Cereal food production equipment with popping candy and production process thereof
By employing vibration mixing and a multi-stage crushing structure, the problems of uneven mixing and material blockage in the production of popping candy cereal products have been solved, achieving efficient anti-blocking and uniform mixing, thereby improving production efficiency and product quality consistency.
Patent Information
- Application Number
- CN202511984490.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-12-26
- Publication Date
- 2026-03-20
AI Technical Summary
Existing technologies for producing cereal foods with popping candy suffer from problems such as uneven mixing and material blockage by auxiliary materials, resulting in low production efficiency. Furthermore, traditional processes are cumbersome and difficult to achieve continuous automated production.
Employing a vibration mixing and multiple crushing structure, the material feed shaft is linked to the opening and closing structure, and the auxiliary components in the crushing structure and mixing chamber are designed to ensure that the auxiliary materials fall in proportion and are mixed evenly, thus preventing blockage.
It achieves efficient anti-clogging and uniform mixing, improves production efficiency, avoids the cumbersome steps of separate processing, and improves product quality consistency.
Smart Images
Figure CN121695753A_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The present application relates to the technical field of food processing equipment, and in particular to a cereal food production device with popping candy and a production process thereof. BACKGROUND
[0002] In the prior art, the production of cereal food with popping candy often faces the problems of uneven mixing and low efficiency. The auxiliary materials such as popping candy are prone to moisture absorption and caking, which can easily block the inlet of the equipment during the feeding process, resulting in a mismatch of the proportion of auxiliary materials and main materials, affecting the consistency of product taste. The traditional production process requires separate processing and mixing of main materials and auxiliary materials, which is complicated and inefficient. Moreover, the mixing equipment lacks effective anti-blocking and vibration mixing mechanisms, making it difficult to break up the caked auxiliary materials, further reducing production efficiency. Therefore, there is an urgent need for a solution that can achieve continuous and automated production, effectively prevent blockage, and improve mixing uniformity. SUMMARY
[0003] The present application provides a cereal food production device with popping candy and a production process thereof, which solves the technical problems of uneven mixing and auxiliary material blockage in the prior art. The vibration mixing and multiple crushing structure achieve the technical effects of efficient anti-blocking and uniform mixing.
[0004] The present application provides a cereal food production device with popping candy and a production process thereof, which includes a vertical housing, and a slanted housing symmetrically connected to the side end of the vertical housing. A vibration screen is arranged between the slanted housings. A fixed seat is fixed to the side end of the vertical housing, and a motor one is installed on the fixed seat. A crushing box is fixed between the upper parts of the vertical housing. A mixing box is fixed to the outer cross section of the crushing box. An auxiliary material inlet shell and a main material inlet shell are respectively fixed to the upper surface of the mixing box. A crushing structure is installed in the auxiliary material inlet shell. The crushing structure is driven by a driving assembly outside the auxiliary material inlet shell to stir the large caked auxiliary materials in the auxiliary material inlet shell, making the caked materials dispersed and facilitating subsequent uniform mixing with the main materials. An opening and closing structure is installed on the side end of the mixing box, close to the auxiliary material inlet shell.
[0005] A material guiding shaft is rotatably connected in the mixing box. The material guiding shaft is composed of a spiral shaft one, a worm shaft, and a spiral shaft two. A belt pulley is arranged on the output end of the motor one. One end of the material guiding shaft extends out of the mixing box, and the motor one drives the material guiding shaft to rotate through the belt.
[0006] The other end of the material leading shaft extends out of the mixing box and is provided with a belt pulley; the opening and closing structure comprises a connecting plate, a linkage shaft and a linkage disc; the connecting plate is fixed to the other side end of the mixing box; the side end of the connecting plate is rotationally connected with the linkage shaft, and the linkage disc is fixed to the end of the linkage shaft in the direction of the motor two; the collision shaft is fixed to the linkage disc; the material blocking door is arranged in the auxiliary material inlet shell, and the bottom of the material blocking door is fixed with a protruding plate; one side of the protruding plate is fixed with a plurality of convex balls; the material leading shaft drives the linkage shaft to rotate through the belt, so that the collision shaft contacts the protruding plate and the convex balls to drive the material blocking door to slide and vibrate, so that the auxiliary material can be mixed with the main material in a certain proportion, and the vibration of the auxiliary material caused by the protruding balls driven by the material blocking door reduces the occurrence of blockage.
[0007] The stirring structure comprises a rotating disc one and a stirring stick one, and the driving assembly comprises a hollow sleeve, a vertical block one and a motor three; the hollow sleeve is rotationally connected to the side end of the auxiliary material inlet shell, and the rotating disc one is fixed to one end of the hollow sleeve and located in the cross section of the auxiliary material inlet shell; a plurality of stirring stick ones are circumferentially fixed to the inner surface of the auxiliary material inlet shell; the vertical block one is fixed to the upper surface of the mixing box, the motor three is installed on the vertical block one, and the output end of the motor three is provided with a belt pulley; the motor three drives the hollow sleeve to rotate through the belt, thereby driving the rotating disc one and the stirring stick one to rotate and stir in the auxiliary material inlet shell to stir the large clumps of auxiliary material, preventing the blockage of large clumps of auxiliary material at the material blocking door.
[0008] The guiding strips are symmetrically fixed to the inner side walls of the two openings of the mixing box close to the auxiliary material inlet shell, and the sliding grooves matched with the guiding strips are formed on the two sides of the material blocking door; the material blocking door is slidingly connected with the mixing box through the cooperation of the sliding grooves and the guiding strips; the guiding sleeve is fixed to the side end of the front surface of the mixing box, the guiding block is fixed to one end of the material blocking door, and the material blocking door is slidingly connected in the guiding sleeve through the guiding block; the spring member is fixed to the guiding sleeve, and the other end of the spring member is fixed to one end of the guiding block.
[0009] The discharge inclined plate is fixed between the inclined shells and abuts against the discharge port of the tamping box; the discharge shaft is rotationally connected between the inner side walls of the discharge inclined plate; a plurality of pushing sticks are installed on the outer cross section of the discharge shaft; the motor two for driving the discharge shaft is installed on the side end of the inclined shell; the recovery inclined plate is fixed to one end of the inclined shell and away from the tamping box; a plurality of screen holes are formed in the vibrating screen.
[0010] The inner middle part of the mixing box is provided with a mixing cavity, and a mixing main shaft is symmetrically and rotatably connected to the upper end of the middle part of the mixing cavity; a worm wheel is fixedly connected to the outer section of the mixing main shaft corresponding to the worm shaft; an elliptical block is fixedly connected to the bottom of the mixing cavity, and a sliding cavity is formed in the elliptical block; a mixing auxiliary shaft is fixedly connected to the bottom of the mixing main shaft, and an auxiliary part is fixedly connected to the bottom of the mixing auxiliary shaft; the middle part of the auxiliary part is concave on both sides, and the other two sides are elliptical hemispheres; the elliptical hemispheres enable the sliding shaft to slide along the curved surface and extrude and collide with the collision plate; the collision plate is extruded to drive the convex shaft to move in the direction of the spring one and extrude the spring one; when the sliding shaft slides to the concave part of the auxiliary part, the spring one returns to the original position; under the rotation of the auxiliary part, the collision plate reciprocates, that is, vibrates, so as to collide with the falling main material and auxiliary material, move the main material and auxiliary material to the middle part of the mixing cavity and mix the main material and auxiliary material, and improve the mixing degree of the auxiliary material and the main material.
[0011] The mixing box is provided with two equidistant material shaking grooves symmetrically formed in the two side walls of the mixing cavity, and a spring one is fixedly connected in the material shaking groove; the mixing box further comprises a collision plate and a sliding shaft; one end of the collision plate is a bevel, and the other end is a flat structure; a sliding shaft is symmetrically and fixedly connected to one end of the collision plate, and the other end of the sliding shaft is slidably connected in the sliding cavity; a convex shaft is symmetrically and fixedly connected to the other end of the collision plate, and the other end of the convex shaft is fixedly connected to the spring one.
[0012] Further, a second vertical block is fixedly connected to the upper surface of the mixing box, a fourth motor is installed on the second vertical block, and a belt pulley is arranged at the output end of the fourth motor; a second rotating disc is symmetrically and rotatably connected to the inner wall of the auxiliary material inlet shell, and a plurality of stirring rods are fixedly connected to the second rotating disc in the axial direction; a stirring rod cavity is rotatably connected to the outer side of the auxiliary material inlet shell and fixedly connected to the second rotating disc close to the second vertical block; a solid shaft is formed in the stirring rod, and a spring two is arranged in the stirring rod cavity.
[0013] Further, the stirring rod cavity is divided into a plurality of independent cavities, and the spring two has a plurality of spring two, and the two ends of the spring two are fixedly connected to the two side walls of the independent cavities through elastic ropes.
[0014] A production process of a grain food with jumping candies, specifically comprising: S1: feeding; the main material of the grain is fed from the main material inlet shell, and the auxiliary material of the jumping candy is fed from the auxiliary material inlet shell; S2: auxiliary material pretreatment; the stirring structure is driven by starting the third motor, the auxiliary material clumps are crushed by the first rotating disc and the first stirring rod, and at the same time, the opening and closing structure is driven by the belt, the collision shaft periodically hits the convex plate and the convex ball, the blocking door is vibrated, and the auxiliary material is controlled to fall according to the proportion; S3: mixing and conveying; the first motor drives the material leading shaft to rotate through the belt, the first spiral shaft and the second spiral shaft respectively push the main material and the auxiliary material to the mixing cavity; the mixing main shaft is rotatably connected to the worm shaft through the worm and the gear, the mixing auxiliary shaft and the auxiliary part are rotated, the sliding shaft is slid in the sliding cavity, the collision plate is vibrated, and the main and auxiliary materials are mixed. S4: crushing and discharging: the mixture falls into the crushing box and is crushed, and then is discharged through the discharging inclined plate; the motor 2 drives the discharging shaft and the pushing rod to push the mixture; S5: screening and recycling: the mixture is screened on the vibrating screen, and the qualified product is collected, and the large particles are recycled through the recycling inclined plate.
[0015] The one or more technical solutions provided in the application have at least the following technical effects or advantages: Through the linkage of the material guiding shaft and the opening and closing structure, the collision shaft periodically collides with the convex plate and the convex ball, drives the blocking door to vibrate, and the auxiliary material falls stably in proportion, reducing the blocking; the rotating disc 1 and the crushing rod 1 in the crushing structure are driven by the motor 3 to crush the auxiliary material agglomeration, preventing blocking; in the mixing cavity, the auxiliary member is driven by the elliptical hemisphere to vibrate the sliding shaft and the collision plate, promoting the collision and mixing of the main and auxiliary materials, and improving the uniformity; the whole device realizes continuous operation of pre-mixing and crushing, avoids separate processing, and improves the production efficiency. BRIEF DESCRIPTION OF DRAWINGS
[0016] Figure 1 It is a front structure perspective view of the grain food production equipment with jumping candy and the production process thereof; Figure 2 It is a back structure perspective view of the grain food production equipment with jumping candy and the production process thereof; Figure 3 It is a guide sleeve structure schematic view of the grain food production equipment with jumping candy and the production process thereof; Figure 4 It is a spiral shaft 1 structure schematic view of the grain food production equipment with jumping candy and the production process thereof; Figure 5 It is a convex plate position schematic view of the grain food production equipment with jumping candy and the production process thereof; Figure 6 It is a convex shaft position schematic view of the grain food production equipment with jumping candy and the production process thereof; Figure 7 It is an auxiliary member position schematic view of the grain food production equipment with jumping candy and the production process thereof; Figure 8 It is an auxiliary member structure schematic view of the grain food production equipment with jumping candy and the production process thereof; Figure 9 It is a stirring rod cavity structure schematic view of the grain food production equipment with jumping candy and the production process thereof in embodiment 2; Figure 10 It is a crushing rod 2 structure schematic view of the grain food production equipment with jumping candy and the production process thereof in embodiment 2; Figure 11Figure 2 is a structural schematic diagram of the second stirring rod of the third embodiment of the production equipment and production process of the cereal food with jelly beans of the present application.
[0017] In the drawings: 100, vertical housing; 101, inclined housing; 102, fixed seat; 103, vibrating screen; 110, motor one; 120, crushing box; 130, mixing box; 131, main material inlet shell; 132, auxiliary material inlet shell; 133, material blocking door; 134, convex plate; 135, convex ball; 136, guide block; 137, guide strip; 138, guide sleeve; 140, opening and closing structure; 141, connecting plate; 142, linkage shaft; 143, linkage disc; 144, collision shaft; 150, discharge inclined plate; 151, discharge shaft; 152, pushing rod; 153, motor two; 160, recovery inclined plate; 170, material guiding shaft; 171, screw shaft one; 172, worm shaft; 173, screw shaft two; 180, mixing cavity; 181, mixing main shaft; 1811, mixing auxiliary shaft; 1812, auxiliary part; 182, turbine; 183, elliptical block; 1831, sliding cavity; 184, spring one; 190, collision plate; 191, convex shaft; 192, sliding shaft; 200, crushing structure; 201, hollow collar; 202, rotating disc one; 203, stirring rod one; 204, vertical block one; 205, motor three; 210, vertical block two; 211, motor four; 212, rotating disc two; 213, stirring rod two; 214, stirring rod cavity; 215, spring two; 216, independent cavity. DETAILED DESCRIPTION
[0018] In order to facilitate the understanding of the present application, the present application will be described more fully below with reference to the accompanying drawings, in which preferred embodiments of the present application are shown; however, the present application can be embodied in many different forms and should not be construed as limited to the embodiments set forth herein; rather, these embodiments are provided so that this disclosure will be thorough and complete, and fully convey the scope of the present application to those skilled in the art.
[0019] It should be noted that the terms "vertical", "horizontal", "upper", "lower", "left", "right", and similar expressions used herein are for illustrative purposes only and are not intended to be the only implementation.
[0020] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art to which this application belongs; the terminology used in the description of the present application herein is for the purpose of describing particular embodiments only and is not intended to be limiting of the present application; the term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.
[0021] Embodiment one: as Figures 1 to 8As shown, the application is a kind of cereal food production equipment with jumping jelly and its production process, including vertical shell 100, the outer cross section of vertical shell 100 is symmetrically fixed with inclined shell 101, and the inclined shell 101 is provided with vibrating screen 103; The side end of vertical shell 100 is fixed with fixed seat 102, motor one 110 is installed on fixed seat 102, and the upper part of vertical shell 100 is fixed with crushing box 120; The outer cross section of crushing box 120 is fixed with mixing box 130, the upper surface of mixing box 130 is respectively fixed with auxiliary material inlet shell 132 and main material inlet shell 131; The stirring structure 200 is installed in auxiliary material inlet shell 132, the driving assembly is arranged outside auxiliary material inlet shell 132 to drive stirring structure 200 to stir the large agglomerates of auxiliary material in auxiliary material inlet shell 132, so that the agglomerates are dispersed, and uniform mixing with main material is facilitated; The side end of mixing box 130 is provided with opening and closing structure 140, and is close to auxiliary material inlet shell 132.
[0022] The mixing box 130 is rotatably connected with the material guide shaft 170, which is composed of helical shaft one 171, worm shaft 172 and helical shaft two 173; The outer cross section of the output end of motor one 110 is provided with a belt pulley, one end of the material guide shaft 170 extends out of the mixing box 130, and the motor one 110 drives the material guide shaft 170 to rotate through the belt.
[0023] The other end of the material guide shaft 170 extends out of the mixing box 130 and is provided with a belt pulley; The opening and closing structure 140 includes connecting plate 141, linkage shaft 142 and linkage disc 143; The connecting plate 141 is fixed on the other side end of the mixing box 130; The side end of the connecting plate 141 is rotatably connected with the linkage shaft 142, and the linkage disc 143 is fixed on one end of the linkage shaft 142 towards the direction of motor two 153; The collision shaft 144 is fixed on the linkage disc 143; The auxiliary material inlet shell 132 is provided with a blocking door 133, and the blocking door 133 is provided with a convex plate 134; One side of the convex plate 134 is fixed with a plurality of convex balls 135; The material guide shaft 170 drives the linkage shaft 142 to rotate through the belt, so that the collision shaft 144 contacts with the convex plate 134 and the convex ball 135 to drive the blocking door 133 to slide and vibrate, so that the auxiliary material can be mixed with the main material in a certain proportion, and the vibration caused by the convex ball 135 driven by the auxiliary material 14 reduces the occurrence of blocking phenomenon.
[0024] The stirring structure 200 comprises a rotating disc 202 and stirring sticks 203, and the driving assembly comprises a hollow sleeve 201, a vertical block 204 and a motor 205; the hollow sleeve 201 is rotationally connected to the side end of the auxiliary material inlet shell 132, and the one end of the hollow sleeve 201 is fixedly connected with the rotating disc 202, which is located in the inner cross section of the auxiliary material inlet shell 132; a plurality of stirring sticks 203 are fixedly connected on the inner surface of the auxiliary material inlet shell 132 in a circumferential direction; the upper surface of the mixing box 130 is fixedly connected with the vertical block 204, and the motor 205 is installed on the vertical block 204; the output end of the motor 205 is provided with a belt pulley, and the motor 205 drives the hollow sleeve 201 to rotate through a belt, so as to drive the rotating disc 202 and the stirring sticks 203 to rotate and stir in the auxiliary material inlet shell 132 to stir the large agglomerated auxiliary materials, and prevent the large agglomerated auxiliary materials from being blocked at the blocking door 133.
[0025] The mixing box 130 is symmetrically fixedly connected with guide strips 137 on the inner side walls of the two through openings of the auxiliary material inlet shell 132, and the blocking door 133 is provided with sliding grooves on the two sides, which are matched with the guide strips 137; the blocking door 133 is slidably connected with the mixing box 130 through the cooperation of the sliding grooves and the guide strips 137; the front surface side end of the mixing box 130 is fixedly connected with a guide sleeve 138, one end of the blocking door 133 is fixedly connected with a guide block 136, and the blocking door 133 is slidably connected in the guide sleeve 138 through the guide block 136; a spring member is fixedly connected in the guide sleeve 138, and the other end of the spring member is fixedly connected to one end of the guide block 136.
[0026] The inclined shell 101 is fixedly connected with a discharging inclined plate 150, which is in abutment with the discharge port of the mashing box 120; the inner side walls of the discharging inclined plate 150 are rotationally connected with a discharging shaft 151; a plurality of pushing sticks 152 are installed on the outer cross section of the discharging shaft 151; the side end of the inclined shell 101 is provided with a motor 153 for driving the discharging shaft 151; the one end of the inclined shell 101 is fixedly connected with a recycling inclined plate 160, which is away from the mashing box 120; a plurality of screen holes are formed in the vibrating screen 103.
[0027] The inner middle part of the mixing box 130 is provided with a mixing cavity 180, and a mixing main shaft 181 is symmetrically connected to the upper end of the middle part of the mixing cavity 180; a worm wheel 182 is fixed to the worm shaft 172 corresponding to the outer section of the mixing main shaft 181; an elliptical block 183 is fixed to the bottom of the mixing cavity 180, and a sliding cavity 1831 is formed in the elliptical block 183; a mixing auxiliary shaft 1811 is fixed to the bottom of the mixing main shaft 181, and an auxiliary part 1812 is fixed to the bottom of the mixing auxiliary shaft 1811; the inner sides of the middle part of the auxiliary part 1812 are concave, and the other two sides are elliptical hemispheres; the elliptical hemispheres make the sliding shaft 192 slide along the curved surface and press and collide with the collision plate 190; the collision plate 190 is pressed to drive the convex shaft 191 to move to the direction of the spring one 184 and press the spring one 184; when the sliding shaft 192 slides to the concave part of the auxiliary part 1812, the spring one 184 returns to the original position; under the rotation of the auxiliary part 1812, the collision plate 190 reciprocates, i.e. vibrates, to collide with the falling main material and auxiliary material, move the main material and auxiliary material to the middle part of the mixing cavity 180, and mix the main material and auxiliary material, thereby improving the mixing degree of the auxiliary material and the main material.
[0028] The mixing box 130 is symmetrically provided with two equal-distance material shaking grooves in the two side walls of the mixing cavity 180, and the spring one 184 is fixed in the material shaking grooves; the mixing box 130 further comprises the collision plate 190 and the sliding shaft 192; one end of the collision plate 190 is a slope, and the other end is a flat structure; the sliding shaft 192 is symmetrically fixed to one end of the collision plate 190, and the other end of the sliding shaft 192 is slidingly connected in the sliding cavity 1831; the convex shaft 191 is symmetrically fixed to the other end of the collision plate 190, and the other end of the convex shaft 191 is fixed to the spring one 184.
[0029] Specific implementation: when the grains are crushed, the grains are poured into the main material inlet shell 131, and the auxiliary materials required for the jumping candy are poured into the auxiliary material inlet shell 132, the motor one 110 and the motor two 153 are started, the motor one 110 drives the material leading shaft 170 to rotate through the belt, and the spiral shaft one 171 and the spiral shaft two 173 in the mixing box 130 respectively drive the main material and the auxiliary material to move towards the mixing cavity 180, in order to reduce the blockage of the main material and the auxiliary material during mixing and make the mixing of the main material and the auxiliary material more uniform, the oval hemispheres of the auxiliary part 1812 make the sliding shaft 192 slide along the curved surface and press the collision plate 190, the collision plate 190 is pressed to drive the convex shaft 191 to move towards the spring one 184 and press the spring one 184, when the sliding shaft 192 slides to the inner recess of the auxiliary part 1812, the spring one 184 restores to the original position; under the rotation of the auxiliary part 1812, the collision plate 190 reciprocates, that is, vibrates to collide with the falling main material and auxiliary material, moves the main material and auxiliary material to the middle of the mixing cavity 180 and mixes them with each other, so that the grains of the main material and the auxiliary material are pre-mixed before being crushed, the above-mentioned not only improves the mixing degree of the auxiliary material and the main material, but also improves the production efficiency and avoids the time-consuming and laborious work steps of crushing the main material grains and the auxiliary material separately and then mixing them.
[0030] When the auxiliary material is poured into the auxiliary material inlet shell 132, the material leading shaft 170 drives the linkage shaft 142 to rotate through the belt, so that the collision shaft 144 contacts the convex plate 134 and the convex ball 135 to drive the blocking door 133 to slide and vibrate, so that the auxiliary material can be mixed with the main material in a certain proportion, and the vibration of the blocking door 133 can loosen the auxiliary material with small clumps to a certain extent, reducing the phenomenon of a large number of small structures not falling at the edge of the blocking door 133.
[0031] The motor three 205 drives the hollow sleeve 201 to rotate through the belt, thereby driving the rotating disc one 202 and the crushing rod one 203 to rotate and stir in the auxiliary material inlet shell 132 to loosen the large clumps of auxiliary material, in cooperation with the vibration generated by the blocking door 133, the large clumps of auxiliary material are changed from large blocks to multiple loose small blocks under the action of vibration and stirring, and finally the multiple loose small blocks are vibrated to be loosened, thereby preventing the blocking phenomenon of large clumps of auxiliary material at the blocking door 133 and affecting the proportional mixing ratio of the main material and the auxiliary material.
[0032] The pre-mixed grains and auxiliary materials enter the crushing box 120 to be crushed and then are discharged from the discharge port, the motor two 153 drives the discharge shaft 151 to rotate, the discharge shaft 151 drives multiple pushing rods 152 to rotate, the pushing rods 152 rotate to assist the mixed grains coming out of the crushing box 120 to slide out of the discharge port of the crushing box 120, and the mixed grains are screened on the vibrating screen 103, so that large particles slide down from the recovery inclined plate 160 to the recovery box for recovery treatment.
[0033] Beneficial effects: through the linkage of the material guiding shaft 170 and the opening and closing structure 140, the collision shaft 144 periodically collides with the convex plate 134 and the convex ball 135, driving the material blocking door 133 to vibrate, and the auxiliary material falls stably in proportion, reducing the blocking; the stirring disc 202 and the stirring rod 203 in the stirring structure 200 are broken under the driving of the motor 205, preventing the blocking; in the mixing cavity 180, the auxiliary part 1812 vibrates through the elliptical hemisphere driving sliding shaft 192 and the collision plate 190, promoting the collision and mixing of the main and auxiliary materials, and improving the uniformity; the whole device realizes the continuous operation of pre-mixing and crushing, avoids separate processing, and improves the production efficiency.
[0034] In the embodiment two, the large auxiliary material block may be stirred into multiple medium auxiliary material blocks between large and small by the stirring rod 203, and the medium auxiliary material blocks are accumulated in the stirring disc 202, and a large amount of medium auxiliary material blocks accumulated in the stirring disc 202 may affect the proportional mixing ratio of the auxiliary material and the main material, and affect the mixing of the auxiliary material and the main material in the mixing cavity 180; the present application proposes the following technical solutions to solve the above technical problems, specifically as follows: As shown in Figure 9 and Figure 10 , the upper surface of the mixing box 130 is further fixed with a vertical block two 210, the vertical block two 210 is installed with a motor four 211, and the output end of the motor four 211 is provided with a belt pulley; the inner wall of the auxiliary material inlet shell 132 is symmetrically connected with a stirring disc two 212, and the stirring disc two 212 is axially fixed with a plurality of stirring rods two 213; the outer side of the auxiliary material inlet shell 132 is rotatably connected with a solid shaft 2121, and the stirring disc two 212 close to the vertical block two 210 is fixed.
[0035] The stirring rod two 213 is internally provided with a stirring rod cavity 214, and the stirring rod cavity 214 is provided with a spring two 215.
[0036] One or more technical solutions provided in the present application have at least the following technical effects or advantages: The motor four 211 drives the solid shaft 2121 to rotate through the belt, drives the stirring disc two 212 and the stirring rod two 213 to rotate, and through the speed difference or reverse rotation (rotation can be one stop and one dynamic) of the motor three 205 and the motor four 211, when the medium auxiliary material falls between the stirring rod one 203 and the stirring rod two 213, it is cut off to become multiple small blocks, at the same time, the spring two 215 in the stirring rod two 213 and the inner wall of the stirring rod two 213 constantly expand, further loosening the block around the stirring rod two 213; finally, when the small block falls from the stirring rod two 213 to the stirring rod one 203, it is stirred and loosened again, the double loosening block effect can greatly improve the feeding efficiency, and further prevent the blocking phenomenon of the large block changing into medium block auxiliary material, thereby improving the proportional mixing degree of the auxiliary material and the main material.
[0037] Embodiment three: when the spring two 215 generates vibration, one end of the spring two 215 may collide with the inner wall first, resulting in weakening of the vibration effect of the other end. The present application aims at the above technical problem and proposes the following technical solution, specifically: As shown in Figure 11 The stirring rod cavity 214 is divided into a plurality of independent independent cavities 216, and the spring two 215 has a plurality of ends. The spring two 215 is fixedly connected to the two side walls of the independent cavity 216 through the elastic rope. The spring two 215 in the plurality of independent independent cavities 216 generates vibration, which can cause the agglomerated auxiliary materials around the stirring rod two 213 in different areas to vibrate, thereby avoiding the single spring two 215 from contacting the inner wall of the stirring rod cavity 214 first, resulting in weakening of the vibration effect of the other end.
[0038] The one or more technical solutions provided in the present application have at least the following technical effects or advantages: When the agglomerated auxiliary materials fall between the stirring rod one 203 and the stirring rod two 213 and are broken into a plurality of small agglomerated auxiliary materials, the spring two 215 in the plurality of independent cavities 216 generates vibration around the stirring rod two 213 in the corresponding area, so that the vibration of each area of the stirring rod two 213 can be synchronized, thereby improving the efficiency of breaking the agglomerated auxiliary materials.
[0039] The above is only the preferred embodiment of the present application and is not used to limit the present application. For those skilled in the art, the present application can have various modifications and changes. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application shall be included in the protection scope of the present application.
Claims
1. A cereal food production device with popping candy, characterized in that, The system includes a vertical outer shell (100), with inclined outer shells (101) symmetrically fixed to the outer side of the vertical outer shell (100), and a vibrating screen (103) arranged between the inclined outer shells (101); a fixed base (102) is fixed to the side of the vertical outer shell (100), and a motor (110) is installed on the fixed base (102); a crushing box (120) is fixed to the upper part of the vertical outer shell (100); a mixing box (130) is fixed to the outer cross section of the crushing box (120), and an auxiliary material inlet shell (132) and a main material inlet shell (131) are fixed to the upper surface of the mixing box (130); a crushing structure (200) is installed inside the auxiliary material inlet shell (132); and an opening and closing structure (140) is installed on the side of the mixing box (130) and is close to the auxiliary material inlet shell (132). The mixing box (130) is rotatably connected to a feeding shaft (170), which is formed by a screw shaft (171), a worm shaft (172) and a screw shaft (173); a pulley is provided on the outer section of the output end of a motor (110), one end of the feeding shaft (170) extends out of the mixing box (130), and the motor (110) drives the feeding shaft (170) to rotate through a belt; The other end of the feeding shaft (170) extends into the mixing box (130) and is equipped with a pulley; the opening and closing structure (140) includes a connecting plate (141), a linkage shaft (142) and a linkage disc (143). The connecting plate (141) is fixed to the other side of the mixing box (130). The side end of the connecting plate (141) is rotatably connected to the linkage shaft (142). The end of the linkage shaft (142) facing the motor (153) is fixedly connected to the linkage disc (143). The linkage disc (143) is fixedly connected to the collision shaft (144). The auxiliary material inlet shell (132) is provided with a material blocking door (133). The bottom of the material blocking door (133) is fixedly connected to a convex plate (134). One side of the convex plate (134) is fixedly connected to multiple convex balls (135).
2. The cereal food production equipment with popping candy as described in claim 1, characterized in that, The pulverizing structure (200) includes a turntable (202) and a pulverizing roller (203). The driving assembly includes a hollow collar (201), a vertical block (204), and a motor (205). The hollow collar (201) is rotatably connected to the side of the auxiliary material inlet shell (132). One end of the hollow collar (201) is fixedly connected to the turntable (202), which is located in the inner section of the auxiliary material inlet shell (132). Multiple pulverizing rollers (203) are fixedly connected to the inner surface of the auxiliary material inlet shell (132) in a circumferential direction. The upper surface of the mixing box (130) is fixedly connected to the vertical block (204), and the motor (205) is installed on the vertical block (204). A pulley is provided at the output end of the motor (205).
3. The cereal food production equipment with popping candy as described in claim 1, characterized in that, The mixing box (130) has guide strips (137) symmetrically fixed on the two inner side walls of the opening near the auxiliary material inlet shell (132). The material blocking door (133) has sliding grooves on both sides that cooperate with the guide strips (137). The material blocking door (133) is slidably connected to the mixing box (130) through the cooperation of the sliding grooves and the guide strips (137). The front surface of the mixing box (130) is fixedly connected to the side end of the guide sleeve (138). One end of the material blocking door (133) is fixedly connected to the guide block (136), and the material blocking door (133) is slidably connected to the guide sleeve (138) through the guide block (136). A spring is fixedly connected inside the guide sleeve (138), and the other end of the spring is fixedly connected to one end of the guide block (136).
4. The cereal food production equipment with popping candy as described in claim 1, characterized in that, The mixing chamber (130) has a mixing cavity (180) in the middle. The mixing cavity (180) is symmetrically connected to the upper part of the middle section of the mixing chamber (180) via a mixing main shaft (181). A turbine (182) is fixed to the outer section of the mixing main shaft (181) at the location corresponding to the worm shaft (172). An elliptical block (183) is fixed to the bottom of the mixing cavity (180). A sliding cavity (1831) is opened inside the elliptical block (183). A mixing sub-shaft (1811) is fixed to the bottom of the mixing main shaft (181). An auxiliary component (1812) is fixed to the bottom of the mixing sub-shaft (1811). The auxiliary component (1812) has two concave sides in the middle and two elliptical hemispheres on the other two sides.
5. The cereal food production equipment with popping candy as described in claim 4, characterized in that, The mixing box (130) has two equidistant material shaking grooves symmetrically opened on both sides of the mixing chamber (180), and a spring (184) is fixedly connected in the material shaking groove; the mixing box (130) also includes a collision plate (190) and a sliding shaft (192). One end of the collision plate (190) is an inclined surface and the other end is a planar structure. The sliding shaft (192) is symmetrically fixedly connected to one end of the collision plate (190), and the other end of the sliding shaft (192) is slidably connected in the sliding chamber (1831); the other end of the collision plate (190) is symmetrically fixedly connected to a convex shaft (191), and the other end of the convex shaft (191) is fixedly connected to the spring (184).
6. The cereal food production equipment with popping candy as described in claim 5, characterized in that, The upper surface of the mixing box (130) is also fixed with a second vertical block (210), and a fourth motor (211) is installed on the second vertical block (210). A pulley is provided at the output end of the fourth motor (211). The inner walls of the auxiliary material inlet shell (132) are symmetrically connected to a second turntable (212), and a plurality of crushing rollers (213) are axially fixed on the second turntable (212). The outer side of the auxiliary material inlet shell (132) is rotatably connected to a solid shaft (2121), and is fixed to the second turntable (212) near the second vertical block (210).
7. The cereal food production equipment with popping candy as described in claim 6, characterized in that, The second stirring rod (213) has a stirring rod cavity (214) inside, and a second spring (215) is installed inside the stirring rod cavity (214).
8. The cereal food production equipment with popping candy as described in claim 7, characterized in that, The stirring cylinder (214) is divided into multiple independent chambers (216), and there are multiple springs (215). The two ends of the springs (215) are respectively fixed to the two side walls of the independent chambers (216) by elastic ropes.
9. The cereal food production equipment with popping candy as described in claim 1, characterized in that, A discharge inclined plate (150) is fixedly connected between the inclined shells (101) and is connected to the discharge port of the crushing box (120); a discharge shaft (151) is rotatably connected between the inner sidewalls of the discharge inclined plate (150); a plurality of pusher rollers (152) are installed on the outer section of the discharge shaft (151); a second motor (153) for driving the discharge shaft (151) is installed on the side end of the inclined shell (101); a recovery inclined plate (160) is fixedly connected to one end of the inclined shell (101) and is away from the crushing box (120); a plurality of screen holes are opened on the vibrating screen (103).
10. A process for producing cereal foods with popping candy, characterized in that, S1 Feeding: The main grain ingredient is fed into the main ingredient inlet shell (131), and the popping candy ingredient is fed into the auxiliary ingredient inlet shell (132); S2 Auxiliary material pretreatment: Start motor three (205) drives the crushing structure (200), which crushes the agglomerated auxiliary material through turntable one (202) and crushing roller one (203); at the same time, the feeding shaft (170) drives the opening and closing structure (140) through the belt, so that the collision shaft (144) periodically impacts the convex plate (134) and the convex ball (135), causing the material blocking gate (133) to vibrate and controlling the auxiliary material to fall proportionally; S3 Mixing Conveying: Motor 1 (110) drives the feed shaft (170) to rotate via belt, and screw shaft 1 (171) and screw shaft 2 (173) push the main material and auxiliary material to the mixing chamber (180) respectively; the mixing main shaft (181) rotates through the meshing of the worm shaft (172) with the turbine (182), driving the mixing secondary shaft (1811) and auxiliary parts (1812) to rotate, causing the sliding shaft (192) to slide in the sliding chamber (1831), pushing the collision plate (190) to vibrate, and promoting the mixing of the main and auxiliary materials; S4 Crushing and Discharging: The mixed materials fall into the crushing box (120) and are crushed, and then discharged through the discharge inclined plate (150); Motor 2 (153) drives the discharge shaft (151) and the pusher (152) to push the materials; S5 Screening and Recycling: The material is screened on the vibrating screen (103), qualified products are collected, and large particles are recycled by the recycling inclined plate (160).