JP5140492B2 - Packaged food production equipment - Google Patents

Description

  The present invention relates to the manufacture of encapsulated foods that can continuously produce encapsulated foods (products) having a structure in which an inner material made of food such as candy or jam is wrapped, for example, with a skin material made of food dough such as bread dough Relates to the device.

Conventionally, when manufacturing encapsulated foods, an outer skin material such as bread dough formed in a flat shape is placed on a placement member provided with an opening so as to cover the opening, and then the outer skin is covered by a pressing member. In a state in which the peripheral portion of the material is pressed and held by the mounting member, the inner material is supplied and placed on the central portion of the outer skin material from a nozzle member provided so as to be movable up and down. Then, after raising the pressing member and the nozzle member, the peripheral portion of the outer skin material is gathered to the central portion and sealed by sealing means including an appropriate shutter mechanism (for example, Patent Document 1). reference).
Japanese Patent No. 4045319

  In the configuration described in Patent Document 1, a plurality of support rods are provided on a ring-shaped stay integrally attached to a nozzle member so as to be movable up and down, and the ring-shaped presser member is supported by the lower end portion of the support rod. A coil spring is elastically mounted between the presser member and the stay, and the presser member is always positioned below the lower end portion of the nozzle member. It is the structure pressed and urged | biased by the direction.

  Therefore, according to the above configuration, after the pressing member presses the peripheral edge of the outer skin material, the lower end portion of the nozzle member presses and deforms the central portion of the outer skin material downward to supply the inner material, and the lower end of the nozzle member After the portion rises above the presser member, the presser member is raised following the rise of the nozzle member. Thus, the inner material can be reliably supplied to the central portion of the outer skin material.

  However, in the conventional configuration as described above, after the pressing member presses the outer skin material, the pressing member always presses the outer skin material by the biasing force of the coil spring until the nozzle member descends and rises. However, since the urging force of the coil spring changes due to the change in the vertical position of the nozzle member, the pressing force of the pressing member always changes and is unstable. Therefore, the thickness of the peripheral portion of the outer skin material pressed by the pressing member is affected by the properties of the outer skin material, and it is difficult to always keep the constant thickness. For example, the sealing portion is always kept constant. There is a problem that is difficult.

  Further, in the conventional configuration as described above, the nozzle member and the presser member are configured to move up and down integrally while maintaining a certain positional relationship, so that it corresponds to conditions such as the properties and thickness of the outer skin material. Thus, there is a problem that the relative vertical position relationship between the nozzle member and the pressing member cannot be adjusted, and the timing between the vertical movement of the nozzle member and the vertical movement of the pressing member cannot be adjusted.

  The present invention has been made in view of the conventional problems as described above, and is an encapsulated food production apparatus for producing encapsulated food having a structure in which an inner material is wrapped with a skin material, and the encapsulated food production An outer shell material transferring means for transferring a flat outer shell material onto the mounting member so as to cover an opening of the mounting member provided on the front side of the main body frame in the apparatus; A cloth pressing member that can press the outer peripheral edge of the outer skin material and can move up and down; a nozzle member that can discharge inner material and move up and down at the center of the outer skin material on the placement member; An elevating support means that can support and move up and down the outer skin material that descends from the opening of the member, and a peripheral portion of the outer skin material gathered to the center after the nozzle member and the fabric pressing member are raised Sealing means for sealing, and the nozzle Wood and fabric pressing member is characterized in that it is individually adjustable individually vertically movable and vertically movable position.

  In the enveloping food manufacturing apparatus, the main body frame includes a nozzle vertical movement mechanism for moving the nozzle member up and down, and the nozzle vertical movement mechanism includes a nozzle vertical movement mechanism that is movable up and down. The nozzle member is detachable from the front direction, and the body frame includes a pressing member vertical movement mechanism for moving the fabric pressing member up and down. The pressing member can be attached to and detached from the front from the member.

  Further, in the encapsulated food manufacturing apparatus, the outer cylinder that can be integrally connected to the inner material supply means provided on the front surface of the main body frame in a fixed state and is detachably attached to the front surface of the main body frame from the front direction. The nozzle member is provided in a vertically movable manner, the cloth pressing member is provided in a vertically movable manner outside the outer cylinder, and a nozzle unit is constituted by the outer cylinder, the nozzle member, and the cloth pressing member. It is what.

  Further, in the encapsulated food manufacturing apparatus, the sealing means and the inner material supply means are detachable from the front direction with respect to the main body frame.

  According to the present invention, since the nozzle member and the fabric pressing member can be moved up and down individually and the vertical movement position can be adjusted individually, the nozzle member and the fabric pressing member can be moved up and down according to the thickness and properties of the outer skin material. The moving position can be adjusted individually. It is also possible to adjust the timing of the vertical movement of the nozzle member and the vertical movement of the fabric pressing member, and the conventional problems as described above can be solved.

  Referring to FIG. 1, an encapsulated food manufacturing apparatus 1 according to an embodiment of the present invention includes a box-shaped main body frame 5 including casters 3. The main body frame 5 is divided into a front main body frame 5A and a rear main body frame 5B, and the rear main body frame 5B can be opened and closed rearward to the front main body frame 5A via a hinge member (not shown). It is installed. Therefore, maintenance and inspection of various mechanisms and devices incorporated in the front main body frame 5A and the rear main body frame 5B can be easily performed. In the following description, the front main body frame 5A and the rear main body frame 5B are collectively referred to as the main body frame 5. When the front main body frame 5A and the rear main body frame 5B need to be distinguished, they are distinguished. And

  A mounting member 9 having a circular opening 9A in the center is attached to the front surface 7 of the main body frame 5, and is flattened so as to cover the opening 9A of the mounting member 9 described above. A skin material transfer means 13 for transferring the formed skin material 11 onto the mounting member 9 is provided. The structure of this kind of outer shell material transfer means 13 is well known, but generally speaking, the outer skin material transfer means 13 is constituted by a belt conveyor, and the front end portion of the conveyor belt in the belt conveyor (the left end portion in FIG. 1). ) Is configured to be movable upward of the mounting member 9 described above.

  In this type of skin material transfer means 13, the placed skin material 11 is transferred above the mounting member 9, and the front end portion of the conveyor belt retracts from the left side to the right side in FIG. Is carried out to drop and supply the outer skin material 11 onto the mounting member 9 so as to cover the opening 9A of the mounting member 9 described above. In addition, since the structure of the said skin material transfer means 13 is well-known, the more detailed description of the structure of the skin material transfer means 13 and description of the effect | action are abbreviate | omitted.

  Further, on the front surface 7 of the main body frame 5, an annular fabric pressing member 15 that can press the outer peripheral edge portion of the outer skin material 11 placed on the mounting member 9 against the mounting member 9 is movable up and down. In addition, a nozzle member 17 capable of discharging an inner material (not shown) is provided at the center of the outer skin material 11 on the mounting member 9 so as to be movable up and down. Furthermore, when the inner material is discharged from the nozzle member 17 to the central portion of the outer skin material 11 on the front surface of the main body frame 5, the lower side portion of the outer skin material 11 descends from the opening 9A of the mounting member 9 described above. Elevating / lowering support means 19 for supporting the sway from below is provided to be movable up and down.

  The raising / lowering support means 19 is constituted by a belt conveyor in order to carry out the encapsulated food encapsulated with the outer skin material 11 to the next process. In addition, since this kind of raising / lowering support means 19 is well-known, the detailed description about the structure of the raising / lowering support means 19 is abbreviate | omitted. Further, on the front surface 7 of the main body frame 5, a carry-out conveyor 21 is provided adjacent to the lifting support means 19. The carry-out conveyor 21 serves to carry out the encapsulated food received from the elevating support means 19 to the next process.

  The mounting member 9 supplies the inner material to the outer skin material 11 on the mounting member 9, and then gathers the peripheral edge of the outer skin material 11 to the central portion and seals the base plate 25 in the sealing means 23 for sealing. (See FIG. 5) is detachably mounted on the top surface, and the top surface of the mounting member 9 is mounted on the top surface of the base plate 25 equally. The base plate 25 in the sealing means 23 is detachably attached to the front surface 7 of the main body frame 5 by an appropriate attachment 24 such as an attachment screw.

  The sealing means 23 has a structure in which a plurality of shutter pieces 27 (see FIG. 4) provided on the base plate 25 so as to be swingable horizontally are interlocked and connected via links 29 so as to be interlocked. In this configuration, the opening and closing operation of the area surrounded by each shutter piece 27 is performed by the reciprocating operation of the operating rod 31 reciprocated by the actuator. Since the shutter mechanism as described above as an example of the sealing means 23 is known as described in, for example, Patent Document 1, a more detailed description of the sealing means 23 is omitted.

  In order to supply the inner material to the outer skin material 11 placed on the placing member 9, the main body frame 5 is provided with an inner material supplying means 33 (see FIG. 5). More specifically, a drive box 35 having a motor (not shown) is provided on the upper part of the main body frame 5, and the front surface of the drive box 35 is forward (surface perpendicular to the paper surface in FIG. 5). A pair of support rods 37 projecting horizontally in the direction) is provided. The support rod 37 supports a casing 41 of a pump 39 that feeds the inner material appropriately so as to be detachable in the forward direction. The rotary shaft of the pump 39 and the rotary shaft of the motor are connected by, for example, a dog clutch, and the pump 39 can be easily attached to and detached from the drive box 35.

  A hopper 43 is detachably attached to the upper portion of the casing 41 of the pump 39. That is, an L-shaped locking member 45 is attached to the upper portion of the casing 41 so as to rotate the ellipse-shaped hook member 47 provided at the lower portion of the hopper 43 by 90 °. Thus, the engaging member 45 is engaged and disengaged. In addition, as a structure which attaches / detaches the hopper 43 with respect to the casing 41, an appropriate structure can be employ | adopted not only in the structure as mentioned above.

  An L-shaped connecting pipe 49 is detachably attached to the lower portion of the casing 41 of the pump 39, and a nozzle unit 51 is detachably attached to the connecting pipe 49. More specifically, the nozzle unit 51 includes an outer cylinder 57 integrally provided with a connection pipe 55 that can be easily connected to and disconnected from the connection pipe 49 via a connecting pipe 53. ing. When the connection pipes 49 and 55 are connected and disconnected as shown in FIG. 5, the connecting pipe 53 is moved rightward in FIG. 5, and the connecting pipe 53 is detached from the connecting pipe 55. Thus, the connection of both connection pipes 49 and 55 can be released.

  Then, by performing the reverse operation to that described above, both connecting pipes 49 and 55 can be integrally connected via the connecting pipe 53. At this time, since both the connecting pipes 49 and 55 are made of metal, they are connected to each other in an immobile state. Even when the pump 39 tends to cause pulsation when the inner material is delivered, the vibration of the connecting pipes 49 and 55 can be prevented, and the inner material can be delivered to the nozzle unit 51. It can be done smoothly.

  The nozzle unit 51 includes the nozzle member 17 penetrating the outer cylinder 57 so as to be movable up and down, and the fabric pressing member 15 fitted to the outer periphery of the lower side of the outer cylinder 57 so as to be movable up and down. The outer cylinder 57 in the nozzle unit 51 is detachably attached to a nozzle unit support member 59 (see FIGS. 1 to 3) provided at the upper front of the main body frame 5 by an appropriate attachment 61 such as a fastening screw. It is. That is, the outer cylinder 57 is detachably attached to the front surface 7 of the main body frame 5 in the forward direction.

  In the nozzle unit 51, in order for the inner material supplied into the outer cylinder 57 through the connection pipes 49 and 55 to flow into the nozzle member 17, the nozzle member 17 is formed at a portion facing the connection pipe 55. Has a long hole 63 which is long in the vertical direction. In the nozzle member 17, an elevating rod 67 having an opening / closing valve 65 that can open and close the discharge port 17 </ b> A provided at the lower end portion of the nozzle member 17 at the lower end portion is provided so as to be movable up and down and rotatable. .

  In order to move the lifting rod 67 up and down and rotate, a drive unit 71 detachably attached to a support block 69 provided integrally with the upper end portion of the nozzle member 17 includes an upper end portion of the lifting rod 67 and A drive rod 73 connected to be detachable is provided to protrude downward. The drive unit 71 includes a rotary actuator 75 such as a motor for rotating the drive rod 73 and a vertical movement actuator 77 such as an air cylinder for moving the drive rod 73 up and down. Yes.

  The lift rod 67 and the drive rod 73 are connected so as to move up and down integrally and rotate integrally. More specifically, the upper end portion of the lifting rod 67 and the lower end portion of the drive rod 73 can be easily connected and disconnected outside the nozzle member 17, but the nozzle member 17 is connected to the nozzle member 17 within the nozzle member 17. Coupling blocks 79A and 79B that are meshed and connected appropriately so as not to be separated from each other in the radial direction and the axial direction are integrally provided. In addition, the configuration for meshingly connecting the coupling blocks 79A and 79B is not limited to the configuration shown in FIG. 5, and for example, the engagement relationship between a concave portion such as a dovetail groove and a convex portion such as a dovetail groove can be established. Therefore, various configurations can be adopted.

  In order to move the nozzle member 17 and the material pressing member 15 in the nozzle unit 51 up and down, the main body frame 5 is provided with elevating rods 81 and 83 (see FIG. 3) protruding horizontally from the front surface 7 in the forward direction. U-shaped fork members 85 and 87 are integrally attached to the front end portions of the lifting rods 81 and 83, respectively. One of the fork members 85 is relatively engaged in the front-rear direction with a front-rear engaging groove 89 (see FIG. 5) formed in the support block 69 integrally provided at the upper end of the nozzle member 17. Engageable and disengageable. The other fork member 87 is engaged with an engagement groove 91 in the front-rear direction formed in the upper part of the fabric pressing member 15 so as to be able to engage and disengage in the front-rear direction.

  Therefore, the nozzle member 17 and the fabric pressing member 15 can be moved up and down individually by moving the lifting rods 81 and 83 individually.

  In order to move the elevating rods 81 and 83 up and down, an elevating slider 93 (see FIG. 6) that fixes the base side of the elevating rod 81 and a base side of the elevating rod 83 are fixed in the main body frame 5. An elevating slider 95 is guided and supported by a guide member 97 provided vertically in the main body frame 5 so as to be movable up and down. The elevating rods 81 and 83 protrude from the vertical hole 96 formed in the main body frame 5 to the front surface 7. In order to move the elevating slider 93 up and down, an appropriate rotary actuator 101 such as a motor having a pinion (not shown) meshed with an up and down rack 99 is mounted on the elevating slider 93. It is. Further, the lift slider 95 is equipped with a rotary actuator 105 having a pinion (not shown) meshed with the rack 103 in the vertical direction.

  Accordingly, by operating the rotary actuators 101 and 105 individually, the elevating sliders 93 and 95 can be individually moved up and down, and the nozzle member 17 and the cloth pressing member 15 can be individually moved up and down. It is. Further, by operating the rotary actuators 101 and 105 synchronously at the same time, the nozzle member 17 and the cloth pressing member 15 can be moved up and down synchronously. Furthermore, by controlling the rotary actuators 101 and 105 individually, the vertical positional relationship between the nozzle member 17 and the fabric pressing member 15 can be adjusted to a desired positional relationship.

  When the rotary actuators 101 and 105 are configured to reciprocately rotate within a certain angle range, that is, when the rotation angle of the rotary actuators 101 and 105 cannot be controlled to a desired angle, the following configuration is adopted. Thus, the vertical positional relationship between the nozzle member 17 and the fabric pressing member 15 can be adjusted.

  That is, the racks 99 and 103 are supported by a support block 107 mounted in the main body frame 5 so that the racks 99 and 103 can be moved up and down, and the racks 99 and 103 can be vertically adjusted, and the racks 99 and 103 are adjusted up and down. When the racks 99 and 103 are moved up and down, the lift slider 93 and the rotary actuator 101 are moved up and down integrally with the rack 99 to move up and down. The slider 95 and the rotary actuator 105 may be configured to move up and down integrally with the rack 103. As a configuration for individually adjusting the vertical positions of the racks 99 and 103, adjustment screws 109 and 111 rotatably supported on the upper portion of the main body frame 5 are provided with nut portions (illustrated) in the racks 99 and 103. (Omitted).

  With the above configuration, the racks 99 and 103 can be individually adjusted up and down by rotating the adjusting screws 109 and 111 individually. Accordingly, the operating region in which the nozzle member 17 moves up and down can be adjusted up and down, and the operating region in which the fabric pressing member 15 moves up and down can be adjusted up and down.

  By the way, as the rotary actuators 101 and 105, a servo motor or the like whose rotation position and rotation speed can be controlled can be adopted. In this case, the rotary actuators 101 and 105 can be moved without moving the racks 99 and 103 up and down. By controlling the rotation and the like, it is possible to freely control the vertical movement speed, vertical movement position, vertical movement timing, and the like of the lift sliders 93 and 95.

  In the configuration as described above, when the outer skin material 11 formed in a flat shape (disk shape) is placed on the outer skin material transferring means 13, the outer skin material 11 is transferred leftward in FIG. Then, when the optical sensor 113 provided in a predetermined position detects the outer skin material 11 on the outer skin material transfer means 13, under the control of the control mounting 115, the opening 9A provided in the mounting member 9 is covered. It is mounted on the mounting member 9. As described above, when the outer skin material 11 is placed on the placement member 9, the operating rod 31 that operates the sealing means 23 is slightly reciprocated, and the plurality of shutter pieces 27 are slightly opened and closed. The peripheral edge of the skin material 11 is slightly pressed toward the center. That is, the centering operation is performed so that the center of the skin material 11 coincides with the center of the opening 9A.

  As described above, after the outer skin material 11 is centered, the rotary actuator 105 is operated and the fabric pressing member 15 is lowered to press and fix the outer peripheral edge of the outer skin material 11 to the placement member 9. At this time, by keeping the rotation angle of the rotary actuator 105 constant at all times, the lowered position of the fabric pressing member 15 is always kept constant, and the thickness of the outer peripheral edge of the outer skin material 11 is always constant. It is held constant.

  The lowering stop position of the fabric pressing member 15 can be adjusted by rotating the adjusting screw 111, and the lowering stop position of the fabric pressing member 15 is adjusted according to the thickness of the outer skin material 11. It is possible. Therefore, the thickness of the peripheral edge portion of the outer skin material 11 can always be maintained at a desired thickness.

  As described above, when the outer peripheral edge of the outer skin material 11 is pressed and fixed by the fabric pressing member 15, the rotary actuator 101 is operated to lower the nozzle member 17, and the vertical movement actuator 77 is operated to raise the on-off valve 65. Thus, the inner material fed from the pump 39 can be discharged and supplied onto the outer skin material 11 from the discharge port 17A. Then, at the end of the supply of the inner material, the discharge port 17A is closed by the open / close valve 65, and the open / close valve 65 is rotated by the rotary actuator 75 while the closed state is maintained. It is possible to prevent the material from adhering to the lower surface of the on-off valve 65 and to prevent the inner material from adhering and rising as the nozzle member 17 rises.

  By the way, as described above, when the nozzle member 17 is lowered, it is performed separately from the lowering of the fabric pressing member 15, so that the inner material is discharged and supplied almost simultaneously with the pressing of the outer skin material 11. Thus, the lowering timing and the lowering speed of the nozzle member 17 can be adjusted. Moreover, it is possible to start the raising of the outer skin pressing member 15 almost simultaneously with the start of the raising after the discharge of the inner material from the nozzle member 17 is finished, thereby improving the productivity. It can be done.

  As described above, when the inner material is discharged and supplied from the nozzle member 17 onto the outer skin material 11, the central portion of the outer skin material 11 gradually descends from the opening 9 </ b> A of the mounting member 9. At this time, the outer skin material 11 is supported from the lower side by an elevating support means 19 that can move up and down, and a portion of the outer skin material 11 does not extend and become extremely thin.

  As described above, when the outer skin material 11 is supported from the lower side by the lifting support means 19 and the discharge of the inner material is finished and the nozzle member 17 and the fabric pressing member 15 are raised, the shutter mechanism The peripheral portion of the outer skin material 11 is gathered to the central portion and sealed by the sealing means 23 made of. At this time, since the thickness of the peripheral edge portion of the outer skin material 11 is always kept constant, the thickness (amount) of the outer skin material 11 gathered to the sealing portion is always substantially constant. Sealing can be performed stably and reliably. In other words, a food product in which the inner material is covered with the outer skin material 11 is manufactured.

  The encapsulated food manufactured as described above is transferred from the lifting support means 19 onto the carry-out conveyor 21 and carried out to the next process.

  As will be understood from the above description, the nozzle member 17 and the fabric pressing member 15 are individually moved up and down, and the lowering stop positions can be individually set (controlled). Each descent stop position can be adjusted (controlled) in accordance with the properties of the material 11, and the conventional problems as described above can be solved.

  Further, since the nozzle member 17 and the fabric pressing member 15 are moved up and down by separate actuators 101 and 105, the relative vertical position relationship between the nozzle member 17 and the fabric pressing member 15 is the property of the skin material 11. Of course, it is possible to adjust (control) the vertical movement start timing and the vertical movement speed of the nozzle member 17 with the fabric pressing member 15, and to minimize wasted time. Thus, productivity can be improved.

  In the above-described configuration, the constituent elements such as the sealing means 23, the nozzle unit 51, and the pump 39 can be attached to and detached from the main body frame 5 from the front side of the main body frame 5. Can be easily performed.

  By the way, the present invention is not limited to the above-described embodiments, and can be implemented in other forms by making appropriate changes. That is, in order to simplify the configuration, the on-off valve 65 provided in the nozzle member 17 of the nozzle unit 51, the up-down moving actuator 77 for rotating the on-off valve 65 up and down, the rotary actuator 75, and the like are omitted. A configuration is also possible.

  In this case, when the discharge of the inner material from the nozzle member 17 to the outer skin material 11 is finished, when the nozzle member 17 starts to rise, the forward rotation of the pump 39 is stopped simultaneously and the reverse rotation is appropriately performed. The inner material in the nozzle member 17 is slightly reversed. Therefore, it is possible to suck the excess inner material that tends to be discharged from the discharge port 17A of the nozzle member 17. Note that the reverse rotation of the pump 39 as described above at the end of the discharge of the inner material can also be performed in the above-described configuration including the on-off valve 65.

  As described above, it is possible to effectively prevent dripping of the excess inner material from the discharge port 17A of the nozzle member 17 by reversely rotating the pump 39 and sucking the inner material at the end of the discharge of the inner material. It is something that can be done.

  In the above-described configuration, when the pump 39 stops normal rotation and stops supplying the inner material, the coupling blocks 79A and 79B in the nozzle member 17 are raised to suck the inner material in the nozzle member 17. It is also possible to do. In this case, the entire inner material in the nozzle member 17 is sucked upward by the rise of the coupling blocks 79A and 79B, and at the same time, negative pressure is generated on the lower surface side of the on-off valve 65, and the inner material near the discharge port 17A is sucked. Thus, the dripping of the inner material from the discharge port 17A can be effectively prevented.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is an explanatory perspective view showing an overall configuration of a food product manufacturing apparatus according to an embodiment of the present invention. It is front explanatory drawing which showed the whole structure of the covering food manufacturing apparatus which concerns on embodiment of this invention. It is left side explanatory drawing which showed the whole structure of the covering food manufacturing apparatus which concerns on embodiment of this invention. It is plane explanatory drawing which showed the whole structure of the covering food manufacturing apparatus which concerns on embodiment of this invention. It is front sectional explanatory drawing which shows the part of a nozzle unit, a sealing means, and a pump. It is back explanatory drawing which shows the structure which moves a nozzle member and a fabric pressing member separately up and down.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Enclosed food manufacturing apparatus 5 Main body frame 7 Front surface 9 Placement member 9A Opening 11 Outer material 13 Outer material transfer means 15 Dough pressing member 17 Nozzle member 17A Discharge port 19 Lifting support means 21 Unloading conveyor 23 Sealing means 33 Inner material Supply means 39 Pump 43 Hopper 49 Connecting pipe 51 Nozzle unit 53 Connecting pipe 55 Connecting pipe 57 Outer cylinder 65 On-off valve 67 Lifting rod 73 Driving rod 75, 101, 105 Rotary actuator 77 Vertical motion actuator 79A, 79B Connecting block 81, 83 Lifting Rod 85,87 Fork member 93,95 Lifting slider 99,103 Rack 109,111 Adjustment screw

Claims (4)

  An encapsulated food manufacturing apparatus for manufacturing an encapsulated food having a structure in which an inner material is wrapped with an outer skin material, wherein an opening of a mounting member provided on the front side of a main body frame in the encapsulated food manufacturing apparatus is provided. Cover material transporting means for transporting a flat skin material onto the mounting member so as to cover, and a cloth that can press and move the outer peripheral edge of the skin material placed on the mounting member. A pressing member, a nozzle member that can discharge and move up and down the inner material at the central portion of the outer skin material on the mounting member, and a skin material that descends from the opening of the mounting member can be supported from below. Elevating and lowering support means that can move up and down, and sealing means for gathering and sealing the peripheral edge of the outer skin material at the center after the nozzle member and the fabric pressing member are raised, and the nozzle member and The fabric pressing member can be moved up and down individually and the vertical movement position must be Envelope food manufacturing apparatus, which is a separately adjustable.   The enveloping food manufacturing apparatus of Claim 1 WHEREIN: While providing the nozzle vertical movement mechanism for moving the said nozzle member up and down in the said main body flame | frame, the nozzle raising / lowering member provided in the said nozzle vertical movement mechanism was freely movable up and down. On the other hand, the nozzle member is detachable from the front, and the body frame is provided with a pressing member vertical movement mechanism for moving the fabric pressing member up and down, and the pressing member vertical movement mechanism is provided so as to be movable up and down. An encapsulated food manufacturing apparatus, wherein the pressing member can be attached to and detached from the front direction with respect to the pressing member elevating member.   The encapsulated food manufacturing apparatus according to claim 1 or 2, wherein the food product manufacturing apparatus can be integrally connected to the inner material supply means provided on the front surface of the main body frame in a fixed state and can be detached from the front surface of the main body frame from the front. The nozzle member is provided in an outer cylinder attached to the outer cylinder so as to be movable up and down, and the fabric pressing member is provided on the outer side of the outer cylinder so as to be movable up and down. An encapsulated food manufacturing apparatus characterized by comprising:   The encapsulated food manufacturing apparatus according to claim 1, 2, or 3, wherein the sealing means and the inner material supply means are detachable from the front direction with respect to the main body frame. manufacturing device.

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