JP7039455B2 - Ingredient mixer - Google Patents

Description

The present invention relates to a foodstuff mixer that mixes a plurality of foodstuffs, and for example, relates to a foodstuff mixer such as a vinegar mixing machine that mixes rice with vinegar (seasoned vinegar) to make vinegar rice.

Conventionally, the food material mixer disclosed in Patent Document 1 is known.
The foodstuff mixer disclosed in Patent Document 1 has a mixing drum that is rotatably supported by the machine body and rotates to mix a plurality of foodstuffs housed inside.
A drum lock for fixing the mixing drum to the machine is attached to the bottom of the mixing drum, and the drum lock is inserted into the drum fixing plate, which is the plate to which the mixing drum is attached, and the mixing drum is rotated to a predetermined position by the lock mechanism. By locking, the mixing drum is fixed.

Japanese Unexamined Patent Publication No. 2015-65524

In the foodstuff mixer disclosed in Patent Document 1, the drum lock must be inserted into the drum fixing plate, the mixing drum must be rotated to a predetermined position, and then locked by the lock mechanism, which is troublesome to install the mixing drum. be.
Therefore, an object of the present invention is to provide a food material mixer to which a mixing drum can be easily attached.

The foodstuff mixer according to one aspect of the present invention includes a machine body and a mixing drum that is rotatably supported by the machine body around the axis and rotates to mix a plurality of foodstuffs housed inside. The machine body has a rotary disk that can rotate around the axis and is mounted with the mixing drum by placing the mixing drum and rotating it by a predetermined angle in the set direction around the axis. Has an insertion hole and an engagement groove formed at a distance on the rear side of the insertion hole in the setting direction, and the mixing drum has the insertion hole when it is placed on the turntable. A state in which the engaging claw moves the mixing drum to a set position where it can be restricted from coming off from the turntable by rotating the mixing drum at the predetermined angle, and the engaging claw inserts the insertion hole. A ball that is inserted into the engaging groove and moves to a position where the engaging claw moves to the setting position so as to overcome the partition wall portion between the insertion hole and the engaging groove and to be inserted into the insertion hole. Has a member.

Further, the turntable has a lock groove that engages with the engaging claws to prevent the mixing drum from rotating relative to the turntable in the rotation direction, and the mixing drum is mounted on the turntable. The position can be changed between the mounting position, which is the position where the mixing drum is placed, and the operating position, which is the position raised from the mounting position and where the mixing drum is rotated, and the engaging claw is located at the set position. When the turntable is set to the operating position in this state, it fits into the lock groove.

Further, the rotary disk has a rotation transmitting portion that abuts the engaging claw so as to be able to transmit a rotational force to the engaging claw when the engaging claw is set to the set position, and a portion of the rotation transmitting portion on the front side in the setting direction. It has a regulating wall portion that regulates the mixing drum from being disengaged from the turntable by engaging the engaging claws, and the lock groove is formed on the lower surface side of the regulating wall portion. There is.
Further, the turntable has an upper plate and a lower plate that is overlapped and fixed to the lower surface of the upper plate, and the upper plate has an upper through hole formed through the upper plate. The lower plate has a lower through hole formed by penetrating the lower plate and communicating with the upper through hole, and the insertion hole is formed by the upper through hole and the lower through hole. The rotation transmission portion is formed by an end portion of the upper through hole on the front side in the set direction, and the engagement groove is formed so as to penetrate the upper plate.

Further, the lock groove is formed so as to penetrate the lower plate and is continuously formed in the lower through hole.
Further, the mixing drum has a mounting plate attached to the bottom surface of the mixing drum, and the engaging claw extends from the mounting plate and abuts on the rotation transmission portion, and extends from the base piece and said. It has a locking piece that fits into the lock groove and engages with the restricting wall portion.

According to the above configuration, the mixing drum can be mounted by simply placing the mixing drum on a turntable and rotating it by a predetermined angle in the setting direction, and the mixing drum can be easily mounted.

It is the whole perspective view of the food material mixer. It is a schematic side view of a food material mixer. It is a schematic side sectional view of the food material mixer. It is a schematic plan sectional view of a food material mixer. It is an exploded perspective view of the airframe. It is an enlarged view of the drive part which drives a mixing drum. It is a top view of a turntable. It is a top view which shows the state which the mixing drum is placed on the mounting table. It is an exploded perspective view of a turntable. It is a top view of the upper through hole, the lower through hole and the engagement groove. FIG. 7 is a cross-sectional view taken along the line F1-F1 of FIG. 7. It is a side sectional view which shows the mounting position of a support frame. It is a side sectional view which shows the taking-out position of a support frame. It is a side view of the food material mixer in which the support frame is mounted. It is a side view of the food material mixer in which the support frame is taken out. It is a side view of the mounting part of the operation lever. It is a perspective view of the mounting part of the operation lever. It is sectional drawing of the mounting part of the operation lever. It is a perspective view of a rotating member. It is a perspective view of the outer wall of the 1st rocking frame. It is a bottom view of a drum body. FIG. 21 is a cross-sectional view taken along the line F2-F2 of FIG. 21. It is a top view of a drum body. It is a cross-sectional view taken along the line F3-F3 of FIG. 23. FIG. 23 is a cross-sectional view taken along the line F4-F4 of FIG. 23. FIG. 21 is a cross-sectional view taken along the line F5-F5 of FIG. 21. It is sectional drawing of the mounting part of a ball member. The left figure shows before the mixing drum is rotated in the setting direction, and the right figure is a plan view showing after the mixing drum is rotated in the setting direction. The upper figure shows before the mixing drum is rotated in the setting direction, and the lower figure is a cross-sectional view showing after the mixing drum is rotated in the setting direction. It is a top view which shows the relationship between the engaging claw and the lock groove. It is a perspective view of a drum body. It is a side view of a drum body. It is a front view of a drum body. FIG. 33 is a cross-sectional view taken along the line F6-F6 of FIG. 33. It is a cross-sectional view taken along the line F7-F7 of FIG. 23. FIG. 32 is a cross-sectional view taken along the line F8-F8 of FIG. 32. FIG. 33 is a cross section taken along the line F9-F9 in FIG. 33. It is a front view of a drum lid. It is a top view of a drum lid. It is a sectional view taken along the line F10-F10 of FIG. 39. It is a sectional view taken along the line F11-F11 of FIG. 40. It is a sectional view taken along the line F12-F12 of FIG. 38. It is a perspective view of a stirring member. It is a sectional view taken along the line F13-F13 of FIG. 43. It is the F14-F14 line arrow cutoff of FIG. 43. It is a front view which shows the state which held the drum lid by a holding member together with a stirring member. It is a side view which shows the state which held the drum lid in a holding member together with a stirring member. It is a top view which shows the modification of the drum lid.

Hereinafter, an embodiment of the present invention will be described with reference to the drawings as appropriate.
FIG. 1 is a schematic perspective view showing the overall configuration of the foodstuff mixer 1. FIG. 2 is a schematic side view of the foodstuff mixer 1. FIG. 3 is a schematic side sectional view of the foodstuff mixer 1. FIG. 4 is a schematic plan sectional view of the foodstuff mixer 1.
The foodstuff mixer 1 is a machine that mixes a plurality of foodstuffs. The foodstuff mixer 1 is used, for example, in a vinegar mixing machine that automatically mixes vinegar (seasoned vinegar) with rice to make vinegar rice. Further, the foodstuff mixing machine 1 of the present embodiment is a small vinegar mixing machine, and exemplifies a tabletop type vinegar mixing machine used by placing it on a table or the like.

The foodstuff mixer 1 may be used to mix a plurality of other foodstuffs, for example, when the ingredients are mixed with the cooked grain to make cooked rice. Further, the foodstuff mixing machine 1 is not limited to the tabletop type vinegar mixing machine.
In the present embodiment, as shown in FIGS. 2 to 4, the direction of arrow A1 will be described as the front direction, the direction of arrow A2 will be described as the rear direction, and the direction of arrow A3 will be described as the front-back direction. Therefore, in FIGS. 2 to 4, the side indicated by reference numeral A4 is the front side of the foodstuff mixer 1, and the side indicated by reference numeral A5 is the back side of the foodstuff mixer 1.

Further, the arrow B1 direction in FIG. 4 (front side in FIGS. 2 and 3) is to the right, the arrow B2 direction in FIG. 3 (back side in FIGS. 2 and 3) is to the left, and the arrow B3 direction in FIG. 3 (front and back). The horizontal direction orthogonal to the direction) will be described as the machine width direction.
Further, the direction from the central portion to the left portion or the right portion of the machine width direction B3 of the food material mixer 1 will be described as the outside of the machine width. In other words, the outside of the machine width is the direction B3 in the machine width direction and away from the center of the machine width direction B3 of the food mixing machine 1.

Further, the direction opposite to the outside of the machine width will be described as the inside of the machine width. In other words, the inside of the machine width is the direction B3 in the machine width direction and approaches the center of the machine width direction B3 of the food mixing machine 1.
First, the outline of the food material mixer 1 will be described.
As shown in FIGS. 1 to 3, the foodstuff mixer 1 is rotatably supported by the machine body 2 and the machine body 2 around the axis X1 (referred to as the drum axis), and is accommodated therein by rotating. It has a mixing drum 3 for mixing foodstuffs and a stirring member 4 mounted in the mixing drum 3 for stirring foodstuffs.

The mixed drum 3 has a drum main body 6 having one end opened in the axial direction (direction of the drum axial center X1) and the other end closed by the bottom portion 5, and a drum lid 8 closing the opening 7 of the drum main body 6. The bottom portion 5 of the drum body 6 is the bottom portion of the mixing drum 3.
The bottom side of the mixing drum 3 is mounted on the machine body 2 in a vertically oriented state (see FIG. 14). The vertical orientation is a state in which the drum axis X1 extends substantially along the vertical direction, with the drum lid 8 at the top and the bottom 5 of the drum body 6 at the bottom. In this vertical state, the ingredients are put into the drum body 6. For example, the food material is put into the drum main body 6 after the mixing drum 3 is attached to the machine body 2. In addition, the food material may be put into the drum main body 6 before the mixing drum 3 is attached to the machine body 2. The stirring member 4 is attached to the drum body 6, for example, after the food is charged into the drum body 6. The stirring member 4 may be attached to the drum body 6 before the food is charged into the drum body 6.

When the mixed drum 3 is mounted on the machine body 2, the mixed drum 3 is changed to an inclined posture (see FIGS. 2 and 3) in which the drum axis X1 shifts upward as the drum axis X1 moves backward. The mixing drum 3 is rotationally driven in this inclined posture, and a plurality of foodstuffs housed therein are mixed.
Hereinafter, each part of the food mixing machine 1 will be described in detail.
As shown in FIGS. 1 and 5, the machine body 2 has a main frame 9 placed on a table or the like, and a support frame 10 on which a mixing drum 3 is mounted and rotatably supported.

The main frame 9 includes a frame main body 11, a first side frame 12 extending forward (front direction) from one side portion (front right portion) of the frame main body 11, and another side portion (front left portion) of the frame main body 11. It has a second side frame 13 extending forward from the surface, and a connecting frame 14 for connecting the front sides of the first side frame 12 and the second side frame 13.
As shown in FIGS. 3 and 4, the frame main body 11 is formed in a hollow shape in which the front surface, the back surface, the upper surface, the lower surface, and the left and right side surfaces are surrounded by a wall portion. As shown in FIG. 4, a partition plate 15 is provided in the middle of the machine width direction B3 inside the frame main body 11. The partition plate 15 divides the inside of the frame body 11 into a first chamber 16 on the right side and a second chamber 17 on the left side. The control device 18 for controlling the operation of the food mixing machine 1 is housed in the first room 16. As shown in FIG. 3, the blower 19 and the air duct 20 are housed in the second chamber 17. The blower 19 is a device that generates cooling air to be sent into the mixing drum 3 in order to cool the food. The air guide duct 20 is a member that guides the cooling air generated by the blower 19 into the mixing drum 3.

As shown in FIG. 3, the air duct 20 is provided in the upper part of the second chamber 17. The upper portion 20a of the air guide duct 20 is formed in a cylindrical shape having a vertical axis center (axial center extending in the vertical direction). A blower 19 is attached to the upper portion 20a of the air duct 20. The blower 19 generates cooling air flowing downward. The lower portion 20b of the air guide duct 20 is bent forward from the lower end of the upper portion 20a and protrudes forward from the front wall 11c of the frame main body 11. The front portion of the lower portion 20b of the air guide duct 20 is a cooling air supply port 20c that blows the cooling air generated by the blower 19 toward the mixing drum 3. The cooling air supply port 20c is located in the vicinity of the cooling air intake port 21 formed in the drum lid 8. The cooling air blown out from the cooling air supply port 20c is introduced into the mixing drum 3 from the cooling air intake port 21 formed in the drum lid 8, and the foodstuff is cooled by the cooling air. Further, the end portion 20d on the blowout side of the cooling air supply port 20c has an inclined shape that shifts backward as it goes downward, and is parallel to the cooling air intake port 21. Further, the cooling air supply port 20c is located slightly below the center of the cooling air intake port 21 and is directed toward the center of the mixing drum 3.

As shown in FIG. 3, an opening 22 is formed in the rear wall 11a constituting the back surface of the second chamber 17, and the opening 22 is covered with the back plate 23. The back plate 23 has a louver-shaped ventilation portion 23a and has ventilation properties. By driving the blower 19, air is taken into the second chamber 17 from the ventilation portion 23a.
As shown in FIG. 1, the upper wall 11b of the frame main body 11 is provided with a holding member 24 for holding the drum lid 8 together with the stirring member 4. The holding member 24 is formed by bending a bar member, and has a first rod portion 24a and a second rod portion 24b arranged side by side at intervals in the machine width direction B3. Further, the holding member 24 has a third rod portion 24c extending upward from the front end of the first rod portion 24a and a fourth rod portion extending upward from the front end of the second rod portion 24b. It has 24d and. Further, the holding member 24 has a fifth rod portion 24e extending upward from the rear end of the first rod portion 24a and a sixth extending upward from the rear end of the second rod portion 24b. It has a rod portion 24f and a seventh rod portion 24g that connects the upper portions of the fifth rod portion 24e and the sixth rod portion 24f to each other.

As shown in FIG. 4, the first side frame 12 and the second side frame 13 are formed in a hollow shape and face each other in the machine width direction B3. As shown in FIG. 5, the connecting frame 14 connects the front portion and the lower portion of the first side frame 12 and the second side frame 13.
As shown in FIGS. 1 and 4, the support frame 10 is arranged between the first side frame 12 and the second side frame 13. As shown in FIGS. 4 and 5, the support frame 10 includes a first swing frame 25 on the right side, a second swing frame 26 on the left side, and a first swing frame 25 and a second swing frame 26. It has a support base 27 to be connected.

As shown in FIG. 5, the first swing frame 25 projects in a direction orthogonal to the right portion of the upper wall 27a of the support base 27, and the second swing frame 26 is the upper wall 27a of the support base 27. It protrudes in the direction orthogonal to the left part. As shown in FIG. 4, the first swing frame 25 is swingably supported around a swing axis X2 whose protruding side extends in the machine width direction B3 to the first side frame 12 via a rotating member 28. ing. Further, the first swing frame 25 is formed in a hollow shape. The protruding side of the second swing frame 26 is supported by the second side frame 13 via the support member 29 so as to be swingable around the swing axis X2.

As shown in FIG. 4, the support base 27 is formed in a hollow shape and communicates with the second swing frame 26. The mixing drum 3 is mounted on the support base 27. Specifically, the rotating disk 31 is attached to the support base 27 via the rotating shaft 30, and the mixing drum 3 is attached to the rotating disk 31. The rotary shaft 30 is rotatably supported by the support base 27 around the axis. The axis X3 of the rotating shaft 30 is a rotating axis that is the center of rotation of the rotating disk 31 and the mixing drum 3. That is, the axis X3 of the rotating shaft 30 coincides with the drum axis X1 mounted on the rotating disk 31 (becomes concentric). In the following description, the axis X3 of the rotation axis 30 is also referred to as the rotation axis X3.

As shown in FIG. 6, one end side of the rotating shaft 30 is rotatably supported around the axis center by the upper wall 27a via the bearing member 32. Further, one end side of the rotating shaft 30 protrudes from the upper wall 27a. A receiving portion 33 that protrudes outward in the radial direction of the rotating shaft 30 is formed in a portion of the rotating shaft 30 that protrudes from the upper wall 27a. Further, one end side of the rotating shaft 30 has a fitting portion 34 protruding from the receiving portion 33. The fitting portion 34 is formed in a square columnar shape with the rotation axis X3 as the axis. Further, the rotary shaft 30 has a screw hole 35 formed by being recessed from the end portion of the fitting portion 34 on one end side. A screw hole is a hole in which a female screw is cut on the inner peripheral surface of a cylindrical hole. The other end side of the rotating shaft 30 is rotatably supported around the axis X1 via a bearing member 37 by a bracket member 36 provided inside the support base 27. The bracket member 36 is fixed to the inner surface of the upper wall 27a.

As shown in FIG. 7, at the center of the turntable 31, a rectangular fitting hole 38 formed through the turntable 31 is formed. As shown in FIG. 6, by fitting the fitting hole 38 into the fitting portion 34 of the rotating shaft 30, the rotary disk 31 can rotate integrally with the rotating shaft 30. Further, when the fitting hole 38 is fitted into the fitting portion 34, the lower surface of the rotating disk 31 comes into contact with the receiving portion 33.
As shown in FIG. 6, the turntable 31 is attached to the rotary shaft 30 by a fixative 39. Specifically, the fixture 39 is composed of bolts and has a screw shaft portion 39a having a male thread on the outer periphery thereof and a head portion 39c provided at one end of the screw shaft portion 39a. The head 39c has a flange portion 39b. By screwing the screw shaft portion 30a into the screw hole 35, the center side of the rotary plate 31 is sandwiched between the flange portion 39b and the receiving portion 33, whereby the rotary plate 31 is attached to the rotary shaft 30.

As shown in FIG. 6, a drive motor 40 for driving the rotating shaft 30 is provided inside the support base 27. The drive motor 40 is attached and fixed to the bracket member 36. The rotary shaft 30 is rotated by the power of the drive motor 40, and the rotary disk 31 is rotated. Specifically, the first gear (bevel gear) 41 is integrally rotatable on the output shaft 40a of the drive motor 40, and the second gear (bevel gear) 42 meshing with the first gear 41 can be integrally rotated on the rotating shaft 30. It is attached. The power of the drive motor 40 is transmitted to the rotary shaft 30 via the first gear 41 and the second gear 42. The drive motor 40 is connected to the control device 18 by a harness, and the control device 18 controls the drive motor 40. In other words, the control device 18 controls the rotation of the turntable 31.

As shown in FIG. 6, inside the support base 27, a home position detector 43 that detects the home position of the rotary disk 31, which is the position where the mixing drum 3 is mounted and the position where the rotation of the mixing drum 3 is started, is detected. Is provided. The home position detector 43 detects the home position of the turntable 31 by detecting the detection unit 44A provided on the second gear 42. The home position detector 43 is connected to the control device 18 by a harness, and the control device 18 stops the turntable 31 at the home position after the set rotation time (operating time) of the mixing drum 3 has elapsed.

As shown in FIGS. 5 and 8, a plurality of rollers (first roller 44A, second roller 44B) are provided on the upper surface of the upper wall 27a of the support base 27. The first roller 44A is provided behind and to the right of the turntable 31, and the second roller 44B is provided behind and to the left of the turntable 31. It is rotatably fitted around the axis of the support shaft 89 having an axis parallel to the axis of rotation X3.

As shown in FIG. 8, the peripheral surface of the mixing drum 3 (the peripheral surface of the lower part of the drum body 6) is in contact with the first roller 44A and the second roller 44B, and the bottom portion 5 of the mixing drum 3 is placed on the rotary disk 31. When placed, the drum axis X1 and the rotation axis X3 coincide with each other. That is, the first roller 44A and the second roller 44B position the mixing drum 3 with respect to the rotating disk 31 when the mixing drum 3 is mounted on the rotating disk 31. Further, the mixing drum 3 is mounted on the turntable 31 by rotating the mixing drum 3 by a predetermined angle around the rotation axis X3 in the set direction indicated by the arrow D1 in FIG. At this time, the first roller 44A and the second roller 44B rotate with the rotation of the mixing drum 3, and the mixing drum 3 can be smoothly rotated. Further, the first roller 44A and the second roller 44B are located under the lower portion of the mixing drum 3 when the mixing drum 3 is tilted backward and driven to rotate, and support the rotation of the mixing drum 3 well. do. Further, the turntable 31 rotates the mixing drum 3 by rotating in the rotation direction indicated by the arrow D2 in FIG. That is, the set direction D1 and the rotation direction D2 are opposite to each other.

As shown in FIG. 7, the turntable 31 has an insertion hole 45. The insertion hole 45 includes a first insertion hole 45A and a second insertion hole 45B provided at symmetrical positions in the radial direction of the turntable 31. In the present embodiment, two sets of the first insertion hole 45A and the second insertion hole 45B are provided. The first set of the first insertion hole 45A1 and the second insertion hole 45B1 and the second set of the first insertion hole 45A2 and the second insertion hole 45B2 are the circumferential direction J1 of the rotary disk 31 (referred to as the disk circumferential direction). It is formed with a phase difference of 90 °. The insertion hole 45 may be composed of one set of the first insertion hole 45A and the second insertion hole 45B, or may be composed of three or more sets of the first insertion hole 45A and the second insertion hole 45B. May be good. Further, the number of insertion holes 45 may be one.

Further, the turntable 31 has an engagement groove 46 formed at a distance on the rear side of the insertion hole 45 in the setting direction D1. The engaging groove 46 includes a first engaging groove 46A provided on the rear side of the first insertion hole 45A1 in the setting direction D1 and a second engaging groove 46B provided on the rear side of the second insertion hole 45B1 in the setting direction D1. And include. The engaging groove 46 is formed in an arc shape centered on the center of the rotary disk 31 (rotation axis X3). In the present embodiment, it is provided only behind the first insertion hole 45A1 and the second insertion hole 45B1 of the first set, but behind the first insertion hole 45A2 and the second insertion hole 45B2 of the second set. May also be provided. That is, the same number of engaging grooves 46 may be provided as the number of insertion holes 45.

As shown in FIG. 9, the rotary disk 31 is formed by two disks, an upper plate 31A and a lower plate 31B. The lower plate 31B is concentrically overlapped and fixed to the lower surface of the upper plate 31A.
The fitting hole 38 is formed by a first fitting hole 38A formed through the center of the upper plate 31A and a second fitting hole 38B formed through the center of the lower plate 31B.

The insertion hole 45 is formed by an upper through hole 47 formed in the upper plate 31A and a lower through hole 48 formed in the lower plate 31B.
The upper through hole 47 is formed so as to penetrate the upper plate 31A. Further, the upper through hole 47 includes a first upper through hole 47A and a second upper through hole 47B formed at positions symmetrical in the radial direction of the turntable 31. Two sets of the first upper through hole 47A and the second upper through hole 47B are provided. The first set of first upper through holes 47A1 and second upper through holes 47B1 and the second set of first upper through holes 47A2 and second upper through holes 47B2 are located at 90 ° positions in the disk circumferential direction J1. It is formed with a phase difference.

The lower through hole 48 is formed so as to penetrate the lower plate 31B. Further, the lower through hole 48 includes a first lower through hole 48A and a second lower through hole 48B formed at positions symmetrical in the radial direction of the turntable 31. Two sets of the first lower through hole 48A and the second lower through hole 48B are provided. The first set of lower through holes 48A1 and the second lower through hole 48B1 and the second set of first lower through holes 48A2 and second lower through holes 48B2 are located at 90 ° positions in the disk circumferential direction J1. It is formed with a phase difference.

As shown in FIG. 10, the upper through hole 47 has a first portion 47a and a second portion 47b extending from the first portion 47a in the setting direction D1. The width W1 of the first portion 47a is formed wider than the width W2 of the second portion 47b. The portion between the first portion 47a and the second portion 47b (the portion connecting the first portion 47a and the second portion 47b) is formed in a tapered shape that gradually narrows in the setting direction D1. ..

The bottom through hole 48 has a first portion 48a and a second portion 48b extending from the first portion 48a in the setting direction D1. The width W3 of the first portion 48a is formed wider than the width W4 of the second portion 48b. The portion between the first portion 48a and the second portion 48b (the portion connecting the first portion 48a and the second portion 48b) is formed in a tapered shape that gradually narrows in the setting direction D1. ..

The width W1 of the first portion 47a of the upper through hole 47 is formed to have substantially the same width as the width W3 of the first portion 48a of the lower through hole 48. The width W2 of the second portion 47b of the upper through hole 47 is formed wider than the width W4 of the second portion 48b of the lower through hole 48.
As shown in FIG. 11, the first portion 47a of the upper through hole 47 and the first portion 48a of the lower through hole 48 communicate with each other. The first portion 47a and the first portion 48a form an insertion hole 45. Further, the second portion 47b of the upper through hole 47 and the second portion 48b of the lower through hole 48 communicate with each other.

As shown in FIGS. 10 and 11, the engaging groove 46 is formed so as to penetrate the upper plate 31A. Further, the end portion of the upper through hole 47 on the front side in the setting direction D1 is a rotation transmission portion 47c that transmits the rotational force of the rotary disk 31 to the mixing drum 3. Further, the portion of the upper plate 31A on the front side of the rotation transmission portion 47c in the setting direction D1 is a regulation wall 47d that regulates the mixing drum 3 from coming off the rotary plate 31.

As shown in FIG. 10, the lower plate 31B has a lock groove 49 that restricts the mixing drum 3 from rotating in the direction opposite to the setting direction D1 with respect to the turntable 31. The lock groove 49 is formed so as to penetrate the lower plate 31B. The lock groove 49 is located on the front side of the lower through hole 48 in the setting direction D1 and on the lower surface side of the regulation wall 47d, and is connected to the lower through hole 48. The width W5 of the lock groove 49 is formed wider than the width W4 of the second portion 48b of the lower through hole 48.

By forming the turntable 31 with two plates, an upper plate 31A and a lower plate 31B, the engagement groove 46 and the lock groove 49 can be easily formed.
The support frame 10 and the rotary disk 31 swing the support frame 10 around the swing axis X2, so that the mounting position P1 shown in FIG. 12, the operating position P2 shown in FIG. The position can be changed to P3.

As shown in FIG. 14, the mounting position P1 is a position where the mixing drum 3 is mounted on the support frame 10 (rotary disk 31) in a vertically oriented state.
As shown in FIG. 12, at the mounting position P1, the upper wall 27a and the turntable 31 of the support base 27 are inclined so as to move downward toward the rear, and slightly fall back with respect to the horizontal (horizontal plane). It is said to be inclined. In other words, at the mounting position P1, the turntable 31 has an inclined shape that shifts downward toward the rollers 44A and 44B. In the present embodiment, at the mounting position P1 of the support frame 10 or the like, the drum axis X1 is tilted backward at an angle of about 2 ° with respect to the vertical (vertical line), for example.

As shown in FIGS. 2 and 3, the operating position P2 is a position where the support frame 10 is raised from the mounting position P1 (a position where the support frame 10 is swung upward around the swing axis X2), and the mixing drum 3 is moved. It is a position to rotate in an inclined state that shifts upward as it goes backward. That is, it is a position where ingredients are mixed. Further, in the mixing drum 3, in this state, the cooling air intake port 21 is close to the cooling air supply port 20c. In the present embodiment, at the operating position P2 of the support frame 10 or the like, the drum axis X1 is tilted backward at an angle of about 75 ° with respect to the vertical, for example. That is, the mixing drum 3 is rotated in an upward inclined posture that is close to the lateral direction. The lateral orientation is a state in which the drum axis X1 extends along a substantially horizontal direction.

As shown in FIG. 3, the support frame 10 is restricted from swinging upward by abutting on the connecting frame 14 at the operating position P2. More specifically, the lower wall 27b of the support base 27 will be described in the state at the mounting position P1 shown in FIG. The inclined second wall portion 27b2 (first contact wall) that shifts upward from the first wall 27b1 and the inclined third wall portion 27b3 (second) that shifts upward from the first wall 27b1 toward the front. It has an abutment wall). When the support frame 10 is swung from the mounting position P1 to the operating position P2, as shown in FIG. 3, the rear portion of the second wall portion 27b2 abuts on the connecting frame 14, and the upward swing of the support frame 10 is restricted. To.

As shown in FIG. 15, the take-out position P3 is a position where the support frame 10 is swung downward from the mounting position P1. It is a position to take out. When the support frame 10 swings from the mounting position P1 to the operating position P2, as shown in FIG. 13, the front portion of the third wall portion 27b3 abuts on the connecting frame 14, so that the downward swing of the support frame 10 is restricted. To.

As shown in FIG. 15, in the present embodiment, at the take-out position P3 of the support frame 10 or the like, the drum axis X1 is tilted forward at an angle of about 30 ° with respect to the vertical, for example.
As shown in FIG. 1, the machine body 2 has an operation lever 50 that swings the support frame 10 between the mounting position P1, the operating position P2, and the taking-out position P3. The operating lever 50 has a base portion 50b connected to the support frame 10 so as to be integrally rotatable around the swing axis X2, and has a spherical grip 50a at the tip portion. The operation lever 50 has a first operation position R1 (see FIG. 14), which is the position when the support frame 10 is the mounting position P1, and a second operation position R2, which is the position when the support frame 10 is the operating position P2. (See FIG. 2) and the third operation position R3 (see FIG. 15), which is the position when the support frame 10 is the take-out position P3, can be operated.

As shown in FIG. 14, the operating lever 50 has an inclined shape that shifts downward as it goes forward at the first operating position R1. In the present embodiment, the operating lever 50 is tilted forward at the first operating position R1, for example, at an angle of about 18 ° with respect to the horizontal (horizontal line).
As shown in FIG. 2, the operating lever 50 has an inclined shape that shifts upward as it goes forward at the second operating position R2. The operating lever 50 is tilted forward at the second operating position R2 at an angle of, for example, about 35 ° with respect to the vertical.

As shown in FIG. 15, in the third operation position R3, the operation lever 50 has an inclined shape that shifts downward as it goes forward, and has an inclined shape having a larger inclination angle than the first operating position R1 with respect to the horizontal. Is. The operating lever 50 is tilted forward and downward at an angle of, for example, about 40 ° with respect to the horizontal at the third operating position R3.
By the way, when the operation lever 50 is operated to move the support frame 10 or the like from the mounting position P1 to the operating position P2, for example, when the operation lever 50 is operated backward beyond the vertical position, the operation lever 50 is operated. The force for operating the 50 acts in the direction of lifting the front part of the machine body 2, and the front part of the machine body 2 may be lifted. On the other hand, in the present embodiment, when the support frame 10 is operated from the mounting position P1 to the operating position P2, the operating lever 50 is not operated backward beyond the position where the operating lever 50 is vertical. It is possible to prevent the machine body 2 from being lifted by the force for operating the operation lever 50.

As shown in FIG. 16, the base portion 50b of the operating lever 50 is integrally rotatably attached to a mounting member 51 that can rotate around the swing axis X2. As shown in FIG. 17, the mounting member 51 has a base member 52 and a holding member 53.
As shown in FIG. 18, the base member 52 is rotatably supported by the first side frame 12 around the swing axis X2 via the rotating member 28. More specifically, the rotating member 28 has a cylindrical shape with the swing axis X2 as the axis, and is provided over the outer wall 12a and the inner side wall 12b of the first side frame 12. On the other hand, the base member 52 has a base wall 52a that comes into contact with the end surface of the rotating member 28 on the outer side of the machine width and is attached to the first swing frame 25 together with the rotating member 28 by a plurality of mounting bolts 54. The mounting bolt 54 is fastened to a nut member 55 that penetrates the base wall 52a and the rotating member 28 and is fixed to the inner surface of the outer wall 25a of the first swing frame 25. The rotating member 28 is rotatably supported around the swing axis X2 by a ring-shaped support member 56 fixed to the inner side wall 12b of the first side frame 12. As a result, the support frame 10, the rotating member 28, the base member 52, and the operating lever 50 are integrally rotatably supported by the first side frame 12 around the swing axis X2.

As shown in FIG. 18, the base member 52 has a cover mounting wall 52b extending from the base wall 52a. A cover 57 that covers the mounting member 51 is attached to the cover mounting wall 52b by screws.
As shown in FIG. 17, the holding member 53 has an insertion portion 53a and a mounting piece 53b extending from the insertion portion 53a. The base portion 50b of the operating lever 50 is inserted through the insertion portion 53a, and the mounting piece 53b is screwed to the base wall 52a. As a result, the operating lever 50 can be integrally rotated around the swing axis X2 together with the mounting member 51, the support frame 10, and the rotating member 28.

The end of the base 50b of the operating lever 50 is pivotally supported by a support pin 58 that penetrates the base 50b and the insertion portion 53a. The operating lever 50 is swingable in the machine width direction B3 around the axis of the support pin 58. Further, the operating lever 50 is urged toward the inside of the machine width by an urging spring (not shown) housed in the insertion portion 53a.
As shown in FIGS. 16 and 17, a locking body 59 for holding the operation lever 50 at the first operation position R1, the second operation position R2, and the third operation position R3 is provided around the base wall 52a. ing. The locking body 59 has a base plate 63, a positioning member 60, and a regulating member 64. The base plate 63 is formed by a ring-shaped disk, surrounds the base wall 52a, and is fixed to the outer surface of the outer wall 12a of the first side frame 12. A regulation piece 63a is formed by cutting and raising on the lower side of the front portion of the base plate 63. The positioning member 60 is arranged on the front side of the upper part of the base plate 63 and is fixed to the outer wall 12a. The regulating member 64 is formed in an arc shape, is arranged between the positioning member 60 and the regulating piece 63a, and is fixed to the base plate 63. One end 64a of the regulating member 64 is located close to the positioning member 60. The other end 64b of the regulating member 64 is located at a distance from the regulating piece 63a.

The operating lever 50 is held at the second operating position R2 by fitting into the positioning member 60 at the second operating position R2. Further, the operating lever 50 fits into the positioning member 60 by the urging force of the urging spring, and is disengaged from the positioning member 60 by swinging outward of the machine width around the support pin 58. The operating lever 50 can be operated around the swing axis X2 by being disengaged from the positioning member 60.

As shown in FIG. 17, the upper surface 12c of the first side frame 12 is provided with a lock piece 61 that regulates the operation lever 50 from coming off the positioning member 60. The lock piece 61 is slidably attached to the upper surface 12c of the first side frame 12 along the upper surface 12c by a plurality of screw members 62. The lock piece 61 is provided with a locking portion 61a that comes into contact with the operating lever 50 located at the second operating position R2 from outside the machine width and restricts the operating lever 50 from coming off the positioning member 60. By sliding the lock piece 61 upward, the locking portion 61a is disengaged from the operating lever 50, and the operating lever 50 can swing in the machine width direction B3.

As shown in FIG. 16, the operation lever 50 is held at the first operation position R1 by being sandwiched between the other end 64b of the regulation member 64 and the regulation piece 63a. The operating lever 50 is fitted between the other end 64b of the regulating member 64 and the regulating piece 63a by the urging force of the urging spring, and is swung outward from the machine width around the support pin 58 to cause the other end of the regulating member 64. It deviates from between 64b and the regulation piece 63a. The regulating member 64 regulates the inward swing of the operating lever 50 when the operating lever 50 moves between the first operating position R1 and the second operating position R2. Further, the operation lever 50 is located on the lower side of the regulation piece 63a at the third operation position R3, and the upward swing is restricted by the regulation piece 63a. The downward swing of the operating lever 50 at the third operating position R3 is regulated by the third wall portion 27b3 coming into contact with the connecting frame 14. The operating lever 50 can pass through the regulation piece 63a by swinging outward from the machine width.

As shown in FIG. 18, a lever position detector 65 for detecting that the operation lever 50 is at the second operation position R2 is provided in the front portion and the inside of the first side frame 12. The lever position detector 65 detects that the operating lever 50 is at the second operating position R2 by detecting the detection unit 66 fixed to the outer peripheral side of the rotating member 28. The lever position detector 65 is connected to the control device 18 by a harness, and the control device 18 can acquire the detection signal of the lever position detector 65. The control device 18 acquires the detection signal of the lever position detector 65 and operates the start switch to drive the drive motor 40 to rotate the mixing drum 3. That is, unless the lever position detector 65 detects the second operation position R2 of the operation lever 50, the mixing drum 3 does not rotate even if the start switch is operated.

As shown in FIG. 19, the rotating member 28 has a harness passage 68 through which the harness 67 arranged from the drive motor 40 to the control device 18 is passed. The harness passage 68 has a first through portion 68A formed at the center of the rotating member 28 along the swing axis X2, and a second through portion formed from the first through portion 68A to the outer peripheral surface of the rotating member 28. It has 68B. A harness support portion 69 for supporting the harness 67 is provided in the vicinity of the opening portion of the second through portion 68B opposite to the first through portion 68A. The harness support portion 69 is formed so as to extend from the base wall 52a and rotates integrally with the rotating member 28.

As shown in FIGS. 18 and 19, a notch 70 that allows rotation of the harness support portion 69 is formed on the outer wall 12a of the first side frame 12, and the notch 70 is formed on the rotating member 28. A ring-shaped cover plate 71 is provided to cover the surface.
As shown in FIGS. 18 and 20, the outer wall 25a of the first swing frame 25 is formed with a communication hole 72 that communicates with the first through portion 68A.

The harness 67 is first from the drive motor 40 and the home position detector 43 through the inside of the support base 27 to the inside of the first swing frame 25, and from the inside of the first swing frame 25 through the communication hole 72. It is inserted into the through portion 68A, passes from the first through portion 68A through the second through portion 68B to the inside of the first side frame 12, and passes through the inside of the first side frame 12 to reach the inside of the frame main body 11. It enters one room 16 and is connected to the control device 18.

Since the harness 67 passes through the center side of the rotating member 28 and is arranged along the swing axis X2, the harness 67 is twisted even if the operation lever 50 is swinged around the swing axis X2. It is possible to prevent it from happening.
As shown in FIGS. 21 and 22, the mixing drum 3 has a mounting plate 73 attached to the bottom 5 of the drum body 6. The bottom portion 5 of the drum main body 6 has a circular shape centered on the drum axis X1 and has an accommodating recess 74 that is recessed upward (toward the opening 7), and a mounting portion 75 on the outer peripheral side of the accommodating recess 74. Has. The mounting plate 73 is housed in the housing recess 74. The mounting plate 73 is formed of a rectangular plate material, and its four corners are attached to a protrusion 77 having four corners protruding upward from the bottom 5 by a mounting tool 76. As shown in FIG. 23, the protrusion 77 is provided on the inner side of the mixing drum 3 in the accommodating recess 74. As shown in FIG. 25, the protrusion 77 has a protrusion body 78 integrally formed with the bottom 5 of the drum body 6 by resin, and a nut 79 embedded in the protrusion body 78. The protrusion body 78 projects upward (toward the opening) from the bottom 5. The nut 79 is integrated with the protrusion body 78 by insert molding, for example, during resin molding of the drum body 6. The lower surface of the nut 79 is exposed on the lower surface of the bottom 5. The mounting plate 73 is attached by a mounting tool 76 that is abutted against the lower surface of the bottom portion 5 and is screwed into the screw hole 79a of the nut 79 through the mounting plate 73.

As shown in FIG. 24, the protrusion 77 abuts on the lower end of the stirring member 4 and supports the lower portion of the stirring member 4.
As shown in FIGS. 22 and 23, the stirring member 4 crosses the drum main body 6. Specifically, the stirring member 4 crosses the drum body 6 in the lateral direction. The lateral direction is a direction along a direction orthogonal to the axis X1 direction of the mixing drum 3.

As shown in FIG. 22, the lower end of the stirring member 4 is in contact with the bottom portion 5 of the drum body 6. Further, as shown in FIG. 23, the protrusion 77 is displaced in the laterally intersecting direction with respect to the stirring member 4, and is in contact with the stirring member 4 in that direction.
As described above, the protrusion 77 also serves as a mounting portion for mounting the mounting plate 73 and a support member for supporting the stirring member 4.

As shown in FIG. 23, the protrusion 77 includes a plurality of first protrusions 77A and a plurality of second protrusions 77B. In this embodiment, two first protrusions 77A and two second protrusions 77B are provided.
As shown in FIG. 23, the stirring member 4 includes a first stirring member 4A and a second stirring member 4B sandwiching the drum axis X1 and juxtaposed in the drum radial direction E1. Specifically, the stirring member 4 is arranged side by side with the first stirring member 4A provided at a position deviated from the drum axis X1, the first stirring member 4A, and the drum radial direction E1, and the first stirring member 4A is deviated. It includes a second stirring member 4B provided at a position deviated to the side opposite to the side.

The plurality of first protrusions 77A are provided so as to be located on the side opposite to the drum axis X1 of the first stirring member 4A. The plurality of second protrusions 77B are provided so as to be located on the side opposite to the drum axis X1 of the second stirring member 4B.
The protrusion 77 may also be provided on the drum axis X1 side of the first stirring member 4A and on the drum axis X1 side of the second stirring member 4B.

When the mixing drum 3 is rotated around the drum axis X1 in a backward tilted posture, the foodstuffs are lifted and dropped by the stirring member 4 and are stirred and mixed by the stirring member 4. When the weight of the food that is lifted and dropped acts on the stirring member 4 located on the lower side of the mixing drum 3 when the food is mixed, the protrusion 77 corresponding to the stirring member 4 located on the lower side is the protrusion 77. It is located below the stirring member 4 to support the stirring member 4 and receive the weight of the food material acting on the stirring member 4.

As shown in FIG. 21, the mounting plate 73 is provided with an engaging claw 80 that can be engaged with the rotating plate 31 to prevent the mixing drum 3 (mounting plate 73) from being disengaged from the rotating plate 31. The engaging claw 80 can insert the insertion hole 45 when the mounting plate 73 (mixing drum 3) is placed on the rotating disk 31 (see FIG. 29). As shown in FIG. 24, the mounting plate 73 is housed in the housing recess 74 so that the engaging claw 80 does not protrude from the housing recess 74 (does not protrude below the mounting portion 75). Therefore, when the mixing drum 3 is placed on the mounting surface, it is possible to prevent the engaging claw 80 from hitting the mounting surface, and it is possible to prevent the engaging claw 80 from being damaged.

As shown in FIG. 26, the engaging claw 80 is formed by cutting up the plate material forming the mounting plate 73, from the base piece 80a extending in the normal direction and downward from the mounting plate 73, and from the lower end of the base piece 80a. It has a locking piece 80b extending in the setting direction D1.
As shown in FIG. 28, the width W6 of the base piece 80a is slightly narrower than the width W4 of the second portion 48b. The width W7 of the locking piece 80b is wider than the width W6 of the base piece 80a and narrower than the width W8 of the insertion hole 45. Further, the width W7 of the locking piece 80b is wider than the width W4 of the second portion 48b. Further, the locking piece 80b is formed in a size that fits in the lock groove 49.

As shown in FIG. 7, the engaging claw 80 includes a first engaging claw 80A through which the first insertion hole 45A is inserted and a second engaging claw 80B through which the second insertion hole 45B is inserted. Two sets of the first engaging claw 80A and the second engaging claw 80B are provided. As shown in FIG. 21, the first set of the first engaging claws 80A1 and the second engaging claws 80B1 and the second set of the first engaging claws 80A2 and the second engaging claws 80B2 are mixed drums. It is formed with a phase difference of 90 ° in the circumferential direction J2 (referred to as the peripheral direction of the drum) of 3.

The number of engaging claws 80 is provided corresponding to the number of insertion holes 45.
As shown in FIG. 21, the mixing drum 3 has a ball member 81. The ball member 81 is formed of a steel ball. The ball member 81 is inserted into the engaging groove 46 when the mounting plate 73 (mixing drum 3) is placed on the turntable 31.
As shown in FIG. 7, the ball member 81 includes a first ball member 81A and a second ball member 81B. In the present embodiment, the first ball member 81A is provided on the rear side of the setting direction D1 of the first set of first engaging claws 80A1, and the second ball member 81B is the second set of second engaging claws. It is provided on the rear side of the setting direction D1 of 80B1.

As shown in FIG. 27, the ball member 81 is provided between the mounting plate 73 and the bottom portion 5, is inserted into the mounting hole 82 formed through the mounting plate 73, and is integrally formed in the bottom portion 5. It is held down by the holding portion 83. The lower portion 82a of the mounting hole 82 is formed in a circular hole having a diameter smaller than the diameter of the spherical member 81, and the upper portion 82b of the mounting hole 82 is formed in a tapered hole that gradually expands upward. A part of the ball member 81 projects downward from the mounting hole 82.

The mounting plate 73 (mixing drum 3) is mounted (set) on the turntable 31 as follows.
First, as shown in FIG. 7, for example, the mixing drum 3 is inserted into the rotating disk so that the first engaging claw 80A1 inserts the first insertion hole 45A1 and the second engaging claw 80B1 inserts the second insertion hole 45B1. Place it on 31. Then, the first engaging claw 80A2 inserts the first insertion hole 45A2, the second engaging claw 80B2 inserts the second insertion hole 45B2, and the first ball member 81A inserts into the first engaging groove 46A. The second ball member 81B is inserted into the second engaging groove 46B.

When the mixing drum 3 is rotated by a predetermined angle in the setting direction D1 in this state, the engaging claw 80 inserts the insertion hole 45 shown in the left figure of FIG. 28 and the upper figure of FIG. 29, as shown in FIGS. 28 and 29. The insertion position G1 is moved to the set position G2 shown in the right figure of FIG. 28 and the lower figure of FIG. 29. At the set position G2, the locking piece 80b is located below the regulating wall 47d, and the locking piece 80b can regulate the mixing drum 3 (mounting plate 73) from coming off the rotating disk 31. Further, at the set position G2, the base piece 80a abuts on the rotation transmission portion 47c, and the rotational force can be transmitted from the rotary plate 31 to the mounting plate 73. Therefore, by rotationally driving the rotary disk 31 in the rotation direction D2, the rotation transmission unit 47c presses the base piece 80a, and the mixing drum 3 rotates via the mounting plate 73.

Further, the ball member 81 is inserted from the position G3 inserted into the engagement groove 46 shown in the left figure of FIG. 28 and the upper figure of FIG. 29 to the position G4 through which the insertion hole 45 shown in the right figure of FIG. 28 and the lower figure of FIG. 29 is inserted. Move to. At this time, the ball member 81 moves from the position G3 to the position G4 over the partition wall portion 47e between the insertion hole 45 and the engaging groove 46. When the ball member 81 gets over the partition wall portion 47e, the locking piece 80b is in contact with the lower surface of the rotating disk 31 to prevent the mounting plate 73 from separating from the rotating disk 31, and the resin holding portion 83 is pressed. The elastic deformation allows the spherical member 81 to move upward.

In the state where the mounting plate 73 is mounted on the turntable 31, the mounting plate 73 must be forcibly rotated in the direction opposite to the setting direction D1 by the force that allows the ball member 81 to get over the partition wall portion 47e. Does not come off the turntable 31. That is, the ball member 81 regulates the mounting plate 73 from coming off the turntable 31.
As described above, the mounting plate 73 (mixing drum 3) can be easily mounted (set) on the rotating disk 31 simply by rotating the mixing drum 3 in the setting direction D1.

When the mounting plate 73 is placed on the rotating disk 31, the first engaging claw 80A1 inserts the second insertion hole 45B1 and the second engaging claw 80B1 inserts the first insertion hole 45A1. The drum 3 may be placed on the turntable 31. In this case, the second engaging claw 80B2 inserts the first insertion hole 45A2, the first engaging claw 80A2 inserts the second insertion hole 45B2, and the first ball member 81A inserts into the second engaging groove 46B. The second ball member 81B is inserted into the first engaging groove 46A.

As described above, after the mixing drum 3 is mounted on the rotary disk 31, the support frame 10 is swung upward from the mounting position P1 to the operating position P2, and the mixing drum 3 is rotated. The locking piece 80b of the claw 80 fits into the lock groove 49 (see the arrow in the lower figure of FIG. 29). That is, the engaging claw 80 fits into the lock groove 49 when the rotary disc 31 is moved from the mounting position P1 to the operating position P2 in the state of being located at the set position G2. Specifically, when the support frame 10 is swung from the mounting position P1 to the operating position P2, the center of gravity of the mixing drum 3 is located behind the mounting plate 73 (drum lid 8), so that the weight of the mixing drum 3 and the foodstuff is heavy. As a result, the mounting plate 73 moves in a direction away from the turntable 31, and the locking piece 80b fits into the lock groove 49 (see the arrow in FIG. 29). When the engaging claw 80 fits into the lock groove 49, the mounting plate 73 is restricted from rotating relative to the rotating disk 31 in the rotation direction. That is, as shown in FIG. 30, when the locking piece 80b fits into the lock groove 49, the mounting plate 73 rotates relative to the rotating disk 31 in the direction opposite to the setting direction D1 (rotational direction D2). When the locking piece 80b abuts on the edge portion 49a on the rotation direction side of the lock groove 49, the rotation of the mounting plate 73 with respect to the turntable 31 is restricted.

When the mounting plate 73 rotates relative to the turntable 31 in the rotation direction, for example, when the food material moves inside the mixing drum 3 while the mixing drum 3 is rotating, the food material is used. It is conceivable that the load acting on the mixing drum 3 acts on the rotation direction D2, so that the mixing drum 3 rotates faster than the rotation of the rotating disk 31.
As shown in FIGS. 21 and 22, the mounting plate 73 has a through hole 84 formed in the center. The through hole 84 is formed so as to penetrate the mounting plate 73. Further, the bottom portion 5 has a recess 85 formed in the central portion. The recess 85 is recessed upward and is integrally formed with the bottom 5. Specifically, the recess 85 is a cylinder that opens downward and is closed at the top.

As shown in FIG. 6, the through hole 84 is a hole through which the head 39c is inserted in order to avoid interference between the mounting plate 73 and the fixture 39 when the mounting plate 73 is superposed on the turntable 31. The recess 85 is a portion that accommodates the head 39c of the fixative 39 and avoids interference between the head 39c and the bottom 5 when the mounting plate 73 is superposed on the turntable 31.
As shown in FIG. 21, the through hole 84 has a small diameter portion 86 and a large diameter portion 87. As shown in the enlarged view of the H1 portion of FIG. 21, the small diameter portion 86 includes the first small diameter portion 86A and the second small diameter portion 86B facing each other in the drum radial direction E1. The large diameter portion 87 is formed between the first small diameter portion 86A and the second small diameter portion 86B, and includes a first large diameter portion 87A and a second large diameter portion 87B facing each other in the drum radial direction E1.

As shown in FIGS. 6 and 21, the small diameter portion 86 is close to the head portion 39c (flange portion 39b) and positions the mounting plate 73 with respect to the head portion 39c. The large diameter portion 87 is formed to have a diameter larger than that of the small diameter portion 86 and the recess 85.
For example, when the through hole 84 is formed of a circular hole having a diameter of the small diameter portion 86, as shown in FIG. 6, the wall portion 84a around the edge portion of the through hole 84 and the radius on the base side of the recess 85 are rounded. If dust or the like collects between the portion 85a and the portion 85a, cleaning becomes difficult. On the other hand, in the present embodiment, by providing the through hole 84 with the large diameter portion 87, cleaning between the wall portion 84a and the rounded portion 85a can be easily performed.

As shown in FIGS. 31 to 33, the drum main body 6 has the above-mentioned bottom portion 5, and is located above the tubular body portion 88 and the body portion 88 (one end side in the drum axis X1 direction). It has a tubular drum mouth portion 90 which is a wall portion forming an opening of the drum main body 6, and a connecting portion 91 connecting the body portion 88 and the drum mouth portion 90. The drum mouth portion 90 is a portion to which the drum lid 8 is fitted, and is formed to have a diameter slightly smaller than that of the body portion 88. The connecting portion 91 is connected to the drum opening portion 90 by gradually reducing the diameter from the upper end of the body portion 88 toward the upper side. The lower end of the body portion 88 (the other end side in the drum axis X1 direction) is closed by the bottom portion 5.

As shown in FIGS. 23 and 32, the body portion 88 has a handle portion 92 for holding the drum main body 6 and a holding groove 93 for attaching and holding the stirring member 4.
As shown in FIGS. 23 and 33, the handle portion 92 includes a first handle portion 92A and a second handle portion 92B facing each other in the drum radial direction E1. The first handle portion 92A is provided on one side of the drum main body 6, and the second handle portion 92B is provided on the other side of the drum main body 6.

As shown in FIG. 8, the mixing drum 3 is mounted and mounted on the turntable 31 with the first handle portion 92A and the second handle portion 92B facing the side of the machine body 2. Specifically, the first handle portion 92A is located on the left side of the mixing drum 3 (machine 2), and the second handle portion 92B is located on the right side of the mixing drum 3 (machine 2). In this state, the mixing drum 3 is placed on the turntable 31. The mixing drum 3 may be placed on the rotating disk 31 with the first handle portion 92A located on the right side of the mixing drum 3 and the second handle portion 92B located on the left side of the mixing drum 3.

When the mixing drum 3 is placed on the rotating disk 31 with the first handle portion 92A and the second handle portion 92B facing the side of the machine body 2, the rotating disk 31 is always located at the home position at the mounting position P1. Therefore, the engaging claw 80 inserts the insertion hole 45 (rotary disk 31). Therefore, by placing the mixing drum 3 on the rotating disk 31 with the first handle portion 92A and the second handle portion 92B facing the side of the machine body 2, the engaging claw 80 is fitted to the insertion hole 45 and marked. It can be easily inserted without it.

As shown in FIG. 22, the handle portion 92 is integrally formed with the drum main body 6 (body portion 88). The handle portion 92 has an inward protruding wall 94 formed by projecting a part of the wall portion forming the body portion 88 inward in the drum radial direction E1, and a drum diameter of the inward protruding wall 94. It has a connecting portion 95 extending upward from the outer end portion of the direction E1 and connected to the connecting portion 91. The handle portion 92 has a width of the drum circumferential direction J2 into which four fingers other than the thumb of the user can be inserted below the inwardly protruding wall 94.

As shown in FIG. 22, the drum body 6 is inclined so as to move downward (bottom) from the inward end of the drum radial direction E1 of the inward protruding wall 94 to the outside of the drum radial direction E1. It has a sloping wall 96.
As shown in FIG. 22, the drum main body 6 has a cylindrical peripheral wall 97 at the lower portion (bottom side). The outer peripheral surface of the cylindrical peripheral wall 97 is formed as a smooth surface with no unevenness in the circumferential direction. The first roller 44A and the second roller 44B abut on the outer peripheral surface of the cylindrical peripheral wall 97. The first roller 44A and the second roller 44B abut on the cylindrical peripheral wall 97, so that the mixing drum 3 rotates well when the mixing drum 3 is rotated and mounted around the drum axis X1 with respect to the rotary disk 31. And, when the mixing drum 3 is rotated to mix a plurality of ingredients, the rotation of the mixing drum 3 is well supported.

Further, the cylindrical peripheral wall 97 is formed below the inclined wall 96 and is connected to the bottom 5. The width of the inclined wall 96 in the drum circumferential direction J2 is formed so as to become narrower toward the bottom. The outer and inner surfaces of the cylindrical peripheral wall 97 are connected to the outer and inner surfaces of the inclined wall 96 without a step. The inner surface of the inclined wall 96 is connected to the inner surface of the cylindrical peripheral wall 97 without a step, and the inclined wall 96 is inclined inward in the drum radial direction E1 as the inclined wall 96 moves upward, and is connected to the inwardly protruding wall 94. Therefore, when the foodstuff is taken out from the drum main body 6, it can be taken out smoothly.

As shown in FIG. 23, the holding groove 93 holds one side of the stirring member 4, and has a one-sided holding groove 93A formed adjacent to the first handle portion 92A in the drum circumferential direction J2, and the stirring member 4. It holds the other side and has the other side holding groove 93B formed adjacent to the second handle portion 92B in the drum circumferential direction J2. In the present embodiment, since the stirring member 4 is provided, the one-side holding groove 93A includes the first holding groove 93A1 and the second holding groove 93A2, and the other-side holding groove 93B is the third holding groove 93B1. And the fourth holding groove 93B2.

In the example shown in FIG. 23, one side of the first stirring member 4A is held by the first holding groove 93A1, and the other side is held by the third holding groove 93B1. Further, one side of the second stirring member 4B is held by the second holding groove 93A2, and the other side is held by the fourth holding groove 93B2. One side of the first stirring member 4A may be held by the second holding groove 93A2, and the other side may be held by the fourth holding groove 93B2. In this case, one side of the second stirring member 4B is held by the first holding groove 93A1, and the other side is held by the third holding groove 93B1.

As shown in FIG. 23, the first handle portion 92A is formed from the first holding groove 93A1 to the second holding groove 93A2, and the second handle portion 92B extends from the third holding groove 93B1 to the fourth holding groove 93B2. It is formed.
By forming the holding groove 93 adjacent to the handle portion 92, the strength of the drum main body 6 can be improved.

As shown in FIG. 34, the holding groove 93 is formed by projecting the wall portion forming the drum body 6 toward the inside of the drum body 6 along the drum radial direction E1 and at intervals in the drum circumferential direction J2. It has a first ridge 98 and a second ridge 99 formed, and a groove bottom wall 100 connecting the first ridge 98 and the second ridge 99. The first ridge 98, the second ridge 99, and the groove bottom wall 100 extend in the direction of the drum axis X1. Therefore, the holding groove 93 is formed along the drum axis X1 as shown in FIG. 35.

As shown in FIG. 23, the holding groove 93 is provided on the inner side of the drum opening 90 in the drum radial direction E1, and the stirring member 4 can be inserted into the holding groove 93 from the drum opening 90.
As shown in FIGS. 31 and 32, the holding groove 93 is formed downward from the inwardly protruding wall 94. As shown in FIGS. 24 and 35, the holding groove 93 is formed above the cylindrical peripheral wall 97 in order to form the cylindrical peripheral wall 97. Therefore, the stirring member 4 projects downward from the holding groove 93 and abuts on the bottom portion 5, and the protrusion 77 supports a portion protruding downward from the holding groove 93 (a portion not supported by the holding groove 93).

As shown in FIGS. 23 and 31, the drum mouth portion 90 has a plurality of engaging portions 101 (referred to as a first engaging portion). The plurality of first engaging portions 101 are formed at equal intervals in the drum circumferential direction J2. Specifically, six of the plurality of first engaging portions 101 are provided at intervals of 60 ° in the circumferential direction of the drum. Each first engaging portion 101 projects outward from the base wall 90a of the drum mouth portion 90 in the drum radial direction E1. Each first engaging portion 101 has a first portion 101a formed along a direction parallel to the drum axis X1 direction and a second portion 101b extending from the upper end of the first portion 101a in a direction opposite to the setting direction D1. And have.

The drum mouth portion 90 has a plurality of engaging protrusions 102. In this embodiment, it has two engaging protrusions 102. The engaging protrusion 102 is provided at a position where two first engaging portions 101 facing each other in the drum radial direction E1 among the plurality of first engaging portions 101 are formed. Each engaging protrusion 102 protrudes outward in the drum radial direction E1 and is formed along a direction parallel to the drum axis direction. Further, the engaging protrusion 102 extends downward from the second portion 101b, and is provided at a distance from the first portion 101a in the drum circumferential direction J2.

As shown in FIGS. 38 to 41, the drum lid 8 has a peripheral wall portion 103 surrounding the outer periphery of the drum mouth portion 90 and a ring shape extending inward in the drum radial direction E1 from the end portion of the peripheral wall portion 103. The annular wall portion 104 is connected to the annular wall portion 104, and the width becomes narrower from the inner peripheral end (opening) of the annular wall portion 104 toward the drum axis X1 direction and the side opposite to the bottom portion 5. It has a main body wall 105 and the like. Specifically, the main body wall 105 has a dome shape (a part of a spherical shape). That is, the main body wall 105 is a dome wall whose diameter gradually shrinks in the direction of the drum axis X1 and toward the side opposite to the bottom 5. The main body wall 105 is not limited to a dome shape. For example, it may have a conical shape.

As shown in FIG. 42, the drum lid 8 has a plurality of engaging portions 106 (referred to as second engaging portions) integrally formed with the peripheral wall portion 103 and engaged with the first engaging portion 101. The plurality of second engaging portions 106 are formed at equal intervals in the drum circumferential direction J2. Specifically, six of the plurality of second engaging portions 106 are provided at intervals of 60 ° in the drum circumferential direction J2. Each second engaging portion 106 projects inward in the drum radial direction E1 from the peripheral wall portion 103. As shown in FIG. 41, each second engaging portion 106 is formed below the annular wall portion 104.

As shown in FIG. 36, the width of each second engaging portion 106 in the drum circumferential direction J2 is smaller than the distance between the second portions 101b of the adjacent first engaging portions 101 in the drum circumferential direction J2. It is formed.
As shown in FIG. 37, the drum lid 8 has a plurality of regulating portions 107. The plurality of regulating portions 107 are formed in the same number as the second engaging portions 106. The restricting portion 107 is provided at a portion where each second engaging portion 106 is formed. As shown in FIG. 38, the restricting portion 107 is formed along a direction parallel to the drum axis X1 and is provided on the second engaging portion 106 toward the front in the setting direction D1.

The position of the drum lid 8 can be changed between the first cover position Y1 shown in FIG. 36 and the second cover position Y2 shown in FIG. 37.
The first lid-covering position Y1 is a position where the drum main body 6 is covered (see FIG. 22), and the drum lid 8 is a position where the drum lid 8 can be removed from the drum main body 6. Specifically, as shown in FIGS. 32 and 36, in the first cover position Y1, the second engaging portion 106 is located between the second portions 101b of the adjacent first engaging portion 101 in the drum circumferential direction J2. is doing. Therefore, at the first cover position Y1, the drum lid 8 can be moved in a direction away from the drum main body 6, and by moving the drum lid 8 in that direction, the drum lid 8 is removed from the drum main body 6. be able to.

The second cover position Y2 is a position where the drum lid 8 is rotated from the first cover position Y1 in the setting direction D1 and is a position which cannot be removed from the drum main body 6. That is, when the drum lid 8 is rotated from the first lid covering position Y1 in the setting direction D1, the second engaging portion 106 is the second portion 101b of the first engaging portion 101 from the position shown by the two-dot chain line in FIG. 32. (See FIG. 22), the second portion 101b restricts the upward movement of the second engaging portion 106 (movement in the direction away from the drum body 6), and the drum lid 8 cannot be removed. Further, the rotation of the second engaging portion 106 in the setting direction D1 is restricted by the first portion 101a of the first engaging portion 101. At the second cover position Y2, as shown in FIG. 37, the regulating portion 107 fits into the engaging protrusion 102. As a result, the rotation of the drum lid 8 in the direction opposite to the setting direction D1 is restricted. By forcibly rotating the drum lid 8 in the direction opposite to the setting direction D1, the restricting portion 107 is disengaged from the engaging protrusion 102, and the drum lid 8 can be rotationally moved to the first covering position Y1. .. The resistance when the restricting portion 107 is disengaged from the engaging protrusion 102 is smaller than the resistance when the ball member 81 gets over the partition wall portion 47e. This makes it possible to prevent the drum body 6 from rotating when the drum lid 8 is rotated from the second lid position Y2 to the first cover position Y1 (in the direction opposite to the setting direction D1). ..

After the mixing of the ingredients is completed, the support frame 10 and the like are set to the take-out position P3, the drum lid 8 is removed from the drum body 6, and the mixed ingredients inside the drum body 6 are taken out. At this time, the drum body is taken out. The drum lid 8 can be satisfactorily removed without holding down 6.
In the present embodiment, since the regulating portion 107 is provided at each of the portions where the second engaging portions 106 are formed, the first covering is applied from the state where the drum lid 8 is removed from the drum main body 6. The second engaging portion 106 can be inserted between any adjacent second portions 101b when positioned at position Y1.

As shown in FIG. 22, in the drum lid 8, the annular wall portion 104 engages (contacts) with the stirring member 4 at the position where the drum body 6 is covered, and restricts the movement of the stirring member 4.
As shown in FIGS. 40 and 41, the cooling air intake port 21 is formed on the top 105a of the main body wall 105. As shown in FIG. 39, the cooling air intake port 21 is formed in a circular hole.
The main body wall 105 has a cooling air discharge port 108 capable of discharging the cooling air after cooling the food. By discharging the cooling air after cooling, the cooling air can be efficiently taken in and the cooling performance can be improved.

The cooling air discharge port 108 is formed between the top portion 105a and the base portion 105b on the opposite side of the top portion 105a. Specifically, the cooling air discharge port 108 is formed at a substantially central portion (midway position of the main body wall 105) between the top portion 105a and the base portion 105b of the main body wall 105.
By forming the cooling air discharge port 108 on the main body wall 105, the cooling air after cooling can be satisfactorily discharged. That is, since the mixing drum 3 is rotated in an inclined posture in which the drum lid 8 faces diagonally upward, the cooling air supplied toward the foodstuff (rice) in the drum body 6 rises together with the steam, and the drum body 3 It moves from the upper part of the inner part of the 6 to the upper part of the drum lid 8 to reach the cooling air discharge port 108, and is smoothly discharged.

Further, if the cooling air discharge port 108 is formed near the drum main body 6, the food material may come out from the cooling air discharge port 108. However, by forming the cooling air discharge port 108 at the middle position of the main body wall 105, the food material can be prepared. It is possible to discharge the cooling air after cooling while suppressing the discharge. Further, the cooling air is supplied from the cooling air supply port 20c toward the center of the mixing drum 3, but after being blown out from the cooling air supply port 20c, a part of the cooling air diffuses, so that the cooling air discharge port If the 108 is formed near the cooling air intake port 21, the introduced cooling air may be immediately discharged. By forming the cooling air discharge port 108 at the middle position of the main body wall 105, it is possible to prevent the introduced cooling air from being immediately discharged.

Further, the food mixing machine 1 has a step of stopping the driving of the blower 19 (stopping the blowing of the cooling air) and rotating the mixing drum 3 while mixing the foods. At this time, steam can be released from the cooling air discharge port 108.
As shown in FIG. 39, the cooling air outlet 108 includes a plurality of exhaust ports (first exhaust port 108A, second exhaust port 108B) formed at intervals in the drum circumferential direction J2. The first exhaust port 108A and the second exhaust port 108B are formed in an arcuate elongated hole centered on the drum axis X1. The first exhaust port 108A and the second exhaust port 108B are formed to have the same length in the drum circumferential direction J2 and are formed at equal intervals in the drum circumferential direction J2. The plurality of exhaust ports (first exhaust port 108A, second exhaust port 108B) are formed at symmetrical positions with respect to the drum axis X1 (center of the drum lid 8).

The length of the drum circumferential direction J2 of the first exhaust port 108A is close to a quarter of the circumferential length of the drum lid 8 at the formation position of the first exhaust port 108A, and the length of the first exhaust port 108A It is smaller than the distance between and the second exhaust port 108B in the drum circumferential direction J2. The same applies to the length of the second exhaust port 108B in the drum circumferential direction J2.
As shown in FIG. 43, the stirring member 4 has a rectangular frame portion 111. The frame portion 111 has a first horizontal rod portion 111A, a second horizontal rod portion 111B, a first vertical rod portion 111C, and a second vertical rod portion 111D. The first horizontal rod portion 111A and the second horizontal rod portion 111B are arranged so as to face each other in parallel with a gap. The first vertical rod portion 111C connects one end portions of the first horizontal rod portion 111A and the second horizontal rod portion 111B to each other. The second vertical rod portion 111D connects the other ends of the first horizontal rod portion 111A and the second horizontal rod portion 111B to each other.

The first vertical rod portion 111C has a first insertion portion 113A, and the second vertical rod portion 111D has a second insertion portion 113B. The first insertion portion 113A is provided in the middle portion in the length direction of the first vertical rod portion 111C, and the second insertion portion 113B is provided in the middle portion in the length direction of the second vertical rod portion 111D. The first insertion portion 113A and the second insertion portion 113B are inserted into the holding groove 93. Specifically, when the first insertion portion 113A is inserted into the one-side holding groove 93A, the second insertion portion 113B is inserted into the other-side holding groove 93B, and the first insertion portion 113A is inserted into the other-side holding groove 93B. If so, the first insertion portion 113A is inserted into the one-side holding groove 93A. Further, the stirring member 4 is inserted into the drum main body 6 with the first horizontal rod portion 111A facing up or the first horizontal rod portion 111A facing down.

As shown in FIG. 45, the first horizontal rod portion 111A is formed gradually narrower toward the outside of the frame portion 111, and the end portion 111Aa on the outer side of the frame is formed at an acute angle. The end 111Ab inside the frame, which is opposite to the end 111Aa, is formed at an obtuse angle. Similarly, the second horizontal rod portion 111B is gradually formed to be narrower toward the outside of the frame, and the end portion 111Ba on the outer side of the frame is formed at an acute angle. The end 111Bb inside the frame, which is opposite to the end 111Ba, is formed at an obtuse angle.

The portion of the first vertical rod portion 111C other than the first insertion portion 113A is formed to have the same cross-sectional shape as the first horizontal rod portion 111A and the second horizontal rod portion 111B. The portion of the second vertical rod portion 111D other than the second insertion portion 113B is also formed to have the same cross-sectional shape as the first horizontal rod portion 111A and the second horizontal rod portion 111B.
The stirring member 4 has a plurality of (four) connecting rod portions 112. Each connecting rod portion 112 is provided over the first horizontal rod portion 111A and the second horizontal rod portion 111B. The plurality of connecting rod portions 112 are parallel to each other between the first vertical rod portion 111C and the second vertical rod portion 111D with a space in the length direction of the first horizontal rod portion 111A and the second horizontal rod portion 111B. They are installed side by side.

As shown in FIG. 44, the connecting rod portion 112 has a rhombus in cross section, and the obtuse angle portion 112b of the rhombus has a rhombus shape in which the obtuse angle portion 112b faces in a direction parallel to the length direction of the first horizontal rod portion 111A and the second horizontal rod portion 111B. It is formed. Therefore, the sharp angle portion 112a of the cross section of the connecting rod portion 112 is in the length direction of the first vertical rod portion 111C and the second vertical rod portion 111D and the length direction of the first horizontal rod portion 111A and the second horizontal rod portion 111B. It faces in the direction orthogonal to. The sharp-angled portion 112a of the connecting rod portion 112 allows the rice to be sliced well.

As shown in FIGS. 46 and 47, the drum lid 8 can accommodate the stirring member 4 removed from the drum main body 6 inside the peripheral wall portion 103. Specifically, the width of the peripheral wall portion 103 is formed to be larger than twice the thickness of one stirring member 4, and the two stirring members 4 can be accommodated in the peripheral wall portion 103 in a stacked state. ..
As shown in FIGS. 46 and 47, the drum lid 8 can be held by the holding member 24 in a state where the stirring member 4 is housed. When the drum lid 8 is held by the holding member 24, the peripheral wall portion 103 of the drum lid 8 is placed on the first rod portion 24a and the second rod portion 24b. Then, the movement of the drum lid 8 forward is restricted by the corner portion 24h of the first rod portion 24a and the third rod portion 24c and the corner portion 24j of the second rod portion 24b and the fourth rod portion 24d. The drum lid 8 is restricted from falling backward by the 7th rod portion 24g. As a result, the drum lid 8 is held by the holding member 24.

FIG. 48 shows a plan view showing a modified example of the drum lid 8.
In the drum lid 8 according to this modification, the cooling air outlet 108 includes six exhaust ports 114A to 114F formed at intervals in the drum circumferential direction J2.
Even in the drum lid 8 according to this modification, the cooling air discharge port 108 is formed on the main body wall 105 and at an intermediate position (middle position) between the top portion 105a and the base portion 105b. In other words, the cooling air discharge port 108 is formed at a substantially central portion of the main body wall 105 in the direction of the drum axis X1.

Further, the lengths of the exhaust vents 114A to 114F in the drum circumferential direction J2 are formed to have the same length, and the exhaust vents 114A to 114F are formed at equal intervals in the drum circumferential direction J2. Further, the exhaust vents 114A to 114F are formed at positions symmetrical with respect to the drum axis X1.
The food material mixer 1 of the present embodiment has the following effects.

The food mixing machine 1 includes a machine body 2 and a mixing drum 3 that is rotatably supported by the machine body 2 around the axis X1 and rotates to mix a plurality of foodstuffs housed inside. The drum body 6 has a drum body 6 having one end open in the axial center X1 direction and the other end closed by the bottom portion 5, and the drum body 6 is a portion for holding the drum body 6 and is one of the wall portions forming the drum body 6. A handle portion 92 having an inwardly projecting wall 94 formed by projecting the portion inward in the radial direction E1 and an inwardly side end portion of the inwardly projecting wall 94 in the radial direction E1 to the bottom portion 5. It has an inclined inclined wall 96 that shifts outward in the radial direction E1 as it goes toward it.

According to this configuration, a handle portion 92 having an inwardly protruding wall 94 formed by projecting a part of the wall portion forming the drum main body 6 inward in the radial direction E1 of the mixing drum 3 is formed. By doing so, the drum body 6 can be easily held.
Further, the food material contained in the mixing drum 3 is stored in the mixing drum 3 by the inclined inclined wall 96 that shifts outward in the radial direction E1 from the inner side end portion in the radial direction E1 of the inward protruding wall 94 toward the bottom portion 5. It can be taken out smoothly.

Further, the handle portion 92 includes a first handle portion 92A and a second handle portion 92B facing the first handle portion 92A in the radial direction E1.
According to this configuration, the mixed drum 3 can be held satisfactorily.
Further, a stirring member 4 mounted in the mixing drum 3 to stir the food is provided, and the stirring member 4 is mounted at a position crossing the drum main body 6 and deviating from the axial center X1, and the drum main body 6 is attached to the axial center. A one-sided holding groove 93A formed along the X1 direction to hold one side of the stirring member 4 and adjacent to the first handle portion 92A in the circumferential direction J2 of the drum body 6, and an axial center X1. It has a other side holding groove 93B formed along the direction and holding the other side of the stirring member 4 and adjacent to the second handle portion 92B in the circumferential direction J2.

According to this configuration, by attaching the stirring member 4 to a position deviated from the axis X1, the first handle portion 92A and the second handle portion 92B are satisfactorily formed on both sides of the mixing drum 3 with the center thereof interposed therebetween. be able to.
Further, the stirring member 4 includes a first stirring member 4A and a second stirring member 4B sandwiching the axis X1 and juxtaposed in the radial direction E1 of the mixing drum 3, and the one-side holding groove 93A is the first stirring member. The first holding groove 93A1 for holding one side of the 4A and the second holding groove 93A2 for holding one side of the second stirring member 4B are included, and the other side holding groove 93B covers the other side of the first stirring member 4A. A third holding groove 93B1 for holding and a fourth holding groove 93B2 for holding the other side of the second stirring member 4B are included, and the first handle portion 92A is formed from the first holding groove 93A1 to the second holding groove 93A2. The second handle portion 92B is formed from the third holding groove 93B1 to the fourth holding groove 93B2.

According to this configuration, the strength of the drum body 6 is provided by the first handle portion 92A, the second handle portion 92B, the first holding groove 93A1, the second holding groove 93A2, the third holding groove 93B1 and the fourth holding groove 93B2. Can be improved.
Further, the mixing drum 3 has a drum lid 8 that closes the opening 7 of the drum main body 6, and the drum lid 8 has a peripheral wall portion 103 that surrounds the outer periphery of the wall portion that forms the opening 7 of the drum main body 6 and a peripheral wall portion 103. The annular wall portion 104 extending inward in the radial direction E1 of the mixing drum 3 from the end of the ring, and gradually increasing from the inner peripheral end of the annular wall portion 104 toward the axis X1 and opposite to the bottom 5. The annular wall portion 104 has a main body wall 105 having a reduced diameter, and restricts the movement of the stirring member 4 in the axial center X1 direction in a state where the drum lid 8 closes the drum main body 6.

According to this configuration, the movement of the stirring member 4 in the axial center X1 direction is restricted by the drum lid 8, but the operation is performed by the annular wall portion 104 so that the drum lid 8 has a circumferential direction J2 with respect to the drum body 6. Even if it is located at the position, the movement of the stirring member 4 can be restricted.
Further, a roller 44 that supports the rotation of the drum body 6 is provided, the drum body 6 has a cylindrical peripheral wall 97 with which the roller 44 abuts on the bottom 5 side, and the inclined wall 96 is connected to the cylindrical peripheral wall 97.

According to this configuration, the outer peripheral surface of the cylindrical peripheral wall 97 can be smoothly formed.
Further, the food material mixer 1 is contained in the machine body 2, the mixing drum 3 rotatably supported by the machine body 2 around the axis X1 and rotating to mix a plurality of food materials housed inside, and the mixing drum 3. The mixing drum 3 includes a stirring member 4 that is attached and stirs the food, and the mixing drum 3 has a drum body 6 having one end open in the axial center X1 direction and the other end closed by the bottom 5, and the stirring member 4 is a drum. The main body 6 is laterally crossed and the lower end is in contact with the bottom portion 5 of the drum main body 6, and the drum main body 6 is a protrusion 77 protruding from the bottom portion 5 and intersects the stirring member 4 in the lateral direction. It has a protrusion 77 that is misaligned in the direction of the drum and abuts in that direction.

According to this configuration, the stirring member 4 can be supported by the protrusion 77 that protrudes from the bottom 5 of the drum body 6 and abuts on the stirring member 4 from a direction that intersects the stirring member 4 in the lateral direction, and the protrusion 77 is stirred. Since the position is displaced in the laterally intersecting direction with respect to the member 4 and the agitating member 4 abuts in that direction, the lower end of the agitating member 4 can be brought into contact with the bottom portion 5 of the drum body 6 to improve the agitation performance. Can be done. As a result, the stirring performance can be improved while supporting the lower portion of the stirring member 4.

Further, the stirring member 4 is arranged side by side in the radial direction E1 of the first stirring member 4A, the first stirring member 4A and the mixing drum 3 provided at a position deviated from the axis X1, and the first stirring member 4A is deviated. The protrusion 77 includes a second stirring member 4B provided at a position deviated to the side opposite to the side where the first stirring member 4A is provided, and the protrusion 77 is a plurality of first protrusions provided on the side opposite to the axis X1 of the first stirring member 4A. A portion 77A and a plurality of second protrusions 77B provided on the side opposite to the axis X1 of the second stirring member 4B are included.

According to this configuration, when the mixing drum 3 is rotated at an angle to mix the foodstuffs, the weight of the foodstuffs that fall from above and come into contact with the stirring member 4 can be received by the protrusion 77.
Further, the mixing drum 3 has a mounting plate 73 that is attached to the bottom portion 5 of the drum main body 6 and is rotatably mounted on the machine body 2, and the protrusion 77 is integrally formed with the drum main body 6 and is formed from the bottom portion 5. It has a protrusion body 78 that protrudes toward the opening, and a nut 79 that is embedded inside the protrusion body 78 and into which a mounting tool 76 for mounting the mounting plate 73 is screwed.

According to this configuration, the protrusion 77 also supports the stirring member 4 and mounts the mounting plate 73, so that the structure can be simplified.
Further, the mounting plate 73 has an engaging claw 80 that can be engaged with the machine body 2 side to prevent the mounting plate 73 from coming off the machine body 2, and the drum body 6 accommodates the mounting plate 73 in the bottom 5. It has a storage recess 74 to be used.

According to this configuration, it is possible to prevent the engaging claw 80 from being damaged when the mixing drum 3 is placed on the mounting surface.
Further, the machine body 2 has a rotary shaft 30 that can rotate around the axis X1, a rotary disk 31 on which the mounting plate 73 is mounted, and a fixing tool 39 that fixes the rotary disk 31 to the rotary shaft 30. Reference numeral 5 denotes a recess 85 for accommodating the head 39c of the fixture 39 through which the through hole 84 formed in the mounting plate 73 is inserted, and the through hole 84 has a small diameter portion 86 close to the head 39c and a small diameter. It has a large diameter portion 87 having a diameter larger than that of the portion 86 and the recess 85.

According to this configuration, the through hole 84 can be easily cleaned.
Further, the machine body 2 has a plurality of rollers 44 that guide the rotation of the mixing drum 3, and the drum body 6 is formed on the inner surface side along the axis X1 direction and is a holding groove in which the stirring member 4 is held. The stirring member 4 has a cylindrical peripheral wall 97 formed on the bottom 5 side of the holding groove 93 and with which the roller 44 abuts, and the stirring member 4 projects from the holding groove 93 to the bottom 5 side, and a plurality of members are present. The protrusion 77 supports a portion of the stirring member 4 that projects toward the bottom 5 from the holding groove 93.

According to this configuration, the portion of the stirring member 4 in the portion where the holding groove 93 cannot be formed to form the cylindrical peripheral wall 97 can be supported by the protrusion 77.
Further, the foodstuff mixer 1 includes a machine body 2 and a mixing drum 3 that is rotatably supported by the machine body 2 around the axis X1 and rotates to mix a plurality of foodstuffs housed inside. Has a rotary disk 31 that can rotate around the axis X1, and when the mixing drum 3 is placed on the rotary disk 31, the rotary disk 31 is inserted and the mixing drum 3 is placed around the axis X1. The engaging claw 80 that moves the mixing drum 3 to a position where it can be restricted from coming off from the turntable 31 by rotating it by a predetermined angle in the setting direction D1 and the first handle facing the mixing drum 3 in the radial direction E1. The engaging claw 80 has a portion 92A and a second handle portion 92B, and the engaging claw 80 rotates the mixing drum 3 with the first handle portion 92A and the second handle portion 92B facing the side of the machine body 2. The turntable 31 is inserted by placing it on the rotating disk 31.

According to this configuration, when the mixing drum 3 is placed on the rotary disk 31 with the first handle portion 92A and the second handle portion 92B facing the side of the machine body 2, the engaging claw 80 makes the rotary disk 31. Since it is inserted, the engaging claw 80 can be easily inserted into the rotating disk 31, and the mixing drum 3 can be easily attached to the machine body 2.
Further, the turntable 31 has an insertion hole 45 through which the engagement claw 80 is inserted, and an engagement groove 46 formed at a distance behind the setting direction D1 of the insertion hole 45, and the mixing drum 3 has a mixing drum 3. A ball member 81 to be inserted into the engagement groove 46 when the mixing drum 3 is placed on the rotary disk 31, and engages with the insertion hole 45 when the mixing drum 3 is rotated by a predetermined angle in the setting direction D1. It has a ball member 81 that moves over a partition wall portion 47e between the groove 46 and a position to be inserted into the insertion hole 45.

According to this configuration, the mixing drum 3 can be mounted only by rotating the mixing drum 3 in the setting direction D1.
Further, the mixing drum 3 has a drum main body 6 having an opening at one end in the axial center X1 direction and a drum lid 8 for closing the opening 7 of the drum main body 6, and the drum lid 8 is a position where the drum main body 6 is covered. The first cover position Y1 that can be removed from the drum body 6 and the second cover position that is rotated from the first cover position Y1 in the setting direction D1 and cannot be removed from the drum body 6. It can be changed to Y2, and the drum lid 8 rotates in the direction opposite to the setting direction D1 by engaging with the engaging protrusion 102 formed on the drum main body 6 at the second cover position Y2. It has a regulating portion 107d to be regulated, and the resistance when the regulating portion 107d is disengaged from the engaging protrusion 102 is smaller than the resistance when the ball member 81 gets over the partition wall portion 47e.

According to this configuration, when the drum lid 8 is removed from the drum main body 6, it is possible to prevent the drum main body 6 from rotating around.
Further, the machine body 2 has a support frame 10 to which a rotary disk 31 is attached, and the support frame 10 has a plurality of rollers 44 that abut on the mixing drum 3 to support the rotation of the mixing drum 3, and the rotary disk 3 has a plurality of rollers 44. Reference numeral 31 is an inclined shape that shifts downward toward the plurality of rollers 44 in a state where the mixing drum 3 is placed.

According to this configuration, the mixing drum 3 can be positioned when the mixing drum 3 is mounted on the rotary disk 31 by the plurality of rollers 44, and the mounting of the mixing drum 3 can be facilitated. Further, since the rotary disk 31 has an inclined shape that shifts downward as it approaches the plurality of rollers 44, it is possible to facilitate the operation when the mixing drum 3 is placed on the rotary disk 31 while being in contact with the rollers 44. ..

Further, the home position detector 43 for detecting the home position of the rotating disk 31, which is the position where the mixing drum 3 is mounted, and the control device 18 for controlling the rotation of the rotating disk 31, after the lapse of the set rotation time, A control device 18 for stopping the turntable 31 at the home position is provided.
According to this configuration, it is possible to facilitate the mounting of the mixing drum 3.
Further, the insertion hole 45 includes a first insertion hole 45A and a second insertion hole 45B provided at symmetrical positions in the radial direction E1 of the rotary disk 31, and the engaging claw 80 is a first insertion hole 45A through which the first insertion hole 45A is inserted. 1 Includes a second engaging claw 80B through which the engaging claw 80A and the second insertion hole 45B are inserted.

According to this configuration, even when the first handle portion 92A faces one side of the machine 2 and the second handle portion 92B faces the other side of the machine 2, the first handle part 92A faces the other side of the machine 2. It can be mounted on the rotating disk 31 even when the second handle portion 92B faces the other side and faces one side of the machine body 2, and the mixing drum 3 can be easily mounted.
Further, one or a plurality of pairs of the first engaging claw 80A and the second engaging claw 80B may be provided.

Further, the engaging groove 46 is spaced between the first engaging groove 46A formed at a distance on the rear side of the setting direction D1 of the first insertion hole 45A and the rear side of the setting direction D1 of the second insertion hole 45B. The ball member 81 includes a first ball member 81A to be inserted into the first engagement groove 46A and a second ball member to be inserted into the second engagement groove 46B. Includes 81B.
According to this configuration, even when the first handle portion 92A faces one side of the machine 2 and the second handle portion 92B faces the other side of the machine 2, the first handle part 92A faces the other side of the machine 2. It can be mounted on the rotating disk 31 even when the second handle portion 92B faces the other side and faces one side of the machine body 2, and the mixing drum 3 can be easily mounted.

Further, the foodstuff mixer 1 includes a machine body 2 and a mixing drum 3 that is rotatably supported by the machine body 2 around the axis X1 and rotates to mix a plurality of foodstuffs housed inside. Has a rotary disk 31 that is rotatable around the axis X1 and on which the mixing drum 3 is mounted by placing the mixing drum 3 and rotating it by a predetermined angle in the setting direction D1 around the axis X1. 31 has an insertion hole 45 and an engagement groove 46 formed at a distance on the rear side of the insertion hole 45 in the setting direction D1, and when the mixing drum 3 is placed on the turntable 31. The engaging claw 80 that moves through the insertion hole 45 and moves to the set position G2 that can restrict the mixing drum 3 from coming off the rotating disk 31 due to the rotation of the mixing drum 3 by a predetermined angle, and the engaging claw 80 are inserted. By inserting the hole 45 into the engaging groove 46 and moving the engaging claw 80 to the set position G2, the partition portion 47e between the insertion hole 45 and the engaging groove 46 is overcome and the insertion hole 45 is formed. It has a ball member 81 that moves to a position to be inserted.

According to this configuration, the mixing drum 3 can be mounted by simply placing the mixing drum 3 on the rotating disk 31 and rotating it by a predetermined angle in the setting direction D1, and the mixing drum 3 can be easily mounted.
Further, the rotary disk 31 has a lock groove 49 that engages with the engaging claw 80 to prevent the mixing drum 3 from rotating relative to the rotary disk 31 in the rotational direction, and the mixing drum 3 has a locking groove 49. The position can be changed between the mounting position P1 which is the mounting position and the operating position P2 which is the position raised from the mounting position P1 and is the position where the mixing drum 3 is rotated, and the engaging claw 80 is the set position. When the turntable 31 is set to the operating position P2 in the state of being located at G2, it fits into the lock groove 49.

According to this configuration, it is possible to prevent the mixing drum 3 from coming off the rotating disk 31.
Further, the rotary disk 31 has a rotation transmitting portion 47c that comes into contact with the engaging claw 80 so as to be able to transmit a rotational force when the engaging claw 80 is set to the set position G2, and a rotation transmitting portion 47c on the front side in the setting direction D1. It has a regulating wall portion 47d which is a portion and regulates the mixing drum 3 from being disengaged from the rotating disk 31 by engaging the engaging claw 80, and the lock groove 49 is formed on the lower surface side of the regulating wall portion 47d. Has been done.

According to this configuration, the structure of the engaging claw 80 and the lock groove 49 can be simplified.
Further, the rotary plate 31 has an upper plate 31A and a lower plate 31B which is overlapped and fixed to the lower surface of the upper plate 31A, and the upper plate 31A penetrates the upper plate 31A and is formed. The lower plate 31B has a hole 47, and the lower plate 31B has a lower through hole 48 formed so as to penetrate the lower plate 31B and communicate with the upper through hole 47, and the insertion hole 45 has an upper through hole 47 and a lower penetration. The rotation transmission portion 47c is formed by the hole 48, and is formed by the end portion of the upper through hole 47 on the front side in the setting direction D1, and the engagement groove 46 is formed so as to penetrate the upper plate 31A.

According to this configuration, the insertion hole 45, the engagement groove 46, and the rotation transmission portion 47c can be easily formed.
Further, the lock groove 49 is formed so as to penetrate the lower plate 31B and is continuously formed in the lower through hole 48.
According to this configuration, the lock groove 49 can be easily formed.

Further, the mixing drum 3 has a mounting plate 73 attached to the bottom surface of the mixing drum 3, and the engaging claw 80 has a base piece 80a extending from the mounting plate 73 and abutting on the rotation transmission portion 47c, and a base piece 80a. It has a locking piece 80b that extends from and fits into the lock groove 49 and engages the regulating wall portion 47d.
According to this configuration, the structure can be simplified.

Further, the food mixing machine 1 is provided in the machine body 2, a mixing drum 3 rotatably supported by the machine body 2 around the axis X1 and rotating to mix a plurality of food materials housed inside, and a mixing drum 3. The mixing drum 3 includes a blower 19 for generating cooling air to be sent, and the mixing drum 3 has a drum body 6 having one end open in the axial center X1 direction and the other end closed by a bottom portion 5, and a drum that closes the opening 7 of the drum body 6. The drum lid 8 has a main body wall 105 which has a lid 8 and becomes narrower toward the axis X1 direction and the side opposite to the bottom 5, and the main body wall 105 has a cooling air in the mixing drum 3. It has a cooling air intake port 21 to be introduced and a cooling air discharge port 108 capable of discharging the cooling air from the inside of the mixing drum 3.

According to this configuration, the cooling performance can be improved by discharging the cooling air after cooling the food material from the cooling air discharge port 108.
Further, the cooling air intake port 21 is formed at the top of the main body wall 105, and the cooling air discharge port 108 is formed between the top 105a and the base 105b on the opposite side of the top 105a.
According to this configuration, it is possible to suppress the food from being discharged from the cooling air discharge port 108, and it is possible to suppress the immediate discharge of the introduced cooling air.

Further, the cooling air exhaust port 108 includes a plurality of exhaust ports formed at intervals in the circumferential direction J2 of the mixing drum 3.
According to this configuration, the efficiency of cooling performance can be improved.
Further, the plurality of exhaust ports are formed at symmetrical positions with respect to the center of the drum lid 8.
According to this configuration, the cooling air can be discharged evenly.

Further, the air guide duct 20 for guiding the cooling air generated by the blower 19 to the cooling air intake port 21 is provided, and the air guiding duct 20 is located in the vicinity of the cooling air intake port 21 and directed toward the center of the mixing drum 3. It has a cooling air supply port 20c.
According to this configuration, the foodstuff can be cooled efficiently.
Further, the end portion 20d of the cooling air supply port 20c may be parallel to the cooling air intake port 21.

Further, the drum lid 8 includes a stirring member 4 attached to the mixing drum 3 to stir the food, and the drum lid 8 has a peripheral wall portion 103 surrounding the outer periphery of the wall portion forming the opening 7 of the drum main body 6 and an end portion of the peripheral wall portion 103. A ring-shaped annular wall portion 104 extending inward in the radial direction E1 of the mixing drum 3, the end portion on the inner diameter side is connected to the end portion on the opening side of the main body wall 105, and the stirring member 4 It has an annular wall portion 104 that regulates the movement of the axis in the X1 direction.

According to this configuration, the movement of the stirring member 4 in the axial center X1 direction is restricted by the drum lid 8, but the operation is performed by the annular wall portion 104 so that the drum lid 8 has a circumferential direction J2 with respect to the drum body 6. Even if it is located at the position, the movement of the stirring member 4 can be restricted.
Further, the drum lid 8 can accommodate the stirring member 4 inside the peripheral wall portion 103.
According to this configuration, it is possible to prevent the stirring member 4 from being lost.

Further, the food material mixer 1 includes a machine body 2 and a mixing drum 3 that is rotatably supported by the machine body 2 around the axis X1 and rotates to mix a plurality of food materials housed inside the machine body 2. Has a rotary disk 31 for mounting the mixing drum 3 and a plurality of rollers 44 for positioning the mixing drum 3 in contact with the mixing drum 3 when the mixing drum 3 is mounted on the rotary disk 31.
According to this configuration, when the mixing drum 3 is mounted on the rotary disk 31, it can be positioned by a plurality of rollers 44, and the mixing drum 3 can be easily mounted on the machine body 2.

Further, the rotary disk 31 can be repositioned to a mounting position P1 which is a position where the mixing drum 3 is mounted and an operating position P2 which is a position raised from the mounting position P1 and is a position where the mixing drum 3 is rotationally driven. The mixing drum 3 has an inclined shape that shifts upward from the front surface to the back surface of the machine body 2 when the rotary disk 31 is in the operating position P2, and the plurality of rollers 44 have the rotating disk 31 in the operating position P2. When it is, it supports the lower part of the mixing drum 3.

According to this configuration, the lower portion of the mixing drum 3 can be supported by the roller 44 when the rotating disk 31 is moved from the mounting position P1 to the operating position P2 or when the mixing drum 3 is rotated at the operating position P2. The mixing drum 3 can be rotated stably, and the load acting on the portion where the mixing drum 3 is mounted on the rotating disk 31 can be reduced.
Further, the plurality of rollers 44 can rotate with the rotation of the mixing drum 3.

According to this configuration, the rotation of the mixing drum 3 can be well supported.
Further, the mixing drum 3 is provided with a stirring member 4 arranged so as to cross the mixing drum 3, and the mixing drum 3 has a drum body in which one end in the axial center X1 direction is opened and the other end is closed by the bottom 5. The drum body 6 has a holding groove 93 formed on the inner surface side of the drum body 6 along the axis X1 direction and holds the stirring member 4, and is formed on the bottom 5 side of the holding groove 93. It has a cylindrical peripheral wall 97 with which the roller 44 abuts.

According to this configuration, the holding groove 93 for holding the stirring member 4 and the cylindrical peripheral wall 97 with which the roller 44 abuts can be satisfactorily formed.
Further, the mixing drum 3 has a mounting plate 73 to be mounted on the turntable 31, and the mounting plate 73 is an engaging claw 80 through which the insertion hole 45 formed in the turntable 31 is inserted, and the insertion hole 45 is provided. The mounting plate 73 has an engaging claw 80 that can be restricted from being disengaged from the turntable 31 by rotating the mixing drum 3 around the axis X1 by a predetermined angle from the position where the mixing drum 3 is inserted. The insertion hole 45 can be inserted in a state where the roller 44 of the above is in contact with the mixing drum 3.

According to this configuration, the engaging claw 80 can be easily inserted into the insertion hole 45.
Further, the foodstuff mixer 1 includes a machine body 2 and a mixing drum 3 rotatably supported by the machine body 2 and mixed with a plurality of foodstuffs housed inside by rotating, and the machine body 2 is a mixing drum 3. Has a support frame 10 rotatably mounted and a main frame 9 to which the support frame 10 is swingably mounted, and the support frame 10 is a position where the mixing drum 3 is mounted in a vertical direction. The mounting position P1 can be changed to the operating position P2, which is a position where the mixing drum 3 is tilted and rotated upward as it moves toward the back surface of the machine body 2, and the main frame 9 is the mounting position of the support frame 10. It has an operating lever 50 to be operated at P1 and the operating position P2.

According to this configuration, the posture of the mixing drum 3 can be changed by operating the lever, so that the posture of the mixing drum 3 can be easily changed.
Further, the operation lever 50 can be operated at the first operation position R1 for operating the support frame 10 at the mounting position P1 and the second operation position R2 for operating the support frame 10 at the operating position P2, and the first operation position. When it is R1, it is an inclined shape which shifts downward toward the front of the aircraft 2, and when it is the second operation position R2, it is an inclined shape which shifts upward toward the front.

According to this configuration, when the support frame 10 is changed from the mounting position P1 to the operating position P2, the operating lever 50 moves downward from the first operating position R1 toward the front of the machine body 2. It is operated to the second operation position R2, which is an inclined shape that shifts upward toward the front of the. That is, when the support frame 10 is operated from the mounting position P1 to the operating position P2, the operation lever 50 is not operated to the rear side of the machine body 2 beyond the position where the operation lever 50 is vertical, so that the operation lever 50 is operated. It is possible to prevent the aircraft 2 from being lifted.

Further, the support frame 10 can be changed to the take-out position P3, which is a position where the food inside is taken out in an inclined state in which the mixing drum 3 shifts toward the front as it goes upward, and the operation lever 50 is a support. The frame 10 can be operated to the third operation position R3 to be operated to the take-out position P3, and when the frame 10 is the third operation position R3, it is an inclined shape that shifts downward toward the front and is the first operation position with respect to the horizontal. It is an inclined shape with a larger inclination angle than R1.

According to this configuration, it is easy to operate the operation lever 50 when the support frame 10 is operated from the mounting position P1 to the taking-out position P3.
Further, the main frame 9 extends from the frame main body 11 and the first side frame 12 extending from one side of the frame main body 11 toward the front, and from the other side of the frame main body 11 toward the front. The support frame 10 has a second side frame 13 to be ejected and a connecting frame 14 for connecting the front sides of the first side frame 12 and the second side frame 13 to each other, and the support frame 10 is the first side frame 12. A first swing frame 25 swingably supported, a second swing frame 26 swingably supported by a second side frame 13, a first swing frame 25, and a second swing frame. The support base 27 is connected to the 26 and has a support base 27 on which the mixing drum 3 is mounted. The support base 27 is a first contact wall (second wall portion) that abuts on the connecting frame 14 at the operating position P2 of the support frame 10. It has 27b2) and a second contact wall (third wall portion 27b3) that abuts on the connecting frame 14 at the take-out position P3 of the support frame 10.

According to this configuration, when the support frame 10 is positioned at the operating position P2 or the take-out position P3, the support frame 10 comes into contact with the connecting frame 14 to reduce the load acting on the mounting portion of the operation lever 50. Can be done.
Further, the machine body 2 includes a rotary disk 31 rotatably attached to the support table 27 and to which the mixing drum 3 is mounted, and the support table 27 includes a plurality of rollers 44 provided on the back side of the rotary disk 31. The rotary disk 31 has an inclined shape that shifts downward toward the back surface at the mounting position P1 of the support frame 10, and the mixed drum 3 is in contact with a plurality of rollers 44. It is attached to.

According to this configuration, it is possible to facilitate the mounting of the mixing drum 3 on the rotary disk 31.
Further, the machine body 2 is shaken by a drive motor 40 provided on the support frame 10 for rotationally driving the mixing drum 3, a control device 18 provided on the main frame 9 for controlling the drive motor 40, and the main frame 9. A harness passage 68 is formed which is rotatably supported around the center of motion X2 and is rotatable integrally with the operation lever 50 and the support frame 10 and passes the harness 67 which is arranged from the drive motor 40 to the control device 18. The harness through path 68 is formed at the center of the rotating member 28 along the swing axis X2, and has a first through portion 68A into which the harness 67 is inserted from the drive motor 40 side. It has a second through portion 68B formed from the first through portion 68A to the outer peripheral surface of the rotating member 28 and passing the harness 67 arranged from the first through portion 68A to the control device 18 side.

According to this configuration, even if the operating lever 50 is swung around the swing axis X2, it is possible to prevent the harness 67 from being twisted.
Further, the drum main body 6 is provided with a stirring member 4 arranged across the drum main body 6 to stir the food, and the machine body 2 is provided on the main frame 9 and the stirring member 4 is attached to the drum lid 8. It has a holding member 24 capable of holding the drum lid 8 in a housed state.

According to this configuration, the stirring member 4 and the drum lid 8 can be kept compact.
Although one embodiment of the present invention has been described above, it should be considered that the embodiments disclosed this time are exemplary in all respects and are not restrictive. The scope of the present invention is shown by the scope of claims rather than the above description, and is intended to include all modifications within the meaning and scope equivalent to the scope of claims.

2 Machine 3 Mixing drum 31 Rotating plate 31A Upper plate 31B Lower plate 45 Insertion hole 46 Engagement groove 47 Upper through hole 47c Rotation transmission part 47d Restriction wall part 47e Bulk partition part 48 Lower through hole 49 Lock groove 73 Mounting plate 80 Engagement claw 80a Base piece 80b Locking piece 81 Ball member D1 Set direction G2 Set position P1 Mounting position P2 Operating position X1 Axis center

Claims (6)

With the aircraft
A mixing drum that is rotatably supported by the machine around the axis and mixes a plurality of foodstuffs housed inside by rotating.
Equipped with
The machine body has a turntable that can rotate around the axis and is mounted with the mixing drum by placing the mixing drum and rotating it by a predetermined angle in the setting direction around the axis.
The turntable has an insertion hole and an engagement groove formed at a distance on the rear side of the insertion hole in the setting direction.
The mixed drum is
With an engaging claw that, when placed on the turntable, inserts the insertion hole and moves the mixing drum to a set position that can be restricted from coming off the turntable due to the rotation of the mixing drum by the predetermined angle. ,
The engaging claw is inserted into the engaging groove with the insertion hole inserted, and the engaging claw moves to the set position to get over the partition wall portion between the insertion hole and the engaging groove. A food material mixer having a ball member that moves to a position to be inserted into the insertion hole. The turntable has a lock groove that engages with the engaging claws to prevent the mixing drum from rotating relative to the turntable in the rotation direction, and the mixing drum is placed on the turntable. The position can be changed between the mounting position, which is the mounting position, and the operating position, which is the position raised from the mounting position and is the position where the mixing drum is rotated.
The foodstuff mixer according to claim 1, wherein the engaging claw fits into the lock groove when the turntable is set to the operating position while the engaging claw is located at the set position. The turntable is
When the engaging claw is set to the set position, a rotation transmitting portion that is in contact with the engaging claw so as to be able to transmit a rotational force,
It has a regulation wall portion which is a portion of the rotation transmission portion on the front side in the set direction and which regulates the mixing drum from being disengaged from the turntable by engaging the engaging claws.
The foodstuff mixer according to claim 2, wherein the lock groove is formed on the lower surface side of the regulation wall portion. The turntable has an upper plate and a lower plate that is overlapped and fixed to the lower surface of the upper plate.
The upper plate has an upper through hole formed through the upper plate.
The lower plate has a lower through hole formed through the lower plate and communicating with the upper through hole.
The insertion hole is formed by the upper through hole and the lower through hole.
The rotation transmission portion is composed of the end portion of the upper through hole on the front side in the set direction.
The foodstuff mixer according to claim 3, wherein the engaging groove is formed through the upper plate. The foodstuff mixer according to claim 4, wherein the lock groove is formed through the lower plate and continuously formed in the lower through hole. The mixing drum has a mounting plate attached to the bottom surface of the mixing drum.
The engagement claw has a base piece extending from the mounting plate and abutting on the rotation transmission portion, and a locking piece extending from the base piece and fitting into the lock groove and engaging with the regulation wall portion. The foodstuff mixer according to any one of 3 to 5.

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