JP6948180B2 - Food processing equipment - Google Patents

Description

The present invention relates to a food processing apparatus that cools or heat-treats food stored in a storage box, and particularly relates to an improvement of a sealing structure of a connecting material that connects an inner box and an outer box of a heat insulating box.

In the field of refrigerators, connecting a metal inner box and an outer box constituting a heat insulating box with a connecting material made of synthetic resin is known, for example, disclosed in Patent Document 1 and the like. In the refrigerator described in Patent Document 1, the refrigerator main body having a front opening is composed of an inner box, an outer box, and a heat insulating material filled between both boxes. A connecting material (decorative frame) for connecting the peripheral edges of both boxes is provided on the periphery of the front opening of the refrigerator body. The connecting material is formed with a mounting portion that engages and narrows the peripheral edge of the inner box. A heat insulating box body provided with a connecting material having a similar structure is also found in Patent Document 2. When the inner box and the outer box are connected by the connecting material in this way, it is possible to suppress the conduction of the cold heat of the inner box to the outer box, so that it is possible to prevent dew condensation from adhering to the outer box. ..

Jikken Sho 46-16397 (see Fig. 2) Japanese Unexamined Patent Publication No. 2003-207265 (see FIG. 10)

For example, in a food processing device called a "blast chiller" that cools the food stored in the storage, the hot food immediately after cooking is exposed to cold air at a negative temperature to eliminate the food. Rapidly cool to ° C. For this reason, it is inevitable that the temperature inside the storage box changes suddenly when the food is stored in the storage room and after the food is rapidly cooled, and the heat insulating box as in Patent Documents 1 and 2 above is unavoidable. When the body structure is adopted, the adhesion between the metal inner box located inside the heat insulating box and the synthetic resin connecting material is impaired due to the difference in the coefficient of thermal expansion. There is a risk that the two will separate and moisture will infiltrate into the heat insulating box through the gap between the two.

The present invention comprises a metal inner box located inside the heat insulating box and a synthetic resin connecting material in a food processing apparatus that cools or heats the food stored in the storage. It is an object of the present invention to surely prevent moisture from entering the inside of the heat insulating box due to the impaired sealing property between the two due to the difference in the thermal expansion rate of the two.

The present invention includes a storage 3 having a front opening, a door 20 for opening and closing the front opening of the storage 3, and a processing air supply device 5 for supplying cold air or warm air into the storage 3. The target is food processing equipment that cools or heats the food stored in the door. The storage box 3 is a heat insulating box body 4 having a front opening formed by filling a space formed by a metal inner box 30 and an outer box 40 with a heat insulating material 25, and is located at the opening edge of the front opening. Between the peripheral edge end 33 of the box 30 and the peripheral edge 43 of the outer box 40, a connecting member 50 made of synthetic resin that connects the peripheral edge 33.43 of both boxes 30 and 40 is arranged. The connecting member 50 is formed with a mounting portion 52 located inside the refrigerator and to which the peripheral end portion 33 of the inner box 30 is mounted. A sealing portion 64 formed by curing the sealing agent is formed between the mounting portion 52 and the peripheral end portion 33 of the inner box 30, and is sealed at the inner end portion of the mounting portion 52. The recessed portion 65 for filling the agent is formed as a recess.

The mounting portion 52 includes a front receiving wall 56 that receives the front surface of the peripheral edge 33 of the inner box 30, a rear receiving wall 57 that receives the rear surface of the peripheral end 33 of the inner box 30, and receiving walls 56 and 57 before and after these. It is assumed to include a mounting groove 58 formed between them and into which the peripheral end portion 33 of the inner box 30 is inserted and mounted. The recessed portion 65 is formed as a recess in the tip portion 56a inside the chamber of the front receiving wall 56 in a state of being recessed toward the outside of the chamber, and the rear portion of the recessed portion 65 is an opening inside the chamber of the mounting groove 58. It is possible to take a form that communicates with the part.

It is desirable that the recessed portion 65 is formed in a tapered shape in which the internal dimension becomes smaller toward the outside of the refrigerator.

A magnet catch structure 21 is provided between the opening edge on the front side of the storage 3 and the rear surface of the door 20 facing the opening edge, and the magnet catch structure 21 is a magnet provided on the rear surface of the door 20. It is composed of a door packing 22 provided with the door packing 22 and a suction plate 23 made of a magnetic metal plate arranged along the opening edge, and the suction plate 23 can be arranged on the connecting member 50.

In the present invention, a recessed portion 65 for filling the sealing agent is formed in a recess at the inner end of the mounting portion 52, and the recessed portion 65 is filled with the sealing agent, and this is the recessed portion 65. The sealing portion 64 was formed by curing inside. According to this, since the sealing portion 64 can be formed by using more sealing agent as compared with the form in which the recessed portion 65 is not formed, the peripheral end of the connecting member 50 and the inner box 30 can be formed. The joint portion with the portion 33 can be reliably sealed. From the above, according to the present invention, even when the joint portion of both 50 and 30 is about to be separated due to the difference in thermal expansion between the connecting member 50 made of synthetic resin and the peripheral edge portion 33 of the inner box 30 made of metal. The sealing portion 64 can prevent the joint portion from breaking the seal, and can surely prevent moisture from entering the inside of the heat insulating box body 4. Therefore, according to the present invention, it is possible to obtain a food processing apparatus having good sealing performance at the joint portion between the inner box 30 and the connecting member 50 and having excellent reliability.

The mounting portion 52 includes a front receiving wall 56 that receives the front surface of the peripheral edge 33 of the inner box 30, a rear receiving wall 57 that receives the rear surface of the peripheral end 33 of the inner box 30, and receiving walls 56 and 57 before and after these. It may include a mounting groove 58 formed between them and into which the peripheral end portion 33 of the inner box 30 is inserted and mounted. Further, in the case of adopting the configuration of the mounting portion 52 as described above, the recessed portion 65 is formed as a recess in the tip portion 56a inside the chamber of the front receiving wall 56 in a state of being recessed toward the outside of the chamber. It is desirable that the rear portion of the recessed portion 65 communicates with the opening inside the chamber of the mounting groove 58. According to this, only by inserting and mounting the peripheral edge portion 33 of the inner box 30 into the mounting groove 58, the peripheral edge end portion 33 of the inner box 30 located in the vicinity of the opening inside the chamber of the mounting groove 58 can be mounted. The posture can be set so as to face the recessed portion 65. From the above, by enclosing the sealing agent in the recessed portion 65, the joint portion between the peripheral end portion 33 of the inner box 30 located near the opening inside the chamber of the mounting groove 58 and the connecting member 50 is ensured. Can be sealed to.

When the recessed portion 65 is formed in a narrowed shape in which the internal dimension becomes smaller toward the outside of the refrigerator, the inside of the connecting member 50 is compared with the form in which the inner dimension of the recessed portion 65 is straight. It is possible to take a large thickness dimension of the end portion (front receiving wall 56) of the. Therefore, it is possible to suppress a decrease in the rigidity of the end portion (tip portion 56a) inside the chamber of the connecting member 50 due to the provision of the recessed portion 65, and effectively prevent the end portion from being damaged. It becomes easy to fill every corner of the inner end of the recessed portion 65 with the sealing agent, and it is possible to suppress the variation in the filling density of the sealing agent and ensure uniform sealing performance by the sealing portion 64. ..

A magnet catch structure 21 is provided between the opening edge on the front side of the storage 3 and the rear surface of the door 20 facing the opening edge, and the magnet catch structure 21 is a magnet provided on the rear surface of the door 20. It is composed of a door packing 22 provided with the door packing 22 and a suction plate 23 made of a magnetic metal plate arranged along the opening edge, and the suction plate 23 can be arranged on the connecting member 50. According to this, the distance between the magnet and the magnetic metal piece 23 can be shortened as compared with the form in which the peripheral end portions 33 and 43 of the inner box 30 and the outer box 40 are substituted as the magnetic metal pieces. Therefore, the posture holding action force of the door 20 derived from the attractive force of the magnet is satisfactorily exerted, so that the door 20 is prevented from being inadvertently opened, and the door 20 in the closed posture is kept in a stable state. Can be maintained.

It is a cross-sectional plan view of the main part of the food processing apparatus which concerns on this invention. It is a vertical sectional side view of a food processing apparatus. It is a front view of the food processing apparatus. It is an exploded perspective view of a heat insulating box body. It is a front view of the main part for demonstrating the connecting material.

(Example)
1 to 5 show an example in which the food processing apparatus according to the present invention is applied to a quick cooler (blast chiller) that performs cooling treatment such as rough heat removal, rapid cooling, or quick freezing of food. The front-back, left-right, and up-down in this embodiment follow the crossing arrows shown in FIGS. 1, 4, and 5, and the front-back, left-right, and up-down indications shown in the vicinity of each arrow. In FIGS. 2 and 3, the rapid refrigerator is composed of a refrigerator main body 1 and a machine room 2 provided below the cooler main body 1. The cooling cabinet main body 1 is composed of a vertically long heat insulating box 4 having a storage compartment 3 having a front opening, and an evaporator (processing air supply device) 5 and a blower fan 6 are arranged on the left side inside the storage cabinet 3. .. The air in the refrigerator supplied from the blower fan 6 is cooled by heat exchange while passing through the evaporator 5, and is sent to the right from the gap before and after the evaporator 5 to circulate in the storage 3. Inside the machine room 2, a compressor 7, a condenser 8, a blower fan 9 for the condenser 8, and the like are housed. The compressor 7 and the condenser 8 and the evaporator 5 are connected to each other via a refrigerant passage.

In FIG. 3, reference numeral 10 indicates a cooler unit including an evaporator 5 and a blower fan 6. The cooler unit 10 is composed of a square frame-shaped case body 11 having openings on the left and right, and a case lid 12 provided so as to close the right opening of the case body 11. A pair of left and right storage shelves 14 are provided in a multi-stage shape inside the storage 3, and the hotel pan 15 on which food is placed is inserted into the pair of left and right storage shelves 14 and mounted. Hotel pans 15 can be arranged in a multi-tiered upper and lower position in 3. At the time of the cooling process, the foodstuff on the hotel pan 15 can be cooled by operating the evaporator 5 and driving the blower fan 6.

The front opening of the cooler body 1 is opened and closed by a swing-opening / closing door 20. The left end side of the door 20 is pivotally supported by a hinge, and the door 20 swings open and closes forward and to the left from a closed posture. A magnet catch structure 21 is provided between the cooler body 1 and the door 20 (see FIG. 1), and the door 20 is held in the closed posture by the magnet catch structure 21. The magnet catch structure 21 is composed of a door packing 22 on the door side and a magnetic metal piece (adsorption plate) 23 on the refrigerator body 1 side. The door packing 22 is internally provided with a magnet that magnetically attracts the magnetic metal piece 23.

As shown in FIGS. 4 and 5, the heat insulating box 4 includes a metal inner box 30, a metal outer box 40, and a synthetic resin connecting member 50 that connects both boxes 30 and 40. It is composed of a heat insulating material 25 (see FIG. 1) filled in the facing gap of the box 30.40. The inner box 30 includes a rear wall 31a, a right side wall 31b, a left side wall 31c, an upper wall 31d, and a lower wall 31e, and is formed in the shape of a square container having a front opening 32. The right side wall 31b, the left side wall 31c, the upper wall 31d, and the lower wall 31e facing the front opening 32 are formed by bending the end edges of the walls 31b to 31e outward (outside the refrigerator). The peripheral edge portion 33, which serves as an engaging piece, is formed so as to project outward.

As shown in FIG. 4, the outer box 40 includes a rear wall 41a, a right side wall 41b, a left side wall 41c, an upper wall 41d, and a lower wall 41e, and is formed in the shape of a square container having a front opening 42. The inner dimension of the outer box 40 is set larger than the outer dimension of the inner box 30 by the filling space of the heat insulating material 25. The right side wall 41b, the left side wall 41c, the upper wall 41d, and the lower wall 41e facing the front opening 42 are formed by bending the end edges of the walls 41b to 41e inward (inside the refrigerator). The peripheral edge portion 43 serving as the engaging piece is formed so as to project inward.

As shown in FIG. 4, the connecting member 50, which is arranged at the opening edge of the front opening of the heat insulating box body 4 and connects the inner box 30 and the outer box 40, corresponds to the four periphery of the front opening and is on the upper side. It is divided into four parts, a connecting material 50a, a lower connecting material 50b, a right connecting material 50c, and a left connecting material 50d. Each of the connecting materials 50a to 50d is a long material formed by cutting an extruded material formed by extrusion molding, and has a base portion 51 and a base portion 51 that fill a gap between the peripheral end portions 33 and 43 of both boxes 30 and 40. The inner mounting portion (mounting portion) 52 provided on the inside of the refrigerator and to which the peripheral edge 33 of the inner box 30 is mounted, and the peripheral end 43 of the outer box 40 provided on the outside of the base 51 are mounted. The outer mounting portion 53 is provided, and the accommodating portion 54 provided on the front surface of the base 51 and on which the magnetic metal piece 23 is mounted is provided. The connecting member 50 connects the peripheral end portions 33 and 43 of both boxes 30 and 40, and blocks heat conduction between both boxes 30 and 40. In FIGS. 1 and 4, reference numeral 55 indicates a reinforcing rib projecting from the rear surface side of the base 51 at the boundary between the base 51 and the inner and outer mounting portions 52 and 53.

The inner mounting portion 52 includes a front receiving wall 56 that receives the front surface of the peripheral end portion 33 of the inner box 30, a rear receiving wall 57 that receives the rear surface of the peripheral end portion 33 of the inner box 30, and receiving walls 56 and 57 before and after these. It is formed in a bifurcated shape having a mounting groove 58 formed between the two and into which a peripheral end portion 33 of the inner box 30 is inserted and mounted. Similarly, the outer mounting portion 53 includes a front receiving wall 60 that receives the front surface of the peripheral end portion 43 of the outer box 40, a rear receiving wall 61 that receives the rear surface of the peripheral end portion 43 of the outer box 40, and receiving walls before and after these. It is formed in a bifurcated shape having a mounting groove 62 formed between 60 and 61 and to which a peripheral end portion 43 of the outer box 40 is inserted and mounted.

As shown in FIG. 1, a sealing portion 64 formed by curing a sealing agent is formed at a joint portion between the front receiving wall 56 of the connecting member 50 and the peripheral end portion 33 of the inner box 30. In this embodiment, the recessed portion 65 is formed as a recess in the tip portion 56a inside the chamber of the front receiving wall 56 of the connecting member 50, and the sealing portion 64 is formed by filling the recessed portion 65 with a sealing agent. It is formed. The front receiving wall 56 is composed of a base portion 56b having a uniform thickness dimension in the front-rear direction, and a tip portion 56a extending from the base portion 56b inward and being cantilevered by the base portion 56b and having a recessed portion 65. Will be done.

Looking at it in more detail, as shown in FIG. 1, the wall on the peripheral end 33 side (rear surface side) of the front receiving wall 56 extends straight from the outer side to the inner side of the refrigerator, and the peripheral end The first wall 70a that comes into contact with the portion 33, the second wall 70b that is connected to the first wall 70a and extends toward the front side, and the second wall 70b that is connected to the free end side of the second wall 70b and is connected from the outside of the refrigerator. It is composed of a third wall 70c that extends straight inward and reaches the tip 56a inside the chamber of the front receiving wall 56, and the recessed portion 65 is formed by the second wall 70b and the third wall 70c. Is partitioned. The second wall 70b is an inclined surface in which the base end side continuous with the first wall 70a is located on the outside of the refrigerator and the free end side continuous with the third wall 70c is located on the inside of the refrigerator. As a result, the recessed portion 65 is formed in a tapered shape in which the internal dimension becomes smaller toward the outside of the refrigerator. Further, the corner portion formed at the boundary between the second wall 70b and the third wall 70c is formed at an obtuse angle.

As described above, the recessed portion 65 is formed in the tip portion 56a inside the chamber of the front receiving wall 56 of the connecting member 50, and the sealing portion 64 is formed by filling the recessed portion 65 with a sealing agent. Then, as compared with the form in which the recessed portion 65 is not formed, the sealing portion 64 is formed by using more sealing agent, and the connecting member 50 and the peripheral end portion 33 of the inner box 30 are formed. Can seal the joints of. According to this, even if the joint portion of both 50 and 30 is about to be separated due to the difference in thermal expansion between the connecting material 50 made of synthetic resin and the peripheral end portion 33 of the inner box 30 made of metal, the sealing portion 64 As a result, it is possible to prevent the seal from being broken at the joint portion and to more reliably suppress the infiltration of moisture into the heat insulating box body 4. In addition, the sealant does not easily peel off during cleaning or cleaning the inside of the refrigerator, and good sealing properties can be ensured for a long period of time. From the above, according to the present embodiment, it is possible to obtain a rapid cooling cabinet having good sealing performance at the joint portion between the inner box 30 and the connecting member 50 and having excellent reliability.

On top of that, if the second wall 70b is an inclined surface whose base end side is located on the outside of the refrigerator and the free end side is located on the inside of the refrigerator, a straight extending the second wall 70b from the rear side to the front side straight. Compared to the surface shape, the thickness of the tip portion 56a supported in a cantilever shape can be made larger. Therefore, it is possible to suppress the decrease in rigidity of the tip portion 56a due to the provision of the recessed portion 65 and effectively prevent the tip portion 56a from being damaged. Further, if the base end side of the second wall 70b is located on the outside of the refrigerator and the free end side is an inclined surface located on the inside of the refrigerator, the corner portion between the second wall 70b and the third wall 70c is obtuse. Therefore, it is possible to prevent molding defects such as sink marks from occurring at the corners. Therefore, at this point as well, it is possible to suppress a decrease in the rigidity of the tip portion 56a and prevent the tip portion 56a from being damaged.

Further, when the corner portion of the second wall 70b and the third wall 70c has an obtuse angle, it is easier to uniformly fill the corner portion with the sealing agent as compared with the form in which the corner portion is at a right angle. It becomes. Therefore, it is possible to prevent the packing density of the sealing agent from fluctuating with respect to the corner portion and to secure a uniform sealing property by the sealing portion 64. Since the recessed portion 65 is formed in a tapered shape in which the internal dimension becomes smaller toward the outside of the refrigerator, it is easy to fill every corner of the inner end portion of the recessed portion 65 with the sealing agent. Good sealing performance can be ensured by the sealing portion 64. Since the recessed portion 65 is formed in a tapered shape in which the internal dimension becomes smaller toward the outside of the refrigerator, the contact area of the sealing agent with the peripheral edge portion 33 can be increased. Therefore, in this respect as well, good sealing performance can be ensured by the sealing portion 64.

In particular, the inner mounting portion 52 of the connecting member 50 is formed between the front receiving wall 56, the rear receiving wall 57, and the front and rear receiving walls 56 and 57, and the peripheral end portion 33 of the inner box 30 is inserted and mounted. When it is formed in a bifurcated shape having a mounting groove 58, the front receiving wall 56 is separated from the peripheral edge portion 33 by inserting the peripheral edge end portion 33 by the mounting groove 58, and the joint portion of both 56 and 33 is formed. Sealing property tends to be poor. Such a problem tends to be particularly remarkable when the spacing dimension of the mounting groove 58 of the connecting member 50 and the thickness dimension of the peripheral end portion 33 of the inner box 30 are slightly different due to a dimensional error in molding or processing. On the other hand, in this embodiment, the recessed portion 65 is formed, the sealing portion 64 is formed by using more sealing agent, and the connecting member 50 and the peripheral end portion 33 of the inner box 30 are formed. Since the joint portion is sealed, it is possible to reliably seal between both 56 and 33 even if there is a dimensional variation as described above.

Further, according to the present embodiment, it is possible to form the sealing portion 64 simply by inserting the nozzle of the caulking gun into the recessed portion 65 and then applying the sealing agent from the nozzle. Masking treatment for the surface of the front receiving wall 56 and the like becomes unnecessary. Therefore, it is possible to simplify the manufacturing process of the heat insulating box 4 and contribute to the reduction of the manufacturing cost of the heat insulating box 4. Since the work of forming the sealing portion 64 can be carried out while checking the amount of the sealing agent applied by the recessed portion 65, there is an advantage that a uniform sealing portion 64 can be reliably formed.

As shown in FIG. 1, the accommodating portion 54 is composed of a pair of recessed grooves formed in recessed positions of the front receiving wall 56 of the inner mounting portion 52 and the front receiving wall 60 of the outer mounting portion 53, respectively. The magnetic metal piece 23 is mounted on the accommodating portion 54 in a state where the inner and outer edges of the magnetic metal piece 23 are received by these concave grooves. When mounted on the accommodating portion 54, the magnetic metal piece 23 is exposed on the front side of the opening peripheral edge of the cooler body 1, and the door packing 22 having magnets on the four peripheral edges of the door 20 facing the magnetic metal piece 23. Are arranged (see FIG. 3). When the magnetic metal piece 23 is formed on the connecting member 50 in this way, the magnet and the magnetic metal piece are compared with the form in which the peripheral end portions 33 and 43 of the inner box 30 and the outer box 40 are substituted as the magnetic metal piece. Since the distance from the 23 can be shortened, the attitude holding action force of the door 20 derived from the attractive force of the magnet is satisfactorily exhibited. On top of that, when the magnetic metal piece 23 is exposed on the front surface side, the magnet when the door 20 is in the closed position is compared with the form in which the magnetic metal piece 23 is arranged on the rear surface side of the connecting member 50, for example. Since the distance between the magnetic metal piece 23 and the magnetic metal piece 23 can be shortened, the attitude holding action force of the door 20 derived from the magnetic attraction force of the magnet is more satisfactorily exhibited. From the above, according to the rapid cooling cabinet according to the present embodiment, it is possible to prevent the door 20 from being inadvertently opened, and to maintain the door 20 in the closed posture in a stable state.

In the above embodiment, an example in which the food processing apparatus of the present invention is applied to a rapid cooling chamber that performs cooling treatment such as rapid freezing is shown, but the present invention is not limited to this, and the heating chamber that heat-treats food. Etc. can also be applied. In the above embodiment, the inner mounting portion 52 of the connecting member 50 is formed in a bifurcated shape having a mounting groove 58, but the present invention is not limited to this, and the inner mounting portion 52 is formed only by the front receiving wall 56. You may be. A recessed portion 65 for filling the sealant can also be formed as a recess at the outer end of the external mounting portion 53.

3 Storage 4 Insulated box 5 Treated air supply device (evaporator)
20 Door 21 Magnet catch structure 22 Door packing 23 Adsorption piece (magnetic metal piece)
30 Inner box 33 Inner box peripheral edge 40 Outer box 43 Outer box peripheral edge 50 Connecting material 52 Mounting part 56 Front receiving wall 57 Rear receiving wall 58 Mounting groove 64 Sealing part 65 Recessed part

Claims (3)

A storage (3) having a front opening, a door (20) for opening and closing the front opening of the storage (3), and a processing air supply device (5) for supplying cold air or warm air into the storage (3). A food processing device that cools or heats the food stored in the storage (3).
The storage (3) is a heat insulating box body (4) having a front opening formed by filling a space formed by a metal inner box (30) and an outer box (40) with a heat insulating material (25). Between the peripheral edge (33) of the inner box (30) and the peripheral edge (43) of the outer box (40) located at the opening edge of the front opening, the peripheral edges of both boxes (30.40) A connecting material (50) made of synthetic resin for connecting the parts (33, 43) is arranged, and the connecting material (50) is arranged.
The connecting member (50) is formed with a mounting portion (52) located inside the refrigerator and to which the peripheral end portion (33) of the inner box (30) is mounted.
A sealing portion (64) formed by curing the sealing agent is formed between the mounting portion (52) and the peripheral end portion (33) of the inner box (30).
A recessed portion (65) for filling the sealant is formed as a recess at the inner end of the mounting portion (52) .
The mounting portion (52) receives the front receiving wall (56) that receives the front surface of the peripheral edge portion (33) of the inner box (30) and the rear receiving wall (56) that receives the rear surface of the peripheral end portion (33) of the inner box (30). (57) and a mounting groove (58) formed between the front and rear receiving walls (56.57) and into which the peripheral end portion (33) of the inner box (30) is inserted and mounted.
The recessed portion (65) is formed as a recess in the tip portion (56a) inside the chamber of the front receiving wall (56) in a state of being recessed toward the outside of the chamber.
A food processing apparatus characterized in that the rear portion of the recessed portion (65) communicates with the opening inside the refrigerator of the mounting groove (58). The food processing apparatus according to claim 1 , wherein the recessed portion (65) is formed in a tapered shape in which the internal dimension becomes smaller toward the outside of the refrigerator. A magnet catch structure (21) is provided between the opening edge on the front side of the storage (3) and the rear surface of the door (20) facing the opening edge.
The magnet catch structure (21) is composed of a door packing (22) provided with a magnet provided on the rear surface of the door (20) and a magnetic metal plate suction plate (23) arranged along the opening edge. Ori,
The food processing apparatus according to claim 1 or 2 , wherein the adsorption plate (23) is arranged on the connecting material (50).

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