KR100901739B1 - Machine for popping rice making - Google Patents

Abstract

A grain popping machine is provided to simplify popped grain discharging and to prevent an operator from getting burned by operating a transfer unit of a feed bench by a link mode. A grain popping machine comprises an installation module(20), a first and second feed bench(30) mounted on the installation module, a hopper and a rotary switch located on a lower part of the hopper. A grain supplied from the hopper is transferred into a lower heating mold through the first and second feed bench located below a hopper mount. A first motor(21) and a second motor(22) are installed on the installation module in two stages. Rotary shafts(25) installed on each first and second motor include an operation member(23) whose end part has a bearing(24). The first and second feed benches closely overlap each other. Each bearing installed on the operation member is located within a long hole(33) of an operating table(32) formed on the other side of the first and second feed benches.

Description

Machine for popping rice making

The present invention relates to a machine for making fried cookies. Deep-fried food is a favorite food of all ages. The manufacturing principle of making this tempura is as follows. When various kinds of grains such as rice and barley are put in a closed mold and heated, the grains are heated to a high temperature and high pressure while the air inside the mold receives heat.

At this time, if the mold is suddenly opened, the pressure in the mold drops sharply, and the grains at high temperature and high pressure suddenly swell, causing a swelling in a porous form. The name `` fried '' is called `` fried '' because it makes a popping sound when opening the mold.

An essential configuration of the conventionally, the fried frying apparatus is called a mold for determining the shape of the fried fried fritter by adding grain. The mold is divided into an upper mold and a lower mold, and a heating rod or a heating wire is mounted on the upper and lower molds as a means for applying heat to the upper and lower molds. In addition, a hydraulic cylinder is usually mounted as a means for operating the opening and closing of the mold.

Grain, on the other hand, is supplied in the amount required to make one fry while the hopper is full. Conventionally, as a feeding means for the quantitative supply of grain, a pair of feeders having a nested shape are installed directly under the hopper, and then receive grain supplied in the form of free fall from the hopper, and the grain is transferred to the mold in front of the mold in a linear motion. Delivered.

That is, the grain fed from the hopper is placed on the upper feeder among the pair of feeders, and then the pair of feeders are transferred together to the mold in front, and then the lower feeder is returned to the rear position. The grain placed in the mold is supplied as it falls freely into the mold. The pair of feeders also has the ability to push and discharge the fry, which is made at the same time as the grain feed and feed function.

However, as an operation means for linear motion of a pair of feeders in the related art, various configurations of cams (CAM) and springs for changing the rotational motion of the motor into linear motion have been technically proposed, but the principle of the cam is 1 Given that the same operation is repeated in the cycle, the grain is fed to the heated mold again after the last fry is pushed out at the end of the fry brewing operation. However, since the operation is stopped, there is a problem that the grain is burned in the heated mold.

Therefore, in order to improve the burning of grain in the mold, the pair of feeders were not operated by stopping the cam prior to the operation stop of the mold so as not to push the splash at the end of the manufacturing process. There was the inconvenience of having to take out the hot dip from the mold by hand. In addition, there was a problem that the hand is burned on the heated mold in the process of taking out the hot water.

Accordingly, the present invention has been made in view of the troublesome problem of the discharge process of the last boiled boiled as the final stage of the manufacturing process of the boiled boil and the operator can be burned, the present invention is installed directly below the hopper It is to provide a sputtering apparatus for operating a pair of feeders, the link means is operated by a link method, rather than using a conventional cam. In addition, the lower end of the hopper is to further configure the switch operated in a rotary or sliding manner so that the supply of grain can be arbitrarily blocked.

As a specific problem solving means of the present invention, the hopper 40 containing the grain is installed in the hopper mounting stand 41 mounted to the installation module 20, the grain supplied from the hopper 40, the hopper mounting stand ( In the conventional hot dip manufacturing apparatus, which is located directly under 41, is transferred into the lower heat transfer mold 17 through the first and second supply units 30 and 34 mounted to the installation module 20.

The first motor 21 and the second motor 22 are installed in two stages in the installation module 20, and the bearing 24 is provided on the rotary shafts 25 installed on the first and second motors 21 and 22, respectively. Operating pieces 23 having a predetermined length mounted on the tip are respectively installed,
The first supply table 30 and the second supply table 34 are installed in close contact with each other, each bearing 24 mounted on the operating piece 23 is the first, second supply table ( It is configured to be installed so as to be located in each of the long hole 33 of the operating table 32 formed on the other end of the 30, 34.

In addition, a rotary switch 42 is installed at a lower end of the hopper 40, and an opening and closing shaft 44 penetrating the side of the rotary switch 42 is installed, and the opening and closing wing 43 is provided at the opening and closing shaft 44. ) Is formed, by rotating the handle 45 for replacement to other grains, the opening and closing wing 43 is configured to block the lower end of the hopper 40.

On the other hand, the first flange 51 is mounted on the lower end of the hopper 40 instead of the rotary switch 42, the sliding switch 50 is installed on the first flange 51 through the bolt 56 is configured By inserting the second flange 52 with the stepped 53 formed on the upper portion of the sliding switch 50, the insertion hole 55 is formed after the installation of the sliding switch 50, and thus the insertion hole 55. A flat opening / closing plate 54 is inserted in, so that the lower end of the hopper 40 is blocked.

The present invention not only solves the troublesome problem of discharging the last fry, which is the final stage of the manufacturing process of the fry, and the worker may be burned, but also the bottom of the hopper to make the fry using other grains during the work. By constructing a rotary or sliding switch on, there is an advantage that can be easily replaced with other grains in the middle without waiting for the existing grains to be used up completely.

Hereinafter, with reference to the accompanying drawings the technical configuration and effects of a preferred embodiment which can achieve the object of the present invention will be described.

1 is a perspective view illustrating the entire assembly of the apparatus for producing hot dips according to the present invention, and FIG. 2 illustrates a lifting motion of the upper and lower heat transfer molds 16 and 17 according to the present invention. As shown in FIGS. 1 and 2, a lower portion of the installation table 10 is provided with a first cylinder 14 connected to a hydraulic unit. The hydraulic unit is to be able to exhibit a high pressure by functionally placing a number of machines, such as a hydraulic tank, is a mechanical module commonly used for opening and closing the upper and lower heat transfer mold (16, 17) in the technical field of the present invention. .

The mounting plate 18 is installed at the top of the two lifting guide shafts 13 installed in the upper portion of the mounting table 10, and the upper heat transfer mold 16 is mounted below the mounting plate 18. In addition, the second cylinder 15 is mounted on the first base 11 so as to be elevated along the lifting guide shaft 13, and the lower heat transfer based on the second base 12 on the upper portion of the second cylinder 15. The mold 17 is mounted. Therefore, the second cylinder 15 and the lower heat transfer mold 17 are vertically moved along the lifting guide shaft 13 by the operation of the first cylinder 14.

The upper heat transfer mold 16 and the lower heat transfer mold 17 are heater rods or heating wires inserted therein, and are devices for forming a state of the mold at high temperature and high pressure when making a hot dip. On the other hand, the inside of the lower heat transfer mold 17, the pressing projection 19 is elevated by the second cylinder (15) is mounted. The pressing projection 19 is a top heat transfer mold (16) by the operation of the second cylinder (15) in the mold after the upper and lower heat transfer mold (16, 17) of the grains placed in the lower heat transfer mold 17 is closed. It is a constitution for crimping toward).

3 is a perspective view illustrating the installation of the first and second motors 21 and 22 according to the present invention, and FIG. 4 is a view illustrating the installation of the first and second supply units 30 and 34 according to the present invention. Perspective view. As shown in FIG. 3, the first and second motors 21 and 22 are installed in two stages through the installation module 20, and a hopper mounting stand 41 for mounting the hopper 40 in front of the installation module 20. ) Is installed.

The installation module 20 is made by bending sheet metal, and various configurations to mount the first and second motors 21 and 22, the first and second supply tables 30 and 34, the hopper 40, and the like. Of course it can be produced. A characteristic configuration of the present invention is the configuration of the first and second supply tables 30 and 34 mounted to the installation module 20 and the configuration for operating the first and second supply tables 30 and 34 in a link manner, and optionally This is to block the grain supply in the hopper (40).

As shown in FIG. 3, the first and second motors 21 and 22 are installed in two stages in the installation module 20, and the rod shaft 25 has a predetermined length in which a bearing 24 is mounted at the tip thereof. The operating piece 23 is mounted. The first and second motors 21 and 22 used in the present invention are motors equipped with worm gears so as to transmit the rotational force originating from the rotating shaft 25 of the motor perpendicularly to the first and second supply tables 30 and 34. Used.

A feature of the worm gear is that a large reduction ratio can be obtained, so that the first and second feed tables 30 and 34 for conveying grain can be linearly moved at a stable speed. In addition, the first and second motors 21 and 22 equipped with worm gears are configured as a means for reducing the height of the installation space, in particular, the installation module 20 on the installation module 20.

As shown in FIG. 4, the first feeder 30 and the second feeder 34 are mounted to the operating piece 23 of the first motor 21 and the second motor 22 via a bearing 24. It is to be mounted in a state in which they are stacked in close contact with each other. One end of the first and second feeders 30 and 34 is formed to have the same curvature as the sprinkler to push out the circular boils, and in the center of the first feeder 30, the lower heat transfer mold is placed after transferring the grain. Dropping hole 31 is formed to be input to (17).

The grain deposited in the dropping hole 31 is transferred to the lower heat transfer mold 17 after the settlement state continues through the support of the second supply table 34 installed in close contact with the dropping hole 31 before the transfer. As the second feeder 34 is retracted, the grain is introduced into the lower heat transfer mold 17 in a free-falling manner.

In addition, at the other end of the first and second supply tables 30 and 34, the long hole 33 is formed so that the bearing 24 connected to the operating piece 23 of the first and second motors 21 and 22 is active. This formed operating table 32 is formed. The principle of linear movement of the first and second supply tables 30 and 34 as the bearing 24 slides in the long hole 33 of the operating table 32 is as follows.

FIG. 5 is a perspective view illustrating the operating principle of the first and second supply tables 30 and 34 according to the present invention, and shows the rotational track 26 of the first supply table 30 to supply the first and second supplies. The operation principle of the stages 30 and 34 will be described at the same time. As shown in FIG. 5, the operating shaft 23 on which the bearing 24 is mounted is installed on the rotating shaft 25 installed in the first motor 21, and the bearing 24 is mounted on the long hole 33 of the operating table 32. Will be located. At this time, when the first motor 21 rotates in the counterclockwise direction, the operating piece 23 rotates while drawing the rotary trace 26, and at the same time, the bearing 24 has the long hole 33 of the operating table 32. While active in the movement as a result it is to transfer the first feeder 30 to the front.

Then, when the rotating shaft 25 continues to rotate in the counterclockwise direction, the operating piece 23 also continues to rotate in the counterclockwise direction while drawing the rotational track 26, and at the same time, the bearing 24 is also activated in the long hole 33. As a result, the first supply table 30 is to be returned to the rear.

Due to the operation of the link method as described above, the circular motion rotational force of the first and second motors 21 and 22 is not only transmitted to the reciprocating linear motion of the first supply table 30 and the second supply table 34, Since the first feeder 30 and the second feeder 34 can be controlled separately, the first and second feeders 30 and 34 are provided at all stages of grain supply except at the end of the frying process. After being conveyed forward, the second feeder 34 is retracted and the first feeder 30 is retracted a little later, so that the grains can be dropped into the lower heat transfer mold 17.

In the last step of the scooping process, the first and second feeders 30 and 34 transported at the same time are controlled to be reversed at the same time, so that the last scooping was manually discharged from the lower heat transfer mold 17. Problem is solved.

6 is a perspective view for explaining the rotary switch 42 according to the present invention, Figure 7 is a perspective view for explaining a sliding switch 50 according to the present invention. Hopper 40 containing the grains as shown in Figure 1 is installed on the hopper mount 41.

Since the conventional hopper 40 does not have a structure capable of arbitrarily blocking the supply of grain to the lower portion, in order to inject other types of grains, the already contained grains may be used after being ripped off, or the already contained grains may be used. There was a problem to wait until exhausted.

Therefore, the present invention is to propose a rotary switch 42 as shown in FIG. As shown in FIG. 6, the rotary switch 42 has an opening and closing shaft 44 penetrating through a side thereof, and an opening and closing wing 43 is formed at the opening and closing shaft 44, and the handle 45 is replaced with another grain. By rotating) by opening and closing the wing 43 to block the lower end of the hopper 40, to prevent the dropping of grain, simply replace it with another hopper 40.

On the other hand, as another configuration for arbitrarily blocking the lower end of the hopper 40, it is to propose a sliding switch 50 shown in FIG. As shown in FIG. 7, the first flange 51 is mounted at the lower end of the hopper 40, and the sliding switch 50 is installed on the first flange 51 through the bolt 56. More specifically, by mounting a second flange 52 having a stepped 53 formed on the upper part of the sliding switch 50, the insertion hole 55 is formed after the sliding switch 50 is installed.

By inserting the flat opening and closing plate 54 into the insertion hole 55, it is possible to prevent the dropping of grains, so that it can be easily replaced with the hopper 40 containing other grains.

1 is a perspective view of the overall assembly of the apparatus for producing fry in accordance with the present invention

Figure 2 is a perspective view for explaining the lifting motion of the upper and lower heat transfer mold according to the present invention

Figure 3 is a perspective view for explaining the installation of the first and second motor according to the present invention

Figure 4 is a perspective view for explaining the installation of the first and second supply base according to the present invention

5 is a perspective view for explaining the principle of operation of the first and second supply in accordance with the present invention

Figure 6 is a perspective view for explaining the rotary switch according to the invention

Figure 7 is a perspective view for explaining the sliding switch according to the present invention

<Description of the symbols for the main parts of the drawings>

10: installation table

11: first stand

12: second stand

13: lifting guide shaft

14: first cylinder

15: 2nd cylinder

16: upper heat transfer mold

17: lower heat transfer mold

18: mounting plate

19: crimping projection

20: installation module

21: first motor

22: second motor

23: working piece

24: Bearing

25: rotating shaft

26: rotational trajectory

30: first supply stand

31: dropping hole

32: control panel

33: longevity

34: second supply table

40: Hopper

41: Hopper Mount

42: rotary switch

43: open wing

44: opening and closing shaft

45: handle

50: sliding door switch

51: first flange

52: second flange

53: step

54: opening and closing board

55: insertion hole

56: Bolt

Claims (3)

The hopper 40 containing grains is installed in the hopper mount 41 mounted to the installation module 20, and the grains supplied from the hopper 40 are located directly below the hopper mount 41. In the conventional hot dip manufacturing apparatus, which is transferred into the lower heat transfer mold 17 through the first and second supply units 30 and 34 mounted to the installation module 20, The first motor 21 and the second motor 22 are installed in two stages in the installation module 20, and the bearing 24 is provided on the rotary shafts 25 installed on the first and second motors 21 and 22, respectively. Operating pieces 23 having a predetermined length mounted on the tip are respectively installed, The first supply table 30 and the second supply table 34 are installed in close contact with each other, each bearing 24 mounted on the operating piece 23 is the first, second supply table ( 30, 34, the spatter-producing apparatus, characterized in that is installed so as to be located in each of the long hole (33) of the operating table (32) formed on the other end. The method according to claim 1, The lower end of the hopper 40 is provided with a rotary switch 42, the opening and closing shaft 44 penetrating the side of the rotary switch 42 is provided, the opening and closing blades 43 are formed on the opening and closing shaft 44 Is, by rotating the handle 45 to replace the other grains, the opening and closing blades 43, characterized in that the chopped manufacturing apparatus to block the lower end of the hopper (40). The method according to claim 1, The first flange 51 is mounted on the lower end of the hopper 40, and the sliding switch 50 installed in the first flange 51 through the bolt 56 is configured, and the upper portion of the sliding switch 50 is provided. By mounting the second flange 52 having the stepped 53 formed therein, as the insertion hole 55 is formed after the sliding switch 50 is installed, the flat opening and closing plate 54 is inserted into the insertion hole 55. Been, chopping apparatus characterized in that the lower end of the hopper 40 is blocked.

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