KR200288195Y1 - Automatic wheat plaster manufacturing apparatus - Google Patents

Abstract

The present invention relates to an automatic pancake manufacturing apparatus for automatically and continuously manufacturing pancakes (flat baked cookies).

The present invention is provided with a molding space (101a) to be movable along the chain 11 that is rotated by a predetermined distance with respect to the chain gear 112 of both ends of the shaft 111 rotatably installed into the frame (1) The lower support frame 101 is arranged at regular intervals, and while reaching the raw material supply part 12, the hinged upper cover 102 is gradually connected to allow the withdrawal of the confectionery baked from the lower support frame 101 and the injection of the raw material. A plurality of forming molds 10 which are open-operated to the heating part 13 and gradually closed while going toward the heating part 13 so that the upper and lower parts are evenly heated; With respect to each of the molding molds 10 which are gradually opened to the raw material supply part 12, an appropriate amount of the raw materials from the raw material dough apparatus 21 is passed through the nozzles 22 positioned above the molding molds 10. A raw material supply blocker 20 for periodically supplying and blocking; The auxiliary material input device 30 is configured to periodically supply and block an appropriate amount of auxiliary material with respect to the raw material injected into the mold 10.

Description

Automatic wheat plaster manufacturing apparatus

The present invention relates to an automatic pancake manufacturing apparatus for automatically and continuously manufacturing pancakes (flat baked cookies).

A pancake is a flat confectionery thinly baked using a predetermined mold by kneading flour or rice flour or a mixture thereof, and the pancake is supplied as a flat confectionery in a flat state or in a rounded state.

However, in the manufacture of the whole bottle, the manual structure was used by the operator to artificially control all the molding operations such as supplying the dough to the mold or withdrawing the baked confectionery by using a system suitable for small quantity production, not an automatic system capable of producing large quantities. Therefore, the cumbersome work of manufacturing the pancake is natural, and it is difficult to produce a large number of pancakes, which causes the increase in the manufacturing cost.

Therefore, the present invention was devised to solve such problems in the related art, and an object of the present invention is to rotate and open and close the molding mold according to the manufacture of the whole bottle, supply and cut off the raw materials to the molding mold, and input of accessory materials. And it is to provide an automatic pancake production apparatus that can be mass produced more simply, easily and quickly by making each manufacturing process such as heating of the raw material automatically.

1 is a schematic perspective view of a manufacturing apparatus according to the present invention;

Figure 2 is a schematic side view showing a manufacturing process of a pancake according to the present invention;

Figure 3 is a plan view showing an excerpt of supply of raw materials to the mold and the supply of auxiliary materials in the raw material supply unit according to the present invention;

Figure 4 is an excerpt top view showing a power generation structure of the present invention;

5a to 5d show respective operating states of a gear set showing one stroke of the chain;

6A and 6B are excerpted longitudinal cross-sectional views showing an extraction state of raw materials from a raw material kneading apparatus according to the present invention to a compressor of a raw material supply device and a side view of the operation state thereof;

7A and 7B are excerpted longitudinal sectional views and operation state side views for supplying and discharging raw materials stored in a compressor of a raw material supply apparatus according to the present invention to a molding die;

Figure 8 is an excerpt side cross-sectional view of the auxiliary material input device according to the present invention;

9 is an excerpted side cross-sectional view of a raw material kneading apparatus according to the present invention;

Figure 10 is an excerpted side view showing a state in which the piston lifting operation interval according to the present invention is stably supported by the operation lever having a brace between the completion of the whole bottle manufacturing operation.

※ Code explanation about main part of drawing ※

1: frame 10: molding frame

11: chain 12: raw material supply

13: heating part 20: raw material supply interrupting device

21: raw material kneading device 22: nozzle

23: compressor 30: auxiliary material input device

40: safety lever 101: lower support frame

102: upper cover 103: extension piece

112: chain gear 121: guide for opening and closing operation

122: turning guide plate 131: burner

140: motor 142: drive shaft

143: drive plate 144: crankshaft

145: crank 146, 148: first and second ratchet gear

149: lever 150: chain gear shaft

151: third ratchet gear 211: kneading pan

212: stirring blade 213: stirring shaft

214: motor 231: raw material supply pipe

232: raw material discharge pipe 233: operating rod

234: passage 235: lifting rod

236: piston 238: shaft

239 and 240: between lifting and lowering operations 241: driven shaft

242: cam plate 243: rotating plate

244,245: spring 246: raw material supply regulator

301: holder 302: auxiliary material container

302a: discharge hole 303: shaft

304: rotating plate 304a: injection hole

305: operation rod 306: solenoid

401: brace

Technical features of the present invention for achieving this object, the lower support frame with a molding space is arranged at regular intervals so as to be able to move along the chain that is rotated by a certain distance with respect to the chain gear of both ends of the shaft rotatably installed into the frame body When the upper cover is installed, the hinged upper cover is gradually opened to be able to take out the confectionary baked from the lower support frame and inject the raw material while reaching the raw material supply part, and gradually closes the upper and lower parts evenly while going toward the heating part. A plurality of forming molds; A raw material supply blocking device for periodically supplying and blocking an appropriate amount of raw material from the raw material dough apparatus through a nozzle located above the forming mold for each of the molding molds which are gradually opened and operated while reaching the raw material supply portion; An auxiliary material input device for periodically supplying and blocking an appropriate amount of auxiliary material with respect to the raw material injected into the molding die is provided.

Hereinafter, with reference to the accompanying drawings, an embodiment according to the automatic pancake manufacturing apparatus of the present invention will be described in detail as follows.

First, Figure 1 is a perspective view showing a schematic overall configuration of the automatic automatic production apparatus according to the present invention, Figure 2 is a schematic side cross-sectional view thereof.

As shown in the drawing, the manufacturing apparatus supplies a plurality of molds 10 for baking whole bottles, and raw materials for supplying and blocking the appropriate amount of raw materials by sucking and discharging dough raw materials from the dough dough apparatus. And a blocking device 20 and an accessory material input device 30.

The forming die 10 is moved with respect to the chain 11 which is engaged between the chain gears 112 of both end shafts 111 rotatably installed in the frame 1 as shown in FIG. It is arranged at regular intervals as possible, and at the same time, a lower support frame 101 having a molding space 101a formed thereon, and an upper cover which opens and closes around a hinge (not shown in the drawing) to the upper portion of the lower support frame 101 ( 102).

And the mold 10 is able to take out the confectionery baked from the molding space 101a of the lower support frame 101 and supply the molding raw material while reaching the raw material supply unit 12 that is open to the upper front of the frame (1). The upper cover 102 is gradually opened and operated so that the upper cover 102 is gradually closed to move toward the heating unit 13 so that the upper and lower parts are evenly heated.

On the other hand, the molding mold 10 which is opened and closed by the raw material supply part 12 while turning along the chain 11 has an extension piece 103 protruding from the upper cover 102 of the molding die 10 to the raw material supply part 12. The upper cover 102 is opened and closed with respect to the hinged lower support frame 101 while moving along the opening / closing operation guide 121 installed in the bar. As shown in FIGS. 2 and 3, the upper cover 102 is rounded. In the open and closed induction sections 121a and 121b, which are bent, the opening and closing sections are gradually opened or closed. The top cover is kept open so that the material can be inserted, and the guide plate 122 is provided around the outer circumference of the chain 11 as shown in FIG. 2 outside the section for opening / closing operation guide 121. Extension 103 of 102 is stably supported The copper is arbitrary opening is prevented.

The heating part 13 is dividedly disposed on the upper and lower portions of the turning path of the forming mold 10 so as to evenly heat the lower support frame 101 and the upper cover 102 of the forming mold 10 pivoted by the chain 11. The burner 131 includes a plurality of burners 131, and the gas supplied through the supply pipe 132 connected to the gas supply source is controlled by the operation of each valve 133 as shown in FIG. The raw materials contained in the mold 10 are slowly heated and baked while passing through the burners 131, and the heating temperature of each burner 131 is a moving speed of the mold 10 and the number of installation of the burners. It is appropriately adjusted in advance in consideration of the like.

As shown in FIG. 3, the chain 11 includes a drive plate 143 rotatably installed with respect to a drive shaft 142 that is rotated by receiving power from the motor 140 and the reducer 141, and the drive plate 142. The crank 145 having one end eccentrically installed on the crank shaft 144 and provided with a first ratchet gear 146 coaxially with the first ratchet gear 146 at the other end of the crank 145. A third ratchet gear 148 supported by the shaft 147 and a third ratchet installed on the chain gear shaft 150 to be fixedly connected with the lever 149 to engage with the second ratchet gear 148 of the crank 145. By the rotation operation of the gear 151, it is moved and operated by a fixed distance.

Here, the first ratchet gear 146 and the second ratchet gear 148 are non-rotated when the third ratchet gear 151 is forcibly rotated by a predetermined distance, and the third ratchet gear 151 is rotated. In order to be rotated only when moved in order to be installed on each axis 143, 147, 150, which will be described in more detail below with reference to FIGS. 5A to 5D.

5A and 5D are respective operating views for explaining the rotational state of the chain gear shaft 150 provided with the third ratchet gear 151 at each reciprocating motion of the crank 145. As shown in FIG. Only the third ratchet gear 151 provided on the chain gear shaft 150 when the reciprocating movement about the crank shaft 142 eccentrically rotated by the drive plate 143 by one second ratchet gear 148 Only (clockwise in the drawing) is rotated for a certain distance.

For example, the third ratchet gear 151 is rotated by a predetermined distance only when the crank 145 is moved downward from the state of FIGS. 5A to 5C by the rotation of the driving plate 143. In this case, the second ratchet gear ( 148 and the first ratchet gear 146 is not rotationally operated, and only when the crank 145 is moved upward again as shown in Fig. 5d, it is idling with the third ratchet gear 151, in this case, The third ratchet gear 151 is stopped from rotating.

Therefore, the chain 11 receiving power from the chain gear shaft 11 is pivotally moved by a predetermined pitch by the third ratchet gear 151 rotated by a predetermined distance during the reciprocating motion of the crank 145.

As shown in Fig. 1 and Fig. 3, the raw material supply device 20 is a raw material dough device 21 for each forming mold 10 in which the upper cover 102 is opened while gradually reaching the raw material supply unit 12. It is for periodically supplying and blocking the appropriate amount of raw material through the nozzle 22 located above the mold 10, and includes a compressor 23 for the suction and discharge of the raw material.

The nozzle 22 is dividedly formed to supply the raw material discharged from the compressor 23 to be described later to one or more molding spaces 101a formed by the lower support frame 101 of each forming mold 10 moved to the lower part thereof. As it is, it is configured to interconnect with the discharge pipe 232 to be described below.

The compressor 23 is discharged and conveyed to the raw material supply pipe 231 and the nozzle 22 for delivering the raw material from the raw material kneading apparatus 21 as shown in Figs. 1, 6A, 6B, 7A, and 7B. A raw material discharge pipe 232 is provided, and an operating rod 233 having a passage 234 for supplying and discharging raw materials is installed therein.

The lifting rod 235 is connected to the operation rod 233 to rotate the wheel for a predetermined period, and the piston 236 for compressing the raw material is elevated with the piston rod 237 inside the compressor 23. It is connected to operate.

And the lifting rod 235 and the piston rod 237 are respectively connected to one end of the lifting operation interval (239, 240) to perform the seesaw action around the axis 238, where the lifting operation of one side 239, the sliding roller 239a installed at the other end is pressed in contact with the cam plate 242 provided at the driven shaft 241, and the driven shaft 241 is at the other end of the lifting operation 240 on the other side. The pressing operation tool 243a eccentrically provided by the rotating plate 243 of the rotary plate 243 is provided so that mutually pressing operation is possible.

Accordingly, as the compressor 23, the lifting plate 239 and 240 between the lifting and lowering operations about the shaft 238 is contacted by the cam plate 242 and the rotating plate 243 provided on the driven shaft 241. FIGS. 6B and 7B. When the passage 234 coincides with the raw material supply pipe 231 as shown in FIG. 6A by the interaction of the operating rod 233 and the piston 236 connected thereto by mutual seesaw action, the raw material dough device 21 When a proper amount of raw material is periodically discharged and supplied to the compressor 23 and at the same time the passage 231 coincides with the raw material discharge pipe 232 as shown in FIG. 7A, the raw material is compressed and supplied to the nozzle 22.

On the other hand, the lifting operation interval 239 connected to the lifting rod 235 and the lifting operation interval 240 connected to the piston rod 237 are further provided with springs 244 and 245 at the front and rear ends thereof to form a cam plate. It is preferable to configure the seesaw operation according to the forced pressing operation of the 242 and the rotating plate 243 to be made more smoothly.

Further, the raw material supply amount adjusting hole 246 is further installed as the lifting operation 240 connected to the piston rod 236 to adjust the compression distance of the piston 236 according to the seesaw operation of the lifting operation 240 to control the nozzle. It is very preferable to configure so that the compression amount of the raw material supplied to (21) may be adjusted suitably.

On the other hand, the driven shaft 241 provided with the cam plate 242 and the rotating plate 243 for the seesaw operation of each lifting operation (239, 240) is a bevel gear 241a of one side as shown in FIG. The bevel gear 142a of the drive shaft 142 is mutually driven.

As shown in FIG. 1, FIG. 3, and FIG. 8, the auxiliary material input device 30 for periodically supplying and blocking an appropriate amount of auxiliary material to the raw material injected into the lower support frame 101 of the molding die 10 is The auxiliary material storage container 302, which is installed to be connected to the fixing base 301 to be positioned above the molding die 10, and has an auxiliary material discharge hole 302a formed at the bottom of the molding frame 10, and the auxiliary material storage container 302 Rotating plate 304 which is installed to be rotatable about the shaft 303 and has the same number of input holes 304a formed on the same circumference as the auxiliary material discharge hole 302a and is supported by the auxiliary material, When the auxiliary material is introduced, the auxiliary material input hole 304a of the rotating plate 304 is made to coincide with the discharge hole 302a of the auxiliary material storage container 302 so that the auxiliary material is injected into the molding mold 10. To fall to the lower support frame 101, and when the rain is not put in place with the discharge hole (302a) It is comprised by the solenoid 306 containing the rotation operation rod 305 for operating so that the input of ancillary material may be stopped.

In the present invention, the auxiliary material to be put in the auxiliary material container 302 is to add flavor of the whole bottle, and various materials such as laver powder, hodo, peanut, pumpkin seed, almond and the like are selected or mixed.

On the other hand, as shown in Figure 9, the raw material dough apparatus 21 is. The stirring shaft 213, which is provided with a plurality of stirring vanes 212 for stirring the raw materials, is driven inside the kneading container 211 in which the mold 1 is spaced apart from the mold 1. The raw material supply pipe 231 for supplying the raw material to the compressor 23 is provided at the lower portion of the kneading container 211 so as to be rotated in order to prevent the raw material from hardening.

And, as shown in FIG. 10, the lifting operation 240 for compressing and operating the piston 236 has a safety lever provided with a support 401 so that the lowering of the piston 236 is prevented when the confectionery is unmolded. 40) It is comprised so that the suction of the raw material by the downward movement of the piston 236 will not be made from the raw material kneading apparatus 21 to the compressor 23 by being supported by operation.

In FIG. 1, reference numeral 50 denotes a control box provided with various switches.

Referring to the manufacturing state of the front disease using the manufacturing apparatus of the present invention configured as described above are as follows.

First, as shown in FIG. 10, a dough material such as flour or rice flour, which is a raw material of a whole bottle, is put into the kneading container 211 of the raw material dough apparatus 21, and the motor 214 is driven to stir the blades 212 of the stirring shaft 213. By stirring the dough raw material evenly so as not to harden. Here, the dough raw material is preferably such that the state of the dough is maintained to the extent that can be easily extruded through the nozzle as described later.

In this state, when the machine is operated by operating various switches of the control box 50, as shown in FIG. 2, the chain 11 engaged by both chain gears 112 rotated by receiving power from the motor 40, is rotated. The molding die 10 in which the lower support frame 101 is fixed to this chain 11 is pivoted together.

In addition, the molding frame 10 which is pivotally moved along the chain 11 has a driving plate 143 of the driving shaft 142 that receives power from the motor 40 as shown in FIGS. 4 and 5a, 5b, 5c, and 5d. The third ratchet gear 151 provided on the chain gear shaft 150 to be engaged with the second ratchet gear 148 of the crank 145 reciprocated about the crank shaft 144 by the rotation of It is moved by a predetermined distance by being periodically rotated by a cycle, the molding die 10 is rotated along the chain 11 is an extension piece 103 formed of the upper cover 102 of the raw material supply portion 12 The upper cover 102 is slowly opened or closed while moving along the opening / closing operation guide 121.

That is, as shown in Figures 2 and 3, the upper cover 102 of the molding die 10 is forced along the opening tool section 121a, the extension piece 103 formed thereon is an upward bending section of the opening and closing operation guide 121. It is gradually opened by being moved to and is moved to the lower part of the nozzle 22 while keeping the top cover 102 reliably open while passing through the straight opening holding section 121c.

At this time, one of the molding die 10 positioned below the nozzle 22 is temporarily stopped to receive the raw material into the molding space 101a of the lower support frame 101, and at the same time before reaching the nozzle 22 From the forming mold 10 in which the upper cover 103 is opened, the operator may pull out the baked whole bottle quickly.

In this state, if one mold 10 is moved to the lower part of the nozzle 22 and temporarily stopped, the raw material is rapidly compressed from the compressor 23 into the molding space 101a of the lower support frame 101 at this time. The bar is described as follows.

6A and 6B, the passage 234 of the operating rod 133 is blocked from the raw material discharge pipe 232 by the synergistic action of the lifting rod 235 connected to the lifting operation time interval 239 and the raw material supply pipe 231. When operating in communication with, the appropriate amount of raw material from the raw material dough device 21 by the lowering movement of the piston 236 connected to the lifting and lowering operation 240 and the piston rod 237 into the compressor 23 at this time. Will be inhaled.

And while the suction operation of the raw material is completed, the operation rod 233 is opened again so that the passage 234 communicates with the raw material discharge pipe 232 by the upward movement of the lifting rod 235 as shown in FIGS. 7A and 7B. In addition, while the piston 236 in the lowered state is pushed up by the upward action of the piston rod 237 again, the raw material sucked into the compressor 23 is forcibly compressed into the nozzle 22 through the discharge pipe 232. By the operation, a suitable amount of raw material is rapidly injected into the forming space 101a formed by the lower support frame 101 of the forming mold 10.

On the other hand, the operation in which the raw material is sucked out and discharged from the raw material dough device 21 through the compressor 23 with respect to one molding die 10 is operated in conjunction with each other, as shown in Figures 6b and 7b The rear end of each lifting operation 239 and 240 is forcibly pressed about the shaft 238 by sequentially contacting the cam plate 242 and the rotating plate 243 of the driven shaft 241 and correspondingly. By the mutual seesaw operation returned by the spring 244, 245 is to be made repeatedly repeatedly.

As described above, the injection of the raw material through the nozzle 22 is completed with respect to the mold 10 and the mold 10 is repeatedly performed by moving a predetermined distance along the chain 11. As the molding mold 10 which is moved after the injection of the raw material is made, the auxiliary material contained in the auxiliary material container 302 is advanced by the solenoid 306 through the auxiliary material input device 30 as shown in FIGS. 3 and 10. The rotating plate 304 is rotated about the shaft 303 by the operating rod 305 to be operated so that the injection hole 304a formed therein coincides with the discharge hole 302a of the auxiliary material container 302. The material falls to the upper portion of the raw material contained in the mold 10, and at the same time, when the drop of the auxiliary material is completed, the rotating plate 304 is reversely rotated by the operating rod 305 by the solenoid 306 action, the injection hole 304a is positioned to be displaced from the discharge hole 302a so that Falling is prevented.

And when the addition of the auxiliary material is completed, the forming mold 10, which is moved to the upper cover 102 in an open state again, as shown in FIGS. 2 and 3, the extension piece 103 of the upper cover 102 is a guide for opening and closing operation. While slowly closing the closed induction section 121b of the 121 and the closing mold 10 of the upper cover 102 is completed, the extension piece 103 continues to the outer peripheral surface of the chain 11. While stably guided by the turning guide plate 122 installed as it passes through the heating unit 13.

The forming molds 10 passing through the heating part 13 pass through each burner 131 divided into upper and lower parts, and the lower support frame 101 and the upper cover 102 are heated evenly, and the raw material injected therein is gradually As the baking mold, the raw material is baked well while passing through the heating unit 13 is continuously rotated while moving back and forth in the opening and closing operation guide 121 of the raw material supply unit 12 while sequentially moving the lower support frame ( The top cover 102 is opened with respect to 101, and the whole bottle is automatically manufactured through a series of processes in which the baked confectionery is taken out and the raw material re-injection operation is continuously performed.

On the other hand, if you want to adjust the injection amount of the raw material to the mold 10, as shown in Figure 6b and 7b is to adjust the raw material supply amount adjustment port 246 of the lifting operation 240 connected to the piston 236, For example, when the raw material supply control device 246 is moved downward, the lifting interval of the lifting operation 140 is reduced, and the arm shaft distance of the piston 236 is shortened. On the contrary, when the lifting operation is performed, the lifting interval of the lifting operation 240 is increased. As a result of this increase in length, the compression distance of the piston 236 becomes long, and thus the amount of raw material suction into the compressor 23 through the raw material kneading device 21 is reduced or increased.

Therefore, the present invention, while the mold 10 is moved by a predetermined distance along the chain 11, the upper cover 102 of the mold 10 by the opening and closing operation guide 121 of the raw material supply unit 12 is Through the series of manufacturing processes in which the raw material is evenly heated while passing through the heating unit 13, as well as withdrawing the baked confectionery while opening and closing around the lower support frame 101, the injection of new raw materials and the incorporation of additional ingredients are performed. The plague of is prepared automatically.

On the other hand, if you want to stop the machine for a long time after the manufacture of the front bottle, as shown in Figure 10 re-climbing the safety lever 40 to the upper and lower lifting operation 240 connected to the piston 236 by the brace rod 401 By supporting it so as not to sag downward, it is possible to reduce the waste of the raw material by operating the raw material according to the downward movement of the piston 236 so as not to be sucked from the raw material kneading device 21 to the compressor 23, It will solve the unsanitary problem caused by the leakage of raw materials.

And the moving speed of the chain in the present invention can be adjusted freely, and the molding space 101a formed of the lower support frame 101 of the molding die 10 is shown in the figure is about four, but need not be limited thereto. Of course, the nozzle 22 is also designed in accordance with the number of the molding space (101a).

As described above, according to the present invention, since a series of processes are automatically performed according to the manufacture of the whole bottle, the workability is easy and productivity is improved as well as hygienic manufacturing is possible.

Although the present invention has been described with reference to the accompanying drawings, it is not limited thereto, and many design changes may be made without departing from the scope of the following claims.

Claims (10)

Lower support frame provided with a molding space 101a to be movable along the chain 11 that is rotated by a predetermined distance with respect to the chain gear 112 of both end shafts 111 rotatably installed in the frame (1) ( 101 is arranged at regular intervals, and while reaching the raw material supply unit 12, the hinged upper cover 102 is gradually opened to allow the withdrawal and injection of raw materials baked from the lower support frame 101. And a plurality of forming molds 10 which are gradually closed while going toward the heating part 13, and the upper and lower parts are heated evenly; With respect to each of the molding molds 10 which are gradually opened to the raw material supply part 12, an appropriate amount of the raw materials from the raw material dough apparatus 21 is passed through the nozzles 22 positioned above the molding molds 10. A raw material supply blocker 20 for periodically supplying and blocking; Full automatic bottle manufacturing apparatus, characterized in that consisting of an auxiliary material input device 30 for periodically supplying and blocking an appropriate amount of auxiliary material with respect to the raw material injected into the mold 10. According to claim 1, wherein the upper cover 102 of the forming mold 10 further extends the extension piece 103 and the raw material supply portion 12 is further provided with an opening and closing operation guide 121 to the extension piece By moving the 103 along the guide 121 for opening and closing operation, the upper cover 102 is sequentially opened and closed at the raw material supply part 12, and out of this section, the chain 13 11) by the revolving guide plate 122 is installed around the outer periphery of the stable stably moved back to the automatic cover manufacturing apparatus, characterized in that configured to prevent the arbitrary opening of the upper cover (102). The crank 145 of claim 1, wherein the chain 11 is reciprocally operated around the crank shaft 144 by the driving plate 143 of the driving shaft 142 which is rotated by receiving power from the motor 140. The third ratchet gear 151 of the chain gear shaft 150 connected by the lever 149 with respect to the first and second ratchet gears 146 and 148 of the crank 145 by one distance by one distance. A trooper automatic manufacturing apparatus characterized in that the load is configured to rotate while being moved and stopped by a predetermined distance by being rotated. The heating unit (13) according to claim 1, wherein the heating unit (13) pivots the mold (10) so as to evenly heat the lower support frame (101) and the upper cover (102) of the mold (10) pivoted by the chain (11). Automatic burner apparatus characterized in that the burners (131) are arranged in a plurality of paths. The raw material supply blocking device 20 is a passage 234 with respect to the compressor 23 connected to the nozzle 22 and the raw material supply pipe 231 or the discharge pipe 232 formed by the compressor 23. The operating rod 233 connected to the lifting operation interval 239 which is actuated by the cam plate 242 of the driven shaft 241 to allow the two to communicate with each other, and the passage during the rotation operation of the operating rod 233. When the 234 is in communication with the supply pipe 231, it is moved downward by the lifting and lowering operation period 240 which performs the seesaw action by the rotary plate 243 of the driven shaft 241, and the raw material is transferred from the raw material dough device 21. A piston 236 for suctioning into the compressor 23 and forcibly discharging the raw material sucked into the compressor 23 to the nozzle 22 when the passage 234 communicates with the discharge pipe 232. All automatic manufacturing device, characterized in that consisting of. The lifting operation interval 239 connected to the lifting rod 235 and the lifting operation interval 240 connected to the piston rod 237 are springs (244) (245) at their front and rear ends. The installation of the automatic platter automatic device, characterized in that configured to make the seesaw operation according to the forced pressing operation of the cam plate 242 and the rotating plate 243 more smoothly. The piston 236 according to claim 5, wherein the piston rod 236 is further provided with a raw material supply amount adjusting opening 246, which is connected to the piston rod 236. Full automatic bottle manufacturing apparatus characterized in that configured to appropriately adjust the amount of compression of the raw material supplied to the nozzle 21 by adjusting the compression distance of the. The auxiliary material input device 30 according to claim 1, wherein the auxiliary material input device 30 is fixed to and supported by the holder 301, and is provided with the auxiliary material container 302 provided with a plurality of discharge holes 302a, and the auxiliary material container 302. It is installed so as to be rotatable about the shaft 303, and is intercommunicated with the discharge hole 302a by the operation rod 305 which is pushed back and forth by the solenoid 306 to the discharge hole 302a. The automatic bottle making machine, characterized in that the rotary plate 304 is formed to be operated to shift each other, the insertion hole (304a) is formed to enable the insertion and blocking of the secondary material. The method of claim 1, wherein the dough barrel 211 of the raw material kneading device 21 is rotated by the drive of the motor 214, the stirring shaft 213 is provided with a stirring blade 212 is stirred so that the dough raw material does not harden Full automatic machine manufacturing apparatus characterized in that. The lifting lever 240 for compressing and operating the piston 236 is a safety lever 40 provided with a brace 401 so that the lowering of the piston 236 is prevented when the cake is unmolded. Full automatic manufacturing device, characterized in that configured to be handled by.