JP4065456B2 - Crushing cooker - Google Patents

Description

  The present invention relates to a crushing cooker capable of cooking liquid foods such as soup by automatically performing heating, crushing, and mixing only by a simple operation of adding water or the like to a food and turning it on. .

Conventionally, there is a crushing cooker that can cook liquid foods such as soup by automatically heating, crushing, and mixing by simply turning on the water by adding water to the ingredients. To do. For example, in the crushing cooker described in [Patent Document 1], after putting soybeans into the okara tank assembly installed in the main body container and heat-softening, the rotating blade portion provided in the okara tank assembly The soybeans are crushed and the soybeans are crushed to collect liquid soybean milk in the main body container, and separate and accumulate solid okara, which is a residue obtained by extracting soybean milk, in an okara tank.
Japanese Patent No. 3129698

  However, although these crushing cookers can obtain soy milk from soybeans in the okara tub assembly, they are separated from soy milk and okara and are not mixed. On the other hand, with today's increasing health consciousness, it is widely practiced to cook vegetables as vegetable soup and ingest the nutrients of vegetables. In such cases, not only liquid soup extracted from vegetables but also soup It is desirable to take in the remaining solids extracted at the same time from the standpoint of efficiently harvesting the nutrients of the vegetables without waste, even if the vegetable soup is cooked using the conventional crushing cooker described above, Since the soup and solids were separated, a vegetable soup containing both of them could not be obtained.

  Then, an object of this invention is to provide the crushing cooker which can cook the vegetable soup with high nutrition value containing both the vegetable soup and solid content by simple operation.

In order to achieve the above-mentioned object, the invention according to claim 1 includes a bottomed cylindrical main body container having an opening in the upper part, a main body head mounted on the main body container so as to close the opening, and the main body head. A crushing member that is provided to extend downward and includes a rotating blade portion that rotates in the main body container and crushes the material, and a connection portion provided below the main body head, is detachably connected and closed. The crushing member side includes an upper opening, a bottom side opening facing the bottom surface of the main body container, and a hole positioned above the rotating blade portion and through which the material crushed by the crushing member passes inside and outside. The rotating blade portion moves upward while crushing the material by rotation, and the material crushed by the rotating blade portion is disposed inside the cylindrical member. Rises from the hole into the cylindrical shape Move outward of the member, to fall through between the tubular member and the main body container inner surface, in crushing cooker and having a circulation path of the material.

  According to this configuration, materials such as vegetables and water are put into the main body container, the main body head is attached to the main body container, the main body container is in a substantially sealed state, the rotating blade portion is rotated in the main body container, and the bottom side By inducing a flow that flows into the inside of the cylindrical member from the opening, crushing the material flowing into the inside of the cylindrical member with the rotating blades, and heating and keeping warm, both vegetable soup and solid content Can be cooked automatically with nutritious vegetable soup.

Also, among materials such as vegetables, the material having a size smaller than the hole passes through the hole and moves to the outside of the cylindrical member, and the material having a size larger than the hole has a cylindrical shape without passing through the hole. Therefore, the size of the material contained in the vegetable soup can be substantially equalized to a predetermined size. In addition, if the holes are formed in multiple stages up and down, a material with a smaller size that is lighter in weight is passed through the upper hole, and the size is further selected from materials substantially equalized to a predetermined size. It is possible to cook a vegetable soup with a good texture mixed with ingredients of the same size.

Further, the material is substantially equalized to a predetermined size by repeatedly passing through the circulation path. Further, the cylindrical member can be removed from the main body container and cleaned, and the cleaning and handling are facilitated and there is an advantage that it is hygienic.

Furthermore, the cylindrical member has a concave portion provided in a portion facing the rotary blade portion in a direction in which the distance from the rotary blade portion becomes narrow.

  According to this configuration, when the material is moved upward while being crushed by the rotation of the rotating blade portion, the flow toward the rotating blade portion can be promoted, and the material can be more reliably crushed by the rotating blade portion. Moreover, the material can receive the centrifugal force based on the flow induced by the rotation of the rotating blade portion and move toward the outer side of the cylindrical member, thereby avoiding the situation where the rotating blade portion is avoided and is not crushed. .

According to a second aspect of the present invention, in the crushing cooker according to the first aspect, the main body container is configured to drive the crushing member with a power receiving unit to which external power is supplied and power supplied from the power receiving unit. An output unit for supplying power to the main body head, and the main body head includes an input unit connected to the output unit and supplied with power from the output unit in a state of being mounted on the main body container. Features.

  According to this configuration, if the main body head is attached to the main body container and the main body container is not substantially sealed, the crushing cooker will not function, and the contents may scatter due to malfunction, or the rotating blade part Can be prevented from rotating, and safety can be improved.

According to a third aspect of the present invention, in the crusher cooker according to the first or second aspect , the main body container has a built-in heat generating portion for heating the material.

  According to this configuration, by installing the heat generating part at the bottom of the main body container, the center of gravity position of the crushing cooker is near the bottom due to its weight, and the whole crushing cooker is more stable than when the heat generating part is installed at the main body head. A feeling can be improved.

  According to the present invention, materials such as vegetables and water are put into the main body container, the main body head is attached to the main body container, the main body container is in a substantially hermetically sealed state, the rotating blade portion is rotated in the main body container, and the bottom side By inducing a flow that flows into the inside of the tubular member from the opening and crushing the material that flows into the inside of the tubular member with the rotating blades, the nutritional value including both vegetable soup and solids A crushing cooker that automatically cooks high vegetable soup can be provided.

  Embodiments of the present invention will be described below with reference to the drawings. 1 and 2 show an outline of a crushing cooker 1 to which the present invention is applied. FIG. 1 shows a crushing cooker 1 according to an embodiment of the present invention, and the crushing cooker 1 is illustrated so that the inside can be seen through in order to facilitate explanation of the inside. FIG. 2 shows a longitudinal sectional view of the crushing cooker 1.

  As shown in FIGS. 1 and 2, the crushing cooker 1 includes a main body container 100 and a main body head 200 attached to the main body container 100. When the main body head 200 is attached to the main body container 100, the main body container 100 forms a substantially sealed space inside, and materials such as vegetables, water, and seasonings are put into the substantially sealed space. It can accommodate and cook liquid foods such as vegetable soups by automatically heating, crushing and mixing the ingredients. As liquid food, in addition to vegetable soup and the like, it is also possible to cook porridge and the like.

  The configuration of the main body container 100 will be described. The main body container 100 includes a base portion 110 formed at the bottom, a bottomed cylindrical cup portion 120 that is placed and fixed above the base portion 110 and has an opening 102 at the top, and a side surface of the cup portion 120. And a gripping part 130 for gripping the main body container 100.

The base part 110 forms a trapezoidal cylindrical shape that expands toward the opposite side of the cup part 120, and a heating part 112 for heating the material is provided in the space inside the base part 110. .
The heat generating portion 112 is configured by a heating wire or the like, and can heat the material inside the cup portion 120 from the bottom surface 104 side of the cup portion 120. Further, the heat generating part 112 can keep the soup cooked inside the cup part 120.

    The heat generating part 112 is installed in the base part 110 formed at the bottom of the main body container 100 because the center of gravity of the crushing cooker 1 is near the bottom due to its weight, and the heat generating part 112 is installed in the main body head 200. This is because the stability of the entire crushing cooker 1 can be improved more than in the case.

  The cup part 120 is made of a heat-resistant and heat-retaining material such as stainless steel. A spout 122 for pouring out the soup cooked in the cup 120 to the outside is provided at the periphery of the opening 102 of the cup 120 on the side opposite to the grip 130. Has been. The opening 102 is configured so that a portion other than the hole communicating with the outside of the spout 122 is closed by the main body head 200 when the main body head 200 is mounted on the main body container 100. In addition, a scale (not shown) is disposed inside the cup portion 120 at a predetermined distance from the bottom surface 104, and this scale indicates an appropriate amount of water to be poured into the cup portion 120 together with the material. Is shown.

  The grip portion 130 is formed with a man-made hole 130a at the center position, and the grip portion 130 is gripped by inserting a finger into the hole 130a. The gripping unit 130 includes a power receiving unit 106 including a power connector to which external power is supplied, and the main body head 200 in order to execute various functions such as driving a crushing member 300 to be described later using the power supplied from the power receiving unit 106. And an output unit 108 for supplying to the printer. The power receiving unit 106 is disposed below the grip unit 130 and is connected to a power adapter (not shown) so as to supply external power to the crushing cooker 1. The output unit 108 is disposed on the upper portion of the gripping unit 130 and protrudes toward the main body head 200.

  Next, the configuration of the main body head 200 will be described. The main body head 200 is formed in a hollow shape by combining a hemispherical upper cover 202 and a lower cover 204 extending downward from the upper cover 202 in appearance. The lower cover 204 functions as a lid that closes the opening 102 of the main body container 100.

    Inside the lower cover 204, a drive motor 210 and a control unit 212 that controls the start and stop of the drive of the drive motor 210 are mounted and fixed. The drive motor 210 has a rotating shaft 304 that protrudes outside the lower cover 204 that extends downward. The rotating shaft 304 passes through a through hole (not shown) drilled in the center of the lower cover 204 and protrudes to the outside of the lower cover 204. The rotating shaft 304 is rotatable, and is driven in one direction by driving the drive motor 210. Are driven to rotate.

    A screw-like rotary blade 302 is pivotally supported at the tip of the rotary shaft 304. The rotary blade 302 forms a sharp blade, and the rotary shaft 304 rotates to crush materials such as vegetables. While moving upwards. The rotary blade 302 and the rotary shaft 304 are provided so as to extend downward from the main body head 200, and constitute a crushing member 300 that rotates in the main body container 100 and crushes the material.

  A blow-off prevention sensor 214 is projected from a position of the lower cover 204 facing the spout 122. The blow-off prevention sensor 214 is configured to allow the soup containing the crushed material to be blown from a hole communicating with the outside of the opening 102 when the rotating blade 302 is rotated in the main body container 100 to crush the material such as vegetables. This is a sensor for preventing spilling.

    The blowout prevention sensor 214 is provided at the position of the lower cover 204 facing the spout 122 of the cup portion 120 even when the main body head 200 is attached to the main body container 100. 100 is inserted through the spout 122 to the outside, so that it is necessary to preferentially prevent spilling from the spout 122.

  The blow-off prevention sensor 214 is connected to the control unit 212. When the soup containing the crushed material reaches a predetermined water level and comes into contact with the blow-off prevention sensor 214, a detection signal to that effect is sent to the control unit. 212 is transmitted. When receiving this detection signal, the control unit 212 stops all the functions of the drive motor 210 and the heat generation unit 112. As a result, the above-described spilling can be prevented and safety can be improved.

  A switch unit 216 is provided on the upper cover 202. The switch unit 216 is for switching various modes such as a soup mode in which the soup is cooked by a touch method and an OFF mode in which the heat retaining state in the main body container 100 is released. The switch unit 216 is connected to the control unit 212. When the user operates the switch unit 216 to select each mode, a signal to execute each mode is transmitted to the control unit 212. Yes. The control unit 212 can execute each mode based on the received signal indicating that each mode is to be executed.

  The main body head 200 has an input unit 206 that is connected to the output unit 108 while being attached to the main body container 100 and is supplied with power from the output unit 108. The input unit 206 is recessed in the portion of the main body head 200 that faces the output unit 108, and has a plurality of connection terminals 206a. When the output unit 108 is fitted to the input unit 206, the main body head 200 is attached to the main body container 100, and the output unit 108 connects the external power supplied to the power receiving unit 106. It can supply to the control part 212 via the terminal 206a.

  In this way, if the main body head 200 is attached to the main body container 100 and the main body container 100 is not kept in a substantially sealed state, external power is not supplied to the control unit 212 and the drive motor 210 is driven to rotate the rotating blade portion. Since 302 does not rotate and the heat generating part 112 does not generate heat, safety is improved.

  The main body head 200 includes a columnar connection portion 208 extending downward from the lower end surface 204a of the lower cover 204, and a cylindrical member 400 that is detachably attached to the connection portion 208 by screwing. The cylindrical member 400 is configured to surround the side of the crushing member 300.

  The cylindrical member 400 will be specifically described with reference to FIGS. 3 is a vertical cross-sectional view of the cylindrical member 400, FIG. 4 is an exploded perspective view of the main body head 200 as viewed from obliquely above, and FIG. 5 is an exploded perspective view of the main body head 200 as viewed from obliquely below. FIG.

  As shown in FIGS. 3 to 5, the tubular member 400 forms a substantially cylindrical shape in appearance, and a plurality of protrusions projecting toward the inside of the tubular member 400 on the upper peripheral surface thereof. 402. On the other hand, the connecting portion 208 has a thread 208a threaded on the outer peripheral surface.

  The cylindrical member 400 is seen from below the main body head 200 until the protruding portion 402 and the screw thread 208a are screwed and the upper end surface 410a of the cylindrical member 400 abuts on the lower end surface 204a of the lower cover 204. By being rotated counterclockwise, the connection portion 208 is attached.

    On the other hand, the cylindrical member 400 is detached from the connecting portion 208 by being rotated clockwise as viewed from below the main body head 200. If the cylindrical member 400 is detached, cleaning and handling are facilitated and a hygienic state can be maintained.

  In addition, the cylindrical member 400 has a bottom surface side opening 408 that faces the bottom surface 104 of the main body container 100, a distance above the bottom surface side opening 408, and a distance from the rotation blade portion 302 to a portion that faces the rotation blade portion 302. And a through hole 404 formed in a portion between the recess 406 and the projection 402.

  As shown in FIG. 3, the bottom surface side opening 408 is located at a predetermined distance above the bottom surface 104 in a state where the cylindrical member 400 is attached to the connection portion 208, and is formed between the predetermined distances. The material P such as vegetables can pass through the inside of the cylindrical member 400 through the space to be formed. That is, the material P passes through the bottom surface side opening 408 and moves upward toward the rotary blade portion 302 and is crushed by the rotation of the rotary blade portion 302. In addition, the material Q is a material P that is crushed by the rotating blade portion 302 and has a smaller size.

The recessed portion 406 is a state in which the cylindrical member 400 is attached to the connection portion 208 and the rotating blade portion 302.
It has the taper surface 406a which inclines in the direction which approaches. The taper surface 406a is inclined so as to approach the rotary blade 302. The rotation of the rotary blade 302 promotes the flow toward the rotary blade 302 when the material P is moved upward while being crushed. This is because the material P is more reliably crushed by the rotating blade portion 302. It is necessary to promote the flow toward the rotating blade portion 302 because the material P receives the centrifugal force based on the flow induced by the rotation of the rotating blade portion 302 and moves toward the inner surface side of the cylindrical member 400. In order to prevent the situation where the rotating blade portion 302 is avoided and is not crushed.

  The through hole 404 includes an upper hole 404a and a lower hole 404b. The holes 404 a and 404 b are arranged in a staggered pattern alternately in the circumferential direction of the tubular member 400, so that the material Q crushed by the crushing member 300 passes from the inside to the outside of the tubular member 400. It has become. Therefore, the material having a smaller size than the holes 404a and 404b in the material Q passes through the holes 404a and 404b and moves to the outside of the cylindrical member. On the other hand, a material having a size larger than those of the holes 404a and 404b stays inside the cylindrical member 400 without passing through the holes 404a and 404b. As will be described later, the material Q staying inside the cylindrical member 400 settles toward the bottom surface 104 by stopping the drive of the drive motor 210 and crushes by restarting the drive of the drive motor 210. By the member 300, it is crushed until it becomes a size smaller than the holes 404a and 404b.

  In addition, since the through hole 404 is formed in two upper and lower stages of the holes 404a and 404b, the upper hole 404a passes a lighter and smaller material having a smaller weight than the lower hole 404b. It is possible to cook a vegetable soup having a good texture in which materials of various sizes are mixed by further selecting the size among the materials substantially equalized to a predetermined size.

  Further, since the through holes 404 are arranged in a staggered manner, the number of holes necessary for the material Q to pass into and out of the cylindrical member 400 is ensured, and the through holes 404 are replaced with the cylindrical member 400. It is possible to maintain a higher strength than when arranged in parallel in the circumferential direction.

  Under such a configuration, the rotary blade 302 induces a flow that moves the material P upward by rotation. Specifically, an upward and spiral flow is formed in the cylindrical member 400 so as to surround the rotation shaft 304 by the rotation of the rotary blade 302 (hereinafter referred to as a spiral flow). The material P passes through the bottom surface side opening 408 by the spiral flow, moves upward inside the cylindrical member 400 toward the rotary blade portion 302, and is crushed by the rotary blade portion 302. The material Q crushed by the rotary blade portion 302 spirally rises inside the cylindrical member 400 and moves to the outside of the cylindrical member 400 from the through hole 404, and the cylindrical member 400 and the cup portion 120. Fall through between the inside.

    The dropped material Q moves again to the inside of the cylindrical member 400 through the bottom side opening 408, and the rotating blade portion 302 moves upward while crushing the material Q by rotation. At this time, a material circulation path K is formed between the bottom surface side opening 408, the inside of the cylindrical member 400, the rotating blade portion 302, the through hole 404, and the cylindrical member 400 and the inner surface of the cup portion 120. The

  The embodiment of the present invention is configured as described above, and the procedure and operation in actual use will be described.

  First, prepare the materials. Specifically, a material P obtained by cutting a material such as vegetables into an appropriate size is put into the main body container 100, and a seasoning and water are added. To reach up to. At this time, when the water level is lower than the scale, the spiral flow is not generated by the rotation of the rotary blade portion 302. On the other hand, when the water level is higher than the scale, the water level rises to the position where the blow-off prevention sensor 214 is operated by the rotation of the rotary blade 302.

  Next, after attaching the cylindrical member 400 to the connection portion 208 of the main body head 200, the main body head 200 is attached to the main body container 100. At this time, the output unit 108 of the main body container 100 is fitted into the input unit 206 of the main body head 200, and the main body container 100 and the main body head 200 are in an assembled state in which the main body container 100 and the main body head 200 are electrically connected. In this state, a power cord (not shown) is connected to the power receiving unit 106.

  Next, if the soup mode is selected and the switch is turned on by operating the switch unit 216, the crushing cooker 1 is turned on and the heating of the material P by the heating unit 112 is started. By heating the material P by the heat generating part 112, the material P in the main body container 100 is boiled for a predetermined time until it softens.

  After the material P is boiled and softened for a predetermined time, the crushing cooker 1 starts driving the drive motor 210 and moves the material P upward while crushing the material P by the rotation of the rotary blade 302. Due to the spiral flow formed by the rotation of the rotating blade portion 302, the material P passes through the bottom surface side opening 408 and moves upward inside the cylindrical member 400 toward the rotating blade portion 302.

    When the material P reaches the position of the rotary blade portion 302 along the circulation path K, the material P is crushed by the rotation of the rotary blade portion 302 and becomes a material Q having a smaller size than the material P.

  At this time, the material P receives a centrifugal force based on the spiral flow and moves toward the inner surface side of the cylindrical member 400, that is, moves in a direction avoiding the rotary blade portion 302, but rotates by the concave portion 406. The flow toward the blades 302 is promoted and is forced back to a position where the rotary blades 302 are located. Therefore, the material P can be more reliably crushed by the rotating blade portion 302.

  The material Q crushed by the rotary blade 302 rises spirally along the circulation path K inside the cylindrical member 400, moves from the through hole 404 to the outside of the cylindrical member 400, and has a cylindrical shape. It falls between the member 400 and the inner surface of the cup part 120.

  The dropped material Q again moves through the bottom surface side opening 408 to the inside of the cylindrical member 400 and then repeatedly passes through the circulation path K.

  As described above, the crushing cooker 1 repeats the procedure of rotating the rotating blade portion 302 for 20 seconds and stopping for 18 seconds by driving the drive motor 210 five times. The driving of the drive motor 210 is stopped in order to allow the material Q that is crushed by the rotating blade portion 302 and that is larger in size than the through hole 404 and stays inside the cylindrical member 400 to settle to the bottom surface 104. It is.

    The material settled on the bottom surface 104 is crushed by the rotating blade 302 until it becomes smaller than the through-hole 404 by restarting the driving of the driving motor 210. While the drive motor 210 is repeatedly driven and stopped, the material Q repeatedly passes through the circulation path K and is substantially equalized to a predetermined size as a whole material.

  In the crushing cooker 1, when the drive motor 210 finishes the fifth operation and the rotary blade 302 is stopped, the heating unit 112 reheats the material for 8 minutes and further simmers.

  When the reheating by the heat generating unit 112 is completed, the crushing cooker 1 drives the drive motor 210 again to re-crush the material. Specifically, the crushing cooker 1 repeats twice the procedure of rotating the rotary blade 302 for 10 seconds and stopping for 5 seconds by driving the drive motor 210. As a result, the material Q repeatedly passes through the circulation path K and is crushed to a smaller size.

  When the re-crushing of the material is finished, the crushing cooker 1 sounds, for example, a buzzer for notifying the end of cooking, completes cooking of vegetable soup, etc., and operates the heating unit 112 to cook inside the main body container 100. It shifts to the heat insulation mode to keep the vegetable soup etc. When there is no need for heat retention, the heat generation unit 112 can be stopped and the heat retention mode can be ended by operating the switch unit 216 and selecting the OFF mode.

Therefore, a material such as vegetable or water is put into the main body container 100, the main body head 200 is attached to the main body container 100, the main body container 100 is in a substantially sealed state, the rotating blade portion 302 is rotated in the main body container 100, By inducing a flow that flows into the inside of the cylindrical member 400 from the bottom side opening 408, the material that flows into the inside of the cylindrical member 400 is crushed by the rotating blade portion 302 and heated and kept warm by the heating portion 112. The crushing cooker 1 that automatically cooks a highly nutritious vegetable soup containing both vegetable soup and solids can be provided. While the preferred embodiment of the present invention has been described above, the present invention The present invention is not limited to such specific embodiments, and various modifications and changes can be made within the scope of the gist of the present invention described in the claims.

  For example, the cylindrical member 400 is detachably attached to the connection portion 208 of the main body head 200, but the okara layer assembly described in [Patent Document 1] is used instead of the cylindrical member 400. A soymilk filter corresponding to the above may be detachably mounted.

  In this case, the switch unit 216 is configured to select the soy milk mode. Under such a configuration, after soybeans are put into a soymilk filter installed in the main body container 100, this soymilk filter is installed in the connection portion 208 of the main body head 200, and an appropriate amount of water is added. Select the soy milk mode and switch it on.

  Thereby, the crushing cooker 1 performs the operation | movement similar to embodiment mentioned above, and cooks soymilk. Specifically, after heating and softening soybeans by the heat generating part 112, the rotating blade part 302 provided in the okara tank assembly is rotated to crush the soybeans, thereby collecting liquid soy milk in the main body container 100. Then, solid okara, which is a residue extracted from soy milk, is separated and accumulated in an okara tank.

  Thus, the crushing cooker 1 can cook both vegetable soup and soymilk automatically only by replacing | exchanging the cylindrical member 400 and the filter for soymilk according to cooking object.

  Further, the through hole 404 of the cylindrical member 400 is formed in two upper and lower stages of the holes 404a and 404b, but may be formed in three or more upper and lower stages. In this case, it becomes easier to further select the size among the materials substantially equalized to a predetermined size, and a vegetable soup having a better texture can be cooked.

  In addition, the cylindrical member 400 has a configuration in which the concave portion 406 is provided to promote the flow toward the rotating blade portion 302 and the material is more reliably crushed by the rotating blade portion 302. Instead of providing, a rectifying plate may be installed in a portion facing the rotating blade portion 302. The same effect as that of the concave portion 406 can be obtained by promoting the flow toward the rotating blade portion 302 by the current plate.

  Moreover, in order to accelerate | stimulate crushing of material, you may install two or more rotary blade parts 302 in the crushing member 300. FIG.

  The effects described in the embodiments of the present invention are only the most preferable effects resulting from the present invention, and the effects of the present invention are limited to those described in the embodiments of the present invention. is not.

It is an external appearance perspective view of the crushing cooker to which this invention is applied. It is a longitudinal cross-sectional view of the crushing cooker shown in FIG. It is a longitudinal cross-sectional view of the cylindrical member with which the crushing cooker shown in FIG. 1 was equipped. It is the disassembled perspective view seen from diagonally upward of the main body head. It is the disassembled perspective view seen from the diagonally lower side of the main body head.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Crushing cooker 100 Main body container 102 Opening 104 Bottom face 106 Power receiving part 108 Output part 112 Heat generating part 200 Main body head 206 Input part 300 Crushing member 302 Rotary blade part 400 Cylindrical member 404 Through-hole (hole)
404a Upper hole 404b Lower hole 406 Recess 408 Bottom side opening K Circulation path P, Q Material

Claims (3)

A bottomed cylindrical main body container having an opening at the top;
A main body head mounted on the main body container so as to close the opening;
A crushing member provided to extend downward from the main body head and provided with a rotating blade portion that rotates in the main body container and crushes the material;
An upper opening that is detachably connected to a connecting portion provided below the main body head, is closed above a bottom opening facing the bottom surface of the main body container, and is positioned above the rotating blade portion. And a cylindrical member that surrounds the side of the crushing member with a hole through which the crushing member passes the crushed material.
The rotating blade portion is moved upward while being crushed by rotation,
The material pulverized by the rotating blade part ascends inside the cylindrical member, moves to the outside of the cylindrical member from the hole, and between the cylindrical member and the inner surface of the main body container. fall through and have a circulation path of the material,
The tubular member is crushed cooker, characterized in that said the opposite part to the rotary blade unit, which have a recess distance between the rotating blade portion is recessed in narrow direction. The main body container includes a power receiving unit to which external power is supplied, and an output unit that supplies the power supplied from the power receiving unit to the main body head for driving the crushing member,
It said body head, crushing cooker according to claim 1, characterized in that it comprises an input unit which is connected to the output portion in a state of being attached to the main body container is supplied with electric power from the output unit. The crushing cooker according to claim 1 or 2 , wherein the main body container has a built-in heating part for heating the material.

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