KR101233759B1 - Apparatus for producing crakers - Google Patents

Abstract

The frying apparatus according to the present invention is expanded and multi-processed grain through the operation of heating and pressurizing the grain through a continuous circulation operation to increase the multi-stage, and in the state of waiting for the complete frying in place in the forward position It is configured to be discharged quickly, accordingly can be processed into a uniform shape, and can be discharged in a certain direction of the processing completed, as well as a uniform shape by one heating and pressing operation in one manufacturing apparatus. Eggplants allow you to make multiple sprinkles (aka minipops) at the same time.

Description

Deep-Frying Equipment {APPARATUS FOR PRODUCING CRAKERS}

The present invention relates to a frying apparatus, and more particularly, a plurality of sprinkles (aka mini-pops) having a uniform shape by simultaneously expanding and processing the grains in multiple stages by heating and pressurizing the grains in multiple stages at the same time. The present invention relates to a splatter manufacturing apparatus capable of making a splatter, which has been processed, to be discharged in a predetermined direction, thereby improving the operation performance of the apparatus.

Generally, a frying apparatus is a device for making confectionery in the form of frying by heating or compressing various kinds of grains supplied at a constant temperature.

In this type of hot-spraying apparatus, when a certain amount of grain is put into a closed mold and heated, water vapor expands in the heated grain, and pressure increases rapidly in the mold.

In this case, when the closed mold is momentarily opened, the pressure decreases and the grain rapidly expands to several times. The conventional patented frying apparatus using this principle is applied and registered by the applicant of the present invention. 10-0774998.

The pre-registered hot-dip manufacturing apparatus includes a main body frame, a mold provided at the center of the main body frame to heat and expand the grain, and a grain transfer for supplying a grain accommodated in a hopper provided on the main body frame. A unit, a drive unit for driving the grain transfer unit and the mold, and heating means for heating the mold.

Here, the mold is divided into an upper mold and a lower mold, and the upper mold is lifted in a state where the lower mold is fixed.

Operation of the fry frying apparatus having the above structure, first, the grain accommodated in the hopper is driven by the drive unit, the grain transfer unit supplies the grain to the mold, and then the grain supplied to the mold is a predetermined temperature by the heating unit provided in the mold It is heated to a confectionery such as frying and its manufacture is made.

That is, by driving the drive unit by opening the grain contained in the hopper by a predetermined amount to supply to the mold, supplying the grain to the mold in the state of the upper mold is lowered and presses the grain between the lower mold and At the same time, the heating means is heated to a predetermined temperature.

Then, the grain heated to a high temperature is maintained in its original state by the high pressure, and when the upper mold rises and the pressure drops sharply, the grain pops forward while popping to a certain shape, and then a certain amount of grain to be boiled is supplied. do.

The pre-registered conventional fry splash manufacturing apparatus is, in the popping process is discharged in a variety of forms rather than discharge in a uniform form. Of course, although the upper mold and the lower mold is provided in order to manufacture the hot dip in a desired shape, the popping popped actually is not manufactured in a standardized shape, and the hot dip is processed in several directions by momentary pressure release. There was a problem that the discharge direction of the boulder irregular because it exited.

In addition, the pre-registered conventional splatter manufacturing apparatus is designed to only make a splatter of a predetermined size or more (about 20 cm in diameter) from the heating and pressing operation, and a small size (about 10 cm in diameter or about 5 cm in diameter). Of course, the manufacturing of the splatters having the same, as well as the ability to manufacture a number of such small size splatters at the same time was not given.

Therefore, the present invention is to solve the conventional problems as described above, by heating and pressurizing the grains through a continuous circulation operation and then multi-swelling the grains through the multi-stage operation, the processing is complete It is an object of the present invention to provide a splatter manufacturing apparatus capable of processing the splatters in a uniform shape and discharging the splatters completed in a predetermined direction by being configured to be discharged quickly to the front in a state where the air is kept at the correct position.

In addition, the present invention is another object to configure the apparatus for producing a sprinkler so that at the same time a plurality of sprinkler (aka mini-pop) having a uniform shape by one heating and pressing operation in one manufacturing apparatus.

The present invention tossing apparatus for achieving the above object is located on the top of the main body, grain supply unit for supplying a predetermined amount of grain; Located in the main body, each of the grains branched from the grain supply unit is supplied to each of the grains at the same time moved to the processing position and discharged, the grain discharged from the processing position is processed to push the popped poppings during popping A grain transfer unit which slides forward and backward to discharge to the outside; Located in the front side of the main body, the grain is moved to the processing position by the grain transfer unit is a multi-stage lifting is made to accommodate the grains during discharge, the grain processing unit for popping a number of boils having a certain size by pressing and heating; And a driving unit configured to be driven in the main body and controlled by a controller, and to sequentially drive the grain supply unit, the grain transfer unit, and the grain processing unit. .

In addition, the grain supply unit, the hopper having a plurality of outlets on the lower surface so that the grain is placed in the upper portion of the main body, the grain is supplied by a predetermined amount; A grain supply shaft rotatably disposed at the lower side of the hopper, the grain supply shaft forming a plurality of grain input grooves for accommodating a predetermined amount of grain discharged from the discharge port and then discharging the grain into a grain transfer unit; .

In addition, the hopper is composed of a plurality or a plurality according to the size and number of the popping popping when the popping of the popping is made by heating and pressing, the grain feed shaft is preferably configured to a number corresponding to the hopper.

In addition, the inside of the grain input groove is further provided with an input amount adjusting member having a predetermined thickness to adjust the input amount of the grain, the input amount adjusting member is preferably fixed to the bottom surface of the grain input groove by the fastening member.

In addition, a lower portion of the grain supply shaft is provided with a grain guide frame for guiding the grain discharged from the grain feeding groove to the lower portion and delivered to the grain transfer unit, the grain guide frame when popping the popping by heating and pressing A plurality or a plurality of grain guide tubes are formed to set the size and the number of the popped popping.

In addition, the grain guide frame in which the plurality or a plurality of grain guide tube is formed is selectively applied according to the size and number of popping popping.

In addition, the grain transfer unit, the first slide member capable of sliding back and forth; A second slide member installed on an upper portion of the first slide member and having a grain receiving hole vertically penetrated to receive grains supplied from the grain supply unit; And simultaneously sliding the first and second slide members forward from the driving force of the drive unit, and first returning the first slide member to the rear, and then rearward the second slide member from which the grain is discharged. A first actuating portion for returning; It is preferable to configure including.

In addition, the grain receiving hole is composed of a number corresponding to a plurality or a plurality of grain guide tube.

In addition, the first operating unit, a pair of first operating rods, one end of which is respectively connected to the first and second slide members and installed to be moved back and forth; A pair of second actuating rods rotatably installed through the shaft and having one end hinged to the other end of the pair of first actuating rods; A pair of first elastic members one end of which is connected to the pair of second actuating rods and elastically acts to return the pair of second actuating rods to the rear; And a first rotating member which first lifts the pair of second operating rods together and rotates forward, and then first lowers any one of the pair of second operating rods so that the first slide member is returned to the rear first. ; It is configured to include.

In addition, the first rotating member, each of which is installed to be eccentrically rotated on the first rotating shaft and the first rotating shaft, and any one having a small thickness in the rotation direction after lifting the pair of second operating rods at the same time during rotation And a pair of first cams for descending any one of the pair of second working rods to return the first slide member to the rear first.

In addition, the grain processing unit, the lower mold is formed a grain processing hole for receiving the grain discharged from the grain transfer unit; An upper mold installed on an upper side of the lower mold, the upper mold having a first pressing protrusion to press the grain accommodated in the grain processing hole; It is installed so as to be lifted into the interior of the grain processing hole in the lower portion of the lower mold, and when descending has a second pressing protrusion to form the bottom surface of the grain processing hole and to place the processed grain at the top of the grain processing hole. Elevating member; A second operating part for elevating the elevating member by the driving force of the drive unit; And a third operating part which lowers the upper mold by the driving force of the driving unit and then returns to the multi stage. It will include.

In addition, the grain processing hole is composed of a number corresponding to the plurality or a plurality of grain receiving holes, the first and second pressing projections are configured as a number corresponding to the grain processing hole.

In addition, the upper mold is elastically supported by the second elastic member, it is configured to return to the upper by the elastic member.

In addition, the second operation portion, the third operating rod is axially installed to enable the front and rear rotation, the longitudinal end is hinged to the elevating member, the guide shaft protruding formed on one side or both sides of the other end in the axial direction; And a second rotating member which is installed to be capable of rotating back and forth, and guides the guide shaft during the rotation. It includes.

In addition, the second rotating member may include a second rotating shaft which is installed to be rotatable back and forth; And a second cam installed to be eccentrically rotated on the second rotation shaft and having a guide groove having a length in a rotational direction on one surface or both surfaces in an axial direction to guide the guide shaft and to move up and down when rotating. .

The third actuating part may include a fourth actuating rod which is axially installed to enable forward and backward rotation, and one end of which is longitudinally connected to the upper mold to lift the upper mold during rotation; And, the shaft is installed so as to be able to rotate back and forth, and during the rotation to raise the upper end in the longitudinal direction of the fourth operation rod to lower the upper mold and then lower the fourth operation rod in multiple stages to raise the upper mold in multiple stages. A third rotating member for returning; It includes.

In addition, a rotatable roller may be configured at one end of the fourth operating rod.

In addition, the third rotating member may include a third rotating shaft which is installed to be capable of rotating back and forth; And a plurality of first and second grooves continuously formed along the circumferential surface of the third rotary shaft so as to be eccentrically rotatable and to lower one end in the longitudinal direction of the fourth operating rod lifted by the eccentric rotation in multiple stages. A third cam; It will include.

In addition, the first groove portion is configured to lower the lengthwise one end of the fourth operation rod primarily, the second groove portion is formed deeper than the first groove portion and the length of the fourth operation rod lowered first Configured to descend one end in the direction of the vehicle.

In addition, one end of the rotational direction side of the first groove portion is provided with a rotating member rotatably axially rotated in a direction opposite to the rotational direction, while the rotating member is in contact with one end in the longitudinal direction of the fourth working rod. It is configured to return to the original position by its own weight after lowering one end in the longitudinal direction of the fourth working rod to the first groove in the state rotated to the first groove.

In addition, the bottom surface of the first groove portion is preferably further provided with a first buffer member for absorbing the impact generated when one end in the longitudinal direction of the fourth operating rod is lowered.

In addition, the grain processing unit further includes a shock absorber for absorbing the impact of the rise when the upper mold is raised, the shock absorber is installed in the lower end of the rod cylinder and the cylinder is mounted so that It is preferable to include a second buffer member in contact with the upper surface of the upper mold.

In addition, it is preferable that a heating unit whose temperature is controlled by a control unit is inserted into the upper mold and the lower mold.

The drive unit may include one or more drive motors installed in the main body and provided with drive gears in the drive shaft; A plurality of driven gears installed to rotate together with the first, second and third rotation shafts; A chain connecting the drive gear of the drive motor and the driven gear to transmit a driving force; And one or more tension adjusting gears which are installed to be rotatable back and forth, and which are in close contact with the chain to adjust tension. It will include.

In addition, one side of the main body is formed with one or a plurality of long holes in the direction in which the chain is installed, it is preferable that the tension adjusting gear is installed to enable position adjustment in the long hole by a fastening member.

In addition, a seating groove is formed on one surface of the driven gear in the axial direction, and the coupling member is inserted into the seating groove.

In addition, the coupling member is disposed in the center region of the seating groove in the interior of the seating groove in contact with the first, second and third rotation shaft and the driven gear, and the seating from the center region of the seating groove A first pressing member having a first inclined surface that is tapered toward the peripheral region of the groove; It is disposed in the peripheral area of the seating groove in the seating groove in contact with the driven gear, the tapered toward the central area of the seating groove from the peripheral area of the seating groove corresponding to the first inclined surface A second inclined surface is formed, and the second contact with the connecting portion defining the first fastening hole protruding from the first pressing member toward the first, second, third rotation shaft around the first, second, third rotation shaft Pressing member; An insertion member having a plurality of second fastening holes circumscribing the first, second and third rotating shafts and partially aligned with the first fastening holes while partially covering the seating grooves; And fastening between the first and second inclined surfaces through the first and second fastening holes, and spreading the seating groove and the first and second rotating shafts by opening the first and second inclined surfaces in opposite directions by a volume to be inserted. A fastening member for pressing; It is preferable to comprise more.

As described above, in the production of a certain shape of splatter by expanding the grain in multiple stages, a plurality of splatters (aka mini-pops) having a uniform shape can be popped simultaneously, and the processing quality of the splatter can be improved. In addition, it is possible to discharge the finished fry in a predetermined direction has the advantage of easy collection of the processed fry.

1 is a perspective view showing the structure of the scooping apparatus according to the present invention.
2 is a left side view according to FIG. 1;
3 is a right side view according to FIG. 1;
4 is a schematic cross-sectional view according to FIG. 1.
Figure 5 is a schematic cross-sectional view showing the installation state of the hopper and grain feed shaft.
Figure 6 is a perspective view showing the structure of a grain guide frame having a plurality of grain guide pipe.
7 is a cross-sectional view of FIG. 6.
8 is a perspective view showing the structure of a grain guide frame having a plurality of grain guide tubes.
9 is a sectional view of Fig. 8; Fig.
10 is an enlarged view of the first cam of the grain transfer unit in the frying apparatus according to the present invention;
11 is an enlarged view of a second cam of a grain processing unit in a frying apparatus according to the present invention;
12 is an enlarged view of a third cam of a grain processing unit in a frying apparatus according to the present invention;
Figure 13 is an enlarged side cross-sectional view showing a driven gear and a coupling member installed in the sputtering apparatus according to the present invention.
14 to 21 is an operating state of the sputtering apparatus according to the invention.

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

In describing the present invention, the defined terms are defined in consideration of the function of the present invention, and should not be understood in a limiting sense of the technical elements of the present invention.

1 is a perspective view showing the structure of the splatter manufacturing apparatus according to the present invention, Figure 2 is a left side view according to Figure 1, Figure 3 is a right side view according to Figure 1, Figure 4 shows a schematic cross-sectional view according to Figure 1 It is.

Figure 5 is a schematic cross-sectional view showing the hopper and the grain supply shaft installation state, Figure 6 is a perspective view showing the structure of a grain guide frame having a plurality of grain guide pipe, Figure 7 is a cross-sectional view of Figure 6, Figure 8 It shows a perspective view showing the structure of a grain guide frame having a grain guide tube of.

9 is a cross-sectional view of Figure 8, Figure 10 is an enlarged view showing the first cam of the grain transfer unit in the frying apparatus according to the present invention, Figure 11 is a grain processing unit in the frying apparatus according to the present invention The figure which enlarges and shows the 2nd cam is shown.

12 is a view showing an enlarged third cam of the grain processing unit in the splatter manufacturing apparatus according to the present invention, Figure 13 is an enlarged view of the driven gear and the coupling member installed in the splatter manufacturing apparatus according to the present invention. A side cross-sectional view is shown.

As shown in Figures 1 to 9, the frying frying apparatus according to the present invention is a grain supply unit (A), grain delivery unit (B), grain processing unit (C), and drive as components coupled to the main body 100 Unit D.

The grain supply unit (A) is located in the upper portion of the main body 100 to branch a predetermined amount of grain (G) to supply to the grain transfer unit (B), the hopper 210, grain supply shaft 220, It includes a grain guide frame (231) (231a).

The hopper 210 is located in the upper portion of the main body 100 is a grain (G) is injected, a plurality of outlets (210a) is formed on the bottom surface to supply the grain by a predetermined amount.

In this case, the hopper 210 may be configured in plural or plural according to the size and number of popping popping when popping of popping is made by heating and pressing.

Here, the hopper 210 is preferably configured to have a shape in which the top of the grain G is wide and the bottom thereof is narrowed, so that the grain G can be supplied without loss.

The grain supply shaft 220 is rotatably disposed on the lower side of the hopper 210, the grain for receiving a predetermined amount of grain discharged from the discharge port 210a and then discharged to the grain transfer unit (B) A plurality of input grooves 221 are formed, and the grain supply shaft 220 is preferably configured in a number corresponding to the hopper 210.

At this time, an input amount adjusting member 222 having a predetermined thickness is fastened to the inner bottom surface of the grain input groove 221, and the grain input groove (according to the fastening of the input amount adjusting member 222) is fastened. 221 is to adjust the space area of the grain (G) to adjust the capacity.

The grain guide frames 231 and 231a are installed at the lower portion of the grain supply shaft 220 and guide the grains G discharged from the grain feeding groove 221 to the lower portion. B) is configured to deliver.

At this time, the grain guide frame 231, 231a is a plurality of grain guide pipe 230 as shown in Figure 6, 7 attached to be set to the popping of the popping popping when the popping popping by heating and pressure, respectively Or a plurality of grain guide tubes 230 are formed as shown in FIGS. 8 and 9, and the grain guide frames 231 and 231 a in which the plurality or grain guide tubes 230 are formed. ) Is selectively applied depending on the size and number of popping pops.

The grain transfer unit (B) is located in the main body 100 and receives the grains branched from the grain supply unit (A), respectively, and then move them to the processing position at the same time, and discharged from the processing position, When the processed grains are processed and popped with a frying pan, the first and second slide members 310 and 320 are slidably moved forward and backward according to the driving of the driving unit D to push the popped sprinkles out. ), And a first operation unit 330.

The first slide member 310 is configured to slide in the front and rear direction of the main body 100 when the drive unit (D) is driven, which can be produced in a rectangular plate shape, accordingly to the main body 100 It has a feature of moving the slide in contact with the formed horizontal plane.

The second slide member 320 is installed on the upper portion of the first slide member 310, may be manufactured in the same shape as the first slide member 310 or may be manufactured in a different shape, the grain supply Grain accommodation holes 321 are vertically penetrated to receive the grains supplied from the unit A.

At this time, the grain accommodation hole 321 is preferably formed as a number corresponding to a plurality or a plurality of grain guide tube (230).

The first operation unit 330 simultaneously slides the first and second slide members 310 and 320 forward from the driving force of the driving unit D, and rearwards the first slide member 310. After returning to the first, it is configured to return to the rear the second slide member 320, the grain (G) is discharged, the first and second operating rods 331, 332, the first elastic member 333 And a first rotating member 334.

The first operating rod 331 is a pair, one end is connected to each of the first and second slide members 310, 320 and the other end is connected to the second operation rod 332, The first and second slide members 310 and 320 are configured to slide back and forth.

Here, the pair of first operating rods 331 move simultaneously when the main body 100 moves forward, but when a movement to return to the rear is made, which one is returned to the rear first and the other is returned later It has a working order.

The second actuating rod 332 is rotatably installed in the main body 100 via a shaft portion 322a, one end of the pair of the first actuating rod 331 is a pair of hinges, The first operating rod 331 is configured to slide back and forth.

One end of the first elastic member 333 is connected to the pair of second operating rods 332 and the other end is fixed to the main body 100. Each spring is elastic so that it can be returned to the rear.

As shown in FIG. 10, the first rotating member 334 lifts the pair of second operating rods 332 together and rotates them forward, and then the first slide member 310 returns to the rear first. One of the pair of second operating rods 332 is first lowered as much as possible, and includes a first rotation shaft 335 and a first cam 336.

The first rotation shaft 335 is installed on the main body 100 so as to be rotatable in both longitudinal directions, and is configured to rotate to the rear of the main body 100 by driving the driving unit D.

The first cam 336 is respectively installed to be eccentrically rotated on the first rotation shaft 335, any one having a small thickness in the direction of rotation after lifting the pair of second operating rod 332 at the same time during rotation Is configured as a pair so that any one of the pair of second operating rod 332 is first lowered to return the first slide member 310 to the rear first.

The grain processing unit (C) is located on the front side of the main body 100 while the grain transfer unit (G) is moved to the processing position by the grain (G) is multi-stage lifting to accommodate the grain (G) when discharged Of course, by popping a plurality of boils having a certain size by pressing and heating, the lower mold 410, the upper mold 420, elevating member 430, the second, third operating portion 440 ( 450).

The lower mold 410 is a grain processing hole 411 for receiving the grain (G) discharged from the grain transfer unit (B) is formed, the grain processing hole 411 is a plurality or a plurality of It consists of a number corresponding to the grain receiving hole 321 to form.

Here, the plurality of grain accommodating holes 321 and the plurality of grain accommodating holes 321 are configured to have different diameters. Accordingly, the grain processing holes 411 forming a plurality or a plurality of grain accommodating holes 321 are also included. Corresponding to) and have a different diameter, so that the size of the popped popping can also have a different size.

The upper mold 420 is installed to be lifted from the upper side of the lower mold 410, it is inserted into the grain processing hole 411 to press the grain (G) accommodated in the grain processing hole 411. A plurality or a plurality of first pressing protrusions 421 may be protruding.

Here, the upper mold 420 and the lower mold 410 is inserted into the heating unit 500, the temperature controlled by the control unit (not shown in the figure).

The elevating member 430 is installed to be able to elevate into the interior of the grain processing hole 411 in the lower portion of the lower mold 410, and forms the bottom surface of the grain processing hole 411 when descending, and processing when raised The second pressing protrusion 431 is configured to protrude so as to position the grains above the grain processing hole 411.

Here, the first and second pressing protrusions 421 and 431 are configured as the number corresponding to the grain processing hole 411.

In addition, the upper mold 420 is elastically supported by the second elastic member 460, it is configured to be returned to the upper by the second elastic member 460.

The second operation part 440 lifts the elevating member 430 by the driving force of the driving unit D, and includes a third operating rod 441 and a second rotating member 442.

The third actuating rod 441 is axially installed to be rotatable in the front-rear direction of the main body 100, and one end or the other side in the axial direction of the other end opposite to the one end of the longitudinal direction is hinged to the elevating member 430. The guide shaft 441a protrudes.

As shown in FIG. 12, the second rotating member 442 is installed to be rotatable in the front-rear direction of the main body 100, and guides the guide shaft 441a to rotate the third operating rod. It is configured to elevate 441, and includes a second rotation shaft 443 and a second cam 444.

The second rotation shaft 443 is installed to be rotatable in the front-rear direction of the main body 100, and is configured to rotate rearward of the main body 100 by the driving force of the driving unit D.

The second cam 444 is installed to be eccentrically rotated on the second rotation shaft 443, and guides the guide shaft 441a to rotate the third operation rod 441 upward and downward in rotation in an axial direction. Guide grooves 444a having a length in a rotation direction on one or both surfaces thereof are formed.

Here, the guide grooves 444a are formed to form both sides of the guide shaft 441a into or out of the guide shaft 441a higher and form a lower central portion, thereby guiding the curved surface to guide the guide grooves 444a. The axis 441a can repeatedly move up, down, and up.

The third operation unit 450 is to lower the upper mold 420 by the driving force of the drive unit (D) and then return to the multi-stage upward, fourth operating rod 451, the third rotating member 452 ).

The fourth operation rod 451 is installed on the main body 100 so as to be rotatable in the front and rear direction, and one end of the longitudinal direction is hinged to the upper mold 420 to elevate the upper mold 420 during rotation. And a rotatable roller 451a at one end of the fourth operation rod 451.

As shown in FIG. 11, the third rotating member 452 is axially installed on the main body 100 so as to be rotatable in a front and rear direction, and lifts one end in the longitudinal direction of the fourth operation rod 451 during rotation. After the upper mold 420 is lowered, the fourth operation rod 451 is lowered in multiple stages and configured to return the upper mold 420 to multiple stages. The third rotary shaft 453 and the third cam ( 454).

The third rotation shaft 453 is installed on the main body 100 so as to be rotatable in the front-rear direction, and is configured to rotate to the rear of the main body 100 by the driving force of the driving unit D.

The third cam 454 is installed on the third rotation shaft 453 so as to be eccentrically rotated. The circumferential surface of the third cam 454 is lowered in multiple stages in order to lower one end in the longitudinal direction of the fourth operation rod 451 lifted by the eccentric rotation. Accordingly, the plurality of first and second groove portions 454a and 454b are continuously formed.

The first groove 454a is configured to lower the first end in the longitudinal direction of the fourth operation rod 451 first, and the second groove 454b is formed deeper than the first groove 454a and 1 The second end of the fourth operation rod 451 lowered in the longitudinal direction is configured to descend.

At this time, one end of the rotational side of the first groove portion 454a is provided with a rotation member 470 rotatably installed in the opposite direction to the rotation direction to rotate eccentrically, and the rotation member 470 is the fourth member. Self-weight after lowering the lengthwise one end of the fourth working rod 451 to the first groove portion 454a while rotating in the first groove portion 454a while being in contact with the lengthwise end of the operating rod 451. It is configured to return to the original position by.

That is, the first and second grooves 454a and 454b are configured to lower the upper mold 420 hinged to one end in the longitudinal direction of the driving rod, and then to raise it to the second stage again.

In addition, a first shock absorbing member 480 is formed on the bottom surface of the first groove 454a to absorb the shock generated when one end of the fourth operation rod 451 extends in the longitudinal direction.

Here, the grain processing unit (C) further includes a shock absorber 490 that absorbs the impact of the rise when the upper mold 420 is raised, the shock absorber 490 is a rod 491a to the bottom And a second buffer member 492 installed at a lower end of the rod 491a and contacting an upper surface of the upper mold 420.

In this case, the second buffer member 492 may support the upper portion of the upper mold 420 that rises momentarily to reduce the vibration and noise caused by the impact and at the same time to prevent damage to each device of the splashing apparatus, Accordingly, the second buffer member 492 may be manufactured using soft rubber, synthetic resin, or the like.

2 and 3, the drive unit (D) is configured in the main body 100 is driven and controlled by a controller (not shown), the grain supply unit (A) and the grain transfer It is configured to sequentially drive the unit (B) and the grain processing unit (C), and includes a drive motor 610, driven gear 620, chain 630, tension adjusting gear 640.

The driving motor 610 is driven under the control of the control unit (not shown), and one or more are installed in the main body 100, and a driving gear 611 is formed on the driving shaft.

A plurality of driven gears 620 are combined with the first, second and third rotation shafts 335, 443 and 453 as shown in FIG. 13 to form the first, second and third rotation shafts 335, 443 and 453. It is installed to rotate together, the chain 630 is configured to transfer the driving force by connecting the drive gear 611 and the driven gear 620 of the drive motor 610.

At this time, the mounting groove 621 is formed on one surface of the driven gear 620 in the axial direction, the coupling member 650 is inserted into the mounting groove 621, the coupling member 650 is the first and second And a pressing member 651 and 652, an insertion member 653, and a fastening member 654.

The first pressing member 651 is disposed in a plurality of central regions of the seating grooves 621 in the seating grooves 621, and the first, second, and third rotation shafts 335, 443, 453, and the The first inclined surface 651a is in contact with the driven gear 620 and tapers gradually from the central area of the seating groove 621 toward the peripheral area of the seating groove 621.

The second pressing member 652 is in contact with the driven gear 620 while being disposed in the peripheral area of the mounting groove 621 in the interior of the mounting groove 621, and from the peripheral region of the mounting groove 621 It has a second inclined surface 652a corresponding to the first inclined surface 651a while tapering toward the central region of the seating groove 621.

The first and second pressing members 651 and 652 may include a first fastening hole between the first and second pressing members 651 and 652 around the first, second and third rotation shafts 335, 443 and 453. A connecting portion (not shown in the figure) defining (not shown in the figure) is provided as shown in FIG. The insertion member 653 partially covers the seating grooves 621 and surrounds the first, second, and third rotation shafts 335, 443, 453, and is arranged in a plurality of first fastening holes, respectively. It has two fastening holes.

As shown in FIG. 13, the fastening member 654 is provided by the volume of the fastening member 654 inserted while being fastened between the first and second inclined surfaces 651a and 652a through the first and second fastening holes. The first and second inclined surfaces 651a and 652a are opened in opposite directions to press the seating grooves 621 and the first and second rotational shafts 335, 443 and 453.

That is, when the fastening member 654 is inserted through the fastening hole of the insertion member 653, the end of the fastening member 654 enters between the first and second inclined surfaces 651a and 652a. The first and second pressing members 651 and 652 are opened in opposite directions to press the inner circumference of the seating groove 621 and the outer circumference of the first, second, and third rotation shafts 335, 443, and 453. Accordingly, the positions of the second, third, and fourth working rods 332, 441, 451 are variably changed through rotation of the first, second, third rotation shafts 335, 443, and 453 together with the driven gear 620. It will be adjustable.

The tension control gear 640 is installed in the main body 100 to be rotatable in the front and rear direction, is configured in one or a plurality to be in close contact with the chain 630 to adjust the tension.

Here, one or a plurality of long holes 110 are formed at one side of the main body 100 in a direction in which the chain 630 is installed, and the tension control gear 640 is connected to the long holes by the fastening member 654. 110) the installation can be made to enable position adjustment within.

Hereinafter, with reference to the accompanying Figures 14 to 21 will be described the operation sequence of the scooping apparatus according to the present invention.

First, as shown in Figure 14, when the grain (G) is introduced through the hopper 210, the grain (G) falling through the discharge port 210a formed in the lower portion of the hopper 210 grain supply shaft 220 Enter the grain input groove 221, the grain supply shaft 220 is a plurality or a plurality of grains (G) accommodated in the grain input groove 221 is formed in the grain guide frame 231 (231a) The grain guide tube 230 is formed to enter the grain receiving hole 321 of the second slide member 320 is accommodated.

Next, as shown in FIG. 15, the first and second slide members 310 and 320 slide together in front of the main body 100. Here, the forward movement of the first and second slide members 310 and 320 is enabled by the second operating rod 332 which is interlocked by the rotation of the first rotating member 334.

Next, as shown in FIG. 16, the first slide member 310 is first returned to the rear side. At this time, the grain (G) contained in the grain receiving hole 321 of the second slide member 320 is discharged to the lower portion is accommodated as the grain processing hole 411 of the lower mold 410, in this case the lifting member 430 As the rising of the second pressing protrusion 431 formed in the elevating member 430 forms a bottom surface so that grain does not leak from the lower portion of the grain processing hole 411.

At this time, the second slide member 320 is returned to the rear after discharging all the grain (G) as shown in FIG.

Next, as the upper mold 420 is lowered as shown in FIG. 18, the first pressing protrusion 421 protruding from the upper mold 420 presses the grain accommodated in the grain processing hole 411.

Here, the upper mold 420 and the lower mold 410 is a state in which a predetermined heat is applied by the heating unit 500, the grain (G) accommodated in the grain processing hole 411 is applied heat and the first press A constant pressure is generated by the pressurization of the protrusion 421. At the same time, the second elastic member 460 supporting the upper mold 420 is compressed.

Next, as the upper mold 420 ascends once as shown in FIG. 19, the grain G is first expanded, and as the upper mold 420 quickly ascends back to its original position as shown in FIG. 20, the As the grain G is expanded secondly, the grain G is popped in the shape of sprinkling in the grain processing hole 411.

At this time, the elevating member 430 is raised, the second pressing protrusion 431 protruding from the elevating member 430 raises the popped popping to match the upper surface of the grain processing hole 411.

That is, the second pressing protrusion 431 of the elevating member 430 is lowered to form the bottom of the grain processing hole 411 before the first and second slide members 310 and 320 are simultaneously moved forward. will be.

Finally, as shown in Figure 21, the first slide member 310 and the second slide member 320 moves forward together in the same order as the initial operation.

At this time, the popping process is performed by the popping process is pushed by the first slide member 310 and the second slide member 320 to slide forward together has an operating sequence discharged to the front of the main body 100.

As a result, the grain G can be expanded and processed in multiple stages to pop a large number of scoops of a certain shape, thereby improving the processing quality of the scoops. In addition, it is easy to collect the processed scoops because the processed scoops can be discharged in a certain direction.

In the above description, the technical concept of the apparatus for producing the splatter is described together with the accompanying drawings, but this is by way of example only for describing the best embodiment of the present invention and not for limiting the present invention.

Therefore, it is obvious that any person skilled in the art can make various modifications and imitations such as dimensions, shapes, structures, etc. without departing from the scope of the technical idea of the present invention.

100: main body 110: long hole
210: hopper 201a: outlet
220: grain supply shaft 221: grain input groove
222: input amount adjusting member 230: grain guide
231, 231a: grain guide frame 310: first slide member
320: second slide member 321: grain receiving hole
331: first operating rod 332: second operating rod
333: first elastic member 334: first rotating member
335: first axis of rotation 336: first cam
410: lower mold 411: grain processing hole
420: upper mold 421: first pressing projection
430: the elevating member 431: the second pressing projection
441: 3rd operating rod 441a: guide shaft
442: second rotating member 443: second rotating shaft
444: second cam 444a: guide groove
451: fourth working rod 451a: roller
452: third rotating member 453: third rotating shaft
454: third cam 454a: first home
454b: second groove 460: second elastic member
4700: rotating member 480: first buffer member
490: shock absorber 491: cylinder
491a: Rod 492: Second Shock Absorbing Member
500: heating unit 610: drive motor
611: drive gear 620: driven gear
621: seating groove 630: chain
640: tension control gear 650: coupling member
651: first pressing member 651a: first inclined surface
652: second pressing member 652a: second inclined surface
653: insertion member 654: fastening member
G: Grain

Claims (30)

Located in the upper body, the grain supply unit for supplying a predetermined amount of grain;
Located in the main body, each of the grains branched from the grain supply unit is supplied to each of the grains at the same time moved to the processing position and discharged, the grain discharged from the processing position is processed to push the popped poppings during popping A grain transfer unit which slides forward and backward to discharge to the outside;
Located in the front side of the main body, the grain is moved to the processing position by the grain transfer unit is a multi-stage lifting is made to accommodate the grains during discharge, the grain processing unit for popping a number of boils having a certain size by pressing and heating; And
A drive unit configured in the main body and controlled to be driven by a control unit and sequentially driving the grain supply unit, the grain transfer unit, and the grain processing unit,
The driving unit includes:
One or more drive motors installed in the main body and provided with drive gears in the drive shaft;
A plurality of driven gears installed to rotate together with the first, second and third rotation shafts;
A chain connecting the drive gear of the drive motor and the driven gear to transmit a driving force; And
It is installed in the shaft to enable the front and rear rotation, and further comprises one or a plurality of tension adjusting gears in close contact with the chain to adjust the tension, and
A mounting groove is formed on one surface of the driven gear in the axial direction, and the coupling groove is inserted into the seating groove. According to claim 1, wherein the grain supply unit,
Grain is placed in the upper portion of the main body, the hopper having a plurality of outlets in the bottom to supply the grain by a predetermined amount;
A grain supply shaft rotatably disposed at the lower side of the hopper, the grain supply shaft forming a plurality of grain input grooves for accommodating a predetermined amount of grain discharged from the discharge port and then discharging the grain into a grain transfer unit; Scooping apparatus, characterized in that further comprising a configuration. The method of claim 2, wherein the hopper is configured by plural or plural according to the size and number of the popping popping when the popping of the popping is made by heating and pressurizing, the grain feed shaft is configured to the number corresponding to the hopper A splashing manufacturing device characterized by the above. The apparatus of claim 2 or 3, wherein an input amount adjusting member having a predetermined thickness is configured inside the grain input groove so as to adjust the input amount of the grain. The apparatus of claim 4, wherein the input amount adjusting member is fixed to the bottom surface of the grain feeding groove by the fastening member. The method according to claim 2 or 3,
The lower part of the grain supply shaft is provided with a grain guide frame for guiding the grain discharged from the grain feeding groove to the lower portion to deliver to the grain transfer unit,
The grain guide frame is a frying apparatus, characterized in that for forming a plurality or a plurality of grain guide tube to set the size and number of the popping popping popping when popping the popping by heating and pressing. The apparatus of claim 6, wherein the grain guide frame in which the plurality or the plurality of grain guide tubes are formed is selectively applied according to the size and number of popping popping pops. According to claim 1, wherein the grain transfer unit,
A first slide member capable of moving back and forth;
A second slide member installed on an upper portion of the first slide member and having a grain receiving hole vertically penetrated to receive grains supplied from the grain supply unit; And
While simultaneously moving the first and second slide members forward from the driving force of the drive unit, the first slide member is returned to the rear first, and then the second slide member from which the grain is discharged is returned to the rear. A first operating part; Splash-producing apparatus, characterized in that comprising a. The apparatus of claim 8, wherein the grain accommodation hole has a number corresponding to a plurality or a plurality of grain guide tubes. The method of claim 8, wherein the first operating portion,
A pair of first actuating rods having one end connected to the first and second slide members, the pair of first actuating rods being installed to be movable back and forth;
A pair of second actuating rods rotatably installed through the shaft and having one end hinged to the other end of the pair of first actuating rods;
A pair of first elastic members one end of which is connected to the pair of second actuating rods and elastically acts to return the pair of second actuating rods to the rear; And
A first rotating member which first lifts the pair of second working rods together and rotates it forward, and then first lowers any one of the pair of second working rods so that the first slide member is returned to the rear first; Scooping apparatus, characterized in that further comprising a configuration. The method of claim 10, wherein the first rotating member,
Among the pair of second operating rods, one of the pair of second operating rods, each of which is installed to be eccentrically rotated on the first rotating shaft and the first rotating shaft, and simultaneously lifts the pair of second operating rods during rotation, has a small thickness in the rotational direction. A pair of first cams for lowering any one first to return the first slide member to the rear first; Scooping apparatus, characterized in that further comprising a configuration. According to claim 1, The grain processing unit,
A lower mold having a grain processing hole for accommodating the grains discharged from the grain transfer unit;
An upper mold installed on an upper side of the lower mold, the upper mold having a first pressing protrusion to press the grain accommodated in the grain processing hole;
It is installed so as to be lifted into the interior of the grain processing hole in the lower portion of the lower mold, and when descending has a second pressing protrusion to form the bottom surface of the grain processing hole and to place the processed grain at the top of the grain processing hole. Elevating member;
A second operating part for elevating the elevating member by the driving force of the drive unit; And
A third operating part for lowering the upper mold by the driving force of the driving unit and then returning it upward in multiple stages; Scooping apparatus, characterized in that further comprising a configuration. The method of claim 12, wherein the grain processing hole is composed of a number corresponding to a plurality or a plurality of grain receiving holes, wherein the first and second pressing projections are configured as a number corresponding to the grain processing hole Frying equipment. 13. The apparatus of claim 12, wherein the upper mold is elastically supported by the second elastic member and configured to return to the upper portion by the elastic member. The method of claim 12, wherein the second operation unit,
A third actuating rod axially installed to be capable of front and rear rotation, one end of which is hinged to the lifting member, and a guide shaft protruding from one end or both sides of the other end of the other end in axial direction; And
A second rotating member which is installed to be capable of rotating back and forth, and guides the guide shaft to move up and down during rotation; Scooping apparatus, characterized in that further comprising a configuration. The method of claim 15, wherein the second rotating member,
A second rotating shaft which is installed to be rotatable back and forth; And
A second cam installed to be eccentrically rotated on the second rotation shaft and having a guide groove having a length in a rotational direction on one surface or both surfaces in an axial direction to guide the guide shaft and to move up and down during rotation; Scooping apparatus, characterized in that further comprising a configuration. The method of claim 12, wherein the third operating portion,
A fourth actuating rod axially mounted to enable forward and backward rotation and having one end connected in a longitudinal direction to the upper mold to move the upper mold up and down during rotation; And
The shaft is installed to be capable of rotating back and forth, and during rotation, the upper end is lowered by lifting one end in the longitudinal direction of the fourth working rod, and then the fourth working rod is lowered in multiple stages to raise and return the upper mold in multiple stages. 3 rotating member; Scooping apparatus, characterized in that further comprising a configuration. 18. The apparatus of claim 17, wherein a rotatable roller is coupled to one end of the fourth operation rod. The method of claim 17, wherein the third rotating member,
A third rotating shaft that is rotatably mounted back and forth; And
A third which is eccentrically rotatably installed on the third rotational shaft and continuously forms a plurality of first and second grooves along the circumferential surface in order to lower the one end in the longitudinal direction of the fourth operation rod lifted by the eccentric rotation in multiple stages; cam; Scooping apparatus, characterized in that further comprising a configuration. The method of claim 19,
The first groove is configured to lower the longitudinal end of the fourth actuating rod primarily;
And the second groove portion is formed deeper than the first groove portion and configured to lower the lengthwise one end of the fourth operation rod lowered to the secondary. 21. The apparatus of claim 19 or 20, wherein an end portion of the first groove portion in the rotational direction is axially rotatably installed in a direction opposite to the rotational direction and configured to rotate in an eccentric manner. 22. The method of claim 21, wherein the rotating member is in contact with the longitudinal end of the fourth operation rod while rotating in the first groove portion in the state in which the longitudinal end of the fourth operation rod is lowered to the first groove portion itself Deep frying apparatus characterized in that configured to return to the original position by the weight. 21. The method of claim 19 or 20, wherein the bottom surface of the first groove portion has a first buffer member for absorbing the shock generated when the one end in the longitudinal direction of the fourth operating rod is lowered; Splash-producing apparatus, characterized in that the configuration. According to claim 1, wherein the grain processing unit further comprises an upper mold and a buffer device,
The shock absorber is configured to absorb the impact of the rise of the upper mold when the upper mold rises, characterized in that configured to splash. 25. The method of claim 24, wherein the shock absorber further comprises a cylinder which is installed so that the rod is projected to the lower portion, and the second shock absorbing member is installed on the lower end of the rod in contact with the upper surface of the upper mold Frying machine made. 13. The apparatus of claim 12, wherein the upper mold and the lower mold are inserted with a heating unit whose temperature is controlled by a controller. delete According to claim 1, wherein one side of the main body is formed with one or a plurality of long holes in the direction in which the chain is installed, the tension adjustment gear is characterized in that the installation is configured to be adjustable in the long hole by the fastening member Frying machine made with. delete The method of claim 1, wherein the coupling member,
It is arranged in the center of the seating groove in the seating groove in a plurality of contact with the first, second and third rotation shaft and the driven gear, and taper toward the peripheral area of the seating groove from the center area of the seating groove A first pressing member on which a first inclined surface is formed;
It is disposed in the peripheral area of the seating groove in the seating groove in contact with the driven gear, the tapered toward the central area of the seating groove from the peripheral area of the seating groove corresponding to the first inclined surface A second inclined surface is formed, and the second contact with the connecting portion defining the first fastening hole protruding from the first pressing member toward the first, second, third rotation shaft around the first, second, third rotation shaft Pressing member;
An insertion member having a plurality of second fastening holes circumscribing the first, second and third rotating shafts and partially aligned with the first fastening holes while partially covering the seating grooves; And
It is fastened between the first and second inclined surfaces through the first and second fastening holes, and presses the seating groove and the first and second and third rotation shafts by opening the first and second inclined surfaces in opposite directions by a volume to be inserted. Fastening member; Scooping apparatus, characterized in that it further comprises a configuration.

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