JP3187111U - Dough forming machine - Google Patents

Abstract

The present invention provides a dough forming machine capable of easily removing a dough from a roller and forming the dough into a rice grain with a simple configuration.
A dough forming machine that presses a dough between a pair of a first roller and a second roller so that the dough is embossed with rice grains. The first roller 34 includes, on each outer peripheral portion, a recess row 44 in which first recesses 42 and second recesses 43 that are shallower than the first recesses 42 are alternately arranged in the circumferential direction. The first recess 42 of the first roller 34 faces the second recess 43 of the second roller 36, and the second recess 43 of the first roller 34 is It is characterized by facing the first recess 42.
[Selection] Figure 2

Description

  The present invention relates to a dough forming machine that forms dough into rice grains.

  In an apparatus for producing noodles, an apparatus for producing raw noodle strings by mixing and kneading noodle making raw materials to form a noodle dough is known. In an apparatus for forming such a noodle dough, there is one in which the noodle strings are uniformly attached to the surface of the raw noodle strings in order to prevent the raw noodle strings from binding to each other (for example, , See Patent Document 1).

By the way, in recent years, when there is no rice, it is possible to make food that imitates rice by boiling a dough made mainly of flour into a rice grain size (hereinafter referred to as chineri rice) with fingertips. It has been introduced. For this reason, an increasing number of people want to eat food that mimics the rice made by boiling the cinelli rice.
However, since cinelli rice rolls the dough with a fingertip to make a rice grain size, it takes a lot of labor and time to form the same amount of chinelli rice as a full-size rice. Therefore, there is a demand for a simple dough forming machine that can easily make chinelli rice.

JP 2012-175933 A

  In order to make the dough large by using a dough forming machine, it is conceivable to emboss rice grains while rolling with a roller or the like. In this case, a plurality of rice grain-sized recesses are formed on the roller. However, when trying to emboss the dough with a roller having a plurality of recesses, the dough enters the recess and the dough is difficult to peel off from the roller.

  The present invention has been made in view of the above circumstances, and provides a dough forming machine that can easily remove a dough from a roller and can form the dough into a rice grain with a simple configuration. is there.

In order to solve the above problems, the present invention has the following configuration.
A dough forming machine according to the present invention is a dough forming machine for embossing rice grains on a dough by passing the dough between a pair of first and second rollers, the first roller and The second roller includes, on each outer peripheral portion, a first concave portion and a concave row in which second concave portions having a shallower depth than the first concave portion are alternately arranged in the circumferential direction, and the first roller passes through the dough. And the second roller, the first recess of the first roller is opposed to the second recess of the second roller, and the second recess of the first roller is the second roller of the second roller Opposite one recess.
The fabric that has entered the deep recess has a greater adhesion to the roller than the fabric that has entered the shallow recess, so the first recess and the second recess that is relatively shallower than the first recess are alternately arranged in the circumferential direction. By arranging the first recess and the second recess so as to face each other between the first roller and the second roller, the adhesion force of the dough acts evenly on the first roller and the second roller. In addition, the adhesion force of the fabric to the first roller and the adhesion force of the fabric to the second roller can be made to act in the direction of canceling each other. As a result, the dough can be easily peeled off from the first roller and the second roller, and the dough can be formed into a rice grain size with a simple configuration.

Furthermore, in the dough forming machine according to the present invention, the first roller and the second roller of the dough forming machine may include a plurality of the recessed rows in the axial direction.
By comprising in this way, the quantity of the rice grain dough which can be shape | molded by one operation | work can be increased by the part which provided the several recessed part row | line | column in the axial direction. As a result, the dough can be formed in a shorter time.

Furthermore, the dough forming machine according to the present invention includes a first peeling member that peels the dough from the first roller and a second peeling member that peels the dough from the second roller in the dough forming machine. May be.
By comprising in this way, even if it is a case where cloth is maintained in the state where it adhered to the 1st roller and the 2nd roller, cloth can be made to peel from the 1st roller and the 2nd roller with a peeling member. it can. As a result, the reliability of the adhesion preventing function can be improved.

Furthermore, the dough forming machine according to the present invention, in the dough forming machine, a handle that can be rotated, a transmission mechanism that transmits rotational power input to the handle to at least the first roller, the transmission mechanism, You may make it provide the casing which accommodates said 1st roller and said 2nd roller, and the accommodation container which accommodates the dough which was detachably attached to the said casing and was embossed.
By comprising in this way, a pair of roller can be rotated via a transmission mechanism by rotation operation of a handle. Moreover, the dough shape | molded with the roller can be accommodated in the storage container with which the casing was mounted | worn. Furthermore, the dough after shaping | molding can be collect | recovered by removing a storage container from a casing. As a result, the dough can be easily molded.

Further, in the dough forming machine according to the present invention, the casing of the dough forming machine may be formed so as to be split in the axial direction of the first roller and the second roller.
By comprising in this way, since a casing can be divided | segmented and a 1st roller and a 2nd roller can be exposed, maintenance, such as washing | cleaning of a 1st roller and a 2nd roller, can be performed. As a result, since maintenance can be easily performed, the burden on the user can be reduced.

Furthermore, the dough forming machine according to the present invention may be provided with a lid portion capable of closing the storage container detached from the casing in the dough forming machine.
By comprising in this way, a storage container can be obstruct | occluded with a cover part and it can prevent that dough comes out of a storage container. In addition, by repeatedly shaking the container closed by the lid, the embossed dough can be impacted and easily separated into rice-sized dough.

Furthermore, the dough forming machine according to the present invention may be provided with a stirring member that protrudes inside the lid portion in the dough forming machine.
By comprising in this way, since a further impact can be applied to the dough in the storage container, the embossed dough can be easily separated into a rice grain-sized dough.

  According to the dough forming machine according to this device, the dough can be easily peeled off from the roller, and the dough can be formed into a rice grain size with a simple configuration.

It is the figure which looked at the cloth forming machine in the embodiment of this device from the front. It is a perspective view which shows the state which removed the upper case of the said dough forming machine from the casing main body. It is a front view of the transmission mechanism of the dough forming machine. It is sectional drawing of the roller and peeling member of the said dough forming machine. It is a perspective view of the storage container and lid part of the dough forming machine.

Next, a dough forming machine according to an embodiment of the present invention will be described with reference to the drawings.
FIG. 1 is a perspective view of a dough forming machine in this embodiment.
As shown in FIG. 1, the dough forming machine 1 of this embodiment includes an upper case 2, a forming machine body 3, and a storage container 4. The upper case 2, the molding machine main body 3, and the container 4 in an example of this embodiment are all formed in a rectangular shape that is long in the left-right direction in plan view. The rectangular shape that is long in the left-right direction in the plan view has rounded corners. In FIGS. 1 and 2, the front-rear direction and the left-right direction of the dough forming machine 1 are indicated by arrows, respectively.

  The side surface 5 of the upper case 2, the side surface 6 of the molding machine main body 3, and the side surface 7 of the storage container 4 are formed flush with each other. A projection (not shown) is formed on the lower part 8 of the molding machine body 3 and is inserted into the upper part 9 of the container 4. The upper part 10 of the molding machine body 3 is inserted inside the lower part 11 of the upper case 2. The convex part 12 (refer FIG. 2) to be formed is formed. The upper case 2 is detachably coupled to the molding machine body 3 by fitting the lower part 11 of the upper case 2 and the convex part 12 of the upper part 10 of the molding machine body 3. The storage container 4 can be coupled to the molding machine main body 3 by fitting the upper portion 9 of the storage container 4 with the convex portions of the lower portion 8 of the molding machine main body 3.

  The molding machine main body 3 and the container 4 are coupled more loosely than the upper case 2 and the molding machine main body 3 are coupled. Due to the fitting of the convex portion of the lower part 8 of the molding machine body 3 and the container 4, the displacement of the container 4 relative to the molding machine body 3 in the front-rear and left-right directions is mainly restricted. A pair of lock mechanisms 13 are provided between the side surface 6 of the molding machine body 3 and the side surface 7 of the container 4. These lock mechanisms 13 are arranged on the side surfaces 6 and 7 opposite to each other with the molding machine main body 3 interposed therebetween, and restrict the displacement of the container 4 in the vertical direction relative to the molding machine main body 3 so as to be disengageable. With this lock mechanism 13, the container 4 can be firmly attached to the molding machine body 3.

  The molding machine body 3 includes a measuring spoon 14 on its side surface. The measuring spoon 14 is used to measure the raw material of the dough, and is detachably attached to the side surface 6 of the molding machine body 3 by, for example, fitting of uneven portions (not shown). Further, four positioning projections 15 for positioning the measuring spoon 14 are formed on the side surface of the molding machine body 3.

  The upper case 2 is attached to the molding machine body 3 so as to cover the upper opening 16 (see FIG. 2) of the molding machine body 3 from above. The upper case 2 has an inlet 18 in the upper wall 17 thereof. The introduction port 18 penetrates in the vertical direction in order to introduce the material to be molded into the molding machine body 3. In the upper case 2, inclined walls 19 are formed on both the left and right sides of the periphery of the introduction port 18. These inclined walls 19 are arranged in the upper part of the inlet 18 so that the cross-sectional area is gradually reduced downward. These inclined walls 19 enable the cloth to be smoothly guided to the introduction port 18.

FIG. 2 is a perspective view showing a state where the upper case 2 of the dough forming machine 1 is removed from the forming machine body 3.
As shown in FIG. 2, the molding machine main body 3 includes a casing 20, a handle 21, a transmission mechanism 22, and a molding mechanism 23.
The casing 20 forms the outer peripheral wall of the molding machine body 3. A handle 21 that can be rotated is attached to the casing 20 on the front side surface 6. A transmission mechanism 22 and a molding mechanism 23 are accommodated in the casing 20.

  The casing 20 is formed by a front casing 20a and a rear casing 20b, and can be divided into front and rear. The casing 20 is provided with clip mechanisms 24 on the left and right sides thereof. These clip mechanisms 24 are mechanisms for restricting the front casing 20a and the rear casing 20b from being displaced in the detachment direction. The clip mechanism 24 includes a clip portion 24a that slides in the vertical direction. The clip portion 24a has a front and rear projections (not shown) protruding from the side surface 6 of the front casing 20a and a projection (not shown) protruding from the side surface 6 of the rear casing 20b. Can be sandwiched from both sides. That is, by sliding and removing the clip portion 24a of the clip mechanism 24, the casing 20 can be separated from the front casing 20a and the rear casing 20b in the front-rear direction.

  The handle 21 is formed in a substantially disc shape. A plurality of groove portions 25 extending in the axial direction are arranged at equal intervals in the circumferential direction on the outer peripheral surface of the handle 21. These groove portions 25 are formed to prevent slipping in the circumferential direction during operation. The rotating shaft 26 of the handle 21 is linked to a transmission mechanism 22 disposed in the front casing 20a. The transmission mechanism 22 transmits the rotational power input to the handle 21 to the molding mechanism 23.

FIG. 3 is a front view of the transmission mechanism 22 accommodated in the front casing 20a.
As shown in FIG. 3, the transmission mechanism 22 includes a first large gear 27, a second large gear 28, a first small gear 29, a second small gear 30, a third small gear 31, and a fourth small gear. 32.

  The first large gear 27 is a gear to which the rotation shaft 26 of the handle 21 is connected at the center of rotation. The first large gear 27 is rotatably supported by the front casing 20a. That is, when the handle 21 rotates, the first large gear 27 also rotates. The first large gear 27 is a so-called spur gear, and a plurality of teeth 33 that are convex outward in the radial direction are formed on the outer periphery thereof. A rotation shaft of a first roller 34 (see FIG. 2) constituting the forming mechanism 23 is detachably attached to the rotation center of the first large gear 27 on the opposite side of the handle 21 in the axial direction. The axis of the first large gear 27 is arranged on an extension line of the axis of the first large gear 27. That is, when the handle 21 is rotated, the rotation amount of the first large gear 27 and the rotation amount of the first roller 34 are made to coincide.

  The second large gear 28 is a spur gear that meshes with the first large gear 27. The second gear has the same number of teeth 35 as the first large gear 27. This second gear is also rotatably supported by the front casing 20a. The second large gear 28 has a rotation direction different from that of the first large gear 27 and rotates at the same rotation amount as the rotation amount of the first large gear 27. The second large gear 28 is disposed on the right side of the first large gear 27 in the horizontal direction. A rotation shaft of a second roller 36 (see FIG. 2) constituting the forming mechanism is detachably attached to the rotation center of the second large gear 28. The axis of the second roller 36 is arranged on an extension of the axis of the second large gear 28. That is, the amount of rotation of the second large gear 28 and the amount of rotation of the second roller 36 coincide, and as a result, the amounts of rotation of the first roller 34 and the second roller 36 also coincide.

The first small gear 29 is a spur gear that transmits the rotational power of the first large gear 27 to the third small gear 31. The first small gear 29 is arranged below the first large gear 27 and meshes with the first large gear 27.
The second small gear 30 is a spur gear that transmits the rotational power of the second large gear 28 to the fourth small gear 32. The second small gear 30 is disposed below the second large gear 28 and meshes with the second large gear 28.

The third small gear 31 is a spur gear that transmits the rotational power transmitted through the first small gear 29 to a first peeling member 37 described later. A rotation shaft of the first peeling member 37 is detachably attached to the rotation center of the third small gear 31.
The fourth small gear 32 is a spur gear that transmits the rotational power transmitted through the second small gear 30 to a second peeling member 38 described later. A rotation shaft of the second peeling member 38 is detachably attached to the rotation center of the fourth small gear 32.

  As described above, the first roller 34, the second roller 36, the first peeling member 37, and the second peeling member 38 can be attached to and detached from the transmission mechanism 22, respectively. The one roller 34, the second roller 36, the first peeling member 37, and the second peeling member 38 can be removed and maintenance such as cleaning can be easily performed.

FIG. 4 is a longitudinal cross-sectional view of the first forming machine 34, the second roller 36, the first peeling member 37, and the second peeling member 38 of the dough forming machine 1 as seen from the back orthogonal to the respective axes.
As shown in FIGS. 2 and 4, the dough forming machine 1 includes a first roller 34 and a second roller 36 that make a pair. The first roller 34 and the second roller 36 form the dough by sandwiching the dough between them. The first roller 34 and the second roller 36 are disposed in a space 39 defined by the front casing 20a and the rear casing 20b. The first roller 34 and the second roller 36 are arranged in parallel so that the respective axes are directed in the front-rear direction.

  The first roller 34 and the second roller 36 include a first recess 42 having a relatively deep depth and a second recess 43 having a relatively shallow depth in each of the outer peripheral portions 40 and 41. The first concave portion 42 and the second concave portion 43 are formed such that a volume obtained by adding the volume of the first concave portion 42 and the volume of the second concave portion 43 is equal to a predetermined rice grain size volume. The first recess 42 has a volume that is twice or more that of the second recess 43. Moreover, the 1st recessed part 42 and the 2nd recessed part 43 become a shape long in each axial direction of the 1st roller 34 and the 2nd roller 36. As shown in FIG.

  As shown in FIG. 2, the outer peripheral portion 40 of the first roller 34 and the outer peripheral portion 41 of the second roller 36 are provided with a concave row 44 in which first concave portions 42 and second concave portions 43 are alternately arranged in the circumferential direction. Is formed. Furthermore, three rows of concave portions 44 are formed in the outer circumferential portion 40 of the first roller 34 and the outer circumferential portion 41 of the second roller 36 in the axial direction thereof. Thereby, the 1st recessed part 42 and the 2nd recessed part 43 are formed in the whole region of the outer peripheral parts 40 and 41 of the 1st roller 34 and the 2nd roller 36. As shown in FIG. These three recess rows 44 are arranged so that the first recesses 42 are adjacent to each other and the second recesses 43 are adjacent to each other in the axial direction of the first roller 34 and the second roller 36. Each of the outer peripheral portions 40 and 41 is formed with an axial wall 45 extending in the axial direction between the first concave portion 42 and the second concave portion 43 adjacent in the circumferential direction, and each concave portion adjacent in the axial direction. Between the rows 44, circumferential wall portions 46 extending in the circumferential direction are formed. That is, the outer peripheral portions 40 and 41 are formed with the axial wall portion 45 and the circumferential wall portion 46 in a lattice shape.

  As shown in FIG. 4, the 1st roller 34 and the 2nd roller 36 are arrange | positioned so that the outer peripheral parts 40 and 41 which mutually oppose may contact | connect. In other words, on the straight line 47 that connects the center of the first roller 34 and the center of the second roller 36 in FIG. In the place P where the outer peripheral portion 40 of the first roller 34 and the outer peripheral portion 41 of the second roller 36 are in contact with each other, the first recess 42 formed on the first roller 34 has a second formed on the second roller 36. The rotation of the first roller 34 and the rotation of the second roller 36 are synchronized so that the recesses 43 face each other. Similarly, at the location P, the rotation of the first roller 34 and the second roller 36 so that the first recess 42 formed on the second roller 36 faces the second recess 43 formed on the first roller 34. The rotation is synchronized. As shown in FIG. 2, the first roller 34 and the second roller 36 have the same axial position of the circumferential wall 46 extending in the circumferential direction, and the circumferential walls 40 and 41 are opposed to each other. 46 are in contact with each other.

  That is, when the dough is sandwiched between the first roller 34 and the second roller 36 described above, the rice grain-size embossing is performed on the dough by the first concave portion 42 and the second concave portion 43 that face each other. Here, the cloth entering the first recess 42 having a relatively deep depth has a greater adhesive force than the cloth entering the second recess 43 having a relatively shallow depth. However, since the fabric is alternately pressed by the first recess 42 of the first roller 34 and the first recess 42 of the second roller 36, the adhesion force of the fabric to the first roller 34 and the second The adhesion force of the cloth to the roller 36 becomes equal, and these adhesion forces act in the opposite direction. Therefore, the mutual adhesion force is offset, and as a result, the fabric is peeled off from the first roller 34 and the second roller 36 only by its own weight.

The 1st peeling member 37 is a member for peeling the said cloth | dough, when the state which cloth | dough stuck to the 1st roller 34 is maintained.
The 2nd peeling member 38 is a member for peeling the said article, when the state where cloth | dough stuck to the 2nd roller 36 is maintained.

  The first peeling member 37 and the second peeling member 38 are formed in a substantially cylindrical shape in which the length in each axial direction is the same as that of the first roller 34 and the second roller 36. A plurality of convex portions 48 and 49 extending in the axial direction are formed on the first peeling member 37 and the second peeling member 38. These convex portions 48 and 49 are formed at equal intervals in the circumferential direction of the first peeling member 37 and the second peeling member 38, and are formed to project radially outward in a cross section viewed from the axial direction. When the convex portion 48 of the first peeling member 37 is located at a position facing the outer peripheral portion 40 of the first roller 34, it can be brought into contact with the first roller 34. Similarly, the convex portion 49 of the second peeling member 38 can be brought into contact with the second roller 36 when the convex portion 49 is in a position facing the outer peripheral portion 41 of the second roller 36.

  The first peeling member 37 is rotated in the same direction as the first roller 34 by the transmission mechanism 22 when the handle 21 is rotated. Similarly, the second peeling member 38 is rotated in the same direction as the second roller 36 by the transmission mechanism 22 when the handle 21 is rotated. That is, when the convex portion 48 of the first peeling member 37 faces the outer peripheral portion 40 of the first roller 34, the outer peripheral portion 40 of the first roller 34 moves while moving in the opposite direction to the outer peripheral portion 40 of the first roller 34. To touch. Therefore, the cloth in a state of sticking to the first roller 34 is scraped off by the convex portion 48 and moves downward by its own weight. Similarly, when the convex portion 49 of the second peeling member 38 faces the outer peripheral portion 41 of the second roller 36, the outer peripheral portion of the second roller 36 moves in the direction opposite to the outer peripheral portion 41 of the second roller 36. 41 is contacted. Therefore, the cloth in a state of sticking to the second roller 36 is scraped off by the convex portion 49 and moves downward by its own weight.

FIG. 5 is a perspective view of the container 4 and the lid 50.
As shown in FIG. 5, the dough forming machine 1 includes a lid 50.
The storage container 4 is a container for receiving and storing the fabric formed by the molding machine body 3.
The lid 50 is a member that can close the housing container 4 that has been detached from the molding machine body 3. An annular groove portion 52 for fitting the upper edge portion 51 of the storage container 4 is formed on the outer edge portion of the lower surface of the lid portion 50. The container 4 is sealed by the lid 50 by fitting the upper edge 51 into the groove 52. The container 4 in which the formed fabric is accommodated and sealed is repeatedly shaken up and down, left and right by the user for a predetermined time. As a result, an impact is applied to the dough in the storage container 4, and the embossed dough is separated into rice-sized dough.

A stirring member 54 is detachably attached to the central portion of the inner side surface 53 of the lid 50. The stirring member 54 is a member for stirring the dough inside the storage container 4 when the storage container 4 is shaken. The stirring member 54 is formed in a flat plate shape that protrudes toward the inside of the lid 50 when the container 4 is sealed by the lid 50.
The inner side surface 53 of the lid part 50 is formed in a corrugated uneven shape. The corrugated irregularities collide with the dough separated into rice grains when the container 4 is shaken. Therefore, the corner of the rice grain-sized dough is rounded by the collision with the inner side surface 53, and can be made closer to the shape of rice grains (rice grains).

The dough forming machine 1 in this embodiment has the above-described configuration. Next, a procedure for forming a dough by the dough forming machine 1 will be described.
First, make a dough with flour as the main ingredient. At this time, the raw material is weighed using the measuring spoon 14. The dough may be made in the storage container 4 or in another container.
Next, a predetermined amount of the fabric is formed into an elongated shape that can pass through the introduction port 18, and the leading end of the fabric is introduced into the fabric forming machine 1 from the introduction port 18. At this time, the dough is introduced to a position where it comes into contact with the first roller 34 and the second roller 36.

  Thereafter, the handle 21 is rotated clockwise so that the outer peripheral portions 40 and 41 facing the first roller 34 and the second roller 36 move downward. As a result, the dough is sandwiched between the first roller 34 and the second roller 36 and sequentially pressed and pushed downward. The embossed dough is peeled off from the first roller 34 and the second roller 36 and sequentially stored in the storage container 4. Here, the dough is sandwiched between the circumferential wall 46 of the first roller 34 and the circumferential wall 46 of the second roller 36, and the axial wall 45 of the first roller 34 and the second roller 34. The portions sandwiched by the 36 axial wall portions 45 are connected in a very thin and brittle state.

After forming a predetermined amount of dough, the container 4 is detached from the molding machine body 3. Furthermore, the lid 50 to which the stirring member 54 has been attached in advance is attached and sealed to the detached container 4. The container 4 is shaken for a predetermined time in this sealed state. Here, when the storage container 4 is shaken, the dough collides with the inner surface of the storage container 4, the inner surface of the inner surface of the lid 50, and the stirring member 54. By this collision, the thin portion of the dough described above is cut first, and the dough is separated into rice grains. Next, the corner of the rice grain-sized dough is rounded by collision with the inner side surface 53 of the lid 50, and the chinelli rice having a shape closer to the rice grain is obtained.
Then, after shaking for a predetermined time, the cinellied rice that has been formed is taken out of the container 4.

  Therefore, according to the dough forming machine 1 of the above-described embodiment, the second recesses 43 having a relatively shallow depth and the first recesses 42 having a relatively deep depth are alternately arranged in the circumferential direction. By arranging the first concave portion 42 and the second concave portion 43 so as to face each other between the one roller 34 and the second roller 36, the adhesion force of the cloth is evenly distributed between the first roller 34 and the second roller 36. Can act. Furthermore, the adhesive force of the cloth on the first roller 34 and the second roller 36 can be exerted in the direction of canceling each other. As a result, the dough can be easily peeled off from the first roller 34 and the second roller 36, and the dough can be formed into a rice grain size with a simple configuration.

  In addition, by providing a plurality of recess rows 44 in the axial direction, it is possible to increase the size of rice grains that can be formed in a single operation, compared to the case where only one recess row 44 is provided. As a result, the dough can be formed in a shorter time.

Further, even if a situation occurs in which the state in which the fabric is adhered to one of the pair of the first roller 34 and the second roller 36 is generated, the molded fabric is removed from the first peeling member 37 and the first roller 37. The two peeling members 38 can be peeled from the first roller 34 and the second roller 36. As a result, the reliability of the adhesion preventing function can be improved.
Furthermore, the pair of rollers can be rotated via the transmission mechanism 22 by the rotation operation of the handle 21. Moreover, the dough shape | molded by a pair of roller can be accommodated in the storage container 4 with which the casing 20 of the molding machine main body 3 was mounted | worn. Furthermore, the dough after forming can be recovered by detaching the container 4 from the casing 20. As a result, the dough can be easily molded.

  Furthermore, since the casing 20 of the molding machine main body 3 can be divided into the front casing 20a and the rear casing 20b, the first roller 34 and the second roller 36 can be exposed. In addition, maintenance such as cleaning of the second roller 36 can be performed. As a result, since maintenance can be easily performed, the burden on the user can be reduced.

Further, the storage container 4 can be blocked by the lid portion 50 to prevent the dough from coming out of the storage container 4. Further, by repeatedly shaking the container 4 closed by the lid 50, an impact is applied to the embossed dough and it can be easily separated into a rice grain-sized dough.
Furthermore, since a further impact can be applied to the dough in the container 4 by the stirring member 54, the embossed dough can be easily separated into a dough having a grain size of rice.

The invention is not limited to the configuration of the above-described embodiment, and can be changed in design without departing from the gist thereof.
For example, although the fabric forming machine of the above-described embodiment has been described with respect to the case where the first roller 34 and the second roller 36 are rotated using the driving force obtained by the user turning the handle 21, the driving of a motor or the like is described. You may make it rotate using force.
Furthermore, in embodiment mentioned above, the case where the recessed part row | line | column 44 was each provided in the outer peripheral part 40 of the 1st roller 34 and the outer peripheral part 40 of the 2nd roller 36 3 rows in the axial direction was demonstrated. However, the present invention is not limited to this configuration. For example, four or more recess rows 44 may be provided, or two or less recess rows 44 may be provided.

  In the above-described embodiment, the case where the stirring member 54 has the appearance of the character has been described as an example. However, the appearance of the stirring member 54 is not limited to the character shape, and may be a shape protruding from the inner surface of the lid 50. Any shape is acceptable.

DESCRIPTION OF SYMBOLS 1 Material forming machine 2 Upper case 3 Molding machine main body 4 Storage container 5 Side surface of upper case 6 Side surface of molding machine main body 7 Side surface of storage container 8 Lower part of molding machine main body 9 Upper part of storage container 10 Upper part of molding machine main body 11 Upper case Lower part 12 convex part 13 lock mechanism 14 measuring spoon 15 positioning convex part 16 upper opening part 17 upper wall 18 inlet 19 inclined wall 20 casing 20a front casing 20b rear casing 21 handle 22 transmission mechanism 23 molding mechanism 24 clip mechanism 24a clip Part 25 Groove part 26 Rotating shaft 27 First large gear 28 Second large gear 29 First small gear 30 Second small gear 31 Third small gear 32 Fourth small gear 33 Teeth 34 First roller 35 Teeth 36 Second roller 37 First One peeling member 38 Second peeling member 39 Space portion 40 Outer peripheral portion 41 Outer peripheral portion 42 First recess 4 Second recess 44 concave portion rows 45 axially wall portion 46 circumferential wall portion 47 straight 48 protrusion 49 protrusion 50 lid 51 upper edge 52 groove 53 inner surface 54 agitator P places

Claims (7)

A dough forming machine that performs rice grain embossing on the dough by passing the dough between a pair of first and second rollers,
The first roller and the second roller are
Each outer peripheral portion includes a first recess and a recess row in which second recesses having a depth smaller than that of the first recess are alternately arranged in the circumferential direction.
Between the first roller and the second roller through which the dough passes, the first recess of the first roller faces the second recess of the second roller, and the second recess of the first roller Is a dough forming machine characterized by facing the first recess of the second roller.   2. The dough forming machine according to claim 1, wherein the first roller and the second roller include a plurality of the recess rows in the axial direction. A first peeling member for peeling the fabric from the first roller;
The dough forming machine according to claim 1, further comprising a second peeling member that peels the dough from the second roller. A handle that can be rotated,
A transmission mechanism for transmitting rotational power input to the handle to at least the first roller;
A casing that houses the transmission mechanism, the first roller, and the second roller;
The dough forming machine according to claim 3, further comprising a storage container that is detachably attached to the casing and stores the embossed dough.   The dough forming machine according to claim 4, wherein the casing is formed so as to be split in an axial direction of the first roller and the second roller.   The dough forming machine according to claim 4, further comprising a lid portion capable of closing the storage container detached from the casing.   The dough forming machine according to claim 6, further comprising a stirring member that protrudes to the inside of the lid.

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