CN216992135U - Flywheel connecting rod sliding rail pushing hand blade array rotating disk fruit and vegetable slicing device - Google Patents

Abstract

The utility model belongs to the field of fruit and vegetable deep processing and slicing, and particularly relates to a flywheel connecting rod sliding rail pushing hand blade array rotating disc fruit and vegetable slicing device. A flywheel connecting rod sliding rail pushing hand blade array rotating disk fruit and vegetable slicing device is characterized by comprising a chain gear speed reducing system, a speed reducing gear through shaft driving rotating disk fruit conveying system, a flywheel connecting rod sliding rail sliding block blade array slicing system and a cuboid frame, wherein the system is installed in the cuboid frame; the fruit and vegetable slicing machine has the beneficial effects that fruits and vegetables are manually placed at the positions of the long cubic framework front rotary disc along the marked fruit and vegetable positions, the rotary disc rotates, and the sliding block pushing hand pushes once every 45-degree angle to complete slicing; 108 slices are cut per minute, the thickness of the slices is 5-13 mm, and the thickness is adjustable; the slicing speed reaches 3000 pieces/hour; the thickness of the equidistant blade stretching clamp can be adjusted according to the size of the fruits and vegetables, or the blades can be replaced conveniently and quickly.

Description

Flywheel connecting rod sliding rail pushing hand blade array rotating disk fruit and vegetable slicing device

Technical Field

The utility model belongs to the field of fruit and vegetable deep processing and slicing, and particularly relates to a flywheel connecting rod sliding rail pushing hand blade array rotating disc fruit and vegetable slicing device.

Background

Market research finds that deeply processed products of fruits and vegetables, such as dried kiwi fruit and vegetable slices and dried apple fruits, are well pursued by the consumer market. The dried fruit and vegetable slices have the advantages of good taste, high price, storage resistance and the like. The deep processing of the fruits and vegetables with high added value can avoid the lost sales of fresh fruits and vegetables and drive farmers to become rich together. Further investigation finds that the conventional deep processing and slicing of fruits and vegetables still stays in the most original manual peeling and manual sheet wiping stages. Wherein, the manual wiping sheet has uneven thickness, slow speed, low qualification rate and high labor intensity, and has the danger of cutting fingers. The inventor carefully observes the process of manual slicing, and can be divided into a manual fruit feeding process and a fruit pushing-in blade array process in detail. The utility model uses a robot to simulate manual operation, replaces a manual fruit feeding process with a rotating disk, replaces a fruit pushing and blade array slicing process with a flywheel connecting rod sliding rail sliding block pushing blade array slicing system, and uses a chain gear speed reduction system to work in a matching way.

Disclosure of Invention

Aiming at the problems of low speed, low percent of pass, high labor intensity and danger of cutting fingers of manual wiping, the flywheel connecting rod sliding rail pushing hand blade array rotating disc fruit and vegetable slicing device is developed.

The technical scheme of the utility model is as follows: a flywheel connecting rod sliding rail pushing hand blade array rotating disk fruit and vegetable slicing device is characterized by comprising a chain gear reduction system, a reduction gear through shaft driving rotating spiral fruit conveying system, a flywheel connecting rod sliding rail sliding block blade array slicing system and a long cubic frame, wherein the chain gear reduction system, the reduction gear through shaft driving rotating spiral fruit conveying system and the flywheel connecting rod sliding rail sliding block moving slicing system are arranged in the long cubic frame; the length, the width and the height of the cuboid frame are respectively purlin, beam and upright; as shown in fig. 1, the left long side and the right long side of the frame are purlins with equal length, the front short side and the rear short side are beams with equal length, the four corners are upright posts with equal height, and the purlins, the beams and the upright posts are mutually vertical; the long cubic frame is divided into an upper layer structure, a middle layer structure and a lower layer structure, the short edges of the upper layer of the long cubic frame are provided with left and right boundary beams (42), the long edges are provided with front and rear through purlins (43), and the left and right boundary beams (42) and the front and rear through purlins (43) are welded between the left and right upright rods (41); a slicing motor speed reduction platform (10) is arranged on the right side of the upper layer of the cuboid frame; the slicing motor speed reducing platform (10) is made of steel plates, the front width and the rear width of the slicing motor speed reducing platform (10) are equal to the front length and the rear length of the cuboid frame, the left length and the right length of the slicing motor speed reducing platform (10) are 2/3 of the left length and the right length of the cuboid frame, the slicing motor speed reducing platform (10) is aligned with the outer edge of the cuboid frame, and the outer edge of the slicing motor speed reducing platform is welded with the front purlin, the rear purlin and the right side edge beam;

as shown in fig. 1, a slicing motor (11) is vertically arranged on the slicing motor reduction platform (10) close to the length of a right side beam 1/4 purlin and the length of a front purlin 1/3 beam, and fixing screws (13) at four corners of the slicing motor (11) are connected with the slicing motor reduction platform (10); a through hole vertically penetrating through the slicing motor speed reduction platform is arranged right below the slicing motor main shaft, a bearing is arranged in the through hole, and the bearing is matched with a flywheel through shaft (16); the slicing motor main shaft is mechanically connected with a flywheel through shaft (16) through a coupling (12); the slicing motor is electrically connected with the frequency converter; a driving gear (14) is arranged at the upper end of a flywheel through shaft (16) on a slicing motor platform, a flywheel (17) is arranged at the lower end of the flywheel through shaft (16) under the slicing motor platform, a slicing motor (11), the driving gear (14) and the flywheel (17) coaxially rotate, the flywheel rotates along with the lower surface of a slicing motor deceleration platform (10), and the plane of the flywheel is parallel to the plane of the slicing motor deceleration platform (10);

as shown in fig. 1, the middle layer and the lower layer of the cuboid framework are in a herringbone structure without waist double points; the upper and lower horizontal purlins of the Y-shaped structure are front and rear purlins (44) of a middle layer or a lower layer, two ends of the front and rear purlins are vertically welded with left and right vertical rods (41), two vertical ends of the Y-shaped structure are double beams (45) welded between the front and rear purlins, the double beams (45) are integrally welded between the front and rear purlins, the double beams (45) are vertical to the front and rear purlins, and the central line between the double beams (45) is superposed with the central lines of the front and rear purlins; welding a left side beam on the left side of the middle layer of the cuboid framework; a square steel plate (46) is welded between the middle-layer double-cross beams and the lower-layer double-cross beams at the position 1/3 which is close to the front and corresponds to the beam length, and the width of the square steel plate (46) is equal to the distance between the double beams; an upper through hole and a lower through hole are arranged in the center of the square steel plate (46) between the middle layer of the herringbone double beams (45) and the lower layer of the herringbone double beams; the upper through hole and the lower through hole are arranged on a vertical line at the intersection point of the central line of the front purlin and the rear purlin and the 1/3 line close to the corresponding beam length of the front purlin; bearings are arranged in the upper through hole and the lower through hole, the bearing in the middle layer of the long cubic frame is a rotating disc upper bearing, the bearing in the lower layer of the long cubic frame is a rotating disc lower bearing (47), the rotating disc upper bearing and the rotating disc lower bearing are arranged on a vertical line, and the rotating disc through shaft (22) is matched with the rotating disc upper bearing and the rotating disc lower bearing (47); the rotating disc through shaft (22) is vertical, the rotating disc (21) is installed on the rotating disc through shaft, and the disc surface of the rotating disc (21) is horizontal; the diameter of the rotating disc is smaller than the length of the front and rear through purlins, and the rotating disc (21) horizontally rotates in the middle layer of the rectangular frame; the rotating disc (21) extends forwards from the middle layer of the cuboid frame to form an arc disc surface with a radius of 1/4; a rotary disc core gear (34) is fixedly arranged on the rotary disc at the upper end of the rotary disc through shaft (22), and the rotary disc core gear (34) and the rotary disc (21) rotate coaxially; arranging fruit and vegetable placing marks (23) on the edge of the rotating disc at intervals of 45-degree central angles by taking the position right below the slide rail as a starting point;

as shown in fig. 2, a reversing gear fixed shaft is arranged on the slicing motor platform by taking a slicing motor shaft as a starting point, is parallel to a right side edge beam and is close to the rear 1/3 beam length position, and a reversing gear (18) is arranged on the reversing gear fixed shaft; through holes are arranged on the slicing motor platform up and down corresponding to the center line of the through purlin and the center line of the beam, a bearing is installed in the through holes, and a reduction gear through shaft (20) is matched with the bearing; a driven gear (19) is fixedly arranged at the upper end of a through shaft (20) of a reduction gear on the slicing motor platform, a driving gear (25) is fixed at the lower end of the through shaft (20) of the reduction gear under the slicing motor platform, and the reduction gear on the slicing motor platform is driven to rotate coaxially with the driving gear (25) under the slicing motor platform; a chain (15) is mechanically connected with a driving gear (14), a reversing gear (18) and a driven gear (19) on the slicing motor platform, and the gear ratio of the driving gear (14) to the driven gear (19) is 1 to 2;

as shown in fig. 2, the slide rail (30) of the left and right side beams is welded and connected to the upper layer of the cuboid framework close to the front purlin 1/3 beam length position, the slide rail is attached to the lower surface of the slicing motor reduction platform (10), the slide rail (30) is parallel to the front and rear through purlins, grooves (31) are arranged on two sides of the slide rail (30), and pulleys (32) on two sides of a sliding block (33) are matched with the grooves (31) on two sides of the slide rail (30); a convex shaft at the tail end of the sliding block (33) is connected with the connecting rod (35), the other end of the sliding block (33) is connected with a push handle (36), the push handle (36) is a cuboid block, the lower surface of the push handle (36) is parallel to the plane of the rotating disc, and the lower surface of the push handle (36) is 5 mm higher than the plane of the rotating disc; the sliding block (33) and the push handle (36) move left and right along the sliding rail (30), and the maximum moving distance of the push handle (36) just reaches the edge of the rotating disc (21);

as shown in fig. 1, a flywheel (17) and a slicing motor (11) are coaxial and have the same speed under a slicing motor speed reduction platform, a flywheel convex shaft (38) is arranged below the flywheel (17) and close to the outer end of the flywheel, the flywheel convex shaft (38) is mechanically connected with a mother shaft at one end of a connecting rod (35), the mother shaft at the other end of the connecting rod is mechanically connected with a convex shaft under the tail end of a sliding block (33), pulleys (32) at two sides of the sliding block (33) are matched with grooves (31) at two sides of a sliding rail (30), and the flywheel (17) convex shaft, the connecting rod (35) and the sliding block (33) convex shaft are positioned in the same horizontal plane; the slicing motor (11) drives the flywheel (17) to rotate, the flywheel convex shaft (38) drives the sliding block (33) to reciprocate from right to left along the sliding rail (30) through the connecting rod (35), and the motion track is along the diameter direction of the rotating disc; the lower end of the sliding block is connected with a push handle (36), the push handle (36) reciprocates from right to left along the diameter of the rotating disk above the plane of the rotating disk, and the push handle (36) does not contact the plane of the rotating disk and moves to the rotating disk to return along the back original path;

a horizontal blade (39) array is arranged at the left side of the sliding rail and at the position of the sliding block pushing handle corresponding to the edge of the rotating disc vertically; the horizontal blade array (39) is formed by welding a plurality of parallel blades in the horizontal direction with left and right channel steel (37) on two sides of the horizontal blade array, and the left and right channel steel (37) are welded with left beams on the upper layer and the middle layer of the cuboid frame; the push handle (36) moves from right to left along the slide rail; the pushing hand (36) pushes the fruits and vegetables of the rotating disc to enter the blade array, and the pushing hand (36) is close to but not in contact with the blade bent at the left end of the sliding rail;

a driven gear (19) is fixedly arranged at the upper end of a through shaft (20) of a reduction gear on the slicing motor platform, and a driving gear (25) is fixedly arranged at the lower end of the through shaft (20) of the reduction gear under the slicing motor platform; the driven gear (19) and the driving gear (25) rotate coaxially, the driving gear (25) is mechanically connected with the rotating disc core gear (34), and the transmission ratio of the driving gear (25) to the rotating disc core gear (34) is 4 to 1; on the slicing motor speed reduction platform, the slicing motor drives the rotating disc to rotate through the driving gear, the driven gear, the speed reduction gear through shaft (20), the driving gear (25) and the rotating disc core gear (34).

The utility model discloses a flywheel connecting rod sliding rail pushing hand blade array rotating disc fruit and vegetable slicing device, which has the following working principle briefly: the automatic fruit and vegetable slicing device is functionally divided into a chain gear speed reducing system, a rotating disc fruit conveying system and a flywheel connecting rod sliding rail sliding block pushing hand blade array slicing system on a slicing motor platform. A slicing motor platform is arranged on the right side of the upper layer of the cuboid framework; a slicing motor and a chain gear reduction system are arranged on the slicing motor platform to provide power for a flywheel connecting rod sliding rail sliding block moving system and a rotating disc fruit conveying system; a flywheel connecting rod sliding rail sliding block moving system and a rotating disk fruit conveying system are arranged on the middle layer of the cuboid framework; the slicing motor drives a push handle of the flywheel through-shaft flywheel connecting rod sliding rail sliding block moving system to move along the diameter of the rotating disc through a coupler; under the slicing motor platform, the connecting rod and the sliding block are driven by the flywheel convex shaft to reciprocate left and right along the sliding rail, namely the rotating disk rotates for 1 circle, and the sliding block on the rotating disk is pushed for 8 times by a pushing hand. A driven gear (19) is fixedly arranged at the upper end of a through shaft (20) of a reduction gear on the slicing motor platform, and a driving gear (25) is fixedly arranged at the lower end of the through shaft (20) of the reduction gear under the slicing motor platform; the driven gear (19) and the driving gear (25) rotate coaxially, the driving gear (25) is mechanically connected with the rotating disc core gear (34), and the transmission ratio of the driving gear (25) to the rotating disc core gear (34) is 4 to 1; on the slicing motor speed reduction platform, the slicing motor drives the rotating disc to rotate through the driving gear, the driven gear, the speed reduction gear through shaft (20), the driving gear (25) and the rotating disc core gear (34). A slider pushing handle; the rotating disc rotates for one circle, and the flywheel connecting rod sliding rail sliding block moving system pushes for 8 times; the rotary disc is used for placing the fruits and vegetables at the positions where the fruits and vegetables are marked along the upper edge, and the fruits and vegetables are sequentially pushed into the blade arrays at the outer ends of the sliding rails by the pushing hands to be cut into slices. The middle layer and the lower layer of the cuboid frame are provided with bearings, so that the stability of the rotating disc is increased, and the rotating disc is supported to rotate stably. Under the slicing motor deceleration platform, the slicing motor drives the flywheel to rotate, and the flywheel convex shaft drives the connecting rod and the sliding block to reciprocate left and right along the sliding rail. The slicing working process comprises the following steps: manually placing fruits and vegetables at the positions of the long cubic frame front rotary disc along the marked fruits and vegetables, rotating the rotary disc, pushing the fruits and vegetables on the rotary disc into the blade array once by the slider pushing hand at an angle of 45 degrees, and finishing slicing; the sliced fruits and vegetables fall into a collecting pot along a fruit and vegetable slide way. In order to accurately place fruits and vegetables, circles for placing marks are printed on the edge of the rotating disc at intervals of 45 degrees by taking the corresponding position of the sliding block pushing handle as a starting point.

The fruit and vegetable slicing machine has the beneficial effects that fruits and vegetables are manually placed at positions of the front rotating disc of the rectangular cubic frame along the marked fruit and vegetable positions, the rotating disc rotates, the sliding block pushing hand pushes the fruits and vegetables once every 45-degree angle, and the fruits and vegetables on the rotating disc are pushed into the left horizontal blade array to complete slicing; the flywheel connecting rod sliding rail pushing hand rotates the disc fruit and vegetable slicing device to slice 108 pieces per minute, wherein the slicing thickness is 5-13 mm and is adjustable; the slicing speed reaches 3000 pieces/hour; the technical indexes are as follows: the blade material, special stainless steel is thin again sharp, can be according to the fruit vegetables size, the tensile anchor clamps thickness of equidistant blade of adjustment, or convenient and fast changes the blade.

Drawings

FIG. 1 is a front view structure of a flywheel connecting rod, slide rail, pushing hand, blade array and rotating disk fruit and vegetable slicing device.

FIG. 2 is a left side view of the flywheel link rod, slide rail, pushing hand, blade array, rotating disc, fruit and vegetable slicing apparatus.

In the figure: 10. the slicing motor comprises a speed reduction platform 11, a slicing motor 12, a coupler 13, motor four-corner fixing bolts 14, a driving gear 15, a chain 16, a flywheel through shaft 17, a flywheel 18, a reversing gear 19, a driven gear 20, a speed reduction gear through shaft 21, a rotating disc 22, a rotating disc through shaft 25, a driving gear 30, a sliding rail 31, grooves on two sides of the sliding rail 32, a sliding block pulley 33, a sliding block 34, a rotating disc core gear 35, a connecting rod 36, a pushing handle 37, a channel steel blade frame 38, a flywheel convex shaft 39, a horizontal blade 41, left and right vertical rods 42, upper left and right side beams 43, upper front and rear purlins 44, lower front and rear purlins 45, lower center double beams 46, blocks between the double beams 47 and a rotating disc lower bearing.

Detailed Description

The automatic slicer with a rotating disc for fruit and vegetable manufactured by HTB-QP2021 by a certain company is taken as an example and is described as follows with reference to FIG. 1 or FIG. 2: a fruit and vegetable automatic slicing device of a flywheel connecting rod sliding rail pushing hand blade array rotating disk fruit and vegetable slicing device is divided into a chain gear speed reducing system, a rotating disk fruit conveying system and a flywheel connecting rod sliding rail sliding block pushing hand blade array slicing system below a slicing motor platform according to functions. A slicing motor platform is arranged on the right side of the upper layer of the cuboid framework; a slicing motor and a chain gear reduction system are arranged on the slicing motor platform to provide power for a flywheel connecting rod sliding rail sliding block moving system and a rotating disc fruit conveying system; a flywheel connecting rod sliding rail sliding block moving system and a rotating disk fruit conveying system are arranged on the middle layer of the cuboid framework; the slicing motor drives a push handle of the flywheel through-shaft flywheel connecting rod sliding rail sliding block moving system to move along the diameter of the rotating disc through a coupler; a driven gear (19) is fixedly arranged at the upper end of a through shaft (20) of a reduction gear on the slicing motor platform, and a driving gear (25) is fixedly arranged at the lower end of the through shaft (20) of the reduction gear under the slicing motor platform; the driven gear (19) and the driving gear (25) rotate coaxially, the driving gear (25) is mechanically connected with the rotating disc core gear (34), and the transmission ratio of the driving gear (25) to the rotating disc core gear (34) is 4 to 1; on the slicing motor speed reduction platform, the slicing motor drives the rotating disc to rotate through the driving gear, the driven gear, the speed reduction gear through shaft (20), the driving gear (25) and the rotating disc core gear (34). The rotating disc is provided with fruit and vegetable placing marks along the upper edge at an angle of 45 degrees; the rotating disc rotates for one circle, and the flywheel connecting rod sliding rail sliding block moving system pushes for 8 times; the rotary disc is used for placing the fruits and vegetables at the positions where the fruits and vegetables are marked along the upper edge, and the fruits and vegetables are sequentially pushed into the blade arrays at the outer ends of the sliding rails by the pushing hands to be cut into slices. The middle layer and the lower layer of the cuboid frame are provided with bearings, so that the stability of the rotating disc is increased, and the rotating disc is supported to rotate stably. Under the slicing motor deceleration platform, the slicing motor drives the flywheel to rotate, and the flywheel convex shaft drives the connecting rod and the sliding block to reciprocate left and right along the sliding rail. Under the slicing motor platform, the connecting rod and the sliding block are driven by the flywheel convex shaft to reciprocate left and right along the sliding rail, namely the rotating disk rotates for 1 circle, and the sliding block on the rotating disk is pushed for 8 times by a push hand. The slicing working process comprises the following steps: manually placing fruits and vegetables at the positions of the long cubic frame front rotary disc along the marked fruits and vegetables, rotating the rotary disc, pushing the fruits and vegetables on the rotary disc into the blade array once by the slider pushing hand at an angle of 45 degrees, and finishing slicing; the sliced fruits and vegetables fall into a collecting pot along a fruit and vegetable slide way. In order to accurately place fruits and vegetables, circles for placing marks are printed on the edge of the rotating disc at intervals of 45 degrees.

The fruit and vegetable slicing machine has the beneficial effects that fruits and vegetables are manually placed at the positions, marked by the fruit and vegetable marking positions, of the front rotary disc of the long cubic frame, the rotary disc rotates, the sliding block pushing hand pushes the fruits and the vegetables once every 45-degree angle, and the fruits and the vegetables on the rotary disc are pushed into the left horizontal blade array to complete slicing; the flywheel connecting rod sliding rail pushing hand rotates the disc fruit and vegetable slicing device to slice 108 pieces per minute, wherein the slicing thickness is 5-13 mm and is adjustable; the slicing speed reaches 3000 pieces/hour; the technical indexes are as follows: the blade material, special stainless steel is thin again sharp, can be according to the fruit vegetables size, the tensile anchor clamps thickness of equidistant blade of adjustment, or convenient and fast changes the blade.

Claims (1)

1. A fruit and vegetable slicing device with a flywheel connecting rod sliding rail pushing hand blade array rotating disc is characterized by comprising a chain gear reduction system, a reduction gear through shaft driving rotating disc fruit conveying system, a flywheel connecting rod sliding rail sliding block blade array slicing system and a cuboid framework, wherein the chain gear reduction system, the reduction gear through shaft driving rotating disc fruit conveying system and the flywheel connecting rod sliding rail sliding block moving slicing system are arranged in the cuboid framework; the length, the width and the height of the cuboid frame are respectively purlin, beam and upright; the left long edge and the right long edge of the frame are purlins with equal length, the front short edge and the rear short edge are beams with equal length, the four corners are upright posts with equal height, and the purlins, the beams and the upright posts are mutually vertical; the long cubic frame is divided into an upper layer structure, a middle layer structure and a lower layer structure, the short edges of the upper layer of the long cubic frame are provided with left and right boundary beams (42), the long edges are provided with front and rear through purlins (43), and the left and right boundary beams (42) and the front and rear through purlins (43) are welded between the left and right upright rods (41); a slicing motor speed reduction platform (10) is arranged on the right side of the upper layer of the cuboid frame; the slicing motor speed reducing platform is made of steel plates, the front width and the rear width of the slicing motor speed reducing platform (10) are equal to the front length and the rear length of the long cubic frame, the left length and the right length of the slicing motor speed reducing platform (10) are 2/3 of the left length and the right length of the long cubic frame, the slicing motor speed reducing platform (10) is aligned to the outer edge of the long cubic frame, and the outer edge of the slicing motor speed reducing platform is welded with the front purlin, the rear purlin and the right side edge beam; a slicing motor (11) is vertically arranged at a position, close to the length of a right side beam 1/4 purlin and the length of a front purlin 1/3 beam, on a slicing motor reduction platform (10), and fixing screws (13) at four corners of the slicing motor (11) are connected with the slicing motor reduction platform (10); a through hole vertically penetrating through the slicing motor speed reduction platform is formed right below the slicing motor main shaft, a bearing is installed in the through hole, and the bearing is matched with a flywheel through shaft (16); the slicing motor main shaft is mechanically connected with a flywheel through shaft (16) through a coupling (12); the slicing motor is electrically connected with the frequency converter; a driving gear (14) is arranged at the upper end of a flywheel through shaft (16) on a slicing motor speed reduction platform, a flywheel (17) is arranged at the lower end of the flywheel through shaft (16) under the slicing motor speed reduction platform, a slicing motor (11), the driving gear (14) and the flywheel (17) coaxially rotate, the flywheel rotates along with the lower surface of the slicing motor speed reduction platform (10), and the plane of the flywheel is parallel to the plane of the slicing motor speed reduction platform (10); the middle layer and the lower layer of the long cubic frame are of an herringbone structure without a waist double point; the upper and lower horizontal purlins of the Y-shaped structure are front and rear purlins (44) of a middle layer or a lower layer, two ends of the front and rear purlins are vertically welded with left and right vertical rods (41), two vertical ends of the Y-shaped structure are double beams (45) welded between the front and rear purlins, the double beams (45) are integrally welded between the front and rear purlins, the double beams (45) are vertical to the front and rear purlins, and the central line between the double beams (45) is superposed with the central lines of the front and rear purlins; welding a left side beam on the left side of the middle layer of the cuboid framework; a square steel plate (46) is welded between the middle-layer double-cross beams and the lower-layer double-cross beams at the position 1/3 which is close to the front and corresponds to the beam length, and the width of the square steel plate (46) is equal to the distance between the double beams; an upper through hole and a lower through hole are arranged in the center of the square steel plate (46) between the middle layer of the herringbone double beams (45) and the lower layer of the herringbone double beams; the upper through hole and the lower through hole are arranged on a vertical line at the intersection point of the center line of the front purlin and the center line of the rear purlin and the line 1/3 close to the corresponding beam length of the front purlin; bearings are arranged in the upper through hole and the lower through hole, the bearing in the middle layer of the long cubic frame is a rotating disc upper bearing, the bearing in the lower layer of the long cubic frame is a rotating disc lower bearing (47), the rotating disc upper bearing and the rotating disc lower bearing are arranged on a vertical line, and the rotating disc through shaft (22) is matched with the rotating disc upper bearing and the rotating disc lower bearing (47); the rotating disc through shaft (22) is vertical, the rotating disc (21) is installed on the rotating disc through shaft, and the disc surface of the rotating disc (21) is horizontal; the diameter of the rotating disc is smaller than the length of the front and rear through purlins, and the rotating disc (21) horizontally rotates in the middle layer of the rectangular frame; the rotating disc (21) extends forwards from the middle layer of the cuboid frame to form an arc disc surface with a radius of 1/4; a rotary disc core gear (34) is fixedly arranged on the rotary disc at the upper end of the rotary disc through shaft (22), and the rotary disc core gear (34) and the rotary disc (21) rotate coaxially; arranging fruit and vegetable placing marks (23) on the edge of the rotating disc at intervals of 45-degree central angles by taking the position right below the slide rail as a starting point; a reversing gear fixed shaft is arranged on the slicing motor speed reduction platform in a position which takes a slicing motor shaft as a starting point, is parallel to the right side edge beam and is close to the rear 1/3 beam length, and a reversing gear (18) is arranged on the reversing gear fixed shaft; through holes are arranged on the slicing motor speed reduction platform up and down corresponding to the center line of the through purlin and the center line of the beam, a bearing is installed in the through holes, and a speed reduction gear through shaft (20) is matched with the bearing; a driven gear (19) is fixedly mounted at the upper end of a through shaft (20) of a reduction gear on the slicing motor reduction platform, a driving gear (25) is fixed at the lower end of the through shaft (20) of the reduction gear under the slicing motor reduction platform, and the driven gear (19) on the slicing motor reduction platform and the driving gear (25) under the slicing motor reduction platform rotate coaxially; a chain (15) is mechanically connected with a driving gear (14), a reversing gear (18) and a driven gear (19) on the slicing motor speed reduction platform to form a chain gear speed reduction system, and the gear ratio of the driving gear (14) to the driven gear (19) is 1 to 2; flywheel connecting rod slide rail slider blade battle array section system: the sliding rail (30) of the left side beam and the right side beam is welded and connected to the upper layer of the cuboid framework close to the front purlin 1/3 beam length position, the sliding rail is attached to the lower surface of the slicing motor speed reduction platform (10), the sliding rail (30) is parallel to the front and back through purlins, grooves (31) are formed in two sides of the sliding rail (30), and pulleys (32) on two sides of a sliding block (33) are matched with the grooves (31) in two sides of the sliding rail (30); a convex shaft at the tail end of the sliding block (33) is connected with the connecting rod (35), the other end of the sliding block (33) is connected with a push handle (36), the push handle (36) is a cuboid block, the lower surface of the push handle (36) is parallel to the plane of the rotating disc, and the lower surface of the push handle (36) is 5 mm higher than the plane of the rotating disc; the sliding block (33) and the push handle (36) move left and right along the sliding rail (30), and the maximum moving distance of the push handle (36) just reaches the edge of the rotating disc (21); a flywheel (17) and a slicing motor (11) are coaxial and at the same speed under a slicing motor speed reduction platform, a flywheel protruding shaft (38) is arranged below the flywheel (17) and close to the outer end of the flywheel, the flywheel protruding shaft (38) is mechanically connected with a female shaft at one end of a connecting rod (35), the female shaft at the other end of the connecting rod is mechanically connected with a protruding shaft below the tail end of a sliding block (33), pulleys (32) on two sides of the sliding block (33) are matched with grooves (31) on two sides of a sliding rail (30), and the flywheel (17) protruding shaft, the connecting rod (35) and the sliding block (33) protruding shaft are in the same horizontal plane; the slicing motor (11) drives the flywheel (17) to rotate, the flywheel convex shaft (38) drives the sliding block (33) to reciprocate from right to left along the sliding rail (30) through the connecting rod (35), and the motion track is along the diameter direction of the rotating disc; the lower end of the sliding block is connected with a push handle (36), the push handle (36) reciprocates from right to left along the diameter of the rotating disk above the plane of the rotating disk, and the push handle (36) does not contact the plane of the rotating disk and moves to the rotating disk to return along the back original path; a horizontal blade (39) array is arranged at the left side of the sliding rail and at the position of the sliding block pushing handle corresponding to the edge of the rotating disc vertically; the horizontal blade array (39) is formed by welding a plurality of parallel blades in the horizontal direction with left and right channel steel (37) on two sides of the horizontal blade array, and the left and right channel steel (37) are welded with left beams on the upper layer and the middle layer of the cuboid frame; the push handle (36) moves from right to left along the slide rail; the pushing hand (36) pushes the fruits and vegetables of the rotating disc to enter the blade array, and the pushing hand (36) is close to but not in contact with the blade bent frame at the left end of the sliding rail; the reduction gear through shaft drives the rotary disk to rotate to transfer the fruit system: a driven gear (19) is fixedly arranged at the upper end of a through shaft (20) of a reduction gear on the slicing motor reduction platform, and a driving gear (25) is fixedly arranged at the lower end of the through shaft (20) of the reduction gear under the slicing motor reduction platform; the driven gear (19) and the driving gear (25) rotate coaxially, the driving gear (25) is mechanically connected with the rotating disc core gear (34), and the transmission ratio of the driving gear (25) to the rotating disc core gear (34) is 4 to 1; on the slicing motor deceleration platform, the slicing motor drives the rotating disc to rotate through the driving gear (14), the driven gear (19), the deceleration gear through shaft (20), the driving gear (25) and the rotating disc hub gear (34).

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