Molding-type food manufacturing apparatus having attachable / detachable valve-type pipe

Abstract

According to one aspect of the present disclosure, a molding-type food manufacturing apparatus having an attachable / detachable valve-type pipe is provided, the apparatus comprising: a mold frame in which a plurality of bread molds are arranged; and a plurality of rollers for supporting the mold frame so that the mold frame is circulated and transferred along the edge thereof.

Description

A mold-forming food manufacturing device equipped with a detachable valve-type pipe

[0001] The present disclosure relates to a food manufacturing device of a mold forming type equipped with a detachable valve-type pipe.

[0002] The material described in this section merely provides background information and does not constitute prior art.

[0003] In general, a walnut cookie baking machine has a supply means for supplying walnut kernels on the main body, a bean paste container with a bean paste supply means attached to the bottom, and a dough container with a dough supply means attached to the bottom, which are arranged in a row, and a plurality of molds are moved and stopped repeatedly by a moving means to sequentially supply a fixed amount of kernels, bean paste, and dough, and when the supplied ingredients are moved to a supplied bread mold and heated by a heating means to be appropriately cooked, the mold is placed on the extraction means to be automatically turned over and taken out to be taken out, and then the mold is placed in the initial position to reintroduce the ingredients, and this series of cyclic operations is continuously repeated.

[0004] Meanwhile, walnut cookie bakeries generally use a piston-type supply means to supply ingredients to the bread mold, and use a method in which the ingredients are supplied to the bread mold in a fixed amount in proportion to the displacement of the piston.

[0005] However, since the piston-type supply means operates only in the direction in which the piston pushes, i.e., in the direction in which the material is discharged, there is an inconvenience in that the entire supply means must be disassembled and cleaned in order to clean the piston cylinder, and since the number of piston cylinders corresponding to the number of bread molds cannot be changed, there is a problem in that the number of bread molds detachably connected to the walnut cookie bread maker cannot be changed.

[0006] The present disclosure aims to provide a mold-forming type food manufacturing device having a detachable valve-type pipe that can be easily cleaned inside without disassembling / disassembling the supply means by including a supply blade that can rotate in a forward or reverse direction.

[0007] In addition, the present disclosure aims to provide a mold-forming type food manufacturing device that can flexibly change the number of baking molds according to the amount of supply by attaching a detachable valve-type pipe to a supply device, and can separate and wash only the detachable pipe when washing the supply device.

[0008] According to one aspect of the present disclosure, a food manufacturing device using a mold forming method is provided, comprising: a main body formed with a pair of upper and lower molds, in which a plurality of bread molds for forming a product are arranged; a plurality of rollers for supporting the mold frame so that the mold frame is circulated and transported along the edge; a circulation driving unit installed inside the main body is formed to transport the plurality of bread molds and the mold frame and heat the bread molds; a casing including a hopper for receiving material from a user and a control means for controlling a driving motor installed inside the main body, the casing being coupled to the main body and controlling the main body; a material supply means coupled to the casing for receiving material vertically from the hopper and discharging it forward by a rotational movement; a pipeline that is detachably inserted and coupled to the material supply means, includes a plurality of valves, and is formed to supply material to the bread molds in conjunction with a supply hose connected to the plurality of valves; and a detachable valve-type pipe.

[0009] According to one aspect of the present disclosure, by including a supply blade that can rotate in a forward or reverse direction, there is an effect that the interior can be easily cleaned without disassembling / disassembling the supply means.

[0010] According to one aspect of the present disclosure, by attaching a pipe to a supply device, the number of baking molds can be flexibly changed according to the amount of supply, and when cleaning the supply device, only the detachable pipes can be separated and cleaned separately.

[0011] FIG. 1 is a plan view illustrating a food manufacturing device of a mold forming method equipped with a detachable valve-type pipe according to one embodiment of the present disclosure.

[0012] Figure 2 is a plan view schematically illustrating the main body of the present disclosure.

[0013] Figure 3 is a plan view showing the combined state of the material supply means of the present disclosure.

[0014] FIG. 4 is a top view of a state in which a material supply means and a pipeline are combined according to one embodiment of the present disclosure.

[0015] FIG. 5 is a front view of a material supply means according to one embodiment of the present disclosure.

[0016] FIG. 6 is an exemplary drawing for explaining the coupling state of a material supply means according to one embodiment of the present disclosure.

[0017] FIG. 7 is a drawing showing a state in which a first rotating blade and a second rotating blade are engaged according to one embodiment of the present disclosure.

[0018] Figure 8 is a cross-sectional view of a pipeline according to one embodiment of the present disclosure.

[0019] FIG. 9 is a side view of a mold-forming food manufacturing device equipped with a detachable valve-type pipe according to one embodiment of the present disclosure.

[0020] Hereinafter, embodiments of the present disclosure will be described using exemplary drawings. However, these embodiments and drawings are intended only to illustrate the present disclosure and do not limit the scope of the claims. Meanwhile, in connection with the description of the present disclosure, detailed descriptions of known structures or functions may be omitted.

[0021] In addition, in describing components, functions, effects, etc. of the present disclosure, terms such as first, second, a, b, A, B, 1), 2), etc. may be used, but these are only for distinguishing each component and do not limit the nature, order, or sequence of the components.

[0022] The drawings and reference numerals of this disclosure are intended to illustrate embodiments of the present disclosure and do not represent the only embodiments in which the present disclosure may be practiced.

[0023] FIG. 1 is a plan view illustrating a food manufacturing device of a mold forming method equipped with a detachable valve-type pipe according to one embodiment of the present disclosure.

[0024] Figure 2 is a plan view schematically illustrating the main body of the present disclosure.

[0025] Figure 3 is a plan view showing the combined state of the material supply means of the present disclosure.

[0026] Referring to FIGS. 1 to 3, a food manufacturing device using a mold forming method equipped with a detachable valve-type pipe according to one embodiment of the present disclosure includes all or part of a main body (100), a casing (200), a material supply means (300), a pipeline (400), and a fixing means (500).

[0027] The main body (100) includes all or part of a bread mold (110), a mold frame (120), a roller (130), a circulation conveying part (140), and a heating part (150).

[0028] A plurality of bread molds (110) are arranged to be circulated along the edge of a main body (100) having a rectangular frame shape. The bread molds (110) are circulated on the main body (100) while being placed on a mold frame (120). That is, the bread mold (110) is placed on the mold frame (120), and the mold frame (120) is again placed on the main body (100), so that the mold frame (120) can be circulated together with the bread molds (110). A plurality of rollers (130) are formed on the main body (100) to support the mold frames (120) so that they are circulated. The mold frames (120) are placed on the rollers (130), and as the rollers (130) roll, the mold frames (120) move along the edge of the main body (100). At this time, the roller (130) may be an idle roller, that is, a roller that rolls dependent on external force without its own driving force.

[0029] The circulation transport unit (140) is formed on the inside of the main body (100) and circulates and transports a plurality of bread molds (110) or mold frames (120) along the edge of the main body (100). The circulation transport unit (140) may be formed at four locations on the inside of the main body (100). According to one embodiment of the present disclosure, the transportation units (140) formed at four locations on the inside of the main body (100) circulate and transport a plurality of bread molds (110) and mold frames (120) along the edge of the main body (100) and are heated by the heating unit (150), thereby automatically producing food. Here, the circulation transport unit (140) is moved by a driving unit (not shown) provided inside the main body (100).

[0030] A plurality of heating units (150) are installed along the path along which the mold frame (120) moves, and heat the bread mold (110) mounted on the mold frame (120). The bread mold (110) is heated at the top or bottom as it passes through the heating unit (150). For example, the bread mold (110) may be heated at the top as it passes through the first heating unit (150), and then the bread mold (110) may be turned over and the bottom may be heated as it passes through the second heating unit (150).

[0031] The casing (200) includes all or part of the hopper (210), the impaler (220), and the control unit (230). The casing (200), which has a drive motor (not shown) installed therein, is formed to be coupled to the main body (100).

[0032] The hopper (210) is formed at the top of the casing (200), and more specifically, it is formed at the top of the material supply means (300) arranged on the casing (200). The hopper (210) may have a hollow cylindrical shape so that a user can input materials. Here, the material refers to an outer material or an inner material, and the outer material refers to bread dough, etc., and the inner material refers to red bean paste, bean paste, etc.

[0033] According to one embodiment of the present disclosure, two hoppers (210) can be combined with a casing (200), and one hopper (210) can contain an outer material such as bread dough, and the other hopper (210) can contain an inner material such as red bean paste or bean paste.

[0034] The impaler (220) is formed to be inserted into the interior of the hopper (210) and rotated, and is particularly coupled to a hopper containing sticky fillings. On the other hand, it may not be coupled to a hopper (210) containing thin dough, etc. The impaler (220) rotates and mixes the fillings well so that they do not harden, and the rotation speed can be controlled by a control means (230) described later.

[0035] The control means (230) controls the overall operation of a mold-forming food manufacturing device (10) equipped with a detachable valve-type pipe according to one embodiment of the present disclosure. Among these, it has the characteristic of controlling the rotational direction of the first rotating blade (350) and the second rotating blade (360) described below.

[0036] In general, the first rotating blade (350) and the second rotating blade (360) rotate in the direction of discharging the material inside the supply cylinder (340) to the discharge portion (370), but the user can wash the material supply means (300) by setting the rotation direction of the blades to the opposite direction. Since the conventional piston-type supply means operates in only one direction, there was a problem that the entire supply means had to be disassembled for cleaning, but according to one embodiment of the present disclosure, the control means (230) can help the user easily wash the material supply means (300) and the pipeline (400) by changing the rotation direction of the first rotating blade (350). For example, a user can immerse a supply hose (450) in a bucket (not shown) full of water, and then use a control means (230) to rotate the first rotating blade (350) in the direction in which the supply hose (450) sucks up water from the bucket. The water will then wash the supply hose (450) and then the pipeline (400), and finally, wash the supply cylinder (340) equipped with the first rotating blade (350) and the second rotating blade (360), and then be placed in the hopper (210). The user can cleanly wash the material supply means (300), the pipeline (400), and the supply hose (450) by changing the rotation direction and speed of the first rotating blade (350) 3 to 5 times. In other words, cleaning of the components is possible without separate disassembly.

[0037] FIG. 4 is a top view of a state in which a material supply means and a pipeline are combined according to one embodiment of the present disclosure.

[0038] FIG. 5 is a front view of a material supply means according to one embodiment of the present disclosure.

[0039] FIG. 6 is an exemplary drawing for explaining the coupling state of a material supply means according to one embodiment of the present disclosure.

[0040] Referring to FIGS. 4 to 6, the material supply means (300) includes all or part of an upper plate (310), a lower plate (320), an inlet (330), a supply cylinder (340), a first rotating blade (350), a second rotating blade (360), a discharge portion (370), and a rotating shaft (356).

[0041] The upper plate (310) and the lower plate (320) are combined with each other to form a supply cylinder (340) therein.

[0042] The inlet (330) is located at the top of the upper plate (310) and is formed as an inclined surface to receive material from the hopper (210) and feed the material into the supply cylinder (340) to which the first rotating blade (350) and the second rotating blade (360) are combined. The inlet (330) receives material from the hopper (210) in the direction of gravity and is formed as an inclined shape, i.e., an inclined surface shape that becomes narrower as it goes down, so that the supplied material can be continuously fed into the supply cylinder (340).

[0043] A first rotating blade (350) and a second rotating blade (360) are combined at the bottom of the upper plate (310), and when the upper plate (310) is combined with the lower plate (320), a space is formed in the supply cylinder (340) in which the first rotating blade (350) and the second rotating blade (360) can be engaged and rotate.

[0044] The lower plate (320) is shaped to be connected to the upper plate (310) to form a supply cylinder (340), and a hole in the shape of a rotational shaft is formed so that the rotational force of the driving motor can be transmitted to the first rotational blade (350) by the rotational shaft (356). In addition, a hole in the shape of a fixed shaft (366) for causing idling of the second rotational blade (360) is also formed.

[0045] The first rotating blade (350) is formed to rotate in a forward or reverse direction in conjunction with the driving motor, and the second rotating blade (360) is formed to rotate in the opposite direction by engaging with the first rotating blade (350).

[0046] The discharge unit (370) is formed in a hollow shape inside to be connected to the front of the lower plate (320) and to deliver materials to the pipeline (400). It is connected to the front of the lower plate (320) and is formed to discharge materials delivered forward by the rotational movement of the first rotating blade (350) and the second rotating blade (360) described later into the pipeline (400). One end of the discharge unit (370) is connected to the lower plate (320), and the other end is connected to the insertion portion (440) of the pipeline (400).

[0047] FIG. 7 is a drawing showing a state in which a first rotating blade and a second rotating blade are engaged according to one embodiment of the present disclosure.

[0048] Referring to FIG. 7, the first rotating blade (350) is formed to rotate by receiving rotational force from the driving motor. An empty space is formed at the center of the first rotating blade (350), and a rotating shaft (356) connected to the driving motor mounted on the casing (200) is inserted therein. That is, the first rotating blade (350) rotates by receiving the rotational force of the driving motor. Meanwhile, the first rotating blade (350) may have a different rotational speed from the driving motor. For example, according to one embodiment of the present disclosure, a deceleration means (not shown) that reduces the rotational force of the driving motor and transmits it to the rotating shaft may be further included between the first rotating blade (350) and the driving motor.

[0049] Meanwhile, according to one embodiment of the present disclosure, the drive motor may be formed to be spaced apart from the lower end of the first rotating blade (350) by a certain distance. Inside the material supply means (300) equipped with the first rotating blade (350), materials such as dough are constantly fed, so there is moisture or water. However, when the machine ages, if the drive motor is located directly below the rotating shaft (356), water is transmitted to the drive motor along the gap of the rotating shaft (356), which causes a breakdown of the drive motor. Therefore, the drive motor according to one embodiment of the present disclosure can prevent a breakdown by being arranged to be spaced apart vertically from the rotating shaft (356) of the first rotating blade (350).

[0050] Meanwhile, the rotary shaft (356) receives the rotational force reduced by the reduction means and rotates, and transmits the rotational force to the first rotary blade (350). The first rotary blade (350) rotates while meshing with the second rotary blade (360) and transmits the rotational force to the second rotary blade (360). That is, the second rotary blade (360) may not have a separate driving motor installed, and receives the rotational force of the first rotary blade (350) and rotates in the opposite direction to the first rotary blade (350). More specifically, the second rotary blade (360) formed to rotate while meshing with the first rotary blade (350) is not coupled with a separate driving motor, and is installed in an idle structure on a fixed shaft and rotates in the opposite direction in conjunction with the rotation of the first rotary blade (350).

[0051] When the first rotating blade (350) and the second rotating blade (360) are rotated in opposite directions by the driving motor, the outer material or inner material supplied inside the material supply means (300) moves from one side of the material supply means (300) to the other side. That is, the material supplied in the vertical direction moves forward of the material supply means (300).

[0052] The first rotating blade (350) and the second rotating blade (360) include a plurality of grooves (354) whose widths become narrower in the direction of the central axis. Here, the grooves (354) are formed by being dug in a 'D' shape so that the widths become narrower from the periphery to the central axis. In addition, the first rotating blade (350) and the second rotating blade (360) are interlocked and rotate to form a groove receiving space (C), and rotate to receive material in the groove receiving space (C) and move it forward.

[0053] When the first rotating blade (350) and the second rotating blade (360) are engaged, a 'C'-shaped groove receiving space (C) capable of receiving outer or inner material is formed between the blade blades. Here, when the first rotating blade (350) and the second rotating blade (360) rotate, the outer or inner material filled in the groove receiving space (C) moves from one side of the material supply means (300) to the other side. That is, the material moves to the space where the discharge portion (370) to which the pipeline (400) is connected is located.

[0054] When the outer material or inner material filled in the home receiving space (C) moves from one side to the other side of the material supply means (300), a certain amount of outer material or inner material is filled in the home receiving space (C) formed in a 'C' shape by the first rotating blade (350) and the second rotating blade (360), so that there is an effect in which only a certain amount of material is discharged from the material supply means in proportion to the rotational speed of the driving motor.

[0055] In addition, since the grooves (354) formed in the first rotating blade (350) and the second rotating blade (360) are formed in a 'D' shape that becomes narrower from the outer edge to the central axis, when manufacturing the blades, the depth at which one blade edge is inserted between the other blade edge can be adjusted to control the amount of material moving from one side to the other inside the material supply means (300). In other words, the amount of material moving can be controlled not only by the rotational speed of the motor but also by the depth of the groove.

[0056] To this end, a protrusion (352) having a rounded end may be formed on the outer surface of the first rotating blade (350) and the second rotating blade (360). In addition, in order to further maximize this, the protrusion (352) may include a corner surface (352a) that is formed at an angle in the circumferential direction perpendicular to the direction of the rotation axis (356). That is, since the protrusion (352) formed at an angle cannot be fully inserted into the groove (354), a relatively larger groove receiving space (C) is formed compared to a general gear shape.

[0057] Meanwhile, when a rotating blade including a relatively wide and deep groove (354) is used, a relatively larger quantity of material can be moved from one side to the other compared to when a rotating blade having a narrow and shallow groove (354) is used.

[0058] Figure 8 is a cross-sectional view of a pipeline according to one embodiment of the present disclosure.

[0059] FIG. 9 is a side view of a mold-forming food manufacturing device equipped with a detachable valve-type pipe according to one embodiment of the present disclosure.

[0060] Referring to FIGS. 8 and 9, a pipeline (400) according to one embodiment of the present disclosure includes all or part of a valve (410), a nozzle (420), an opening / closing means (430), an insertion portion (440), and a supply hose (450).

[0061] The pipeline (400) includes a plurality of valves (410) and a plurality of nozzles (420), and each valve (410) is inserted into and connected to each nozzle (420). In addition, the pipeline (400) is vertically connected to a discharge portion (370) formed in a material supply means (300) and discharging the material, and receives the material, and is connected using a supply hose (450) and a plurality of valves (). In addition, the pipeline (400) is formed in a structure that is separable from the material supply means (300), and is inserted into the discharge portion (370) and connected to the material supply means.

[0062] In addition, the pipeline (400) is formed with a plurality of nozzles (420) so that valves (410) are coupled to the circumference thereof, and a plurality of valves (410) are respectively inserted and coupled into the plurality of nozzles (420) and connected to the supply hose (450). In addition, the pipeline (400) is positioned at the same height as the material supply means (300) to receive materials, and can be coupled to the front of the material supply means (300).

[0063] The pipe opening / closing means (430) is formed to be openable / closable by an opening hinge (436) at one end of the pipeline (400), and the user opens the opening / closing means (430) by separating the nut screw (435) coupled to the end of the opening hinge (436).

[0064] The opening and closing means (430) may be formed at both axial ends of the pipeline (400) and may be opened or closed by the user's operation. The pipeline (400) supplies materials to the supply hose (450) with the opening and closing means (430) closed, and is cleaned by the user with the opening and closing means (430) open. The opening and closing means (430) has a screw-shaped pin formed at the top that is fastened to a bolt, and the user can open the opening and closing means (430) by loosening the nut screw (435) to separate the pin in the form of a bolt screw (437), thereby cleaning the inside of the pipeline (400).

[0065] The insertion part (440) is formed in a 'T' shape perpendicular to the pipeline (400) for vertical coupling of the pipeline (400) and the material supply means (300). In addition, the insertion part (440) may be formed in the same shape as the discharge part (370). In addition, the insertion part (440) is inserted into and coupled to the discharge part (370). Meanwhile, the fixing means (500) described later is coupled to and tightened on the outer surface of the discharge part (370), thereby preventing the insertion part (440) coupled to the discharge part (370) from being detached.

[0066] The pipeline (400) is connected to the discharge portion (370) in an axial direction and perpendicularly. Since the discharge portion (370) is formed in a direction in which the first rotating blade (350) and the second rotating blade (360) rotate and push out the material, the pipeline (400) is connected to the discharge portion (370) in a direction perpendicular to the axial direction of the pipeline (400) to receive the material. That is, the direction in which the material supply means (300) discharges the material and the axial direction of the pipeline (400) are perpendicular to each other. Due to the vertically formed connection, the material does not flow backward when moving from the discharge portion (370) to the pipeline (400) and moves in one direction.

[0067] In addition, the pipeline (400) is formed to be detachably attached to the discharge portion (370) coupled to the front of the material supply means (300), and includes a valve (410) that can be opened and closed corresponding to the number of bread molds (110) coupled to the rail. In addition, the pipeline (400) can be formed in the form of a pipe having various lengths and various numbers of valves (410) according to the user's selection. For example, if a bread mold capable of forming three breads in one cycle is coupled to the rail, a pipeline (400) having three valves (410) is coupled to the discharge portion (370). On the other hand, if a bread mold capable of forming four breads in one cycle is coupled to the rail, the user can detach the previous pipeline (400) and couple the pipeline (400) having four valves (410) to the discharge portion (370). That is, when a user needs to manufacture a relatively large quantity of bread, a relatively long pipeline (400) can be used to manufacture a large quantity of bread in a short period of time, and when a user needs to manufacture a relatively small quantity of bread, a relatively short pipeline (400) can be used to manufacture bread.

[0068] Meanwhile, the pipeline (400) is formed as a hollow cylinder, and the interior can be filled by receiving outer or inner material from the material supply means (300). A plurality of valves (410) are respectively connected to one side of the pipeline, for example, the upper side, and each valve (410) is respectively connected to a supply hose (450).

[0069] The valve (410) mounted on the pipeline (400) may be a manual valve (410) that a user manually turns to open or close, a solenoid valve that is electronically opened and closed by a control means (230), a sphere-shaped ball valve with a hole in the opening and closing portion, etc. Here, the solenoid valve is an electronic valve in which, when electricity flows through the valve, the flange rises and the valve opens, and when electricity is cut off, the valve is automatically closed by the weight of the flange.

[0070] Meanwhile, the plurality of valves can be opened or closed respectively, and when the valves are open, the pipeline (400) continuously supplies a certain amount of outer material or inner material to the supply hose (450), but when the valves are closed, the outer material or inner material is no longer supplied to the supply hose (450).

[0071] Meanwhile, the pipeline (400) is formed with a fastening member having the same shape as the discharge portion (370) of the material supply means (300) in the direction perpendicular to the axis.

[0072] The above describes various embodiments of the present disclosure. Various modifications are possible using various configurations, materials, means, methods, and knowledge available to those skilled in the art. These embodiments are intended only to illustrate the technical concepts of the present disclosure and do not limit the scope or scope of the present disclosure.

Claims

1. A main body including a mold frame (mold flame) formed by a pair of upper and lower molds and having a plurality of molds for forming a product, and a plurality of rollers for supporting the mold frames so that they are circulated along the edges, and an inner installed circulation driving unit formed to move the plurality of molds and the mold frame and heat the molds; A casing including a hopper for receiving materials from a user and a control means for controlling a drive motor mounted inside, the casing being coupled to the main body and controlling the main body; A material supply means coupled to the above casing, which receives the material vertically from the hopper and discharges it forward by rotational motion; A pipeline formed to be detachably inserted and connected to the material supply means, including a plurality of valves, and linked to a supply hose connected to the plurality of valves to supply the material to the bread mold; and A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

2. In paragraph 1, The material supply means comprises: a first rotating blade formed to rotate in a forward or reverse direction in conjunction with the driving motor; and characterized in that it includes a second rotating blade formed to rotate in the opposite direction by engaging with the first rotating blade. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

3. In paragraph 2, The first rotating blade and the second rotating blade are characterized in that they include a groove portion that narrows in width in the direction of the central axis, and rotate while interlocking with each other to form a groove portion receiving space, and rotate to receive the material in the groove portion receiving space and move it forward. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

4. In paragraph 3, The above home portion is characterized in that it is formed in a 'D' shape so that the width becomes narrower from the outer edge to the central axis. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

5. In paragraph 4, The above home receiving space is characterized in that it is formed in a 'C' shape when the first rotating blade and the second rotating blade are engaged. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

6. In paragraph 1, The above pipeline is formed in the material supply means and is vertically connected to a discharge section that discharges the material to receive the material, and is characterized in that it is linked using the supply hose and the plurality of valves. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

7. In paragraph 6, The above pipeline is formed as a structure that is separable from the material supply means, and is inserted into the discharge portion and connected to the material supply means, characterized in that A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

8. In paragraph 7, The above pipeline includes a 'T' shaped insert formed perpendicular to the axis to be inserted into the discharge portion, The above insertion part is characterized in that it has the same shape as the discharge part. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

9. In paragraph 8, It is characterized in that it further includes a fixing means that is coupled to the outer surface of the discharge part that is inserted into the insertion part and coupled, and supports the coupling of the discharge part and the insertion part by pressing the outer surface of the discharge part by tightening the nut screw. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

10. In paragraph 6, The above pipeline includes a pipe opening / closing means formed to be opened / closed by an opening hinge at one end thereof, The above pipe opening / closing means is characterized in that it is opened by separating the nut screw connected to the end of the hinge. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

11. In paragraph 6, The above pipeline is characterized in that a plurality of nozzles are formed so that valves are coupled to the circumference, and the plurality of valves are respectively inserted and coupled into the plurality of nozzles and connected to the supply hose. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

12. In paragraph 6, The above pipeline is characterized in that it is located at the same height as the material supply means to receive the material, and is connected to the front of the material supply means. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

13. In paragraph 6, The above plurality of valves are characterized in that they are any one of a manual valve, a solenoid valve, and a ball valve. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

14. In paragraph 3, The above driving motor is characterized in that it is arranged vertically apart from the rotation axis of the first rotating blade. A food manufacturing device using a mold forming method equipped with a detachable valve-type pipe.

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