JP2008062947A - Noodle ball forming and feeding device and noodle ball forming and packaging device - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a noodle ball forming and feeding device designed so that a unit noodle ball w1 can be fed by a simple means while it is restrained from being deformed, and a noodle ball group G, in which an arbitrary number of unit noodle balls w1 are aligned in close contact with one another in a single straight line, can be fed, and to provide a noodle ball forming and packaging device. <P>SOLUTION: The noodle ball forming and feeding device includes a noodle ball forming section 1, which repeats forming a unit noodle group w into a unit noodle ball w1 and causing it to fall. The device also includes a noodle feeding section 2, which receives each unit noodle ball w1 caused to fall by the noodle ball forming section 1 and feeds it in a forward direction f3. In such a device, the noodle ball feeding section 2 is provided almost horizontal in forward and backward directions. The device is provided with a straight trough 20 that receives a unit noodle ball w1 caused to fall by the noodle ball forming section 1 and guides its forward movement while restraining a sidewise deformation of the noodle ball. Additionally, in the noodle ball forming and packaging system, an automatic film packaging machine is added to the noodle ball forming and feeding device. <P>COPYRIGHT: (C)2008,JPO&INPIT

Description

  The present invention relates to a noodle ball forming and feeding device and a noodle ball forming and packaging device used for producing raw noodles such as Chinese noodles, udon and soba.

  A noodle ball forming unit that repeatedly forms a unit noodle string group on a unit noodle ball and dropping it downward, and a noodle ball sending unit that receives the unit noodle ball dropped by the noodle ball forming unit on a belt conveyor and sends it forward. There is already a noodle ball formation and delivery device provided with a noodle ball formation and delivery device in which a noodle ball compression mechanism and a film automatic packaging machine are added to this noodle ball formation and delivery device (see Patent Document 1).

JP 07-187156 A

  In the above-described conventional noodle ball forming and feeding device, when the unit noodle balls made into a ball shape at the noodle ball forming unit are supported by the belt conveyor of the noodle ball sending unit and sent out, the impact caused by dropping on the belt horizontal plane, It becomes flat and loses its shape due to its own weight action, and it is not convenient for the operator to lift and move the unit noodle balls by hand.

  Also, in conventional noodle ball forming and packaging devices, the unit noodle balls sent out from the noodle ball forming and sending device lose their shape, so it is necessary to compress the unit noodle balls with a complicated noodle ball compression mechanism before packaging the unit noodle balls. It becomes.

  The present invention is a noodle ball formation which can be made to allow the unit noodle balls formed in the noodle ball forming portion to be sent out in a state in which the deformation of the unit noodle balls is suppressed and to be conveniently lifted and moved to another place. To provide a delivery device and to provide a noodle ball forming and packaging device capable of packaging a plurality of unit noodle balls in an appropriately compressed state so as not to lose their shape with simple means and little effort. Objective.

  In order to achieve the above object, the noodle ball formation and delivery device according to the present invention, as described in claim 1, forms noodle balls that repeatedly form unit noodle strings on unit noodle balls and drop them downward. And a noodle ball forming and feeding device that receives the unit noodle balls dropped by the noodle ball forming unit and feeds them forward, the noodle ball sending and feeding unit is provided in a substantially horizontal shape facing forward and backward. And receiving a unit noodle ball dropped by the noodle ball forming portion, and having a straight bowl that guides the forward movement of the noodle ball while restricting the deformation of the noodle ball in the left-right direction. It is what.

The present invention is embodied as follows.
That is, as described in claim 2, the noodle ball delivery unit includes a push moving means for repeatedly pushing and moving the unit noodle balls received by the straight bowl.

  Further, as described in claim 3, the push moving means arbitrarily pushes and moves the unit noodle balls in the straight bowl forward by an arbitrary first distance larger than the longitudinal length of the noodle balls. After repeating a plurality of times, the unit noodle balls that have been dropped by the noodle ball forming unit are configured to repeat the operation of pushing and moving the unit noodle balls by a second distance larger than the predetermined distance.

  Furthermore, as described in claim 4, the straight bowl is cantilevered forward from the apparatus frame, and the length of the overhang range is such that at least five unit noodle balls are in the front-rear direction. It is set as the structure made into the magnitude | size which makes it possible to arrange in 1 linear form.

  Next, the noodle ball forming and packaging apparatus according to the present invention includes, as described in claim 5, a film automatic wrapping machine connected to the straight bowl of the noodle ball forming and feeding apparatus according to claim 3, and the push movement. When the means pushes and moves the unit noodle balls by the second distance, the plurality of unit noodle balls are pressed into contact with each other by the pushing movement and aligned in a line in the front-rear direction and positioned on the automatic film packaging machine. It is characterized by having become a structure.

According to the above-described present invention, the following effects can be obtained.
That is, according to the first or second aspect of the present invention, the unit noodle balls formed in the noodle ball forming portion can be easily moved forward and outward without causing front / rear / left / right deformation due to the guide action of the straight bowl. It can be taken out. At this time, the left and right side portions of the straight bowl will particularly effectively prevent the lateral deformation of the unit noodle balls. Arbitrary multiple unit noodle balls can be sent out to the front of the noodle ball forming unit in a single-line straight pressure contact state, so that the plurality of unit noodle balls can be transported from the straight bowl without being out of shape. It is possible to easily lift and move to other places such as inside, and it is possible to easily store a plurality of unit noodle balls in the bag so as not to lose their shape.

  Further, according to the third aspect of the present invention, a plurality of arbitrary unit noodle balls in the straight bowl are in a single row straight press-contact state, and the upper side of the straight bowl on the front and rear sides of the noodle ball group. Therefore, the operator can press both hands simultaneously on the front and rear end faces of the noodle ball group in the straight bowl to support the noodle ball group in a sandwiched manner. The lifting and moving operation can be easily performed, and the operation of pushing the rear end face of the noodle ball group can be easily performed in the operation of storing a plurality of unit noodle balls in the bag.

  According to the fourth aspect of the present invention, the operation of taking out the unit noodle balls in the straight bowl outside can be performed without being restricted by the obstacle, The process of extrapolating the bag body from the front side can be easily performed, and the operation of accommodating the plurality of unit noodle balls in the straight body in the bag body can be performed efficiently. In addition, a noodle ball group in which 2 to 5 arbitrary unit noodle balls are arranged in a single row straight pressure contact in a straight bowl is formed so that it can be easily taken out from the straight bowl. It becomes.

  Furthermore, according to the fifth aspect of the present invention, a noodle ball group in which 2 to 5 arbitrary unit noodle balls are arranged in a single-line straight press-contact shape can be automatically packaged. As a result, the noodle ball group is packaged in a state where it is compressed appropriately so as to reduce the time and the shape of each unit noodle ball before and after it is left and right.

  1 is a front view, FIG. 2 is a side view, FIG. 2 is a plan view of the noodle ball formation and delivery device, and FIG. 3 is a side view operation of the noodle ball formation and delivery device. FIG. 4 is an explanatory view, FIG. 4 is an explanatory view when A is used to lift and move a plurality of unit noodle balls by hand, and B is an explanatory view when a plurality of unit noodle balls are manually bagged.

  The noodle ball formation and delivery device according to the present invention comprises a noodle ball formation unit 1 and a noodle ball delivery unit 2 as shown in FIGS. The noodle ball forming unit 1 is a rotational force applying roller in FIG. 3 that is supported by the belt conveyer 3 with the conveying surface 3a oriented in the horizontal front-rear direction and the noodle strings on the belt conveyer 3 supported by the apparatus frame 4. And 5.

  As shown in FIG. 3, the belt conveyor 3 includes a pair of belt guide wheels 6a and 6b and an endless transfer belt 7 wound around the belt guide wheels 6a and 6b, and a transfer surface 3a. As shown in FIG. 2, a pair of left and right noodle guide wheels 9 and 9 that are driven to rotate in the arrow directions f1 and f2 around the vertical axis 8 are provided in the vicinity of the upper side in the middle of the front and rear direction. The vehicles 9 and 9 give a feeding force toward the center of the width of the conveyor belt 7 to the noodle strings that are conveyed to the front f3 in a state of being wide in the left-right direction on the conveyance surface 3a of the belt conveyor 3 It has been. Further, the rotational force applying roller 5 has a large number of protrusions 5a formed on the peripheral surface.

  2 and 3, reference numeral 10 denotes a left and right rotation fulcrum shaft rotatably supported by the left and right side surfaces 4 a and 4 b of the apparatus frame 4. An arm 11 having elongate plates a1 and a2 is mounted so as to be swingable up and down, and its tip projects forward.

  A left and right output rotation shaft 12 is provided at the tip of the arm 11, and the rotational force applying roller 5 is fixed to the left side of the output rotation shaft 12 so as to be rotatable together with the output rotation shaft 12. Between the pair of elongated plates a1 and a2, the transmission wheels 13a and 13b are fixed to the rotation fulcrum shaft 10 and the output rotation shaft 12, respectively, and an endless transmission band 14 is wound around the transmission vehicles 13a and 13b. ing. The transmission band 14 may be a belt or a chain, but if it is a belt, the lubricating oil is unnecessary and the situation where the lubricating oil adheres to the noodle strings is avoided.

  An electric motor 15 is fixed to the right side surface portion 4 b of the apparatus frame 4, and the rotation of the electric motor 15 is transmitted to the rotation fulcrum shaft 10, and further through the transmission wheels 13 a and 13 b and the transmission band 14, the rotational force applying roller 5. Is transmitted to.

  Further, driving means 16 for swinging the tip of the arm 11 in the vertical direction around the rotation fulcrum shaft 10 is provided at four positions on the apparatus frame above the arm 11.

  As shown in FIGS. 1 and 2, another electric motor 17 is fixed near the electric motor 15 on the right side surface portion 4 b of the apparatus frame 4, and this electric motor 17 is a belt guide wheel 6 b on the front side of the belt conveyor 3. The belt conveyor 3 and the pair of noodle guide wheels 9 and 9 are operated in conjunction with each other.

  On the transport surface 3 a of the belt conveyor 3, a pair of left and right front and rear guide plates 18 a and 18 b are vertically arranged at an appropriate interval at the center of the width of the transport belt 7 in front of the pair of noodle guide wheels 9 and 9. It is arranged in the direction and is fixed to the apparatus frame 4 in the same shape. At this time, the distance between the pair of left and right guide plates 18a and 18b is positioned so as to substantially match the distance between the outer peripheral surfaces of the pair of noodle guide wheels 9 and 9.

  A sensor 19 that detects the presence / absence of noodle strings is provided in the middle of the longitudinal direction of the front / rear direction guide plates 18a, 18b. This sensor 19 is provided with a projector and a light receiver on the left and right outer sides of a pair of left and right guide plates 18a and 18b, and the sensor of the transport surface 3a is determined by whether or not the light beam emitted from the projector is detected by the light receiver. It is configured to detect whether or not a noodle string is present at a position corresponding to 19 and the output portion of the driving means 16 is displaced up or down in relation to the detection signal of the sensor 19 and interlocked with the displacement. Thus, the arm 11 is swung up and down.

  On the other hand, the noodle ball delivery part 2 receives the unit noodle ball w1 that is arranged substantially horizontally in the front-rear direction and the noodle ball forming part 1 rolls the noodle string into a ball shape and drops it. A straight bowl 20 that guides forward movement while restricting deformation in the direction is provided, and a push-moving means 21 that pushes and moves the unit noodle balls w1 received by the straight bowl 20 to the front f3.

  The straight bowl 20 is formed by bending a metal plate in a substantially U shape when viewed from the front, and a large number of irregularities are formed on the inner surface for reducing the frictional force with the unit noodle balls w1 that are in contact therewith. For example, when the unit noodle ball w1 is for Chinese noodles, the straight bowl 20 has a total length L1 of about 70 cm to 100 cm, a lateral width L2 of about 7 cm to 10 cm, and a height L3. The height of the portion that receives the unit noodle ball w1 dropped from the noodle ball forming unit 1 is about 8 cm or more, and the width L2 increases as the left and right width L2 moves upward. It is preferable to form a hopper shape, and the front end side is projected from the front surface of the apparatus frame 4 in a cantilevered manner, and the amount L4 of the projection is approximately 40 cm to 60 cm.

  The pushing / moving means 21 includes a pressing body 22 that is displaced back and forth inside the straight rod 20 and a driving means 23 such as a pneumatic cylinder device that reciprocally displaces the pressing body 22 back and forth. When the unit 23 is pushed and moved to the front f3, the unit noodle ball w1 received at 20 places of the straight bowl 20 which is the delivery start point p1 of the pressing body 22 is pushed and moved to the front f3.

  Reference numeral 24 denotes control means 24 for controlling and operating the push moving means 21. This control means 24 is associated with an arrival detection signal generated when the sensor 19 detects the arrival of the noodle strings. For each unit noodle ball w1, a first control unit 25 that functions to cause the noodle ball w1 to perform a back-and-forth reciprocating movement once from the retracted position of the pressing body 22 (a position indicated by a solid line in FIG. 3), Each time the first control unit 25 performs the back-and-forth reciprocating movement of the pressing body 22 a predetermined number of times, the stroke of the last reciprocating movement (special stroke) S1 is changed to the stroke of the reciprocating reciprocating movement of the other times ( Basic stroke) comprises a second control unit 26 that functions to be larger than S2, and a number setting unit 27 that sets the arbitrary number of times by setting operation of the setting input member b1.

  At this time, the basic stroke S2 described above is matched with a first distance that is substantially the same as or larger than the longitudinal length of the unit noodle ball w1, and the special stroke S1 is about 5 cm to 10 cm, for example, about the first distance. Matched to a large second distance.

Next, an example of use of the above-described noodle ball formation and delivery device according to the present invention and the operation of each part will be described.
After each part is in an operating state, a separate noodle string group w having a substantially rectangular plate shape with one serving of noodle strings as one unit is provided for another supply provided on the upstream side of conveyance of the belt conveyor 3 By the belt conveyor c1, it is continuously supplied to the conveyance start point p2 of the belt conveyor 3.

  The unit noodle string group w is manufactured in the same manner as in the prior art. For example, the noodle dough is rolled into a flat shape to form a long noodle strip in the front-rear direction. The width direction is continuously cut in the front-rear direction so as to be divided into a plurality of pieces, thereby forming a noodle string group intermediate product, and the front-rear longitudinal direction of the intermediate product is fixed to a length corresponding to one serving by a length dividing means (not shown). This process is repeated so that the unit noodle string group w is continuously obtained one after another.

A large number of unit noodle strings w thus obtained are arranged in a line in the front-rear direction at appropriate intervals on the transport surface of the supply belt conveyor c1, and each of the noodle strings is a single plane. It mounts one after another so that it may be in the state of being developed into a rectangular plate shape.
Therefore, each unit noodle string group w which has been transported to the supply belt conveyor c1 and reached the transport start point p2 of the belt conveyor 3 and further moved onto the transport surface 3a is also on the supply belt conveyor c1 on the transport surface 3a. The transport mode is maintained as it is.

  Thus, each unit noodle strip group w transported on the transport surface 3a eventually reaches the position of the pair of noodle guide wheels 9, 9, where the left and right ends of each unit noodle strip group w are a pair of noodle guide wheels 9, 9 is rotated toward the center of the width of the conveyor belt 7 by the rotation of the outer peripheral surface 9. At this time, since the outer peripheral surfaces of the noodle guide wheels 9 and 9 are adapted to the forward moving speed of the conveyor belt 7, the front and rear positions of the unit noodle string groups w with respect to the conveyor belt 7 are hardly changed. And is smoothly fed between a pair of left and right noodle guide plates 9 and 9.

  When the front end of each unit noodle string group w reaches the position of the sensor 19, the sensor 19 detects the presence of the unit noodle string group w and generates an arrival detection signal. At this time, when the arm 11 is swung upward and does not exist at the solid line position in FIG. 3, the drive means 16 is actuated so that the output portion thereof is displaced downward to move the arm 11 in FIG. Swing down to the solid line position.

  When the unit noodle string group w that has passed the position w of the sensor 19 reaches the rotational force applying roller 5, the unit noodle string group w is shaped like a ball by the rotational force of the rotational force applying roller 5 and the conveying force of the belt conveyor 3. A unit noodle ball w1 for one serving is formed.

  When the end of the molding process of the unit noodle ball w1 is approaching, the rear end of the unit noodle string group w passes through the position of the sensor 19, and at this time, the sensor 19 reaches the next unit noodle string group w. Until then, the noodle strings are not detected, the passage of the rear end of the unit noodle string group w related to the unit noodle balls w1 during the noodle ball molding is detected, and a passage detection signal is issued.

  This passage detection signal operates the driving means 16 so that the output portion thereof is displaced upward, swings the arm 11 upward, pulls up the rotational force applying roller 5 to the imaginary line position p3 in FIG. The unit noodle balls w1 in a state where the noodle ball molding is completed are dropped to the front and lower by the conveying force of the belt conveyor 3 and the action of gravity. It is received at the delivery start point p1. At this time, since the straight bowl 20 has a hopper shape in the vicinity of the delivery start point p1, the unit noodle ball w1 does not leak from the straight bowl 20 and is deformed in the left-right direction. Smoothly enter the inside while being suppressed.

  Next, the push moving means 21 starts to operate according to a command from the control means 24 in relation to the passage detection signal related to the unit noodle ball w1 that has reached the delivery start point p1. First, the pressing body 22 is displaced back and forth in the basic stroke S2, and the unit noodle ball w1 positioned at the delivery start point p1 is resisted against the frictional resistance with the straight bowl 20 by a first distance having the same size as the basic stroke S2. Push and move forward f3. When this push-moving process is completed, the delivery start point p1 of the straight basket 20 is in an empty state.

  On the other hand, after the end of the unit noodle string group w that becomes the unit noodle ball w1 after the unit noodle ball w1 pushed and moved in this way reaches the position of the sensor 19, by the same action as described above, The next unit noodle string group w is formed into a unit noodle ball w1 by the noodle ball forming unit 1, and the unit noodle ball w1 is dropped to the delivery start point p1 of the straight bowl 20. Then, the pushing / moving means 21 operates in the same manner as described above, and the pressing body 22 is displaced back and forth in the basic stroke S2 to push and move the unit noodle ball w1 at the delivery start point p1 to the front f3 by the first distance. The unit noodle ball w1 pushed and moved in this way presses the previous unit noodle ball w1, resists the frictional resistance between the two unit noodle balls w1, w1 and the straight bowl 20, and is a mold in the front / rear / right / left direction. It is pushed and moved forward f3 while being prevented from collapsing. The two unit noodle balls w1 moved in this way are maintained in a pressure contact state by the frictional resistance with the straight bowl 20 even after the movement, and thus each unit noodle ball w1 regulates excessive deformation in the front and rear, left and right directions. It will be in the state.

  Assuming that the setting input member b1 of the number setting unit 27 is set to the position of 5 times, each of the four unit noodle balls w1 continuously formed by the noodle ball forming unit 1 is pushed and moved 21. The four unit noodle balls w1 are pushed and moved to the front f3 by the first distance S2 by the operation of the four unit noodle balls w1 and w1 according to the case of the two unit noodle balls w1 and w1 described above. They are single-row straight and held in pressure contact with each other. When the fifth unit noodle ball w1 is received at the delivery start point p1 of the straight bowl 20, the push moving means 21 is displaced back and forth by the special stroke S1, and the pressing body 22 is the unit noodle ball at the delivery start point p1. w1 is pushed and moved forward f3 by the second distance, and the unit noodle ball w1 moved to the front f3 by this push movement is moved to the front f3 while being pressed against the rear part of the fourth unit noodle ball w1. Therefore, the five unit noodle balls w1 in the straight bowl 20 are formed into a single-line straight shape and are in a pressure contact state even after the fifth unit noodle ball w1 is pushed and moved. Is retained.

  Next, when the sixth unit noodle ball w1 is formed by the noodle ball forming unit 1, the control means 24 determines that this unit noodle ball w1 is the first unit noodle ball w1, and the push moving means 21 The unit noodle ball w1 is pushed and moved forward f3 by the first distance S2.

  At this time, the noodle ball group G in which the five unit noodle balls w1 are already in the press contact state in the straight bowl 20 has a second distance S1 with respect to the sixth unit noodle ball w1. And the first distance S2 (for example, about 5 cm to 10 cm), a gap is formed. This gap is maintained until the second unit noodle ball w1 of the noodle ball group G to be formed is pushed and moved by the push moving means 21, so that the operator can use the second unit noodle ball w1. By the time when the noodle ball w1 is pushed and moved, the noodle ball group G already formed in the straight bowl 20 is moved outward.

  When the noodle ball group G in the straight bowl 20 is lifted and moved by hand, the operator presses one hand against one end in the front-rear direction of the noodle ball group G and the other hand as shown in FIG. The five unit noodle balls w1 are pressed against the ends and supported in a sandwiched manner, and are lifted upward from the straight bowl 20 and moved to other places such as a transport box.

  On the other hand, when packing the noodle ball group G in the straight bowl 20, as shown in FIG. 4B, the bag body d 1 is extrapolated from the front end side of the straight bowl 20, and in this state, the noodle ball group G The rear end face is pushed by hand, and the noodle ball group G and the bag body d1 are simultaneously extracted from the straight bowl 20 to the front f3, and five unit noodle balls w1 are accommodated in the bag body d1.

  When the noodle ball group G is thus taken out from the straight bowl 20 and the same operation as described above is repeated, the next noodle ball group G is formed at the same position in the straight bowl 20 as before. Thereafter, the above-described operation is repeated.

In the above example, the setting input member b1 is set to 5 times. However, the setting input member b1 may be set to any number other than this, and in this case, the same number as the arbitrary number set by the setting input member b1 is acceptable. A noodle ball groove G in a state in which the unit noodle balls w1 are arranged in a single-line straight press-contact shape is formed in the straight bowl 20.
In the above example, the unit noodle string group w is composed of a group of noodle strings. However, the present invention is not limited to this, and the unit noodle string group w may be composed of a group of noodle strings.

FIG. 5 is a side view of the main part of the noodle ball forming and packaging apparatus according to the present invention.
As shown in this figure, a noodle ball forming and packaging apparatus according to the present invention is formed by adding the same automatic film packaging machine 28 as disclosed in Patent Document 1 to the above-described noodle ball forming and feeding apparatus.

  In this case, the straight bowl 20 is made relatively short, and an automatic film packaging machine 28 similar to that disclosed in, for example, Patent Document 1 is connected to the front end of the straight bowl 20. Then, when the push moving means 21 pushes and moves the unit noodle ball w1 by the second distance S1, a noodle ball group G composed of a plurality of unit noodle balls w1 of the same number as the number set in advance by the setting input member b1. Is formed on the automatic film wrapping machine 28. Thereby, the automatic film wrapping machine 28 wraps the noodle ball group G in a state in which no excessive deformation of the front, rear, left and right occurs.

  At this time, on the automatic film wrapping machine 28, it is preferable to form a mechanism having a function according to the above-described straight bowl 20 in order to maintain the single row straight line alignment and the press contact state of the noodle ball group G.

The noodle ball formation and delivery device according to the present invention is shown in which A is a front view and B is a side view. It is a top view of the said noodle ball formation delivery apparatus. It is operation | movement explanatory drawing by the side view of the said noodle ball formation delivery apparatus. The state of use of the noodle ball formation and delivery device is shown. A is an explanatory diagram when a plurality of unit noodle balls are lifted and moved by hand, and B is an explanatory diagram when a plurality of unit noodle balls are manually packed in a bag. . It is a side view of the principal part which shows the noodle ball formation packaging apparatus which concerns on this invention.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Noodle ball formation part 2 Noodle ball delivery part 20 Straight bowl 21 Push moving means 28 Film automatic packaging machine f3 Front S1 2nd distance (special stroke)
S2 First distance (basic stroke)
w Unit noodle line group w1 Unit noodle ball

Claims (5)

  A noodle ball forming unit that repeatedly forms a unit noodle string group on a unit noodle ball and dropping it downward, and a noodle ball sending unit that receives the unit noodle ball dropped by the noodle ball forming unit and sends it forward. In the noodle ball forming and feeding device, the noodle ball sending portion is provided in a substantially horizontal shape in the front-rear direction and receives the unit noodle balls dropped by the noodle ball forming portion and restricts the deformation of the noodle balls in the left-right direction. A noodle ball forming and feeding device characterized by comprising a straight bowl for guiding the forward movement of the noodle ball.   2. The noodle ball forming and feeding device according to claim 1, further comprising a pushing and moving means for repeatedly pushing and moving the unit noodle balls received by the straight bowl to the front.   The noodle ball forming unit after the push moving means repeatedly repeats the unit noodle balls in the straight bowl to the front by an arbitrary first distance larger than the front and rear length of the noodle balls, a plurality of times. 2. The noodle ball formation / delivery device according to claim 1, wherein the unit noodle ball dropped is repeatedly pushed and moved by a second distance larger than the predetermined distance.   The straight bowl is cantilevered forward from the apparatus frame, and the front-rear length of the overhang range allows at least five unit noodle balls to be aligned in a straight line in the front-rear direction. 4. The noodle ball forming and feeding device according to claim 1, wherein the noodle ball forming and feeding device has a size to be formed.   An automatic film wrapping machine is connected to the straight bowl of the noodle ball forming and feeding device according to claim 3, and when the pushing and moving means pushes and moves the unit noodle balls by the second distance, a plurality of the noodle ball forming and feeding devices are moved by the pushing movement. The noodle ball forming and packaging apparatus is characterized in that the unit noodle balls are pressed and arranged in a line in the front-rear direction and positioned on the automatic film packaging machine.

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