Noodle winding machine
By designing a noodle winding machine, the automatic winding of noodles is achieved through a revolution and rotation drive mechanism, which solves the problems of time-consuming, labor-intensive, and unhygienic traditional winding methods, thus improving efficiency and hygiene.
Patent Information
- Application Number
- CN202423217705.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-25
- Publication Date
- 2025-11-28
- Estimated Expiration
- 2034-12-25
AI Technical Summary
Traditional noodle-winding methods are time-consuming, labor-intensive, inefficient, and unhygienic, and cannot be automated.
Design a noodle winding machine that uses a combination of a sleeve, a winding shaft, a main disc, a secondary disc, a forming module, a push-pull mechanism, a noodle threading mechanism, a cutting mechanism, and a striking and discharging mechanism to automatically wind noodles into discs using a revolution and rotation drive mechanism.
It achieves automated noodle winding, saving time and labor, improving work efficiency, and ensuring hygiene.
Smart Images

Figure CN223600728U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to noodle packaging equipment technical field, concretely is a noodle winding machine. BACKGROUND
[0002] The noodles are favored by many people in the global range because of its rich nutrition, rich and varied taste, economy and so on. In order to make noodles more easily preserved and improve portability, noodles are often wound into a disc shape, so that the shape of noodles is compact. The traditional noodle winding roll is mainly manual, and the noodles are wound by manually rotating the noodle rod. This manual noodle winding method is time-consuming and laborious, unhygienic and low in efficiency. UTILITY MODEL CONTENTS
[0003] The utility model aims at overcoming the above-mentioned prior art's shortcomings, providing a noodle winding machine which can automatically wind noodles into a disc shape, save time and effort, and is high in work efficiency and clean and sanitary.
[0004] The utility model is realized through the following technical scheme: a noodle winding machine, including sleeve, noodle winding shaft, main disc, auxiliary disc, forming module, push-pull mechanism, noodle threading mechanism, cutting mechanism, knock-out mechanism, the sleeve is provided with a plurality of, a plurality of sleeve circumferential interval distribution is horizontally rotatablely connected between the main disc and the auxiliary disc, the main disc is connected with revolution drive mechanism, each sleeve is independently connected with one rotation drive mechanism, each sleeve is provided with the noodle winding shaft that can move along its axial direction, the main disc is provided with the forming module, the number of forming module and the number of sleeve are same and one-to-one correspondence, the push-pull mechanism can move to the direction close to or away from the auxiliary disc, the noodle threading mechanism is located above the forming module, the cutting mechanism is located below the noodle threading mechanism, the knock-out mechanism is located below the forming module.
[0005] Further, the rotation drive mechanism includes a rotation motor, a rotation transmission chain, a rotation sprocket, a rotation gear and a rotation transmission wheel. The output end of the rotation motor is connected with a main transmission wheel. The rotation transmission chain is sleeved on the main transmission wheel and the rotation sprocket. The rotation gear is arranged on the inner ring wall of the rotation sprocket. The rotation gear and the rotation transmission wheel are in meshing relationship. The rotation transmission wheel is fixedly sleeved on the sleeve.
[0006] Further, the sleeve is provided with a moving guide rail. The outer end of the moving guide rail penetrates through the auxiliary disc and is connected with a pull buckle. The inner end of the moving guide rail is connected with the noodle winding shaft. The noodle winding shaft is provided with a noodle threading groove.
[0007] Further, the forming module comprises a die seat and a plurality of forming dies, the forming dies are arranged on the die seat and are equidistantly distributed along the length direction of the die seat, a through slot for the winding shaft to pass through is formed in the middle part of each forming die, and the interval between each two adjacent forming dies forms a winding forming part.
[0008] Further, the push-pull mechanism comprises a pulling structure and a pushing structure, the pushing structure is located above the pulling structure, the pulling structure is used for cooperating with the puller to pull the winding shaft out of the forming die, and the pushing structure is used for pushing the winding shaft back into the forming die.
[0009] Further, the pulling structure comprises a clamping hook matched with the puller, the clamping hook is arranged on the pulling guide rail through a mounting seat, the pushing structure comprises a top head arranged on the pushing guide rail through a connecting seat.
[0010] Further, the cutting mechanism comprises a bottom plate, a cutting cylinder and a cutting knife, the cutting cylinder is arranged on the bottom wall of the bottom plate, and the output shaft of the cutting cylinder is connected with the cutting knife.
[0011] Further, the threading mechanism comprises a threading cylinder, a threading seat and a plurality of threading needles, two threading cylinders are arranged on the bottom plate, two ends of the threading seat are hingedly connected between the two threading cylinders, and a plurality of threading needles are arranged on the threading seat and are equidistantly distributed along the length direction of the threading seat.
[0012] Further, the threading mechanism comprises a threading cylinder, a threading seat and a plurality of threading needles, two threading cylinders are arranged on the bottom plate, two ends of the threading seat are hingedly connected between the two threading cylinders, and a plurality of threading needles are arranged on the threading seat and are equidistantly distributed along the length direction of the threading seat.
[0013] Further, the hitting discharging mechanism comprises a discharging motor, a rotating shaft and a plurality of hitting rods, the output shaft of the discharging motor is connected with the rotating shaft, and a plurality of hitting rods are arranged on the rotating shaft and are equidistantly distributed along the length direction of the rotating shaft.
[0014] Compared with the prior art, the utility model has the following beneficial effects:
[0015] The utility model discloses a four sleeve is distributed in the circumference interval, and is horizontally rotatablely connected between main dish and vice dish, and the main dish is connected revolution drive mechanism, and each sleeve is independently connected a rotation drive mechanism, and one movable dough rolling axle is arranged in each sleeve through movable guide rail and can move along its axial direction, and the dough rolling axle is set up the through slot, and the forming die is set up on the main dish, and the noodle is inserted into the through slot of dough rolling axle through the through face cylinder drive through the face needle, and the main dish is driven through revolution drive mechanism and drives sleeve and forming die to rotate, and the dough rolling axle is driven through rotation drive mechanism and drives sleeve to rotate, makes the dough rolling axle and forming die between the differential, makes the noodle wind on the dough rolling axle, and under the action of forming die, makes the noodle roll into the disc, thereby realizes the automation and rolls the noodle into the disc, saves time and energy, improves work efficiency, and is clean and sanitary. BRIEF DESCRIPTION OF DRAWINGS
[0016] Figure 1 It is the front view of the utility model;
[0017] Figure 2 It is the plan view of the utility model;
[0018] Figure 3 It is the front view of the rotation drive mechanism of the utility model;
[0019] Figures 4 to 7 It is the structure schematic drawing of the forming die group and sleeve of the utility model;
[0020] Figure 8 It is Figure 5 The enlarged view of B position;
[0021] Figure 9 It is the front view of the forming die group and sleeve of the utility model;
[0022] Figure 10 It is Figure 9 The sectional view of A-A position;
[0023] Figure 11 It is the structure schematic drawing of the through face mechanism and cutting mechanism of the utility model;
[0024] Figure 12 It is the side view of the through face mechanism and cutting mechanism of the utility model.
[0025] Explanation of reference signs: 1 - sleeve, 2 - winding shaft, 3 - main disc, 4 - auxiliary disc, 5 - forming die set, 6 - push-pull mechanism, 7 - threading mechanism, 8 - cutting mechanism, 9 - knock-out mechanism, 10 - revolution sprocket, 11 - rotation driving mechanism, 12 - rotation motor, 13 - rotation transmission chain, 14 - rotation sprocket, 15 - rotation gear, 16 - rotation transmission wheel, 17 - main transmission wheel, 18 - moving guide rail, 19 - pull buckle, 20 - threading groove, 21 - die holder, 22 - forming die, 23 - through groove, 24 - winding forming part, 25 - pulling-out structure, 26 - pushing-back structure, 27 - clamping hook, 28 - mounting seat, 29 - pulling-out guide rail, 30 - ejector, 31 - connecting seat, 32 - pushing-back guide rail, 33 - bottom plate, 34 - cutting cylinder, 35 - cutting knife, 36 - threading cylinder, 37 - threading seat, 38 - threading needle, 39 - noodle pressing frame, 40 - noodle pressing cylinder, 41 - rotation shaft, 42 - knock lever, 43 - noodle guide roller. DETAILED DESCRIPTION
[0026] Figures 1 to 12 The noodle winding machine embodiment structure schematic view provided by the utility model, including sleeve 1, winding shaft 2, main disc 3, auxiliary disc 4, forming die set 5, push-pull mechanism 6, threading mechanism 7, cutting mechanism 8, knock-out mechanism 9, sleeve 1 is provided with multiple, multiple sleeve 1 circumferential interval distribution, and is horizontally rotatably connected between main disc 3 and auxiliary disc 4, main disc 3 is connected with revolution driving mechanism, and each sleeve 1 independently connects one rotation driving mechanism 11, and winding shaft 2 that can move along its axial direction is arranged in each sleeve 1, and forming die set 5 is arranged on main disc 3, the number of forming die set 5 is same with the number of sleeve 1 and one-to-one correspondence, push-pull mechanism 6 can move to the direction close to or away from auxiliary disc 4, threading mechanism 7 is located above forming die set 5, cutting mechanism 8 is located below threading mechanism 7, and knock-out mechanism 9 is located below forming die set 5.
[0027] In the embodiment, sleeve 1, winding shaft 2 and forming die set 5 are respectively provided with four groups.
[0028] The embodiment also includes noodle guide roller 43, and the noodle guide roller 43 is located on the side of the forming die set 5.
[0029] The revolution driving mechanism includes revolution sprocket 10, and the revolution sprocket 10 is fixed on the outer periphery of main disc 3, and the revolution sprocket 10 is connected with revolution motor through revolution transmission chain and transmission wheel.
[0030] The utility model discloses a rotatory motor drives the transmission chain wheel through the transmission wheel and rotatory transmission chain to drive main disc 3 to rotate, and main disc 3 drives sleeve 1 and forming module 5 to rotate, simultaneously, the rotation drive mechanism 11 drives sleeve 1 to rotate, and sleeve 1 drives the rotation of roll surface shaft 2, and the differential speed between forming module 5 and roll surface shaft 2 is formed, and the noodles are guided to forming module 5 through the face guide roller 43 by manual traction, when forming module 5 rotates to the noodle inserting mechanism 7 with main disc 3, the noodle inserting mechanism 7 inserts the noodles into roll surface shaft 2, and the noodles are wound by the differential speed between forming module 5 and roll surface shaft 2, under the interaction of roll surface shaft 2 and forming module 5, and the noodles are rolled into disc shape, when the noodles are rolled into disc shape and forming module 5 rotates to the cutting mechanism 8 with main disc 3, the cutting mechanism 8 cuts the noodles, and when rotating to correspond with the push-pull mechanism 6, the push-pull mechanism 6 pulls roll surface shaft 2 out of forming module 5, and finally, the disc-shaped noodles on forming module 5 are knocked down through the knock-out mechanism 9, and after the disc-shaped noodles are knocked down from forming module 5, the push-pull mechanism 6 pushes roll surface shaft 2 back into forming module 5, and the next round of noodle winding operation is carried out, and reciprocating in this way.
[0031] The rotation drive mechanism 11 includes a rotation motor 12, a rotation transmission chain 13, a rotation sprocket 14, a rotation gear 15 and a rotation transmission wheel 16, the output end of the rotation motor 12 is connected to a main transmission wheel 17, the rotation transmission chain 13 is sleeved on the main transmission wheel 17 and the rotation sprocket 14, the rotation gear 15 is arranged on the inner ring wall of the rotation sprocket 14, the rotation gear 15 and the rotation transmission wheel 16 are in mesh with each other, and the rotation transmission wheel 16 is fixedly sleeved on the sleeve 1.
[0032] When driving the rotation of roll surface shaft 2, the rotation motor 12 drives the main transmission wheel 17 and the rotation transmission chain 13 to drive the rotation of the rotation sprocket 14, the rotation sprocket 14 drives the rotation of the rotation gear 15 to drive the rotation of the rotation transmission wheel 16, the rotation transmission wheel 16 drives the rotation of the sleeve 1, the roll surface shaft 2 rotates with the sleeve 1, and the forming module 5 rotates with the main disc 3, so that the differential speed between the roll surface shaft 2 and the forming module 5 is formed, and the noodles are wound.
[0033] The sleeve 1 is provided with a moving guide rail 18, the outer end of the moving guide rail 18 penetrates through the auxiliary disc 4 and is connected to a pull buckle 19, the inner end of the moving guide rail 18 is connected to the roll surface shaft 2, and the roll surface shaft 2 is provided with a noodle inserting groove 20.
[0034] The forming module 5 includes a mold base 21 and a plurality of forming dies 22, the forming dies 22 are arranged on the mold base 21 and are distributed at equal intervals along the length direction of the mold base 21, a through groove 23 for the roll surface shaft 2 to pass through is formed in the middle of each forming die 22, and the spacing between every two adjacent forming dies 22 forms a winding forming part 24.
[0035] Each set of forming die set 5 has thirty-two winding forming parts 24, and each set of forming die set 5 can wind thirty-two disc-shaped noodles at one time.
[0036] The push-pull mechanism 6 includes a pull-out structure 25 and a push-back structure 26, the push-back structure 26 is located above the pull-out structure 25, the pull-out structure 25 is used to cooperate with the pull buckle 19 to pull the noodle shaft 2 out of the forming die 22, and the push-back structure 26 is used to push the noodle shaft 2 back into the forming die 22.
[0037] The pull-out structure 25 includes a clamping hook 27 matched with the pull buckle 19, and the clamping hook 27 is arranged on the pull-out guide rail 29 through a mounting seat 28, and the push-back structure 26 includes a top head 30 arranged on the push-back guide rail 32 through a connecting seat 31.
[0038] The mounting seat 28 moves along the pull-out guide rail 29 and the connecting seat 31 moves along the push-back guide rail 32, both of which use a motor as a driving source.
[0039] When pulling out the noodle shaft 2, the mounting seat 28 drives the clamping hook 27 to move along the pull-out guide rail 29 towards the direction of approaching the secondary disc 4, at this time, the sleeve 1, the noodle shaft 2 and the forming die 22 rotate with the primary disc 3 and the secondary disc 4 to be in the same straight line with the clamping hook 27, the pull buckle 19 is hooked by the clamping hook 27, then the mounting seat 28 drives the clamping hook 27 to move along the pull-out guide rail 29 away from the secondary disc 4, so that the pull buckle 19 drives the moving guide rail 18 to pull out from the sleeve 1, and the moving guide rail 18 drives the noodle shaft 2 to pull out from the forming die 22.
[0040] When pushing back the noodle shaft 2, after the noodle disc-shaped in the forming die 22 is knocked off by the knocking-off mechanism 9, the noodle shaft 2, the sleeve 1 and the forming die 22 rotate with the primary disc 3 and the secondary disc 4 to be in the same straight line with the top head 30, the top head 30 is pressed on the pull buckle 19, the connecting seat 31 drives the top head 30 to move along the push-back guide rail 32 towards the direction of approaching the secondary disc 4, so as to push the moving guide rail 18 back into the sleeve 1, and the moving guide rail 18 pushes the noodle shaft 2 back into the forming die 22.
[0041] The cutting mechanism 8 includes a bottom plate 33, a cutting cylinder 34 and a cutting knife 35, the cutting cylinder 34 is arranged on the bottom wall of the bottom plate 33, and the output shaft of the cutting cylinder 34 is connected with the cutting knife 35.
[0042] When cutting, the cutting cylinder 34 drives the cutting knife 35 to move towards the direction of approaching the forming die 22, and the cutting knife 35 cuts the noodles.
[0043] The penetrating mechanism 7 comprises penetrating air cylinders 36, a penetrating seat 37 and penetrating needles 38. The penetrating air cylinders 36 are provided in pairs and arranged on the bottom plate 33. The penetrating seat 37 is hingedly connected between the two penetrating air cylinders 36. The penetrating needles 38 are provided in plurality and arranged on the penetrating seat 37 and equidistantly distributed along the length direction of the penetrating seat 37.
[0044] The penetrating mechanism 7 further comprises a pressing frame 39 arranged above the penetrating seat 37. The pressing frame 39 is connected with a pressing air cylinder 40.
[0045] When the noodles are manually pulled to the forming die 22 by the guide roller 43, the pressing frame 39 is first driven to descend by the pressing air cylinder 40 to preliminarily press the noodles. Then, the penetrating seat 37 is driven to descend by the penetrating air cylinder 36 to drive the penetrating needles 38 to insert the noodles into the penetrating grooves 20 of the noodle rolling shaft 2, so as to insert the noodles on the noodle rolling shaft 2. The noodle rolling shaft 2 is rotated to wind the noodles thereon. During the winding process, the noodles are wound into a disc structure with a diameter similar to that of the forming die 22 under the action of the two forming dies 22.
[0046] The knocking-out mechanism 9 comprises an ejection motor, a rotating shaft 41 and knocking rods 42. The output shaft of the ejection motor is connected with the rotating shaft 41. The knocking rods 42 are provided in plurality and arranged on the rotating shaft 41 and equidistantly distributed along the length direction of the rotating shaft 41.
[0047] After the noodle rolling shaft 2 is pulled out of the forming die 22 by the pulling-out structure 25, the ejection motor drives the rotating shaft 41 to rotate the knocking rods 42. When the knocking rods 42 are inserted into the winding forming part 24, the knocking rods 42 knock the disc noodles in the winding forming part 24 out of the winding forming part 24, so as to realize the ejection of the noodles.
[0048] The above detailed description is for the specific description of the feasible embodiments of the present application. The embodiments are not used to limit the patent scope of the present application. Any equivalent implementation or change without departing from the present application shall be included in the patent scope of the present application.
Claims
1. A noodle winding machine characterized by: The application relates to a dough shaping device, which comprises sleeves, winding shafts, a main disc, a secondary disc, a shaping die set, a push-pull mechanism, a threading mechanism, a cutting mechanism and a knocking and discharging mechanism.
2. The noodle winding machine according to claim 1, characterized by: The self-rotation driving mechanism comprises a self-rotation motor, a self-rotation transmission chain, a self-rotation sprocket, a self-rotation gear and a self-rotation transmission wheel; the output end of the self-rotation motor is connected with a main transmission wheel; the self-rotation transmission chain is sleeved on the main transmission wheel and the self-rotation sprocket; the self-rotation gear is arranged on the inner wall of the self-rotation sprocket; the self-rotation gear and the self-rotation transmission wheel are in meshing connection; and the self-rotation transmission wheel is fixedly sleeved on the sleeve.
3. The noodle winding machine according to claim 2, wherein: The sleeve is internally provided with a moving guide rail; the outer end of the moving guide rail penetrates through the secondary disc and is connected with a pull buckle; the inner end of the moving guide rail is connected with the winding shaft; and a threading groove is formed in the winding shaft.
4. The noodle winding machine according to claim 3, wherein: The shaping die set comprises a die seat and shaping dies; the shaping dies are arranged on the die seat and are equidistantly distributed along the length direction of the die seat; a through groove is formed in the middle part of each shaping die for the winding shaft to pass through; and the interval between each two adjacent shaping dies forms a winding and shaping part.
5. The noodle winding machine according to claim 4, wherein: The push-pull mechanism comprises a pulling-out structure and a pushing-back structure; the pushing-back structure is arranged above the pulling-out structure; the pulling-out structure is used for cooperating with the pull buckle to pull the winding shaft out of the shaping die; and the pushing-back structure is used for pushing the winding shaft back into the shaping die.
6. The noodle winding machine according to claim 5, wherein: The pulling-out structure comprises a clamping hook which is matched with the pull buckle; the clamping hook is arranged on a pulling-out guide rail through a mounting seat; the pushing-back structure comprises a top head which is arranged on a pushing-back guide rail through a connecting seat.
7. The noodle winding machine according to claim 5, wherein: The cutting mechanism comprises a bottom plate, a cutting cylinder and a cutting knife; the cutting cylinder is arranged on the bottom wall of the bottom plate; and the output shaft of the cutting cylinder is connected with the cutting knife.
8. The noodle winding machine according to claim 7, characterized by: The threading mechanism comprises threading cylinders, a threading seat and threading needles; two threading cylinders are arranged on the bottom plate; the two ends of the threading seat are hingedly connected between the two threading cylinders; and a plurality of threading needles are arranged on the threading seat and are equidistantly distributed along the length direction of the threading seat.
9. The noodle winding machine according to claim 8, wherein: The dough shaping device further comprises a dough pressing frame which is arranged above the threading seat and is connected with a dough pressing cylinder.
10. The noodle winding machine according to claim 9, wherein: The knocking discharging mechanism comprises a discharging motor, a rotating shaft and a plurality of knocking rods, the output shaft of the discharging motor is connected with the rotating shaft, and the plurality of knocking rods are arranged on the rotating shaft and are distributed at equal intervals along the length direction of the rotating shaft.