CN116653036A - A dicing mechanism for a fruit and vegetable dicing machine and a fruit and vegetable dicing machine - Google Patents

Abstract

The invention relates to a dicing mechanism for a fruit and vegetable dicing machine and the fruit and vegetable dicing machine, wherein the dicing mechanism comprises: the dicing cutter barrel is arranged on the machine body in a manner of rotating around the axis of the dicing cutter barrel; the extruding roller is positioned outside the dicing cutter barrel and can be arranged on the machine body in a manner of rotating around the axis of the extruding roller, the axial direction of the extruding roller is basically parallel to the axial direction of the dicing cutter barrel, and the extruding roller can extrude the sheet food materials towards the inside of the dicing cutter barrel in the rotating process so as to form the dicing food materials in the inside of the dicing cutter barrel. When the sheet food material falls into between the dicing cutter barrel and the extrusion roller, the sheet food material can be timely extruded to form the dicing food material, accumulation of materials is not easy to occur between the dicing cutter barrel and the extrusion roller, excessive force is not required to be applied between the dicing cutter barrel and the extrusion roller, the dicing cutter barrel is not easy to deform, and the sheet food material cannot be damaged due to long-time extrusion.

Description

A dicing mechanism for a fruit and vegetable dicing machine and a fruit and vegetable dicing machine

technical field

The invention relates to the technical field of kitchen appliances, in particular to a dicing mechanism for a fruit and vegetable dicing machine and a fruit and vegetable dicing machine.

Background technique

The fruit and vegetable dicing machine is used to cut the fruit and vegetable ingredients into cubes or blocks. Generally speaking, the processing steps of dicing the fruit and vegetable ingredients are generally to cut the ingredients into flakes first, and then cut the flakes into slices. Strips, and finally cut the strips into cubes.

For example, the Chinese utility model patent application with application number CN201821944001.1 (authorized announcement number: CN209063156U) discloses a food dicing device, which includes a housing with a rectangular cavity. A slicing knife group composed of slicing blades juxtaposed up and down. The slicing knife group divides the rectangular cavity into two small rectangular cavities; the cavity facing the slicing blade blade is the slicing cavity, and the other is the dicing cavity; between adjacent slicing blades and the last The gap between the outer slicing blade and the inner wall of the housing constitutes the slicing outlet, which connects the slicing chamber and the dicing chamber, and all the slicing outlets are uniform in size. The dicing blades intersecting vertically and horizontally constitute the dicing knife group, and the dicing of the food can be completed after entering the dicing cavity after slicing the food in the slicing chamber. During the cutting and matching operation, put the ingredients into the material inlet, push the slicing pusher, so that the slicing pusher of the slicing pusher enters the slicing knife set to cut the ingredients into slices, and then smoothly enters the dicing cavity, press down The dicing push rod makes the dicing push block of the dicing push body enter the dicing knife group, so as to cut the sliced food into dices, and then smoothly push it out from the discharge port below.

The dicing device in the above-mentioned patent application cuts the ingredients into a plurality of stacked sheet-like ingredients at one time through the slicing knife group, and then pushes the dicing block to pass the stacked multiple sheet-like ingredients through the dicing knife at one time. Assembling diced ingredients, since the multi-layer flake ingredients are diced at one time, the resistance of the cutting and matching process is relatively large, and a large force needs to be applied, and the pressure on the ingredients takes a relatively long time, so it is easy to cause the ingredients to be crushed. Severe extrusion and damage (for example, the part of the food material in contact with the dicing cone will be crushed), which will affect the cutting effect of the food material; on the other hand, if the dicing knife set itself is not strong enough, it is also prone to deformation, affecting its cutting matching effect.

Contents of the invention

The first technical problem to be solved by the present invention is to provide a dicing mechanism for a fruit and vegetable dicing machine that has a stable cutting and matching action process and is not easy to cause damage to food due to excessive pressure.

The second technical problem to be solved by the present invention is to provide a fruit and vegetable dicing machine using the above dicing mechanism in view of the current state of the art.

The technical solution adopted by the present invention to solve the first technical problem is: a dicing mechanism for a fruit and vegetable dicing machine, which is used to be arranged on the body of the dicing machine, including

The dicing knife cylinder is arranged on the body in a manner that can rotate around its own axis, and the dicing knife cylinder is a grid structure with dicing mesh holes distributed on the whole;

Squeeze roller, located outside the dicing knife cylinder, and can be arranged on the body in a manner of rotating around its own axis, the axial direction of the squeeze roller is basically parallel to the axial direction of the dicing knife cylinder, During the rotation process, the extrusion roller can press the sheet-shaped food material toward the inside of the dicing knife cylinder to form diced food material in the inside of the dicing knife cylinder.

In order to facilitate assembly and form the above-mentioned grid-shaped dicing knife cylinder, the dicing knife cylinder includes annular blades arranged at intervals along its axial direction and sequentially arranged at intervals along the circumference of the dicing knife cylinder, and along the dicing The strip-shaped blades extending in the axial direction of the knife barrel are arranged outside the ring-shaped blades, so as to form a grid-like structure with diced meshes on the whole.

In order to ensure the strength of the dicing knife barrel and avoid deformation, the outer side of each of the ring-shaped blades has first slots that are successively opened along its circumference, and the inner side of each of the strip-shaped blades has successively along its length direction. Each of the strip-shaped blades is embedded in the first clip-in groove of each of the annular blades in the same linear direction, and each of the annular blades is correspondingly inserted into the strip-shaped Each of the second slots on the blade.

As an improvement, the peripheral wall of the squeezing roller is a smooth wall; or

The outer peripheral wall of the squeeze roller is distributed with protrusions that protrude in the radial direction and can be correspondingly snapped into each of the dicing meshes of the dicing knife cylinder.

The smooth wall surface of the squeeze roller is easy to clean and there will be no food residue. However, the extrusion roller with a raised portion can be squeezed and matched with each dicing mesh on the knife cylinder to ensure the dicing effect, wherein, during the synchronous rotation of the extrusion roller and the dicing knife cylinder, the Each raised portion of the knife barrel can be embedded in the corresponding dicing mesh of the cutter cylinder, thereby effectively avoiding the problem of food residue in the dicing mesh, especially, the problem of material residue of the last piece of flaky food.

In order to further improve the dicing effect, the dicing knife cylinder and the extrusion roller rotate in opposite directions, and the upper area between the two forms a storage area for storing sheet-shaped food materials. The dicing knife cylinder and the extrusion roller rotate in opposite directions, so that the sheet-shaped food can be squeezed immediately after falling into the storage area between the two to form diced food, which improves the dicing efficiency.

In order to facilitate the discharge of the diced food material in the dicing knife cylinder, the axis of the dicing knife cylinder is arranged obliquely relative to the horizontal plane, and the bottom end of the dicing knife cylinder has an opening, which serves as a supply for the diced food in the knife cylinder. The first discharge port from which the raw material flows out.

The technical solution adopted by the present invention to solve the second technical problem is: a fruit and vegetable dicing machine, including a body, and the above-mentioned dicing mechanism for the fruit and vegetable dicing machine is also provided on the body.

In order to connect the rotation of the dicing knife cylinder to the body and to facilitate the rapid discharge of diced food materials, the body defines a dicing chamber for placing the dicing knife cylinder and squeeze rollers. The lower end of the dicing knife cylinder is suspended, and its upper end is rotatably connected to the wall of the dicing chamber.

As an improvement, the body is also provided with a driving mechanism for driving the dicing knife cylinder and/or the extrusion roller to move.

Generally speaking, the dicing knife cylinder and the squeeze roller can be driven by different driving mechanisms. In order to reduce the number of driving mechanisms and make the overall volume of the dicing machine smaller and more compact, it also includes a driving motor and a first gear transmission assembly. The first gear transmission assembly is in transmission connection with the output shaft of the driving motor, the upper end of the dicing knife cylinder is in transmission connection with the first gear transmission assembly, and the squeeze roller is also in transmission connection with the first gear Component drive connections.

In order to adapt to the dicing knife cylinder and squeeze roller which are arranged obliquely, the dicing knife cylinder and the squeeze roller are rotatably connected to the body, and the body is also defined to be independent from the dicing chamber to The gear chamber for placing the first gear transmission assembly, the gear chamber is separated from the dicing chamber by a partition, and the partition includes a mounting plate arranged obliquely relative to the vertical plane, so The upper end of the dicing knife cylinder has a first connecting shaft extending in the axial direction, and the first connecting shaft passes through the mounting plate and extends into the gear chamber to be connected with the first gear transmission assembly. The upper end of the squeezing roller has a second connecting shaft extending in the axial direction, and the second connecting shaft passes through the mounting plate and extends into the gear chamber and is also connected with the first gear transmission assembly.

Generally speaking, the first gear transmission mechanism can adopt various structures of spur gears or bevel gears. In order to simplify the structure of the first gear transmission assembly, the first gear transmission assembly includes:

The first gear is arranged on the output shaft of the drive motor and can rotate with the output shaft of the drive motor;

a second gear, rotatably supported on the body, and meshed with the first gear;

The third gear is connected to the first gear through the first transmission shaft and rotates coaxially;

The fourth gear is connected to the second gear through the second transmission shaft and rotates coaxially;

The fifth gear is coaxially connected to the first connecting shaft and meshes with the third gear, thereby driving the dicing knife cylinder to rotate;

The sixth gear is coaxially connected to the second connecting shaft, and meshes with the fourth gear, so as to drive the extrusion roller to rotate.

Since the dicing mechanism needs to process the sheet-shaped food, in order to slice the original food and then dice it, the body is also provided with a slicing unit for slicing the food.

In order to quickly guide the sliced food materials formed by the slicing unit to the dicing unit below, the slicing unit is located above the dicing chamber, and the top of the dicing chamber is in contact with the storage material The position corresponding to the area is provided with a dicing inlet for the sliced food to enter, and the dicing inlet of the dicing chamber is also provided with a guide for guiding the flaky food to the storage area. sheet.

In order to make the material guide plate suitable for the dicing single cylinder and the squeeze roller, the material guide plate includes a first material guide plate and a second material guide plate arranged at intervals, and the first material guide plate and the second material guide plate The distance between the material guide plates decreases gradually from top to bottom.

In order to make the feeding of the sheet food more smoothly, the first material guide plate and the second material guide plate are arc-shaped plate structures protruding toward each other. Generally speaking, the slicing device can adopt slicing mechanisms such as a rotary cutter cylinder, a rotary cutter disc, and a reciprocating linearly moving slicing knife holder. As a preferred slicing device, the slicing device includes:

The slicing knife cylinder is rotatably arranged on the body in a manner capable of rotating around its own axis, and the peripheral wall of the slicing knife cylinder is provided with a first sheet-shaped material inlet that penetrates inside and outside and extends along its length direction. A first slicing knife is provided at the inlet of the sliced food, and one end of the sliced knife cylinder is open to form a second outlet for the sliced food to flow out.

In order to facilitate the discharge of the sliced food in the slicing knife barrel, the caliber of the second end of the slicing knife barrel is larger than the caliber of the first end so that the overall shape of the slicing knife barrel is trumpet-shaped.

In order to facilitate feeding, the top of the machine body is provided with a feeding port, and the body is also provided with a first material guide channel extending downward from the feeding port and inclined to the side of the slicing knife cylinder.

In order to realize the automatic feeding of food materials during the slicing process, the axis of the slicing knife cylinder is horizontally extended or set at an inclination relative to the horizontal plane, and the vertical plane passing through the axial direction of the slicing knife cylinder is recorded as the first vertical plane. A vertical plane divides the slicing knife cylinder during rotation into a first zone that rotates downward and a second zone that rotates upward, and the outlet of the first material guide channel is opposite to the first zone of the slicing knife cylinder .

The material inlet on the machine body is offset to the side directly above the slicing knife cylinder, and the first guide channel design with the cutting direction and the direction of gravity of the food material is used to realize the automatic feeding of the food material, thus eliminating the need for additional The extrusion part exerts pressure on the feeding process of the food material.

In order to further facilitate the discharge of the sheet-shaped food material in the slicing knife cylinder, the axis of the slicing knife cylinder extends vertically.

In order to further simplify the driving mechanism of the dicing machine, the slicing device includes:

The slicing knife cylinder is rotatably arranged on the body in a manner that can rotate around its own axis, and the wall of the slicing knife cylinder is provided with a first sheet-shaped food inlet that penetrates inside and outside and extends along its length direction. A first slicing knife is provided at the entrance of the first sheet of food material;

The first end of the slicing knife cylinder is rotatably connected to the body, and is in transmission connection with the first gear transmission assembly through the second gear transmission assembly, and the second end of the slicing knife cylinder is opened to form a The second outlet for the flow of sheet-like ingredients.

The slicing knife barrel of the slicing device shares the same drive source with the dicing knife barrel and squeeze roller of the dicing unit, which further simplifies the driving mechanism of the dicing machine and makes the dicing machine more compact.

As another preferred slicing device, the slicing device includes:

The slicing cutter head is installed on the body in such a way that it can rotate around its own axis. The two side walls of the slicing cutter head are the feeding side and the discharging side respectively. There is at least one second sheet-shaped material inlet through which the side penetrates to the discharge side and extends radially thereof, and a second slicer knife is arranged at the second sheet-shaped food inlet.

In order to share the same driving source for the slicing cutterhead and the dicing unit, the slicing cutterhead is rotatably connected to the body through the third transmission shaft, and is connected to the first gear transmission assembly through the third gear transmission assembly. Drive connection.

Generally speaking, the axis of the slicing cutter head can extend vertically, horizontally or be arranged obliquely relative to the vertical plane. It also includes a second material guide hopper located under the slicing cutter for receiving the sliced foodstuffs cut by the slicing cutter.

In order to facilitate the automatic feeding during the slicing process, the top of the body is provided with a feeding port, and the body is also provided with a feeding port extending downward from the feeding port and inclined toward the feeding side of the slicing cutter head. The second guide channel.

As another preferred slicing device, the slicing device includes:

The slicing hopper is used to place the ingredients to be sliced;

A slicing knife holder is arranged at the bottom of the slicing hopper, and can be reciprocally slid on the body along a straight line. The slicing knife holder is provided with a third piece whose extending direction is substantially perpendicular to the moving direction of the slicing knife holder. The entrance of the food material is provided with a third slicing knife for slicing the food material during the movement of the slicing knife holder.

Generally speaking, the slicing tool holder can be extended horizontally, vertically or inclined relative to the vertical plane. The dicing chamber of the dicing knife cylinder and the extrusion roller is provided. The top of the dicing chamber is provided with a dicing entrance for the diced sheet material to enter. The slicing knife rest is slid in the horizontal direction Dice the top of the chamber.

In order to realize that the slicing tool holder and the dicing unit share the same driving source, it also includes a drive motor, a first gear transmission assembly and a crank slider movement mechanism for driving the slicing knife holder to reciprocate, and the first gear transmission assembly The output shaft of the driving motor is connected in transmission, the dicing knife cylinder is connected in transmission with the first gear transmission assembly and can rotate around its own axis, and the squeezing roller is also in transmission connection with the first gear transmission assembly It can rotate around its own axis, and the power output end of the slider crank mechanism is connected with the first gear transmission assembly in transmission.

It is conceivable that the above-mentioned crank slider movement mechanism can also be replaced by various movement mechanisms capable of converting rotational movement into linear movement of the slicing knife holder.

As an improvement, the slider crank mechanism includes:

The seventh gear is rotatably arranged on the body and connected with the first gear transmission assembly;

A connecting rod, the first end of the connecting rod is rotatably connected to the area on the wall of the seventh gear that deviates from the axis position of the seventh gear, and the second end is rotatably connected to the slicing tool holder.

In order to conveniently take the diced ingredients after cutting and matching, the body also has a vegetable receiving area located below the dicing unit. The position corresponding to the vegetable receiving area has a first opening, and the vegetable receiving box enters and exits the vegetable receiving area through the first opening in a manner that can be pushed and pulled relative to the body.

Compared with the prior art, the advantages of the present invention are as follows: the dicing method of the dicing knife cylinder and the extrusion roller is used to rotate and squeeze, so that the sliced food materials after the slicing unit is cut can be continuously dropped into the Between the dicing knife cylinder and the extrusion roller, when the sheet-shaped food material falls between the dicing knife cylinder and the extrusion roller, it can be squeezed in time to form a diced food material. The matching process makes it difficult for material to accumulate between the dicing knife cylinder and the extrusion roller, and there is no need to apply excessive force between the dicing knife cylinder and the extrusion roller. Therefore, the dicing knife cylinder is not easy to deform. The flake ingredients will not be damaged due to being squeezed for a long time, which ensures the overall dicing effect and improves the user experience.

Description of drawings

Fig. 1 is the three-dimensional structure schematic diagram of the dicing machine of embodiment 1 of the present invention;

Fig. 2 is a schematic diagram of the three-dimensional structure of the dicing machine in Fig. 1 after part of the side panels of the body are hidden;

Fig. 3 is a schematic diagram of a three-dimensional structure from another angle of Fig. 2;

4 is a vertical sectional view cut along the left and right directions of the dicing machine according to Embodiment 1 of the present invention;

5 is a cross-sectional view of the dicing machine according to Embodiment 1 of the present invention along a vertical plane passing through the axis of the dicing knife cylinder;

6 is a schematic diagram of the three-dimensional structure of the dicing unit of the dicing machine according to Embodiment 1 of the present invention;

7 is a schematic diagram of the three-dimensional structure of the dicing single cylinder of the dicing machine according to Embodiment 1 of the present invention;

8 is an exploded view of the dicing knife cylinder of the dicing machine according to Embodiment 1 of the present invention;

Fig. 9 is a three-dimensional structural schematic diagram of a dicing machine according to Embodiment 2 of the present invention;

Fig. 10 is a schematic diagram of the three-dimensional structure of the dicing machine in Fig. 9 after part of the side panels of the body are hidden;

Figure 11 is a vertical sectional view of the dicing machine according to Embodiment 2 of the present invention cut along the left and right directions;

12 is a schematic diagram of the three-dimensional structure of a dicing machine according to Embodiment 3 of the present invention;

Fig. 13 is a schematic diagram of the three-dimensional structure of the dicing machine in Fig. 12 after part of the side panels of the body are hidden;

Fig. 14 is a vertical sectional view cut along the left and right directions of the dicing machine according to Embodiment 3 of the present invention;

Fig. 15 is a vertical sectional perspective view of the dicing machine according to Embodiment 3 of the present invention cut along the left and right directions;

Fig. 16 is a three-dimensional structural schematic diagram of a dicing machine according to Embodiment 4 of the present invention;

Fig. 17 is a schematic diagram of the three-dimensional structure of the dicing machine in Fig. 16 after part of the side panels of the body are hidden;

Fig. 18 is a cross-sectional view of the dicing machine according to Embodiment 4 of the present invention cut along a vertical plane passing through the axis of the dicing knife cylinder;

Fig. 19 is a cross-sectional view of the dicing machine according to Embodiment 4 of the present invention cut along a vertical plane passing through the axis of the squeezing roller.

Detailed ways

The present invention will be further described in detail below in conjunction with the accompanying drawings and embodiments.

Terms expressing directions are used in the description and claims of the present invention, such as "front", "rear", "upper", "lower", "left", "right", "side", "top", "Bottom" and the like are used to describe various exemplary structural parts and elements of the present invention, but these terms are used herein for explanatory purposes only, based on the exemplary orientations shown in the drawings. Since the disclosed embodiments of the present invention can be arranged in different directions, these terms indicating directions are for illustration only and should not be regarded as limitations. For example, "up" and "down" are not necessarily limited to the opposite direction or consistent direction.

Example 1

1-8, a fruit and vegetable dicing machine is shown, including a body 10, a slicing unit disposed in the body 10, a dicing unit, a vegetable receiving box 151 and a driving device.

Referring to FIG. 5 , the machine body 10 is in the shape of a cube as a whole, and a gear chamber 12 and a dicing chamber 11 are defined inside it. Wherein, the dicing chamber 11 is located at the bottom front side of the body 10 , the dicing unit is located in the dicing chamber 11 , and the slicing unit is located inside the gear chamber 12 , specifically above the dicing chamber 11 . The dicing chamber 11 is separated from the gear chamber 12 by a partition 13, and the upper area of the inner side plate of the dicing chamber 11 extends obliquely forward relative to the vertical plane to form a dicing roller and extrusion for the dicing unit. The mounting plate 131 of the roller 65 is a part of the above-mentioned partition plate 13 .

The bottom of the dicing chamber 11 is a vegetable receiving area 15, that is, the vegetable receiving area 15 is located below the dicing unit. The vegetable receiving area 15 is placed with a vegetable receiving box 151 , and the front side of the body 10 has a first opening 152 at a position corresponding to the vegetable receiving area 15 . The vegetable receiving box 151 is arranged on the bottom of the vegetable receiving area 15 of the dicing chamber 11 by sliding back and forth through slide rails, and the user can push and pull the vegetable receiving box 151 to enter and exit the vegetable receiving area 15 through the first opening 152 at the side of the body 10 .

5 and 6, the dicing unit includes a dicing mechanism, and the dicing mechanism includes a dicing knife cylinder 60 and a squeeze roller 65, wherein the dicing knife cylinder 60 and the squeeze roller 65 are arranged side by side in the left and right direction, and also That is, the extension directions of the axes of both are parallel. Specifically, the dicing knife barrel 60 has a grid structure with dicing meshes 600 , the dicing meshes 600 penetrate inside and outside, and dicing blades are formed at the dicing meshes 600 on the peripheral wall of the dicing knife barrel 60 . The axis of the dicing knife cylinder 60 is inclined forward from top to bottom, and the value range of the angle formed by intersecting with the horizontal plane is 30°-60°. The first end of the dicing knife cylinder 60 is located above, and it has a The dicing knife cylinder 60 is rotatably connected to the mounting plate 131 of the dicing chamber 11 through the extending first connecting shaft 61 . The second end of the dicing knife barrel 60 is located below and is open, and the opening is the first discharge port 62 for the diced food material in the dicing knife barrel 60 to flow out. The first connecting shaft 61 at the first end of the dicing knife cylinder 60 extends into the gear chamber 12 through the mounting plate 131, wherein the part of the first connecting shaft 61 extending into the gear chamber 12 is also coaxially connected There is a fifth gear 225 of the first gear transmission assembly 22 . The extrusion roller 65 has a cylindrical structure, and preferably, the outer diameter of the extrusion roller 65 is basically the same as the outer diameter of the dicing cylinder 60 . The axis of the squeezing roller 65 is also inclined forward from top to bottom, the first end of the squeezing roller 65 is located above, and it has a second connecting shaft 651 extending axially along itself, and the squeezing roller 65 passes through the second connecting shaft 651 is rotatably connected to the mounting plate 131 of the dicing chamber 11. The second connecting shaft 651 at the first end of the squeeze roller 65 passes through the mounting plate 131 and extends into the gear chamber 12, wherein the part of the second connecting shaft 651 extending into the gear chamber 12 is also coaxially connected with The sixth gear 226 of the first gear transmission assembly 22 .

Referring to FIG. 6 , the outer wall of the extrusion roller 65 in this embodiment is against the outer wall of the dicing knife cylinder 60 , and during the counter-rotation process, the extrusion roller 65 can squeeze the sheet-shaped food material that falls between the two. Squeeze to the inner wall of the dicing knife cylinder 60 from the outside to the inside, and form diced food on the inner wall of the dicing knife cylinder 60, and the diced food material passes through the dicing knife cylinder under its own gravity and the rotation of the dicing knife cylinder The lower port of 60 (that is, the first discharge port 62 ) flows out and falls into the vegetable receiving tray of the vegetable receiving area 15 below.

In order to facilitate the cleaning of the squeeze roller 65 and reduce food residues on the surface of the squeeze roller 65, the outer peripheral wall of the squeeze roller 65 in this embodiment may be smooth, see FIG. 6 for details. Of course, as another preferred embodiment, the outer peripheral wall of the extrusion roller 65 is distributed with protruding protrusions 650 protruding in the radial direction, and each protrusion 650 of the extrusion roller 65 is connected to each dicing portion of the dicing knife cylinder 60. The mesh holes 600 correspond to each other. Specifically, during the rotation process of the squeeze roller 65 and the dicing knife cylinder 60, each protrusion 650 on the squeeze roller 65 can be correspondingly snapped into each dicing mesh of the dicing knife cylinder 60. hole 600, thereby, the sheet-shaped food material can be squeezed to the inside of the dicing knife barrel 60, thereby effectively avoiding the problem of food material residue in the dicing mesh 600, especially, the problem of the material residue of the last piece of flaky food material, See Figure 4 for details.

The driving device of this embodiment is disposed in the gear chamber 12 , specifically including a driving motor 21 and a first gear transmission assembly 22 . The driving motor 21 is located at the rear of the dicing chamber 11, and the output shaft of the driving motor 21 extends horizontally forward and backward. The first gear transmission assembly 22 includes a first gear 221 , a second gear 222 , a third gear 223 , a fourth gear 224 , a fifth gear 225 and a sixth gear 226 . Wherein, the first gear 221 is coaxially arranged on the output shaft of the driving motor 21 and can rotate with the output shaft of the driving motor 21 . The third gear 223 is connected to the first gear 221 through the first transmission shaft 231 and can rotate coaxially. The second gear 222 is rotatably supported on the machine body 10 through a support shaft, and meshes with the first gear 221 . The fourth gear 224 is connected with the second gear 222 through the second transmission shaft 232 (the second transmission shaft constitutes a supporting shaft for the second gear to rotate on it) and can rotate coaxially. The fifth gear 225 is coaxially connected to the first connecting shaft 61 and meshes with the third gear 223 to drive the dicing knife cylinder 60 to rotate. The sixth gear 226 is coaxially connected to the second connecting shaft 651 and meshes with the fourth gear 224 to drive the extrusion roller 65 to rotate. Since the axes of the fifth gear 225 and the sixth gear 226 are inclined, in order to match them, the third gear 223, the fourth gear 224, the fifth gear 225 and the sixth gear 226 in this embodiment are all tapered. gear. After the drive motor 21 is started, the dicing knife cylinder 60 can be driven to rotate through the transmission cooperation of the first gear 221, the third gear 223 and the fifth gear 225. At the same time, the first gear 221, the second gear 222, the fourth gear The transmission cooperation between the gear 224 and the sixth gear 226 drives the extrusion roller 65 to rotate.

The dicing cutter cylinder 60 of this embodiment includes a first hob frame 601 , a second hob frame 602 , a ring blade 63 and a strip blade 64 . The first hob frame 601 and the second hob frame 602 are arranged oppositely, wherein the first hob frame 601 is disc-shaped as a whole, located at the first end of the dicing knife cylinder 60, and closes the dicing knife cylinder 60 The port at the first end of the second hob frame 602 is ring-shaped as a whole and is located at the second end of the dicing knife cylinder 60 , thereby forming the above-mentioned first discharge port 62 . There are a plurality of strip blades 64, arranged at intervals along the circumference of the dicing knife cylinder 60, the extension direction of each above-mentioned strip blade 64 is consistent with the extension direction of the dicing knife cylinder 60, and the two ends of the length direction correspond to It is fixed on the first hob frame 601 and the second hob frame 602 . There are also a plurality of annular blades 63, arranged at intervals along the axial direction of the dicing knife cylinder 60, and each strip blade 64 is arranged on the outside of each annular blade 63, thereby forming a grid with dicing meshes 600 as a whole shape structure. More specifically, the outer side of each annular blade 63 has a first locking groove 631 sequentially opened along its circumferential direction, the extension direction of the first locking groove 631 is consistent with the radial direction of the annular blade 63, and each strip blade 64 There are second locking grooves 641 opened sequentially along the length direction on the inner side of the inner side thereof, and the extension direction of the second locking grooves 641 is consistent with the width direction of the strip blade 64 . Each strip blade 64 is embedded in the first slot 631 of each ring blade 63 in the same linear direction, and when the strip blade is embedded in the first slot 631 of the ring blade 63, each ring The strip-shaped blades 63 are correspondingly snapped into the second slots 641 on the strip-shaped blades 64, thereby ensuring the strength of the dicing knife cylinder 60 and avoiding deformation problems. On the other hand, the assembling structure design of above-mentioned annular blade 63 and strip blade 64 makes the outer edge of annular blade 63 and the outer edge of strip blade 64 be located on the same peripheral curved surface basically, that is to say jointly constitute cutting The dicing blade of the diced knife cylinder 60.

Referring to FIG. 2 , the slicing unit is located above the dicing unit, and specifically includes a knife cylinder housing 36 and a slicing knife cylinder 30 . The top of the dicing chamber 11 has a dicing inlet 110 through up and down, and the knife cylinder housing 36 is a cylindrical shell structure extending vertically, which is fixed at the dicing inlet 110 of the dicing chamber 11, and the knife cylinder The lower end of the casing 36 is open and is opposite to the dicing inlet 110 . The slicing knife cylinder 30 is disposed inside the knife cylinder housing 36 and also extends vertically. The upper end of the slicing cutter cylinder 30 is rotatably connected to the machine body 10 and coaxially connected with the eleventh gear 344 located outside the cutter cylinder housing 36 . The peripheral wall of the slicing knife cylinder 30 is provided with a first sheet-shaped food inlet 300 penetrating inside and outside and extending along its length direction, and a first slicer knife 31 is provided at the sheet-shaped food inlet. During the slicing and rotating process, the food material can be sliced by the first slicing knife 31 . During the slicing process, the formed food material sheet enters into the slicing knife barrel 30 through the first food material inlet 300 . The bottom end of the slicing knife cylinder 30 is open to form a second discharge port 32 for the sheet food to flow out, and the second discharge port 32 is opposite to the dicing inlet 110 of the dicing chamber 11 in the up-down direction.

In order to drive the slicing cutter cylinder 30 to rotate, a second gear transmission assembly connected to the first gear transmission assembly 22 is also included. The second gear transmission assembly includes an eighth gear 341, a ninth gear 342, a tenth gear 343 and an eleventh gear 344, wherein the eighth gear 341 is located above the first gear 221 and passes through the first support shaft extending forward and backward The eighth gear 341 meshes with the first gear 221 on the machine body 10 rotatably connected to 3410 . The ninth gear 342 is located above the eighth gear 341 and set on the right side (that is, the side close to the slicing cylinder 30 ), and the ninth gear 342 meshes with the eighth gear 341 . The ninth gear 342 is rotatably connected to the body 10 through the second support shaft 3420 extending back and forth, and the tenth gear 343 is also arranged on the second support shaft 3420 , specifically at the end of the second support shaft 3420 . When rotating, the tenth gear 343 can be driven to rotate. The eleventh gear 344 is connected to the upper end of the slicing cutter cylinder 30 and meshes with the tenth gear 343 . When the driving motor 21 is working, the power can be transmitted to the slicing knife barrel 30 through the first gear transmission assembly 22 and the second gear transmission assembly to drive the knife barrel to rotate, thereby realizing that the slicing unit and the dicing are driven by the same driving motor 21. unit action.

The top of the machine body 10 is provided with a feeding port 100 , and the body 10 is further provided with a first material guiding channel 141 extending downward from the feeding port 100 and inclined to the side of the slicing cylinder 30 . Correspondingly, the side of the cutter housing 36 has an opening corresponding to the port of the first material guiding channel 141 .

Referring to Fig. 4, since the dicing knife cylinder 60 and the extruding roller 65 are both cylindrical, a similar inverted triangle-shaped storage area 66 is formed above the abutting position of the two, which can be used for storage (caching) Flaky ingredients. During the counter-rotation process of the dicing knife cylinder 60 and the extrusion roller 65 , the sheet-shaped food material falling into the above-mentioned storage area 66 can be squeezed and diced in time. The dicing inlet 110 of the dicing chamber 11 is also provided with a material guide plate for guiding the sheet food to the above-mentioned storage area 66 . Specifically, in order to make the material guide plate compatible with the dicing cylinder and the extrusion roller 65, the material guide plate in this embodiment includes a first material guide plate 111 and a second material guide plate 111 arranged at intervals in the left and right directions. 112. The distance between the first material guide plate 111 and the second material guide plate 112 gradually decreases from top to bottom. Preferably, the first material guide plate 111 and the second material guide plate 112 are protruding toward each other. The curved plate structure facilitates the smooth and fast falling of sliced food materials.

In this embodiment, the outer diameter of the dicing knife cylinder 60 and the outer diameter of the squeeze roller 65 can also be different. Specifically, the number of dicing meshes 600 on the circumference of the dicing knife cylinder 60 is x1, and the squeeze roller The number of protrusions 650 in the circumferential direction of 65 is x2, and the following conditions can be satisfied:

x1=n*x2;

n is a positive integer;

Similarly, the number of teeth of each gear of the first gear transmission assembly 22 should be adjusted accordingly to ensure that the rotational speed ratio of the dicing knife cylinder 60 and the squeeze roller 65 is 1:n.

The working process of the present embodiment dicing machine is as follows:

After the food material is put into the first material guide channel from the feeding port 100, the slicing knife cylinder 30 of the slicing unit slices the food material, and the formed sheet food material falls into the dicing inlet 110 of the dicing chamber 11 below, And under the guidance of the material guide plate, it falls into the material storage area 66 between the dicing knife cylinder 60 and the extrusion roller 65. Since the dicing knife cylinder 60 and the extrusion roller 65 are also rotating oppositely at the same time, therefore, When the sheet-shaped food material contacts the dicing knife cylinder 60, it will be immediately extruded by the rotating extrusion roller 65 to form a diced food material. This continuous slicing and dicing process makes the dicing knife cylinder 60 and extrusion It is not easy to accumulate material between the rollers 65, and there is no need to apply excessive force between the dicing knife cylinder 60 and the extrusion roller 65. Therefore, the dicing knife cylinder 60 is not prone to deformation problems, and the flaky food materials will not be affected by It is damaged by being squeezed for a long time, which ensures the overall dicing effect and improves the user experience.

Example 2

Referring to Figures 9-11, another dicing machine is shown. The difference between the dicing machine in this embodiment and the dicing machine in Embodiment 1 is that the structure of the slicing knife cylinder 30 of the slicing unit is different and the corresponding The second gear transmission assembly is different.

Referring to FIG. 10 , the axis of the slicing cutter cylinder 30 of the slicing unit in this embodiment extends horizontally, and of course other ways in which the axis is inclined relative to the horizontal plane may also be used. The second gear transmission assembly correspondingly omits the tenth gear 343 and the eleventh gear 344, and one end of the slicing knife cylinder 30 is rotatably connected to the end of the second support shaft 3420, and the other port of the slicing knife cylinder 30 of this embodiment It is used as the second discharge port 32. Since the second discharge port 32 is suspended, in order to smoothly introduce the food material to the dicing inlet 110, the dicing inlet 110 of the dicing chamber 11 also has a first extending upward. The material guide hopper 35 , the upper port of the first material guide hopper 35 is correspondingly located on the periphery of the second material outlet 32 , so as to prevent the sliced foods flowing out from the second material outlet 32 of the slicing knife cylinder 30 from leaking out.

The diameter of the second end of the slicing cutter cylinder 30 in this embodiment is larger than the diameter of the first end so that the whole is trumpet-shaped. The design of the trumpet-shaped slicing knife cylinder 30 also facilitates the discharge of the sliced food in the slicing knife cylinder 30 . On the other hand, the design of the first material guide channel 141 of this embodiment is basically the same as that of Embodiment 1. Further, the axial vertical plane of the over-slicing cutter cylinder 30 is denoted as the first vertical plane 33, and the first vertical plane To the plane 33, the slicing knife cylinder 30 in the rotating process is divided into a first zone 331 that rotates downwards and a second zone 332 that rotates upwards, wherein the outlet of the first material guide channel 141 is connected to the first section of the slicing knife cylinder 30. District 331 relative. Since the axis of the slicing knife cylinder 30 extends horizontally, and the cutting direction of the slicing knife cylinder 30 is in the same direction as the gravitational direction of the food material, the automatic feeding of the food material is realized, so that there is no need to add extrusion parts to pressurize the food material feeding process .

Example 3

Referring to FIG. 12-FIG. 15 , another dicing machine is shown. The difference between the dicing machine in this embodiment and the dicing machine in Embodiment 1 lies in that the structure of the slicing unit and the corresponding gear transmission assembly are different.

The slicing unit of this embodiment is a knife frame structure that moves back and forth for slicing. Specifically, the slicing unit of this embodiment includes a slicing knife frame 41, which is a plate-shaped structure extending horizontally, and is slidably arranged on the cutting board. The top of the dicing chamber 11, wherein, the top of the dicing chamber 11 has two limit slides 113 extending left and right and spaced apart in the front and rear directions, and the front and rear sides of the slicing tool holder 41 are respectively slid and constrained to the two limit chutes. Bit chute 113. The slicing knife holder 41 is provided with a third sliced food inlet 42 extending in the front-to-back direction. The third sliced food inlet 42 is provided with a third slicer knife 43, and the blade of the slicer knife exposes the third sliced food intake. 42 outside the top edge, thus, the third slicing knife 43 that can slice food when moving with the slicing knife holder 41.

The machine body 10 is further provided with a slicing hopper 40 extending downward from the feeding port 100 at the top, and the slicing knife holder 41 is located at the bottom of the slicing hopper 40 . The bottom port of the slicing hopper 40 is also opposite to the dicing inlet 110 at the top of the dicing chamber 11 , and the sliced food that has been cut by the third slicing knife 43 can drop into the dicing chamber through the third sliced food inlet 42 11. The dicing inlet 110 on the top.

It also includes a slider crank mechanism 44 for driving the slicing tool holder 41 to reciprocate. The slider crank mechanism 44 includes a seventh gear 441 and a connecting rod 442 . The seventh gear 441 is rotatably connected to the machine body 10 through the fifth support shaft 45 and meshes with the first gear 221 of the first gear transmission assembly 22 at the same time. Specifically, the height of the central position of the seventh gear 441 is basically the same as the height of the slicer tool holder 41 . The slicing tool holder 41 also has a connecting rod 443 extending horizontally backwards, the first end of the connecting rod 442 is rotatably connected to the wall of the seventh gear 441 which deviates from the axis position of the seventh gear 441, and the second end is connected to the wall of the seventh gear 441. The above-mentioned connecting rod 443 is rotatably connected. When the driving motor 21 is in motion, the seventh gear 441 can be driven to rotate through the first gear transmission assembly 22, and then the slicing tool holder 41 can be driven to reciprocate left and right through the connecting rod 442, so as to realize the slicing processing of food materials.

Example 4

Referring to FIG. 16-FIG. 19, another dicing machine is shown. The difference between the dicing machine in this embodiment and the dicing machine in Embodiment 1 lies in that the structure of the slicing unit and the corresponding gear transmission assembly are different.

The slicing unit of the present embodiment adopts a cutterhead type slicing structure, specifically, the slicing device includes a slicing cutterhead 50, and the slicing cutterhead 50 is vertically arranged, that is, the axis of the slicing cutterhead 50 extends horizontally, and the slicing cutterhead 50 The middle part is rotatably connected to the machine body 10 through the third transmission shaft 51 , and is in transmission connection with the first gear transmission assembly 22 through the third gear transmission assembly. The third gear transmission assembly includes a twelfth gear 54 and a thirteenth gear 55 , wherein the twelfth gear 54 is rotatably connected to the body 10 through a third support shaft 541 and meshes with the first gear 221 located below. The twelfth gear 54 is located above the eleventh gear 344 and is rotatably connected to the machine body 10 through the fourth support shaft 551 . The twelfth gear 54 meshes with the eleventh gear 344 . The slicing cutter head 50 is disposed coaxially with the twelfth gear 54 , specifically at the end of the fourth support shaft 551 . When the driving motor 21 operates, the power can be transmitted to the third gear 223 assembly through the first gear transmission assembly 22 to drive the slicing cutter head 50 to rotate.

The two side walls of the slicing cutter head 50 are the feed side 501 and the discharge side 502 respectively, and the slicing cutter head 50 is provided with a second sheet food inlet 52 that passes through the feed side 501 to the discharge side 502, wherein In this embodiment, there are two second sheet food inlets 52 , both of which extend in the radial direction of the slicing cutter head 50 , and a second slicer knife 53 is provided at the second sheet food inlet 52 . Specifically, the blades of the two slicing knives slightly expose the side wall surface of the feeding side 501 of the slicing cutter head 50 , thus, during the rotation of the cutter head, the food material can be sliced.

Since the slicing reel is set up vertically, in order to smoothly introduce the finished food material into the dicing inlet 110, the dicing inlet 110 of the dicing chamber 11 also has a second guide hopper 56 extending upwards. The upper port of the material guide hopper 56 is correspondingly located on the periphery of the slicing cutter 50 , so as to avoid leakage of the sliced food materials that have been cut by the slicing cutter 50 .

Referring to FIG. 19 , the machine body 10 of this embodiment is further provided with a second material guide channel 142 extending downward from the material feeding port 100 and inclined toward the feeding side 501 of the slicing cutter head 50 . The outlet of the second material guide flow channel 142 is opposite to the slicing cutter head 50. When the user feeds food into the second material guide flow channel 142, it can be offset against the feeding side 501 of the slicing cutter head 50, and the slicing cutter head 50 rotates. It can realize the slicing processing of food materials.

The "transmission connection" referred to in the present invention refers to the direct connection between two components or the indirect connection through a transmission mechanism.

Claims (31)

1. A dicing mechanism for a fruit and vegetable dicing machine, for being arranged on a machine body (10) of the dicing machine, characterized by comprising:

the dicing cutter barrel (60) is arranged on the machine body (10) in a manner of rotating around the axis of the dicing cutter barrel, and the dicing cutter barrel (60) is of a grid-shaped structure with dicing meshes (600) distributed on the whole;

the extruding roller (65) is positioned outside the dicing cutter barrel (60) and can be arranged on the machine body (10) in a manner of rotating around the axis of the extruding roller (65), the axial direction of the extruding roller (65) is basically parallel to the axial direction of the dicing cutter barrel (60), and the extruding roller (65) can extrude the sheet food material towards the inside of the dicing cutter barrel (60) in the rotating process so as to form the dicing food material inside the dicing cutter barrel (60).

2. The dicing mechanism for a fruit and vegetable dicing machine according to claim 1, wherein: the dicing blade cylinder (60) comprises annular blades (63) which are sequentially arranged at intervals along the axial direction of the dicing blade cylinder (60) and strip-shaped blades (64) which are sequentially arranged at intervals along the circumferential direction of the dicing blade cylinder (60) and extend along the axial direction of the dicing blade cylinder (60), wherein each strip-shaped blade (64) and each annular blade (63) are staggered, so that a grid-shaped structure with dicing meshes (600) is formed as a whole.

3. The dicing mechanism for fruit and vegetable dicer according to claim 2, wherein: the outer side of each annular blade (63) is provided with a first clamping groove (631) which is sequentially opened along the circumferential direction, the inner side of each strip-shaped blade (64) is provided with a second clamping groove (641) which is sequentially opened along the length direction, each strip-shaped blade (64) is embedded in the first clamping groove (631) of each annular blade (63) which is positioned on the same straight line direction, and each annular blade (63) is correspondingly clamped into each second clamping groove (641) on the strip-shaped blade (64).

4. The dicing mechanism for a fruit and vegetable dicing machine according to claim 1, wherein: the outer peripheral wall of the extrusion roller (65) is a smooth wall surface; or alternatively

The outer peripheral wall of the squeeze roller (65) is provided with protrusions (650) protruding in the radial direction and correspondingly engaged with the dicing mesh holes (600) of the dicing blade cylinder (60).

5. The dicing mechanism for a fruit and vegetable dicing machine according to claim 1, wherein: the dicing blade cylinder (60) and the squeeze roller (65) rotate in opposite directions, and an upper region between the two forms a storage region (66) for storing the sheet-shaped food materials.

6. The dicing mechanism for a fruit and vegetable dicing machine according to any one of claims 1 to 5, characterized in that: the axis of the dicing cutter barrel (60) is obliquely arranged relative to the horizontal plane, and the bottom end of the dicing cutter barrel (60) is provided with an opening which is used as a first discharging hole (62) for the outflow of the diced food materials in the cutter barrel.

7. The utility model provides a fruit vegetables dicer, includes organism (10), its characterized in that: the machine body is also provided with a dicing mechanism for the fruit and vegetable dicing machine according to any one of claims 1 to 6.

8. The fruit and vegetable dicer as defined in claim 7, wherein: the dicing machine is characterized in that a dicing cavity (11) for placing the dicing cutter barrel (60) and the extrusion roller (65) is defined on the machine body (10), the lower end of the dicing cutter barrel (60) is suspended in the air, and the upper end of the dicing cutter barrel is rotatably connected to the wall of the dicing cavity (11).

9. The fruit and vegetable dicer as defined in claim 8, wherein: the machine body is also provided with a driving mechanism for driving the dicing cutter barrel and/or the squeeze roller to act.

10. The fruit and vegetable dicer as defined in claim 9, wherein: the driving mechanism comprises a driving motor (21) and a first gear transmission assembly (22), the first gear transmission assembly (22) is in transmission connection with an output shaft of the driving motor (21), the upper end of the dicing cutter barrel (60) is in transmission connection with the first gear transmission assembly (22), and the squeeze roller (65) is also in transmission connection with the first gear transmission assembly (22).

11. The fruit and vegetable dicer as defined in claim 10, wherein: the utility model discloses a dicing machine for the food, including machine body (10) including gear cavity (12) of first gear drive subassembly (22), gear cavity (12) with dicing cavity (11) are separated through baffle (13), baffle (13) include mounting panel (131) of relative vertical face slope arrangement, the upper end of dicing cutter section of thick bamboo (60) has first connecting axle (61) along axial extension, first connecting axle (61) pass mounting panel (131) stretch into in gear cavity (12) with first gear drive subassembly (22) link to each other, the upper end of squeeze roll (65) has second connecting axle (651) along axial extension, second connecting axle (651) pass mounting panel (131) stretch into in gear cavity (12) also with first gear drive subassembly (22) link to each other.

12. The fruit and vegetable dicer of claim 11, wherein the first gear assembly (22) comprises:

a first gear (221) provided on the output shaft of the drive motor (21) and rotatable with the output shaft of the drive motor (21);

a second gear (222) rotatably supported by the body (10) and engaged with the first gear (221);

a third gear (223) coaxially rotated by being connected to the first gear (221) via a first transmission shaft (231);

a fourth gear (224) connected to the second gear (222) via a second transmission shaft (232) to coaxially rotate;

a fifth gear (225) coaxially connected to the first connecting shaft (61) and meshed with the third gear (223) so as to drive the dicing cylinder (60) to rotate;

and a sixth gear (226) coaxially connected to the second connecting shaft (651) and meshed with the fourth gear (224), thereby driving the squeeze roller (65) to rotate.

13. The fruit and vegetable dicer as defined in claim 7, wherein: a slicing unit for slicing food materials is also arranged in the machine body (10).

14. The fruit and vegetable dicer as defined in claim 13, wherein: the slicing unit is located above the dicing cavity (11), a dicing inlet (110) for feeding the sheet food materials into the dicing cavity (11) is formed in the top of the dicing cavity (11), and a material guide plate for guiding the sheet food materials downwards is further arranged at the dicing inlet (110) of the dicing cavity (11).

15. The fruit and vegetable dicer as defined in claim 14, wherein: the material guiding plates comprise a first material guiding plate (111) and a second material guiding plate (112) which are arranged at intervals relatively, and the distance between the first material guiding plate (111) and the second material guiding plate (112) is gradually reduced from top to bottom.

16. The fruit and vegetable dicer as defined in claim 15, wherein: the first material guiding plate (111) and the second material guiding plate (112) are arc-shaped plate structures protruding towards each other.

17. A fruit and vegetable dicer as claimed in any one of claims 13 to 16, wherein: the slicing device includes:

the slicing knife cylinder (30) is rotatably arranged on the machine body (10) in a mode of rotating around the axis of the slicing knife cylinder (30), a first sheet food inlet (300) which is internally and externally communicated and extends along the length direction of the slicing knife cylinder is formed in the peripheral wall of the slicing knife cylinder (30), a first slicing knife (31) is arranged at the sheet food inlet, and one end of the slicing knife cylinder (30) is opened to form a second discharge port (32) for the sheet food to flow out.

18. The fruit and vegetable dicer as defined in claim 17, wherein: the caliber of the second end of the slicing knife cylinder (30) is larger than that of the first end, so that the slicing knife cylinder is in a horn shape as a whole.

19. The fruit and vegetable dicer as defined in claim 18, wherein: the top of organism (10) has seted up feed inlet (100), still be equipped with on organism (10) from feed inlet (100) downwardly extending, and to the first guide runner (141) of the lateral part slope of section of thick bamboo (30).

20. The fruit and vegetable dicer as defined in claim 19, wherein: the axis of the slicing knife cylinder (30) extends horizontally or is obliquely arranged relative to the horizontal plane, the axial vertical plane passing through the slicing knife cylinder (30) is recorded as a first vertical plane (33), the slicing knife cylinder (30) in the rotating process is divided into a first area (331) rotating downwards and a second area (332) rotating upwards by the first vertical plane, and the outlet of the first material guiding flow channel (141) is opposite to the first area (331) of the slicing knife cylinder (30).

21. The fruit and vegetable dicer as defined in claim 17, wherein: the axis of the slicing knife cylinder (30) extends vertically.

22. The fruit and vegetable dicer according to any one of claims 13-16, characterized in that: the slicing device includes:

a slicing knife cylinder (30) rotatably arranged on the machine body (10) in a manner of rotating around the axis of the slicing knife cylinder, wherein a first sheet-shaped food inlet (300) which is internally and externally communicated and extends along the length direction of the slicing knife cylinder (30) is arranged on the wall of the slicing knife cylinder (30), and a first slicing knife (31) is arranged at the first sheet-shaped food inlet (300);

The first end of the slicing knife cylinder (30) is rotatably connected to the machine body (10) and is in transmission connection with the first gear transmission assembly (22) through the second gear transmission assembly, and a second discharge hole (32) for the flaky food to flow out is formed by the second end opening of the slicing knife cylinder (30).

23. The fruit and vegetable dicer according to any one of claims 13-16, characterized in that: the slicing device includes:

the slicing knife disc (50) is rotatably arranged on the machine body (10) in a mode of rotating around the axis of the slicing knife disc (50), two side walls of the slicing knife disc (50) are respectively a feeding side (501) and a discharging side (502), at least one second sheet-shaped food inlet (52) which penetrates from the feeding side (501) to the discharging side (502) and radially extends along the feeding side (502) is formed in the slicing knife disc (50), and a second slicing knife (53) is arranged at the second sheet-shaped food inlet (52).

24. The fruit and vegetable dicer as defined in claim 23, wherein: the slicing cutter head (50) is rotatably connected to the machine body (10) through a third transmission shaft (51) and is in transmission connection with the first gear transmission assembly (22) through a third gear transmission assembly.

25. The fruit and vegetable dicer as defined in claim 23, wherein: the axis of the slicing cutter head (50) extends horizontally, and the slicing unit further comprises a second material guiding hopper (56) which is positioned below the slicing cutter head (50) and used for containing the flaky food materials cut by the slicing cutter head (50).

26. The fruit and vegetable dicer as defined in claim 23, wherein: the top of organism (10) has seted up feed inlet (100), still be equipped with on organism (10) follow feed inlet (100) downwardly extending, and to second guide runner (142) of the feed side (501) slope of section blade disc (50).

27. The fruit and vegetable dicer according to any one of claims 13-16, characterized in that: the slicing device includes:

a slicing hopper (40) for placing food materials to be sliced;

the slicing knife rest (41) is arranged at the bottom of the slicing hopper (40) and can slide on the machine body (10) in a reciprocating manner along a straight line, a third sheet-shaped food material inlet (42) with the extending direction basically vertical to the moving direction of the slicing knife rest (41) is formed in the slicing knife rest (41), and a third slicing knife (43) for slicing food materials in the moving process along with the slicing knife rest (41) is arranged at the third sheet-shaped food material inlet (42).

28. The fruit and vegetable dicer as defined in claim 27, wherein: the slicing knife rest (41) is of a plate-shaped structure extending horizontally as a whole, a dicing cavity (11) for placing the dicing knife cylinder (60) and the squeeze roller (65) is defined on the machine body (10), a dicing inlet (110) for enabling sliced food materials to enter into the dicing cavity is formed in the top of the dicing cavity (11), and the slicing knife rest (41) is arranged at the top of the dicing cavity (11) in a sliding mode along the horizontal direction.

29. The fruit and vegetable dicer as defined in claim 28, wherein: still include driving motor (21), first gear drive subassembly (22) and be used for driving slider-crank motion (44) of section knife rest (41) reciprocating motion, first gear drive subassembly (22) with the output shaft transmission of driving motor (21) is connected, dicing cutter section of thick bamboo (60) with first gear drive subassembly (22) transmission is connected and can rotate around self axis, squeeze roll (65) also with first gear drive subassembly (22) transmission is connected and can rotate around self axis, the power take off end of slider-crank motion (44) with first gear drive subassembly (22) transmission links to each other.

30. The fruit and vegetable dicer as defined in claim 29, wherein: the crank block movement mechanism (44) includes:

a seventh gear (441) rotatably disposed on the machine body (10) and in transmission connection with the first gear transmission assembly (22);

a connecting rod (442), wherein a first end of the connecting rod (442) is rotatably connected to a region of the wall of the seventh gear (441) deviating from the axial position of the seventh gear (441), and a second end is rotatably connected to the slicing blade holder (41).

31. The fruit and vegetable dicer according to any one of claims 13-16, characterized in that: the kitchen machine is characterized in that the kitchen machine body (10) is further provided with a vegetable receiving area (15) positioned below the dicing unit, a vegetable receiving box (151) is placed in the vegetable receiving area (15), a first opening (152) is formed in the side portion of the kitchen machine body (10) at a position corresponding to the vegetable receiving area (15), and the vegetable receiving box (151) can pass through the first opening (152) in and out of the vegetable receiving area (15) in a pushing and pulling mode relative to the kitchen machine body (10).