KR102594351B1 - A Scorched Rice Conveyor - Google Patents

Abstract

The present invention relates to a conveyor equipped with a device for automatically manufacturing scorched rice, and more specifically, to a molding plate provided with a rotating plate on which the ingredients of scorched rice rotate; a reversal unit that reverses and moves the molded plate from one transfer line to another transfer line; It relates to a nurungji conveyor that includes a transfer unit that moves the molding plate and can efficiently and quickly produce high-quality nurungji.

Description

Scorched Rice Conveyor {A Scorched Rice Conveyor}

The present invention relates to a conveyor equipped with a device for automatically manufacturing scorched rice, and more specifically, to a molding plate provided with a rotating plate on which the ingredients of scorched rice rotate; a reversal unit that reverses and moves the molded plate from one transfer line to another transfer line; It relates to a nurungji conveyor that includes a transfer unit that moves the molding plate and can efficiently and quickly produce high-quality nurungji.

In general, nurungji refers to the product created when a part of the rice sticks to the bottom of the pot when rice is cooked. When rice is cooked in a conventional rice cooker, this type of nurungji is formed when grains such as rice, barley, and beans placed at the bottom of the rice cooker are stuck. It is created by sticking together.

This type of Nurungji has a savory taste and smell due to various substances such as glucose, which are produced when the amino acids of carbohydrates and proteins contained in rice are pressed into the Nurungji, and is often used as a snack substitute as it fills the stomach and is very nutritious.

However, in recent years, as people cook rice in electric rice cookers at home or in restaurants, scorched paper is no longer produced, so recently, it is being produced in large quantities using scorched paper manufacturing equipment in factories and is being released as a product.

Accordingly, Nurungji is being manufactured in large quantities as a convenient meal replacement and snack, but since the manufacturing process mostly relies on manual work, there are problems with manufacturing time, manpower, and efficiency being significantly reduced.

The conventional scorched paper manufacturing process is limited to the method of cooking rice in a large cauldron and manufacturing it manually by pressing it on a heated grill, so there are many difficulties in mass production, and the manufacturing time, work efficiency, and quality of scorched paper are significantly reduced. There was.

As an example, looking at Korean Patent Registration No. 1686502, the patent embeds a heater into the upper and lower plate molds and connects the upper and lower plate molds with a hinge so that the upper plate mold can be opened and closed from the lower plate mold, and is also molded with the upper and lower plate molds. The top mold was designed to have a handle while forming a groove.

Therefore, the patent for the above configuration is to produce scorched rice by inserting cooked rice into the molding grooves of the upper and lower plate molds and applying constant pressure and heating by a heater. The process of inserting, heating, and discharging the scorched paper is all done manually. As a result, the efficiency of the work is significantly reduced, there is a high risk of damage to the scorched paper when discharging it, and furthermore, as the series of processes relies on manual work, the production time of the scorched paper takes a long time, making mass production impossible.

Another problem is that when manufacturing Nurungji using multiple upper and lower molds, it is difficult to discharge the Nurungji from the molding groove, and the residue generated during the production of Nurungji is not completely discharged and is absorbed into the repeatedly manufactured Nurungji, resulting in its appearance and taste. There is a very high risk that it may deteriorate.

Therefore, in order to manufacture Nurungji in large quantities, improve efficiency and speed, and maintain excellent quality, a Nurungji manufacturing device is disclosed in Patent No. 10-1938523.

The nurungji manufacturing device is equipped with a plurality of baking molds in which the nurungji is manufactured, and the baking molds go through the manufacturing process of inserting ingredients, forming, closing, transferring, heating, inverting, opening, separating, discharging, and cleaning to make the nurungji unmanned. It is characterized in that it is manufactured.

However, in the above-mentioned scorched rice production device, the inversion device is provided with a single holding frame for holding the baking mold, so after moving the baking mold by inverting it with another transfer guide device, it rotates idle when returning to the original position to accommodate another baking mold. , In this process, unnecessary power is consumed, and due to idling, the transfer of the roasting mold is stagnant, making it difficult to quickly manufacture scorched paper.

In addition, when discharging the baking mold stored in the holding mold to the transfer guide device, space for one baking mold must be secured to prevent the baking mold at the other end from falling off the transfer guide device, which also causes the problem of reduced productivity. there is.

In addition, heating devices are formed in a row along both sides of the transfer guide device, so the thermal power applied to the baking mold acts unevenly on the entire area of the baking mold. Therefore, the roasting pan that moves along the transfer guide device receives uneven fire power. The center and both edges of the nurungji material, where the fire power is concentrated, are sufficiently cooked, but the front and back edges do not receive enough fire power, causing an undercooking problem.

Therefore, a scorched paper manufacturing device has emerged to reduce unnecessary power consumption in the scorched paper manufacturing process, increase productivity, and solve the problem of undercooked scorched paper.

KR 10-1686502 (B1) 2016.12.08. KR 10-1938523 (B1) 2019.01.08. KR 10-1926542 (B1) 2018.12.03.

In order to solve the above problems, the purpose of the present invention is to improve the manufacturing process of scorched paper, reduce unnecessary power consumption, increase productivity, and provide a nurungji conveyor that can produce high quality scorched paper.

Another object of the present invention is to reverse the molding plate to another transfer line to enable continuous movement of the molding plate by always rotating the molding plate while rotating the fixed case into which the molding plate is inserted during movement, thereby increasing the moving speed. The purpose is to provide a nurungji conveyor that can increase the height and significantly reduce the movement delay of the molded plate.

In addition, another object of the present invention is to provide a nurungji conveyor that improves productivity by increasing the moving speed of the pusher that seats the molded plate on the transfer line, thereby producing the nurungji more quickly.

In addition, another object of the present invention is to provide a Nurungji conveyor that improves the quality of Nurungji by equipping a rotating plate on a molded plate transported along a transfer line and rotating the rotating plate while being transported so that the thermal power supplied from the furnace can be uniformly applied to the Nurungji. will be.

Another object of the present invention is to create a nurungji that can reduce cleanliness and heat consumption by dualizing the material of the molding plate, so that the inner layer in contact with the nurungji is made of stainless steel and the outer surface that receives heat from the furnace is made of aluminum with high thermal conductivity. A conveyor is provided.

The present invention for achieving the above object includes an upper plate 110 and a lower plate 120, the nurungji material is seated on the inner surface of the lower plate 120, and a plurality of molded plates ( 100); It is provided with two transfer lines 310, and a furnace 313 is provided in the longitudinal direction at the bottom of each transfer line 310, and a transfer device 320 moves the molded plate 100 along the transfer line 310. ) is a transfer unit 300 provided at the rear end of each transfer line 310; An inversion unit 200 that inverts the molded plate 100 and transfers it to another transfer line 310; In the nurungji conveyor including, the inversion unit 200 includes two rectangular parallelepiped-shaped fixing cases 210 into which the molding plate 100 is inserted and supported; And a connection part 220 for combining the two fixing cases 210, wherein the fixing case 210 has a closed side portion 214 parallel to the transfer line 310, and the side portion 214 is closed. A plurality of rollers 215 are formed on the inside, respectively, and the first fixing case 211 and the second fixing case 212 provided in one of the inversion parts 200 have their upper and lower surfaces open in opposite directions. It is closed, and a rack (R) and a pinion (P) that move by the operation of the cylinder (C) are disposed outside the connecting portion (220), so that the two fixing cases (210) move according to the operation of the cylinder (C). It is rotated on two transfer lines 310, and the molding plate 100 is always inserted into either the first fixed case 211 or the second fixed case 212 when rotating, and the transfer line 310 Insertion and withdrawal of the molded plate 100 are carried out simultaneously in the four fixing cases 210 arranged on both sides.

In addition, the front of the fixing case 210 of the present invention is open, and the pusher 328 of the transfer device 320 penetrates the pusher through hole 217 at the rear 216 to transfer the molded plate 100 to the transfer line. Push to (310).

In addition, the transfer device 320 of the present invention includes a guide plate 324 on which a pair of timing pulleys 326 are disposed on one side and a timing belt 327 wound around the timing pulley 326; A first guider 322 that is coupled so that the guide plate 324 slides, a first belt fixing part 323 that holds and secures a part of the timing belt 327, and a cylinder that pushes the guide plate 324 ( C) a transfer frame (321) consisting of; A push bar 328 coupled to the cylinder C and consisting of a second belt fixing part 329 that holds and secures a part of the timing belt 327, in the longitudinal direction of the transfer line 310. It moves and provides a driving force for the molded plate 100 to move in the transfer line 310, penetrates the inside from the outside of the fixed case 210 to seat the molded plate 100 on the transfer line 310, and Stroke (B) is twice the stroke (A) of the cylinder.

In addition, in the present invention, a plurality of protrusions 119 are formed to protrude outward on the rotating plate 114, which is formed to contact the material of the nurungji in the molding plate 100, and the molding plate 100 is formed in the transfer line 310. A rotating ring 314 extending toward the inside of the conveying line 310 is provided so as to contact the protrusion 119 when moving in the conveying line 310, and the protruding portion 119 is caught by the rotating ring 314. The rotating plate 114 rotates.

In addition, as the forming plate 100 of the present invention moves in the transfer line 310, the protrusion 119 is caught by the rotating ring 314, so that the rotating plate 114 rotates, and the protruding portion 119 is connected to the rotating ring 314. (314) Rotation stops after separation from the end.

In addition, the upper plate 110 or the lower plate 120 of the molded plate 100 of the present invention has a stainless steel plate 115 on the inner surface where the nurungji material comes into contact; It includes an aluminum plate 116 made of aluminum coupled to the outside of the stainless steel plate 115, and the stainless steel plate 115 and the aluminum plate 116 are fixed to the main body 111 by a washer.

The scorched paper conveyor according to the present invention has the advantage of improving the manufacturing process of scorched paper, reducing unnecessary power consumption, increasing productivity, and producing high quality scorched paper.

In addition, the present invention allows continuous movement of the molded plate by reversing the molded plate to another transfer line and rotating the molded plate while always inserting it when rotating the fixed case into which the molded plate is inserted during movement, thereby increasing the movement speed and enabling continuous movement of the molded plate. It has the advantage of significantly reducing the movement delay.

In addition, the present invention has the advantage of improving productivity by increasing the moving speed of the pusher that seats the molded plate on the transfer line, making it possible to produce scorched rice more quickly.

In addition, the present invention has the advantage of improving the quality of the scorched paper by equipping the forming plate transported along the transfer line with a rotating plate and rotating the rotating plate as it is transferred, so that the thermal power supplied from the furnace can be uniformly applied to the scorched paper.

In addition, the present invention dualizes the material of the molding plate, so that the inner layer in contact with the nurungji is made of stainless steel, and the outer surface that receives heat from the burner is made of aluminum with high thermal conductivity, which has the effect of reducing cleanliness and heat consumption. There is.

Figure 1 is a perspective view showing the conveying part and the inversion part in the nurungji conveyor according to the present invention.
Figure 2 is a perspective view showing the transfer device and the inversion part of the transfer part in the nurungji conveyor according to the present invention.
Figure 3 is a perspective view showing the inverted portion of the nurungji conveyor according to the present invention, (a) is a perspective view viewed from the front, and (b) is a perspective view viewed from the rear.
Figure 4 is a flow chart showing the operation of the inversion section in the nurungji conveyor according to the present invention.
Figure 5 is a perspective view showing the transfer device in the nurungji conveyor according to the present invention, (a) is a perspective view viewed from the front, and (b) is a perspective view viewed from the rear.
Figure 6 is an exploded view showing the configuration of the transfer device in the nurungji conveyor according to the present invention.
Figure 7 is a perspective view showing the operation of the transfer device in the nurungji conveyor according to the present invention, (a) is a perspective view before the cylinder is extended, and (b) is a perspective view after the cylinder is extended.
Figure 8 is an exploded perspective view of the molded plate in the nurungji conveyor according to the present invention.
Figure 9 is a view of the molding plate and the rotating ring in the nurungji conveyor according to the present invention, (a) is a plan view, and (b) is a cross-sectional view.

Hereinafter, preferred embodiments of the present invention will be described with reference to the accompanying drawings so that those skilled in the art can easily implement them.

In the present invention, as shown in Figure 1, the front end refers to the front end in the direction of travel on the transfer line along which the molding plate moves, and the rear end refers to the end in the opposite direction of travel on the transfer line along which the molding plate moves, and is called the transfer line. The term refers to the first transport line located in the front and the second transport line located in the rear, and the fixed case refers to the first fixed case that rotates in the trajectory of the lower half circle and the trajectory of the upper half circle as shown in Figure 3. This is the general term for the second fixed case that meets.

The Nurungji conveyor according to the present invention includes an upper plate 110 and a lower plate 120 that are open and closed, the Nurungji material is seated on the inner surface of the lower plate 120, and a plurality of molded plates ( 100);

It is provided with two transfer lines 310, and a furnace 313 is provided in the longitudinal direction at the bottom of each transfer line 310, and a transfer device 320 moves the molded plate 100 along the transfer line 310. ) is a transfer unit 300 provided at the rear end of each transfer line 310;

An inversion unit 200 that inverts the molded plate 100 and transfers it to another transfer line 310;

In the scorched paper conveyor including,

The inversion unit 200 is

Two rectangular parallelepiped-shaped fixing cases 210 into which the forming plate 100 is inserted and supported; And a connection part 220 that couples the two fixing cases 210,

The fixing case 210 has a closed side portion 214 parallel to the transfer line 310, and a plurality of rollers 215 are formed on the inside of the side portion 214, respectively.

The first fixing case 211 and the second fixing case 212 provided in one of the inversion units 200 have their upper and lower surfaces opened and closed in opposite directions,

Outside the connection portion 220, a rack (R) and a pinion (P) are disposed that move by the operation of the cylinder (C), so that the two fixing cases 210 are connected to the two transfer lines according to the operation of the cylinder (C). It is rotated at 310, and either the first fixed case 211 or the second fixed case 212 always has the molding plate 100 inserted when rotating, and is placed on both sides of the transfer line 310. Insertion and withdrawal of the molded plate 100 are performed simultaneously in the four fixed cases 210.

The Nurungji conveyor according to the present invention is equipped with a process device for manufacturing Nurungji unmanned, excluding human manual work, and the process device heats a molding plate 100 on which the material of the Nurungji is placed, and the molding plate 100. A transfer unit 300 that moves along a certain path, a supply unit that supplies a certain amount of the nurungji material to the forming plate 100, a pressing unit that thinly spreads the nurungji material supplied from the supply unit, and a closure that closes the forming plate 100 that has passed through the pressing unit. Part, a reversal unit 200 that transfers the molding plate 100 progressing in one transfer line 310 to another transfer line 310, an opening part opening the molding plate 100, and opening in the opening part. It consists of a separation unit for removing the scorched paper stuck to the inner surface of the molded plate 100, a discharge unit for discharging the manufactured scorched paper from the molded plate 100, and a cleaning unit for cleaning the inner surface of the molded plate 100 from which the scorched paper has been discharged. do.

Processing devices that perform the above process are disposed on the transfer line 310 of the transfer unit 300 and perform the process for producing scorched rice unmanned.

The transfer line 310 is arranged in a dual manner for efficient arrangement of equipment, and the first transfer line 311 and the molding plate 100 in which the molding plate 100 is turned over and the upper plate 110 moves downward. The upper plate 110 is divided into a second transfer line 312 that runs upward.

The process equipment is sequentially provided in the first transfer line 311 or the second transfer line 312 in accordance with a series of manufacturing processes. The molded plate 100 enters each process equipment through the conveyor on the first transfer line 311 or the second transfer line 312, goes through the corresponding manufacturing process, then leaves and moves while entering the next process equipment, The molding plate 100, which discharges the completed nurungji through all processes, re-enters the first process and goes through a cycle.

The present invention relates to a conveyor on which such a processing device is disposed, including a molding plate 100 on which scorched rice is manufactured, a reversal unit 200 for transferring the molding plate 100 to another transfer line 310, and the molding plate 100. ) relates to a transfer unit that moves the transfer line 310.

Figure 1 is a perspective view showing the transfer part and the inversion part in the nurungji conveyor according to the present invention.

As shown in FIG. 1, the transfer line 310 that guides the molded plate 100 to each process equipment can be divided into a first transfer line 311 and a second transfer line 312, and the first transfer line The molding plate 100 on (311) is arranged so that the upper plate 110 faces downward, and the molding plate 100 on the second transfer line 312 is an upper plate 110 provided with a latch 117. It is placed and moves so that it faces upward.

As shown in Figures 1 and 9, furnaces 313 are provided longitudinally on both sides of the lower part of the transfer line 310. As the forming plate 100 moves along the transfer line 310, it receives thermal power emitted from the furnace 313. The brazier 313 may be provided from the point where the nurungji material is placed on the molding plate 100 to the point where the nurungji is separated from the molding plate 100.

For efficient arrangement of the manufacturing equipment of this scorched rice, the dual transfer line 310 is divided into a first transfer line 311 and a second transfer line 312, and the inversion portion is disposed at both ends of the transfer line 310. (200) reverses and transfers the molded plate 100 from one transfer line 310 to another transfer line 310 for a continuous process.

Figure 2 is a perspective view showing the transfer device and the inversion part of the transfer part in the nurungji conveyor according to the present invention, and Figure 3 is a perspective view showing the inversion part in the nurungji conveyor according to the present invention.

As shown in Figures 2 and 3, the inversion part 200 includes two fixing cases 210 and a connecting part 220 that connects and couples the fixing cases 210 in the middle, and a cylinder ( The rack (R), which moves linearly by the operation of C), rotates the pinion (P) connected to the connection portion 220.

The fixed case 210 of the present invention is divided into a first fixed case 211 and a second fixed case 212, and the first fixed case 211 is a fixed case that rotates 180° in a lower half circle trajectory, 2Fixed case 212 is defined as a fixed case that rotates 180° in the trajectory of the upper half of the circle.

Each fixing case 210 is formed as a rectangular parallelepiped and the front is open. The molding plate 100 is inserted into and extracted from the fixed case 210 in the open portion of the front, and a pusher 328 pushes the molding plate 100 through the pusher through hole 217 formed in the rear 216. ) is passed. Here, the rear 216 may be partially blocked as shown in FIG. 3(b), and the size of the push bar penetration hole 217 on the rear 216 is sufficient to allow the push bar 328 to pass through.

Each fixing case 210 is located on the same straight line as the longitudinal direction of each corresponding transport line 310, and is arranged perpendicular to the longitudinal direction of the transport line 310.

Both side parts 214 of the fixing case 210 are formed as closed surfaces, and a plurality of rollers 215 protruding inward are provided on the inner surface. The roller 215 supports the molded plate 100 inserted into the fixing case 210, and may be further provided with a bearing to ensure smooth insertion and extraction into the fixing case 210. The forming plate 100 is inserted between the rollers 215 and is stably supported by the rollers 215 even when the fixing case 210 rotates.

One of the upper or lower surfaces of the fixing case 210 has a closed surface 213, and the opposite surface is open. At this time, the closed surfaces 213 of the first fixing case 211 and the second fixing case 212 are formed in opposite directions. Since the closed surface 213 is combined on one side with both side parts 214 of the fixing case 210 to improve structural stability, the fixing case 210 can stably support the weight of the molded plate 100 without causing deformation. You can.

The pusher 328 of the transfer device 320 disposed at the lower part of the fixing case 210 pulls out the molded plate 100 inserted into the fixing case 210. Therefore, the rear 216 of the fixing case 210 is formed with a push bar through hole 217 to allow the push bar 328 to pass through, and further, the lower surface of the fixing case 210 located on the upper part of the push bar 328 is open to accommodate the push bar ( 328) must move freely without obstruction.

The fixing case 210 located at the top of the push bar 328 has an open lower surface and a closed upper surface, while the neighboring fixing case 210, which is not located at the top of the push bar 328, has an open upper surface in the opposite direction and a closed bottom surface. This is closed. At this time, when the connection part 220 rotates to invert the fixing case 210, the fixing case 210 that is not located on the top of the pusher 328 is placed on the upper part of the pusher 328 as the connection part 220 rotates. The fixed case 210, which has an open upper surface and a closed lower surface, is inverted and placed so that the lower surface is open and the upper surface is closed. Accordingly, the pusher 328 can pass through the open lower surface and push out the molded plate 100 inserted therein.

The connection portion 220, which is located between the fixing cases 210 and couples the fixing cases 210, extends rearward from the outside of the fixing case 210. A pinion (P) is provided at the end of the connecting portion 220, and the pinion (P) engages with a rack (R) that moves linearly by the operation of the cylinder (C). Therefore, the rack (R) moves in a straight line due to the operation of the cylinder (C), the pinion (P) meshed with the rack (R) rotates to rotate the connection part 220, and the fixing part coupled to both sides of the connection part 220 Case 210 rotates around connection portion 220 about its central axis. As the connection part 220 rotates, the first fixing case 211 and the second fixing case 212 change their positions and are inverted.

Figure 4 shows a flow chart showing the operation of the inversion section in the nurungji conveyor according to the present invention.

The inversion unit 200 reverses and transfers the molded plate 100 moving along the transfer line 310 from one transfer line 310 to the other transfer line 310, and is located on both sides of the transfer line 310. It is placed.

The operation sequence of the inversion unit 200 that moves the molding plate 100 will be described with reference to FIG. 4.

As shown in Figure 4 (a), the initial state is the first fixed case 211 in the inversion section 200 (hereinafter referred to as the right inversion section) disposed on the right side of the transfer line 310. 311), the second fixing case 212 is located at the front end of the second transfer line 312, and the first fixing case 211 is located in the inversion unit 200 (hereinafter referred to as the left inversion unit) disposed on the left. ) is located at the rear end of the second transfer line 312, and the second fixed case 212 is located at the front end of the first transfer line 311. In addition, the pusher 328 in the right inversion section 200 is located at the rear end of the first transfer line 311, and the pusher 328 disposed in the left inversion section 200 is located at the rear end of the second transfer line 312. do. At this time, the closed surface 213 of the first fixing case 211 on both sides located at the upper part of the pusher 328 is positioned upward.

As shown in FIG. 4(a), pushers 328 on both sides push the molding plate 100 and insert it into the second fixing case 212 on both sides.

As shown in FIG. 4(b), the pusher 328 inserts the forming plate 100 into the second fixing case 212 on both sides and then retreats.

As shown in FIG. 4 (c), both connection parts 220 rotate to transfer the molded plate 100 inserted into the second fixing case 212 to the rear end of another transfer line 310. The second fixed cases 212 on both sides into which the molded plate 100 is inserted rotate in a trajectory of an upper half circle, and the first fixed cases 211 on both sides into which the molded plate 100 is not inserted rotate in a trajectory of a lower half circle. .

As shown in FIG. 4(d), the pushers 328 on both sides move forward and pull out the molded plates 100 inserted inside the second fixing cases 212 on both sides and seat them on the rear ends of the transfer lines 310 on both sides. At the same time, the molded plate 100 at the tip of the transfer line 310 on both sides is inserted into the first fixing case 211 on both sides.

As shown in FIG. 4(e), the pusher 328 inserts the forming plate 100 into the first fixing case 211 on both sides and then retreats.

As shown in FIG. 4(f), both connection parts 220 rotate in the opposite direction to the rotation direction of FIG. 4(c) to transfer the molded plate 100 inserted inside the first fixed case 211 to another transfer line 310. ) and move it to the rear end. The first fixed cases 211 on both sides into which the molded plate 100 is inserted rotate in a trajectory of a lower half circle, and the second fixed cases 212 on both sides into which the molded plate 100 is not inserted rotate in a trajectory of an upper half circle. .

Again, as shown in FIG. 4 (a), the pushers 328 on both sides move forward and pull out the molded plates 100 inserted inside the first fixing cases 211 on both sides and place them on the rear ends of the transfer lines 310 on both sides. At the same time, the molded plate 100 at the tip of the transfer line 310 on both sides is inserted into the second fixing case 212 on both sides.

By repeating the above sequence, the inversion unit 200 can continuously transfer the molded plate 100 from one transfer line 310 to another transfer line 310. The present invention is provided with two fixing cases 210, so that the molding plate 100 is inverted and moved each time the connecting portion 220 rotates. 4(c) and 4(f), even if the connecting portion 220 rotates forward or reverse, the molding plate 100 is inserted inside one of the fixed cases 210, so the rotating plate 114 can be transferred to another. Since it can be moved to line 310, unnecessary idling does not occur and power consumption is reduced.

In addition, the closed surface 213 of the fixing case 210 on one side of the inversion part 200 is located in opposite directions, so that the open surface of the fixing case 210 located on the upper part of the pusher 328 always faces downward. Therefore, the pusher 328 can push the molded plate 100 while freely passing through the inside and outside of the fixing case 210.

The transfer unit 300 is composed of a transfer line 310 along which the molded plate 100 moves along a path and a transfer device 320 that pushes the molded plate 100.

As shown in FIG. 1, the transfer line 310 is divided into a first transfer line 311 disposed at the front and a second transfer line 312 disposed at the rear. In addition, as shown in FIGS. 1 and 9, the furnaces 313 provided on both sides in the longitudinal direction of the transfer line 310 provide heating power to the moving forming plate 100 to heat the ingredients of the scorched rice. Since the transfer line 310 adopts a conventional technical configuration, detailed description is omitted.

Figure 5 is a perspective view showing the transfer device in the scorched paper conveyor according to the present invention, and Figure 6 is an exploded view showing the configuration of the transfer device in the scorched paper conveyor according to the present invention.

The transfer device 320 pushes the molding plate 100 and provides driving force for the molding plate 100 to move along the transfer line 310. The molded plate 100 moves along the transfer line 310 by the transfer device 320 and is simultaneously inserted into and extracted from the fixed case 210.

As shown in Figure 1, the transfer device 320 is located at the rear end of each transfer line 310 and is located at the bottom of the fixing case of the inversion unit 200.

As shown in FIGS. 5 and 6, the transfer device 320 includes a plate-shaped transfer frame 321 and a first guider disposed in the longitudinal direction of the transfer line 310 on the transfer frame 321. 322), a first belt fixing part 323 that is coupled to the transfer frame 321 and holds and secures a portion of the timing belt 327, a cylinder (C) disposed on the transfer frame 321, and the cylinder (C) ) and a guide plate 324 on one side and coupled at the bottom to slide with the first guider 322, and a second guider disposed in the longitudinal direction of the transfer line 310 on the guide plate 324 ( 325), a timing pulley 326 provided in two pairs on one side of the guide plate 324, a timing belt 327 wound around the timing pulley 326, and sliding with the second guider 325 at the bottom It consists of a pusher 328 that is coupled so as to be possible, and a second belt fixing part 329 that is provided on one side of the pusher 328 and is fixed by holding a part of the timing belt 327.

The transfer frame 321 is disposed at the lower part of the inversion unit 200. A cylinder (C) and a first belt fixing part 323 are coupled and fixed on the transport frame 321, and a first guider 322 is arranged in the longitudinal direction of the transport line 310.

The first guider 322 is coupled to the lower part of the guide plate 324 so that the guide plate 324 slides in the longitudinal direction of the transfer line 310.

A second guider 325 is disposed on the guide plate 324 in the longitudinal direction of the transfer line 310, is coupled to the cylinder C on one side, and is provided with two timing pulleys 326 on the other side.

The timing belt 327 is wound around the timing pulley 326, is fixed to the first belt fixing part 323 of the transfer frame 321 at the lower part, and is fixed to the second belt fixing part 329 of the pusher 328 at the upper part. ) is fixed.

The pusher 328 is slidably coupled to the second guider 325 on the guide plate 324, and a second belt fixing portion 329 is formed on one side. The pusher 328 pushes and pulls out the molded plate 100 inserted into the fixed case 210, and inserts the molded plate 100 located at the tip of the transfer line 310 into the fixed case 210.

Figure 7 is a perspective view showing the operation of the transfer device in the nurungji conveyor according to the present invention.

The operation of the transfer device 320 will be described with reference to FIGS. 5 to 7.

When the cylinder C pushes the guide plate 324 toward the front end of the transfer line 310, the guide plate 324 moves along the first guider 322 on the transfer frame 321. As the guide plate 324 moves, the timing belt 327, a part of which is fixed at the lower part on the transfer frame 321 by the first belt fixing part 323, is connected to the timing pulley ( 326). The rotating timing pulley 326 moves the upper part of the timing belt 327 in the direction of the front end of the transfer line 310, and a push bar that catches and fixes a part of the moving timing belt 327 with the second belt fixing part 329. 328 moves along the second guider 325 on the guide plate 324.

Through the combination of the above configuration, the pusher 328 moves twice as fast as the speed of the cylinder (C) along the second guider 325, and the stroke (B) of the pusher is also twice the distance of the stroke (A) of the cylinder. has Therefore, the molded plate 100 can be quickly seated on the transfer line 310. The stroke (A) of the cylinder can be reduced, reducing the volume and enabling efficient arrangement of facility space.

The molding plate 100 moves along the transfer line 310 and enters and leaves each manufacturing process repeatedly to manufacture the scorched paper. After the nurungji material is seated and closed on the inner surface of the molded plate 100, heat power is supplied from the furnace 313 provided in the longitudinal direction of the transfer line 310. As the ingredients of the Nurungji move along the transfer line 310, they are continuously supplied with fire power and are cooked, thereby completing the Nurungji.

Here, since the furnace 313 is provided on both sides in the longitudinal direction of the transfer line 310, heat force is applied intensively to both sides of the molded plate 100. Both sides of the nurungji material inside the molding plate 100 receive enough heat to be heated and cooked, but the front and rear edges of the nurungji material located in the center of the transfer line 310 may not be fully cooked because the heat power does not reach enough.

Therefore, in the nurungji conveyor according to the present invention, the molding plate 100 is further provided with a rotating plate 114 on the inner surface on which the nurungji material is seated, so that sufficient thermal power can be applied by rotating and heating the nurungji material, making it possible to manufacture high quality nurungji. there is.

Figure 8 is an exploded perspective view of the molded plate in the scorched paper conveyor according to the present invention, and Figure 9 is a plan view and cross-sectional view showing the molded plate and the rotating ring in the scorched paper conveyor according to the present invention.

As shown in Figures 8 and 9, the upper plate 110 and lower plate 120 of the molded plate 100 according to the present invention include a main body 111, a first washer 113 coupled to the main body 111, and a rotating body, respectively. It consists of a rotating plate 114 provided to enable this.

In addition, the rotating plate 114 includes a stainless steel plate 115 in contact with the material of the nurungji on the inner surface, an aluminum plate 116 that is coupled in surface contact with the outer surface of the stainless steel plate 115 and to which heat force is applied, and a furnace 313 ) The thermal power of the outer aluminum plate 116, which has high thermal conductivity, is quickly transferred to evenly transfer heat to the center and edges of the rotating plate 114, and the inner stainless steel plate 115 makes it possible to produce scorched rice hygienically. there is. At this time, the stainless steel plate 115 and the aluminum plate 116 are coupled to the main body 111 with a first washer 113 and a second washer 118.

The main body 111 of the upper plate 110 and the lower plate 120 is coupled to be openable and closed by a coupling means such as a hinge, and a hole 112 is formed on the inside.

The diameter of the stainless steel plate 115 is formed to be equal to or smaller than the diameter of the hole 112 formed inside the main body 111 and is inserted into the hole 112 of the main body 111. Since the inside comes in contact with the nurungji material, it is made of stainless steel for hygiene management.

The aluminum plate 116, which is coupled to the outer surface of the stainless steel plate 115 in surface contact, is a plate on which thermal power supplied from the furnace 313 is applied and is formed to be smaller than the outer diameter of the stainless steel plate 115. It is made of aluminum material with high thermal conductivity and transmits thermal power to the ingredients of the scorched rice. Here, the aluminum plate 116 of the upper plate 110 is further provided with a latch 117 on its outer surface.

The first washer 113 coupled to the main body 111 has an inner diameter smaller than the diameter of the stainless steel plate 115 and larger than the diameter of the aluminum plate 116, and an outer diameter larger than the diameter of the stainless steel plate 115. is formed The aluminum plate 116 is located in the hole 112 formed inside the first washer 113. Accordingly, the stainless steel plate 115 inserted into the hole 112 of the main body 111 is caught by the first washer 113 to prevent it from being separated outward from the main body 111.

The second washer 118 is combined with the stainless steel plate 115 and the aluminum plate 116, and has an inner diameter smaller than the diameter of the aluminum plate 116 and an outer diameter larger than the inner diameter of the first washer 113. formed in a large way. Accordingly, the second washer 118 is caught by the first washer 113 and thus prevents the stainless steel plate 115 and the aluminum plate 116 from being separated in the inner direction of the main body 111.

As shown in FIG. 9, the second washer 118 is formed with a plurality of protrusions 119 that protrude outward along the outer circumferential direction. In addition, a rotating ring 314 extending inward to contact the protrusion 119 is formed on the transfer line 310 along which the forming plate 100 is moved. The rotating ring 314 may be provided singly or in plural pieces along the transfer line 310.

As the molded plate 100 moves along the transfer line 310, the protrusion 119 is caught on the rotating ring 314 provided on the transfer line 310. The rotating ring 314 applies a force to the rotating plate 114 opposite to the moving direction of the forming plate 100, and a moment is generated in the rotating plate 114 to rotate. After the protrusion 119 is separated from the end of the rotating ring 314, rotation is stopped.

The ingredients of the nurungji located on the inner surface along the rotating plate 114 rotate while moving along the transfer line 310. Since the furnace 313 is arranged on both sides in the longitudinal direction of the transfer line 310, the part where the thermal power is concentrated is sufficiently heated, but the ingredients of the scorched paper located between both sides of the furnace 313 may be undercooked.

Therefore, as the forming plate 100 moves along the transfer line 310, the rotating plate 114 rotates single or multiple times at a certain angle by the rotating ring 314, so that the material of the scorched paper located between both sides of the furnace 313 The stove is rotated to receive concentrated fire power and is sufficiently heated to produce high-quality scorched rice.

The nurungji conveyor according to the present invention is composed of two fixing cases 210 in which one inversion part is inserted and withdrawn from the four fixing cases 210 arranged on both sides of the transfer line 310 at the same time. Because this is achieved, a continuous manufacturing process of scorched rice is possible without unnecessary power consumption.

In addition, in the transfer device 320 of the present invention, the stroke (B) of the pusher that pushes the mold plate 100 is twice the cylinder stroke (A), so the volume of the transfer device 320 can be reduced and efficient space arrangement can be achieved. possible.

Furthermore, since the molding plate 100 of the present invention is further equipped with a rotating plate 114 for rotating the ingredients of the Nurungji, the ingredients of the Nurungji are rotated and supplied with uniform heating power to all areas, thereby enabling the manufacture of Nurungji with improved quality by sufficiently heating it. possible.

100: Molded plate
110: Top plate 111: Body 112: Hole 113: First washer
114: Rotating plate 115: Stainless steel plate 116: Aluminum plate
117: Clasp 118: Second washer 119: Protrusion
120: Lower plate
200: Inverted part
C: Cylinder R: Rack P: Pinion
210: Fixed case 211: First fixed case 212: Second fixed case
213: Closed surface 214: Side part 215: Roller 216: Rear
220: Connection part
300: Transfer department
310: Transfer line 311: First transfer line 312: Second transfer line
313: Brazier 314: Rotating ring
320: Transfer device 321: Transfer frame 322: First guider 323: First belt fixing unit
324: Guide plate 325: Second guider 326: Timing pulley 327: Timing belt
328: Push bar 329: Second belt fixing unit
A: Stroke of cylinder B: Stroke of push rod

Claims (6)

A plurality of molding plates 100 including an upper plate 110 and a lower plate 120, on which the nurungji material is seated on the inner surface of the lower plate 120, and moving along a transfer line 310;
It is provided with two transfer lines 310, and a furnace 313 is provided in the longitudinal direction at the bottom of each transfer line 310, and a transfer device 320 moves the molded plate 100 along the transfer line 310. ) is a transfer unit 300 provided at the rear end of each transfer line 310;
An inversion unit 200 that inverts the molded plate 100 and transfers it to another transfer line 310;
In the scorched paper conveyor including,

The inversion unit 200 is
Two rectangular parallelepiped-shaped fixing cases 210 into which the forming plate 100 is inserted and supported; And a connection part 220 that connects the two fixing cases 210,
The fixing case 210 has a closed side portion 214 parallel to the transfer line 310, and a plurality of rollers 215 are formed on the inside of the side portion 214, respectively.
The first fixing case 211 and the second fixing case 212 provided in one of the inversion units 200 have their upper and lower surfaces opened and closed in opposite directions,
Outside the connection portion 220, a rack (R) and a pinion (P) are disposed that move by the operation of the cylinder (C), so that the two fixing cases 210 are connected to the two transfer lines according to the operation of the cylinder (C). It is rotated at 310, and either the first fixed case 211 or the second fixed case 212 always has the molding plate 100 inserted when rotating, and is placed on both sides of the transfer line 310. A nurungji conveyor in which the insertion and withdrawal of the molded plate 100 is carried out simultaneously in the four fixed cases 210.
According to paragraph 1,
The front of the fixing case 210 is open, and the pusher 328 of the transfer device 320 penetrates the pusher through hole 217 at the rear 216 to transfer the molded plate 100 to the transfer line 310. Nurungji conveyor that pushes.
According to paragraph 2,
The transfer device 320 is
A guide plate 324 having a pair of timing pulleys 326 disposed on one side and a timing belt 327 wound around the timing pulleys 326;
A first guider 322 that is coupled so that the guide plate 324 slides, a first belt fixing part 323 that holds and secures a part of the timing belt 327, and a cylinder that pushes the guide plate 324 ( C) a transfer frame (321) consisting of;
Includes a pusher 328 that is coupled to the cylinder C and consists of a second belt fixing part 329 that holds and secures a part of the timing belt 327,
It moves in the longitudinal direction of the transfer line 310 and provides a driving force for the molded plate 100 to move in the transfer line 310, and penetrates the inside from the outside of the fixed case 210 to move the molded plate 100 through the transfer line. It is seated at (310), and the stroke (B) of the pusher is twice the stroke (A) of the cylinder.
According to paragraph 1,
A plurality of protrusions 119 are formed to protrude outward on the rotating plate 114, which is formed to contact the material of the nurungji in the molding plate 100.
The transfer line 310 is provided with a rotating ring 314 extending toward the inside of the transfer line 310 so that the molded plate 100 comes into contact with the protrusion 119 when moving in the transfer line 310,
A nurungji conveyor in which the protrusion 119 is caught by the rotating ring 314 and the rotating plate 114 rotates.
According to paragraph 4,
As the forming plate 100 moves in the transfer line 310, the protrusion 119 is caught by the rotating ring 314, so that the rotating plate 114 rotates, and the protruding portion 119 is connected to the end of the rotating ring 314. The nurungji conveyor stops rotating after being separated from the .
According to paragraph 1,
The upper plate 110 or lower plate 120 of the molded plate 100 has a stainless steel plate 115 on the inner surface where the nurungji material comes into contact;
It includes an aluminum plate 116 made of aluminum coupled to the outside of the stainless steel plate 115,
The stainless steel plate 115 and the aluminum plate 116 are a nurungji conveyor fixed to the main body 111 by a washer.