyor, and a fourth driven gear coupled to the fourth driven shaft; And A first chain connecting the drive gear and the first driven gear, a second chain connecting the first subordinate gear and the second driven gear, and connecting the second subordinate gear and the third driven gear A connecting portion consisting of a third chain and a fourth chain connecting the sub-drive gear and the fourth driven gear. Medicine rice automatic molding apparatus comprising a.

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