JPH0771453B2 - Mixing method and mixing device for rice and vinegar - Google Patents

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a method for mixing rice, vinegar and the like and a mixing device for mixing rice with a mixture of vinegar and other seasonings or ingredients.

[0002]

2. Description of the Related Art Conventionally, as a mixing device used when sushi rice is prepared by mixing vinegar with freshly cooked rice, rice is placed inside a rotating container while rotating a spherical rotating container around the horizontal axis. There are some that are mixed with vinegar. The rotating container is composed of a hemispherical lower ball and an upper ball detachably mounted on the opening side of the lower ball. The lower ball is rotatably supported by a frame by a pair of left and right cylindrical horizontal shafts. Has been done. Further, in the rotary container, a rice slicing bar in which thin rods are combined in a cross shape is detachably provided.

In this mixing device, after putting rice and vinegar in a rotary container, while rotating the rotary container about the horizontal axis, the rice is cut with a rice cutting stick and stirred to add vinegar to the rice. I try to mix them. On the other hand, during this mixing, if necessary, cooling air is supplied from one of the horizontal axes to the inside of the rotary container to cool the rice, and the cooled air is discharged to the outside from the other horizontal axis, I try to prevent stickiness of the rice.

[0004]

In the conventional mixing device, the rice is mixed by stirring the rice with a rice cutting rod in the rotary container, but the rotary container itself is a spherical surface composed of a lower ball and an upper ball. When the rotating container rotates, the rice slides along the inner surface of the spherical rotating container, so it is difficult to loosen the rice, and not only can vinegar be mixed with the rice, but also because of the slipping. It has the drawback that it becomes sticky.

Further, when the rice in the rotary container is taken out after the mixing, it is necessary to take out the rice cutting stick before that, and there is also a problem that the handling of the rice cutting stick becomes troublesome. Furthermore, conventionally, using a pair of left and right horizontal axes that support the lower ball,
Cooling air is supplied into the rotary container from one side and air inside the rotary container is discharged from the other side, so the air passes straight through the rotary container, resulting in a low cooling effect and sticky rice. There was also the problem of remaining.

In view of such conventional problems, the present invention has been made.
A mixing method and mixing device for rice and vinegar that can mix rice, vinegar and other mixtures evenly, prevent stickiness of rice, and are easy to handle and have excellent cooling effect. The purpose is to provide.

[0007]

According to the method of the present invention as set forth in claim 1, a rotary container including a lid 13 and having a substantially quadrangular vertical cross-sectional shape.
After the rice M and the mixture S such as vinegar are put in the container 3, the rotary container 3 is rotated about the horizontal axis 2 and when the lid 13 passes below,
An exhaust pipe 17 protruding from the lid 13 into the rotary container 3 divides the rice M and the mixture S into both sides of the exhaust pipe 17, while moving them in the rotary container 3 in opposite directions to mix them. .

Further, the device of the present invention according to claim 2 has a horizontal axis
2 A mixture S of rice M and vinegar in a rotating container 3 that rotates around 2
In a mixing device for rice, vinegar, etc.
The vertical cross-section of the rotating container 3 including
An exhaust pipe 17 projecting into the rotary container 3 is provided at the center portion of the horizontal axis 2 in the axial direction.

[0009]

When the rice M and the mixture S such as vinegar are mixed, the rice M and the mixture S such as vinegar are put into the rotary container 3, and then the rotary container 3 is rotated about the horizontal axis 2. Then, since the vertical cross-sectional shape of the rotary container 3 including the lid 13 is substantially quadrangular, the rice M in the rotary container 3 is sequentially lifted by the side wall, the bottom wall and the lid 13 of the rotary container 3 from the surface side. While collapsing, it moves in the direction opposite to the rotating direction of the rotating container 3.

On the other hand, since the exhaust pipe 17 projecting into the rotary container 3 is provided at the center of the lid body 13 in the axial direction of the horizontal axis 2, the lid body
When 13 passes under the rotary container 3, the exhaust pipe 17 divides the rice M and the mixture S into both sides of the exhaust pipe 17, and by repeating these operations, the rice M and the mixture S such as vinegar are evenly distributed. Mix.

[0011]

Embodiments of the present invention will now be described in detail with reference to the drawings. 1 to 5 show a first embodiment of the present invention. This mixing apparatus comprises a base 1 and a rotary container 3 rotatably and cantilevered on an upper portion of the base 1 via a horizontal shaft 2. And the horizontal axis 2
A rotary drive means 4 for rotating the rotary container 3 via
It comprises a cooling means 5 forcibly sending cooling air into the rotary container 3 via the horizontal axis 2.

The base 1 is a dolly having wheels 6 at the lower four corners.
7 and a box-shaped support frame 8 erected at the center of one side of the carriage 7. Cart 1 is a rotating container 3
The food take-out container 9 can be placed below the table, and the rotation drive means 4 and the forced cooling means are provided in the support frame 8.
Five are provided. The rotating container 3 has a bottomed cylindrical shape having an opening 10, and a pair of mounting brackets are provided outside the peripheral wall.
11 is provided, and an air supply hole 12 is formed between the pair of mounting brackets 11.

The opening 10 of the rotary container 3 is openably and closably closed by a cover 13, and the rotary container 3 including the cover 13 has a substantially rectangular vertical cross-section. The lid 13 is provided with three clamp metal fittings 14 in the circumferential direction in the circumferential direction, and by engaging each of the clamp metal fittings 14 with a locking tool 15 fixed to the upper outer circumference of the rotary container 3, in a detachable manner, It is removably attached to the rotating container 3.

The lid 13 is provided with an exhaust hole 16 in the center and a pair of grips 13a on both sides thereof, and the exhaust hole 16 is provided.
An exhaust pipe 17 that surrounds is provided so as to project into the rotary container 3. The exhaust pipe 17 has a length that reaches almost the center of the rotary container 3 in the depth direction. The upper part, that is, the lid 13 side is a blind cylinder part 18, the lower part is a perforated cylinder part 19, and the lower end is Is fitted with a dome-shaped blind cover 20. The perforated cylinder portion 19 is composed of a net body, a perforated plate, or the like.

As shown in FIG. 6, a plurality of (for example, four) rice cutting members 21 are fixed to the lower end of the exhaust pipe 17 in the front side in the rotating direction, and one rice cutting member 21 is provided on the opposite side. The cutting member 22 is fixed. The rotating container 3 has its mounting bracket 11
It is detachably attached to the container mount 23 on the horizontal axis 2 by means of butterfly bolts 24. The container mount 23 has a receiving portion 24 that receives the bottom 3a of the rotary container 3 from below.

The horizontal axis 2 is formed in a cylindrical shape so as to also serve as a cylinder for sending cooling air into the rotary container 3. The horizontal shaft 2 is horizontally arranged in the front-rear direction through the side wall 8a of the upper portion of the support frame 8 and is rotatably supported by the bearing bracket 25 and the side wall 8a inside the support frame 8 via the bearings 26 and 27. Has been done. The container mount 23 is fixed to the tip of the horizontal axis 2 so that the tip projects slightly forward.
When the rotary container 3 is attached to 23, the tip of the horizontal shaft 2 is fitted in the air supply hole 12. At the tip of horizontal axis 2,
A guide plate 28 for guiding the cooling air to the front side in the rotation direction of the rotary container 3 is provided.

The rotary drive means 4 is composed of a drive motor 29 and a winding transmission mechanism 30. Drive motor 29 is horizontal
It is arranged on one side of the lower side of 2 and is provided on the motor mount 31 fixed to the side wall 8a inside the support frame 8. The winding transmission mechanism 30 includes a drive sprocket 32 on the drive motor 29 side and a driven sprocket 33 fixed to the horizontal shaft 2.
And a chain 33a wound between these sprockets 32 and 33. A belt transmission type may be adopted for the winding transmission mechanism 30.

As shown in FIG. 7, the horizontal axis 2 is provided with a closing position cam plate 34 and an extracting position cam plate 35, and a closing position detection switch operated by these cam plates 34, 35.
36 and the take-out position detection switch 37 are attached to the bearing bracket 25. The closing position detection switch 36 is a rotating container.
When the opening 10 of 3 is directed to the loading position X side in the diagonally right upper direction, it is operated by the concave portion 34a of the cam plate 34, and the take-out position detection switch 37 detects that the opening 10 of the rotary container 3 is in the take-out position diagonally downward to the right. When facing the Y side, it is operated by the recess 35a of the cam plate 35.

The forced cooling means 5 is a cooling fan 38 and a vertically feeding cylinder.
It is composed of 39, a junction box 40 and a cylindrical horizontal axis 2. The cooling fan 38 integrally includes a cooling fan motor 41, and is installed inside the support frame 8 so as to face an air intake hole 44 with a filter 43 formed in a back cover 42 of the support frame 8. The vertical transfer cylinder 39 is connected to the cooling fan 38 and extends upward, and its upper end is inserted into the connection box 40.

The connection box 40 is for connecting the vertical feed cylinder 39 and the horizontal shaft 2, and is attached to the upper portion of the support frame 8 via a mounting bracket 45. In the junction box 40, the rear end of the horizontal shaft 2 is inserted at a position horizontally separated from the upper end of the vertical feeding cylinder 39, and a drain port 46 is provided below the horizontal shaft 2 and the drain port is provided. A drain pipe 47 is connected to 46.
The drain pipe 47 extends downward from the drain port 46, and is projected to the outside from a hole 50 formed in a side wall 49 of the support frame 8 via a trap portion 48 that is bent in a U shape at a lower portion of the support frame 8. ing. Water 51 is always stored in the trap portion 48, which is water-sealed so that insects and the like do not enter the drain pipe 47.

A control panel 53 is provided above the side wall 52 of the support frame 8. As shown in FIG. 8, the control panel 53 is divided into an upper and lower operation section 54 and a setting section 55. The operation section 54 is provided with a power switch 56, a start switch 57, a take-out switch 58, a return switch 59, and an emergency stop switch 60 in a horizontal row in the upper stage, and a mixing indicator lamp 6 in the middle stage.
1, cooling indicator lamps 62 are provided on the left and right, 4 boxes in the lower row,
Selection switches 63, 64, and 65 of three boxes and two boxes are provided in a horizontal row. Each switch 56-60, 63-65 is a push button type, and each switch 57-60, 63-65 other than the power switch 56
The one with an indicator lamp that lights up when it is turned on is used. 66 is a power indicator lamp.

The setting section 55 displays mixing, steaming, and cooling at the uppermost stage, and 4 squares, 3 squares, and 2 squares at the left end, which correspond to the respective displays. Then, setting switches 67 to 75 are provided vertically and horizontally. As shown in FIG. 9, each of the setting switches 67 to 75 is provided with a display drum 77 on the outer circumference of which a number is displayed and a ratchet 78 for rotating the casing, as shown in FIG. By operating 77, the number is displayed on the display window 79 of the case 76.

The setting switches 67-69 for mixing and the setting switches 73-75 for cooling are set by the number of rotations of the rotary container 3,
The setting switches 70 to 72 for steaming are set in hours (minutes). The setting unit 55 is provided with an openable / closable cover 80, and when setting conditions such as mixing, the cover 80 is opened and the setting switches 67 to 75 are operated.

FIG. 10 shows a control system, and 81 is a control device composed of a microcomputer or the like for rotating the rotary container 3 a number of times set by the setting switches 67 to 69 for mixing of the setting section 55 during mixing. A mixing control unit 82, a steaming control unit 83 for stopping the rotary container 3 at the feeding position X for a time set by the steaming setting switches 70 to 72 of the setting unit 55 at the time of steaming, and a cooling fan 38 at the time of cooling. A cooling control unit 84 for intermittently rotating the rotating container 3 a number of times set by the setting switches 73 to 75 for cooling of the setting unit 55 while sending the cooling air into the rotating container 3, and the inside of the rotating container 3 A take-out control section 85 for rotating the rotary container 3 from the feeding position X to the take-out position Y when taking out the rice M.
And a return controller 86 for rotating the rotary container 3 from the take-out position Y to the throw-in position X at the time of returning after taking out. 87 is an input / output circuit.

Next, the operation of the above configuration will be described with reference to the time chart of FIG. 11 and the flowchart of FIG. When making sushi rice by mixing vinegar S with rice M, the cover 80 of the setting unit 55 is opened, and the conditions for mixing, steaming, and cooling are set according to the amount of rice M. For example, if the amount of rice M is 4 and steaming is not required, the setting switch 67 for mixing is set to "4" and the setting switch 70 for steaming is set to "0".
The setting switch 73 for cooling is set to "0" and set to "5".
Do the same for 3 and 2 boxes, then cover
Close 80.

The rotary container 3 is normally stopped at the loading position X with the opening 10 facing the upper right. Therefore, first, the rotating container
The lid 13 of 3 is removed, the required amount of cooked rice M is put into the rotary container 3, and after adding the required amount of vinegar S, the lid 13 is attached and the opening 10 of the rotary container 3 is opened. Block.

Next, the selection switches 63 to 65 are selected according to the amount of the rice M.
After pressing any of the above, the start switch 57 is pressed. For example, if the rice M is 4 boxes, the start switch 57 is pressed after pressing the 4 box selection switches 63. Then, the mixing control unit 82
Is activated, the mixing display lamp 61 is turned on, the drive motor 29 is activated, and the horizontal shaft 2 is driven in the direction indicated by the arrow a through the winding transmission mechanism 30, so that the rotary container 3 is integrated with the horizontal shaft 2. a
It rotates in the direction of the arrow (step S1). Then, each time the rotary container 3 makes one rotation and passes the loading position X, the cam plate 35
Thereby, the closing position detection switch 36 is operated (step 2), and the set number CT ₁ (for example, 4) set by the setting switch 67 for mixing of the setting portion 55 is sequentially subtracted (step S3).

When the rotary container 3 rotates about the horizontal axis 2, the rice M in the rotary container 3 is rotated as shown in FIGS. 13 and 14.
As shown in (1), while moving, it moves relatively in the opposite direction, so that the vinegar S is mixed with the rice M. When the rotary container 3 rotates by the set number CT ₁ times and the predetermined mixing is completed, the mixing control unit 82 determines that the mixing is completed (step S
4) Then, the drive motor 29 is stopped to stop the rotary container 3 (step S5). At this time, the rotary container 3 is at the loading position X, and at the same time, the mixing display lamp 61 is turned off.

Next, the steaming control section 83 operates and determines whether or not the steaming time is set (step S6). If the steaming time is set, the rotary container 3 is moved to the steaming position X while being stopped at the charging position X (step S7), and the vinegar S is permeated into the rice M. Then, when the steaming for the set time is completed (step S8), the cooling control unit 84 operates and shifts to cooling.

In this case, since the steaming setting switch is "00" and the steaming time is not set,
Immediately after the mixing is completed, the cooling control unit 84 works to shift to cooling. When the cooling controller 84 operates, the cooling fan motor 41 operates, the cooling fan 38 rotates, and the cooling indicator lamp
62 lights up. Then, when the cooling fan 38 rotates, external air is sucked from the outside of the support frame 8 through the air suction holes 44, and then the vertical feeding cylinder 39 and the connection box 40 pass through the tubular horizontal axis 2 and into the rotary container 3. Supply cooling air (step S9),
Start cooling the rice M in the rotating container 3.

At the start of this cooling, the rotary container 3 is stopped at the charging position X (step S10). Then, the cooling control section 84 is adapted to intermittently control the rotating container 3 every one rotation for a predetermined stop time (for example, about 15 seconds). Therefore, when a predetermined time has elapsed (step S11), the drive motor 29 is activated to rotate the rotary container 3 about the horizontal axis 2 (step S12). When the rotary container 3 makes one rotation to the loading position X and the loading position detection switch 36 is activated (step S13), the process returns to step S10, and the rotary container 3 is rotated.
To stop.

On the other hand, every time the closing position detection switch 36 is operated, the set number CT ₂ (for example, 5) set by the cooling setting switch 37 of the setting unit 55 is sequentially subtracted (step S14). When the rotating container 3 is intermittently rotated by the set number CT ₂ and cooling is completed (step S15), the rotating container 3
3 is stopped at the feeding position X, and the supply of cooling air by the cooling fan 38 is stopped (steps S16, S17).
At the same time, the cooling indicator lamp 62 goes out.

When cooling is finished and the cooling indicator lamp 62 goes out, the lid 13 of the rotary container 3 is removed to open the opening 11, and as shown in FIG. 5, the food take-out container is placed on the carriage 7 of the base 1. After placing 9, press the eject switch 58 (step S
18). Then, the take-out control section 85 operates and the drive motor 29 is activated to rotate the rotary container 3 from the loading position X to the take-out position Y (step S19). When the rotary container 3 is rotated to the take-out position Y, the cam plate 35 operates the take-out position detection switch 37 to detect the take-out position Y (step S20), so that the rotary container 3 is stopped at the take-out position Y ( Step S21).

At this take-out position Y, as shown by the chain double-dashed line in FIG. 5, since the opening 10 of the rotary container 3 is directed obliquely downward, the rice M in the rotary container 3 is placed in this state. 9
Take it out. After taking out the rice M, the return switch 59 is pressed (step S22), and the rotation control unit 86 rotates the rotary container 3 (step S23) to return the rice to the loading position X. At this time, if the closing position detection switch 36 operates (step S
24) Then, the rotary container 3 is stopped at the loading position X (step S25). This completes a series of vinegar matching steps from the addition of rice M and vinegar S to mixing, steaming, cooling and removal.

Next, the operation during mixing and cooling will be described. 13 (A) to (H), the rotary container 3 is rotated about the horizontal axis 2 by 4
FIG. 14A to FIG. 14H show the states of the flow of the rotary container 3, the rice M and the cooling air when rotated at a pitch of 5 degrees.
The state of the planar movement of the rice M in (A)-(H) of FIG. 13 is shown.

When the rotary container 3 is at the loading position X, the rice M is served on the side wall 3b of the rotary container 3 as shown in FIG.
And is on the bottom wall 3a, and has an elliptical shape that is slightly longer in the rotation direction in plan view. Then, via the horizontal axis 2, the rotating container 3
The cooling air supplied inside is guided obliquely downward by the guide plate 28, circulates from the inner circumference of the rotary container 3 through the surface of the rice M in the direction of the arrow b, and then from the perforated cylindrical portion 19 of the exhaust pipe 17. Exhaust hole
It passes through 16 and is discharged to the outside.

When the rotary container 3 is rotated, the vertical cross-sectional shape of the rotary container 3 including the lid 13 is substantially quadrangular, and the rice M in the rotary container 3 is rotated along with the bottom wall 3a, the side wall 3b, and the side wall 3b. Lid
13, the side wall 3c is sequentially pushed up and collapses from the surface side, and as shown in FIGS. 13B to 13H, moves in the direction opposite to the rotation direction of the rotary container 3. Therefore, during this movement, the rice M is much less likely to slip on the inner surface of the rotary container 3, and the stickiness of the rice M can be prevented.

When the rotary container 3 is in FIG. 13B, the rice M is on the cylindrical peripheral wall of the rotary container 3 and has a rectangular shape which is long in the rotational direction as shown in FIG. 14A. .
Then, if the rotary container 3 rotates to (C) in FIG. 13,
The rice M is on the side wall 3b and the lid 13, and the exhaust pipe 17 of the lid 13
Begin to surround the blind tube portion 18 of. At this time, the rice M has an elliptical shape as shown in FIG. 14C, but the surface level is increased by the amount of the exhaust pipe 17, and the ellipse becomes larger than that in FIG. 14A. .

On the other hand, while the rotary container 3 is rotating from (A) to (C) of FIG. 13, the four rice cutting members 21 fixed to the exhaust pipe 17 are cut against the movement of the rice M. go. When the rotary container 3 faces downward as shown in FIG. 13 (D), the rice M surrounds the exhaust pipe 17 and rides on the lid 13, the level further rises, and as shown in FIG. 14 (D). So that it has a maximum diameter donut shape. And while the rotary container 3 is between (E) to (G) of FIG. 13, the rice M is (E) to (G) of FIG.
As shown in (G), when the rotary container 3 moves while tracing the reverse shape and is turned upward as shown in (H) of FIG. 13, the level of the rice M is lowered and (H) of FIG. ), It becomes a perfect circle. On the other hand, while the rotary container 3 moves from (E) to (G) of FIG. 13, one rice cutting member 22 fixed to the exhaust pipe 17 cuts against the movement of the rice M.

Therefore, the rice M during one rotation of the rotary container 3
14A and 14B, while being cut by the four rice cutting members 21, the width gradually narrows and extends in the rotation direction. Then, between (B) to (C), (D), and (E) of FIG. 14, the rice M is divided into two by the exhaust pipe 17 from the narrow state and widened to the maximum width, and then merges into one. Then the width becomes narrower.

Subsequently, after the width becomes the minimum width at the time of (F) of FIG. 14, the width widens again as shown in (G) and (H), and becomes the maximum width at the time of (H). Then, the rice M is cut by the rice cutting members 21 and 22 before and after the minimum width. While continuing this series of operations, the rice M moves evenly over the whole area, and the vinegar S is mixed with the rice M along with the movement, so the rice M is evenly distributed over the rice M in a short time. Can be mixed. In addition, the rice M does not become sticky and the rice M does not form a dumpling.

The cooling air is directed downward in FIG.
In (C), diagonally downward, and in (D), sideways.
Since it is guided by 28, it constantly circulates inside the rotary container 3 through the surface side of the rice M as shown by the arrow b. And FIG.
3 (E) is guided obliquely upward to the left, (F) upwards, (G) obliquely upwards to the right, and (H) is guided laterally to the right. Flowing from.

Therefore, during one rotation of the rotary container 3, the flow direction of the cooling air with respect to the rice M is reversed, and the cooling air always passes through the surface of the rice M and is then discharged from the exhaust pipe 17 to the outside. Since the rice M is cooled, the rice M can be efficiently cooled and excess water can be removed, and the rice M can be prevented from sticking.

When the rotating container 3 is washed while being attached to the container mount 23 of the horizontal axis 2, water may enter the cylindrical horizontal axis 2 which also serves as a cylinder for sending. However, the horizontal axis 2 is not directly connected to the vertical transfer cylinder 39, the connection box 40 is interposed between them, and the horizontal axis 2 and the vertical transfer cylinder 39 are arranged at least horizontally apart from each other. Therefore, the water in the horizontal axis 2 only flows into the connection box 40, and does not enter the cooling fan 38 via the vertical transfer cylinder 39. The same applies when cleaning the inside of the horizontal axis 2.

Therefore, it is sufficiently possible to insert a hose or the like into the rotary container 3 to wash away the dirt while spraying water in the rotary container 3, or put water into the rotary container 3 to cover the lid 13. After closing, it is also possible to wash with water while rotating the rotary container 3. Further, since the water that has entered the junction box 40 is drained to the outside through the drain port 46 and the drain pipe 47, the water does not accumulate in the junction box 40. The drain pipe 47 has a trap portion 48 that bends in a U shape.
It is always sealed with 48 water. For this reason, junction box 40
Although the drain pipe 47 is connected to
It is very hygienic as there is no dust, insects, etc. in the connection box 40 after passing through.

FIG. 15 shows a second embodiment of the present invention, in which a vinegar supply tank 89 is provided on the support frame 8 via a support base 88, and a supply pipe 90 is provided in the horizontal axis 2 to provide the vinegar supply tank 89. It is possible to automatically supply vinegar from and the automatic supply of cleaning water at the time of cleaning. The vinegar supply tank 89 is provided with a lid 91, and vinegar S is put inside. A vinegar supply pipe 93 having a flow meter 92 is connected to the bottom of the vinegar supply tank 89, and the vinegar supply pipe 93 is connected to the supply pipe 90 via a three-way solenoid valve 94. The solenoid valve 94 has a connecting portion 95, and a water supply pipe 96 from a water pipe is connected to the connecting portion 95. A flow meter 92, solenoid valve 94
Is provided inside the support base 88.

In this embodiment, when the rice M is put in the rotary container 3 and the lid 13 is closed, and then the vinegar supply button is pressed, the solenoid valve 94 is pressed.
Since the vinegar S is connected to the vinegar supply side, the vinegar S in the vinegar supply tank 89 can be automatically supplied to the rice M in the rotary container 3 via the solenoid valve 94 and the vinegar supply pipe 93. The vinegar supply pipe amount at this time is measured by the flow meter 92, and when the set amount is reached, the solenoid valve 94 returns to neutral and the vinegar supply is automatically terminated.

When the washing button is pressed to wash the rotary container 3, the solenoid valve 94 is connected to the water supply side. Therefore, the cleaning water is supplied from the water supply pipe 96 into the rotary container 3 through the electromagnetic valve 94, so that the rotary container 3 can be cleaned with the water. At this time, the rotary container 3 may be stopped or may be rotated with the lid 13 closed.

FIG. 16 shows a third embodiment of the present invention, in which the horizontal axis
The guide plate 28 at the tip of 2 is formed in a mountain shape. By doing so, the cooling air sent from the horizontal axis 2 into the rotary container 3 can be guided in two directions.

FIG. 17 shows a fourth embodiment of the present invention, in which the rice cutting members 21 and 22 are made of U-shaped rods. That is, the rice cutting members 21 and 22 shown in FIG. 17A have both ends of a U-shaped bar member circumferentially positioned and fixed to the blind cover 20 of the exhaust pipe 17, and FIG. ) The rice cutting members 21 and 22 are
Both ends thereof are fixed to the blind cylinder portion 18 of the exhaust pipe 17 and the blind cover 20, respectively. Also in these cases, the rice M can be cut by the rice cutting members 21 and 22 when the rotary container 3 rotates.

Although the respective embodiments have been described above, the following configurations may be adopted. The rotary container 3 is not limited to a perfect circular shape, but may have a polygonal shape close to a cylindrical shape, for example, a hexagon or an octagon. The horizontal axis 2 may be solid, and a feed cylinder may be separately provided on the outer peripheral side in parallel or concentrically. The container mount 23 may be formed in a U shape in a side view so as to receive the rotary container 3, and the horizontal shafts 2 may be provided on both sides of the container mount 23 to support the rotary container 3 in a double-sided manner. Horizontal axis 2
The rotary container 3 and the rotary container 3 may be integrally fixed.

The exhaust pipe 17 is most preferably concentrically provided in the center of the lid body 13. However, if the exhaust tube 17 is located at a substantially central portion in the axial direction of the horizontal axis 2 with respect to the lid body 13, the rotation of the rotary container 3 is reduced. It may be provided slightly offset to the front or rear of the direction. The lid 13 may be pivotally attached to the opening 10 side of the rotary container 3 so as to be openable and closable. Also,
In the embodiment, vinegar S is used as the mixture and the mixture is mixed with the rice M. However, the mixture may be various other seasonings, or may be an ingredient for mixed rice.

[0053]

According to the present invention as set forth in claim 1, a lid is provided.
After putting the mixture S of rice M and vinegar in the rotary container 3 having a substantially rectangular vertical cross-section including 13 and rotating the rotary container 3 around the horizontal axis 2, when the lid 13 passes underneath. Since the rice M and the mixture S are divided on both sides of the exhaust pipe 17 by the exhaust pipe 17 protruding from the lid 13 into the rotary container 3, the rice M and the mixture S are relatively moved in the rotary container 3 in the opposite directions to be mixed, The rice M and the mixture S of vinegar and the like can be evenly and evenly mixed, and the stickiness of the rice can be prevented.

Further, according to the present invention as set forth in claim 2, in a mixing device of rice, vinegar, etc. for mixing and mixing the mixture M of rice M, vinegar, etc. in the rotating container 3 rotating about the horizontal axis 2, Lid
The vertical cross-section of the rotating container 3 including
Since the exhaust pipe 17 projecting into the rotary container 3 is provided at the central portion of the horizontal axis 2 of 13 in the axial direction, the rice M and the vinegar or other mixture S can be evenly mixed. It is possible to prevent stickiness of the rice.

Moreover, since it is only necessary to rotate the rotary container 3, it is easy to handle, and unlike the horizontal axis 2, the exhaust hole 16 is provided on the lid 13 side so as to project into the rotary container 3.
Since the cooling air supplied is circulated in the rotary container 3 and discharged from the exhaust holes 16, the cooling effect on the rice M is superior to the conventional one, and the rice M sticks It can prevent sticking.

[Brief description of drawings]

FIG. 1 is a side sectional view showing a first embodiment of the present invention.

FIG. 2 is a rear sectional view showing the first embodiment of the present invention.

FIG. 3 is a plan sectional view showing a first embodiment of the present invention.

FIG. 4 is a front sectional view showing a first embodiment of the present invention.

FIG. 5 is an operation explanatory view showing the first embodiment of the present invention.

FIG. 6 is a perspective view of a lid side according to the first embodiment of the present invention.

FIG. 7 is an explanatory diagram of a cam body showing the first embodiment of the present invention.

FIG. 8 is a front view of the control panel showing the first embodiment of the present invention.

FIG. 9 is a front view of the setting switch showing the first embodiment of the present invention.

FIG. 10 is a control-type block diagram showing the first embodiment of the present invention.

FIG. 11 is a time chart diagram during the operation of the first embodiment of the present invention.

FIG. 12 is a flow chart diagram at the time of control showing the first embodiment of the present invention.

13A to 13H are operation explanatory views showing states of the rotary container at respective rotation positions.

14 (A) to (H) are operation explanatory views showing a moving state of rice at each rotation position of the rotating container.

FIG. 15 is a side sectional view showing a second embodiment of the present invention.

FIG. 16 is a plan sectional view showing a third embodiment of the present invention.

17 (A) and 17 (B) are perspective views of the lid side showing the fourth embodiment of the present invention.

[Explanation of symbols]

 1 base 2 horizontal axis 3 rotary container 4 rotary drive means 5 cooling means 8 support frame 13 lid 16 exhaust hole 38 cooling fan M rice S vinegar (mixture)

Claims (2)

[Claims] 1. After placing the mixture (S) of rice (M) and vinegar etc. in a rotary container (3) having a substantially rectangular vertical cross section including the lid (13), the rotary container (3) is laterally moved. Rotate around the shaft (2) and cover (13)
When passing through the lower side, from this lid (13) to the rotating container (3)
The rice (M) and the mixture (S) are divided into both sides of the exhaust pipe (17) by the exhaust pipe (17) protruding inward, and relatively moved in the rotating container (3) in opposite directions to mix. Rice characterized by
How to mix vinegar 2. A device for mixing rice, vinegar, etc., in which a mixture (S) of rice (M) and vinegar (S) is placed in a rotating container (3) which rotates around the horizontal axis (2), and a lid ( The vertical cross-section of the rotating container (3) including 13) has a substantially rectangular shape, and the exhaust pipe (17) protruding into the rotating container (3) is located at the center of the lid (13) in the axial direction of the horizontal axis (2). ) Is provided, a mixing device for rice, vinegar, etc.