A narrow-belt sorting machine capable of sorting special-shaped parts and an intelligent control method thereof

Abstract

The application discloses a narrow-belt sorting machine capable of sorting special-shaped parts and an intelligent control method thereof. The narrow-belt sorting machine comprises a logistics input channel and a sorting channel connected to the logistics input channel. A plurality of sorting narrow-belt assembly components are longitudinally and uniformly distributed on the sorting channel. Linear array positioning shaft assembly components are arranged between two adjacent sorting narrow-belt assembly components. The linear array positioning shaft assembly components comprise a plurality of elastic telescopic positioning shafts which are uniformly distributed in the transverse direction. A range-increasing telescopic positioning shaft is arranged in the elastic telescopic positioning shaft. A range-increasing driving structure is arranged between the elastic telescopic positioning shaft and the range-increasing telescopic positioning shaft. A height correction inclined guide structure is arranged between the sorting channel and the range-increasing telescopic positioning shaft. The height correction inclined guide structure realizes self-adaptive contour limiting, stable conveying and precise sorting of the special-shaped parts, improves the automation degree and reliability of the special-shaped part sorting, and reduces the labor intervention cost.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of logistics sorting equipment, in particular to a narrow-belt sorting machine capable of sorting special-shaped parts and an intelligent control method thereof. BACKGROUND

[0002] In the field of logistics sorting, narrow-belt sorting machines are widely used in the sorting of goods in express delivery and e-commerce industries due to their compact structure and high sorting efficiency. Existing narrow-belt sorting machines are mainly designed for regular cubic, cuboid and other standard parts. Their core relies on the parallel arrangement of narrow-belt conveyors to achieve the longitudinal conveying and transverse sorting of goods, meeting the sorting needs of conventional standard parts.

[0003] However, in actual logistics scenarios, there are a large number of special-shaped parts such as circular barrels, irregular furniture fittings and special-shaped pipes. Due to their irregular shape and easy shift of center of gravity, these special-shaped parts are prone to rolling, shifting and jamming when conveyed on existing narrow-belt sorting machines, resulting in high sorting failure rate and frequent equipment failures. To solve the problem of sorting special-shaped parts, some manufacturers have optimized by adding fixed barriers or adjusting the spacing between narrow belts. However, fixed barriers can only adapt to special-shaped parts of specific sizes, have poor versatility and are prone to friction and collision with the surface of special-shaped parts, causing damage to goods. Adjusting the spacing between narrow belts can reduce the risk of jamming, but it cannot solve the core problem of rolling and shifting of special-shaped parts, and still requires a large amount of manual assistance for positioning, seriously affecting the sorting efficiency.

[0004] At the same time, the positioning and limiting structure of existing narrow-belt sorting machines is mostly fixed, which cannot adaptively adjust the limiting range according to the actual outline of special-shaped parts, and the limiting height is fixed. For special-shaped parts with high height or center of gravity, the limiting stability is insufficient, and the special-shaped parts are prone to falling during sorting turning. In addition, the control method of existing sorting machines lacks targeted identification and adaptive limiting logic for special-shaped parts, making it difficult to achieve automatic control of the whole process from detection, positioning, limiting to sorting of special-shaped parts, further limiting its application in special-shaped part sorting scenarios.

[0005] Therefore, there is an urgent need for a narrow-belt sorting machine that can adapt to the outline of special-shaped parts, has stable limiting, accurate sorting and can realize intelligent control of the whole process, to solve the problems of low sorting efficiency, poor stability and insufficient versatility of special-shaped parts in existing technologies.

[0006] Therefore, the existing technical field of logistics sorting equipment needs to be further improved. SUMMARY

[0007] The purpose of the present application is to provide a narrow-belt sorting machine capable of sorting special-shaped parts and an intelligent control method thereof, to realize adaptive outline limiting, stable conveying and accurate sorting of special-shaped parts, improve the automation and reliability of special-shaped part sorting, and reduce the cost of manual intervention.

[0008] To achieve the above objectives, the present invention adopts the following solution:

[0009] A narrow strip sorting machine for sorting irregularly shaped parts includes a material input channel and a sorting channel connected to the material input channel. Multiple narrow strip sorting components are evenly distributed longitudinally on the sorting channel, and a linear array positioning shaft assembly is arranged between two adjacent narrow strip sorting components.

[0010] The linear array positioning axis assembly includes multiple elastic telescopic positioning axes evenly distributed in the lateral direction; an extended range telescopic positioning axis is provided inside the elastic telescopic positioning axis; a synchronous contraction inclined top structure is provided between the sorting narrow strip assembly and the multiple elastic telescopic positioning axes; an extended range drive structure is provided between the elastic telescopic positioning axis and the extended range telescopic positioning axis; and a height correction inclined guide structure is provided between the sorting channel and the extended range telescopic positioning axis.

[0011] Furthermore, the sorting channel includes a base, on which a longitudinal conveying device is arranged in the longitudinal direction; a plurality of sorting narrow strip components are arranged laterally, and the plurality of sorting narrow strip components are evenly distributed along the longitudinal direction of the longitudinal conveying device.

[0012] Furthermore, the sorting narrow belt assembly includes a connecting frame for connecting a longitudinal conveyor, the connecting frame having two rollers, a narrow conveyor belt connecting the two rollers, and a forward and reverse drive motor for connecting the end of one of the rollers.

[0013] Furthermore, the linear array positioning axis assembly also includes a connecting plate disposed between two adjacent sorting narrow strip assemblies, and a plurality of elastic telescopic positioning axes are evenly distributed on the connecting plate in the lateral direction;

[0014] The elastic telescopic positioning shaft includes a vertical outer shaft cylinder disposed at the bottom of the connecting plate, and a vertical telescopic positioning shaft is movably disposed inside the vertical outer shaft cylinder. A spring structure for maintaining the vertical telescopic positioning shaft by pressing upward is disposed between the vertical outer shaft cylinder and the vertical telescopic positioning shaft.

[0015] Furthermore, the range-extending telescopic positioning shaft includes a hollow portion disposed in the middle of the vertical telescopic positioning shaft, and the vertical range-extending positioning shaft is movably disposed within the hollow portion.

[0016] Furthermore, the synchronous retractable inclined top structure includes a transverse electric track along the connecting frame, a transverse reset slider is movably disposed on the transverse electric track, a reset drive plate is disposed on the transverse reset slider, a plurality of drive triangular slots are evenly distributed on the reset drive plate in the transverse direction, and a drive longitudinal shaft is disposed at the lower end of the vertical telescopic positioning shaft, the drive longitudinal shaft is movably installed in a corresponding drive triangular slot.

[0017] Furthermore, the range-extending drive structure includes a longitudinal slide rail disposed at the lower end of the vertical telescopic positioning shaft, a longitudinal slider movably disposed within the longitudinal slide rail, a first hinge seat disposed at the lower end of the vertical range-extending positioning shaft, a second hinge seat disposed on the longitudinal slider, and a connecting rod hinged between the first hinge seat and the second hinge seat.

[0018] Furthermore, the height correction inclined guide structure includes a side plate disposed on one side of the vertical outer shaft cylinder, the side plate being provided with an inclined slot, and a correction drive crossbar being disposed in the middle of the connecting rod, the correction drive crossbar being movably installed in the inclined slot.

[0019] Furthermore, the drive triangular slot includes an upper inclined surface for pushing down the drive longitudinal shaft and a lower surface for providing clearance space for the drive longitudinal shaft in its lowest position;

[0020] The slanted groove is inclined from the outer side of the lower end to the inner side of the upper end.

[0021] An intelligent control method includes the following steps:

[0022] Step S1, Initialization Control: Control the sorting narrow belt assembly to maintain a uniform longitudinal conveying state, control the synchronous shrinking inclined top structure to be in a locked state, drive multiple elastic telescopic positioning shafts and internal extended telescopic positioning shafts to shrink and reset, so that the top of the elastic telescopic positioning shafts is flush with the upper surface of the narrow conveyor belt of the sorting narrow belt assembly.

[0023] Step S2, Irregular part detection and unlocking: The visual recognition module and weight detection module at the input end of the sorting channel identify whether the items entering the sorting channel are irregular parts. If they are determined to be irregular parts, an unlocking signal is output to the synchronous shrinking inclined top structure to release the synchronous shrinking inclined top structure from locking the elastic telescopic positioning shaft.

[0024] Step S3, Elastic Positioning and Extended Range Limiting: The elastic telescopic positioning shaft is pushed upward under the elastic force of the spring structure. The elastic telescopic positioning shaft covered by the lower surface of the irregular part is kept in a contracted state under pressure, while the uncovered elastic telescopic positioning shaft is pushed upward and restricts the outer surface of the irregular part, forming a limiting contour to prevent lateral displacement and rolling during the conveying of irregular items. During the upward pushing process of the synchronous elastic telescopic positioning shaft, the linkage extended range drive structure and the height correction inclined guide structure cooperate to drive the extended range telescopic positioning shaft to push upward relative to the elastic telescopic positioning shaft, strengthening the limiting effect of the irregular part and preventing the irregular part from being deviated or rolled during conveying.

[0025] Step S4, Sorting Positioning and Reset Trigger: The position of the irregular part is collected in real time by the positioning sensor on the sorting channel. When the irregular part is detected to have reached the preset sorting target point, a shrink reset signal and a sorting trigger signal are output.

[0026] Step S5, Synchronous contraction and sorting execution: Receive the contraction reset signal, control the synchronous contraction inclined top structure to start, drive all elastic telescopic positioning shafts and extended telescopic positioning shafts to synchronously contract below the upper surface of the narrow conveyor belt, and release the restriction on the irregular parts; Receive the sorting trigger signal, according to the preset sorting target position, control the forward and reverse drive motors of the corresponding sorting narrow belt assembly to start in a directional manner, drive the narrow conveyor belt to move laterally, and move the irregular parts laterally to the target sorting position;

[0027] Step S6, Sorting Reset: After detecting that the irregularly shaped item has detached from the sorting narrow belt assembly, control the forward and reverse drive motor of the sorting narrow belt assembly to stop and reset to the longitudinal conveying state, and simultaneously control the synchronous shrinking inclined top structure to reset to the locked state, waiting for the next item to be sorted.

[0028] In summary, the advantages of this invention over the prior art are:

[0029] This invention addresses the shortcomings of existing logistics sorting equipment. Through its structural design, it offers the following advantages: The array of elastic telescopic positioning shafts adaptively adjusts the ejection state according to the actual bottom contour of the irregularly shaped part. The uncovered positioning shafts form a limiting contour that conforms to the outer surface of the irregularly shaped part, restricting its movement from all sides and completely solving the problems of rolling and offset. It eliminates the need for specialized limiting structures designed for specific irregularly shaped parts, making it highly versatile and adaptable to sorting various irregularly shaped parts. The elastic telescopic positioning shafts are nested with extended-range telescopic positioning shafts. Through the linkage of the extended-range drive structure and the height-correcting inclined guide structure, extended ejection is achieved, increasing the limiting height. This is particularly suitable for irregularly shaped parts with a high center of gravity and greater height, preventing them from tipping over during conveying and sorting. The limiting stability is significantly improved compared to existing fixed-height structures. The synchronous retraction inclined top structure, through the cooperation of the drive triangular slot and the drive longitudinal axis, can realize the synchronous retraction and reset of all elastic telescopic positioning axes and extended telescopic positioning axes. The lower plane can provide clearance for positioning axes covered by irregular parts, avoiding collision interference and ensuring that the limit structure can be quickly removed during sorting without affecting the lateral movement of irregular parts, thus improving sorting smoothness. The intelligent control method realizes full automation of irregular part detection, adaptive limit, precise positioning, sorting execution and reset, without the need for manual positioning and intervention, which greatly reduces labor costs and reduces sorting errors caused by manual operation, thereby improving the sorting efficiency and accuracy of irregular parts. Attached Figure Description

[0030] Figure 1 This is a schematic diagram of the overall device structure of the present invention;

[0031] Figure 2 This is a perspective view of the present invention;

[0032] Figure 3 This is one of the perspective views of the sorting narrow strip assembly of the present invention;

[0033] Figure 4 For the present invention Figure 3 A magnified view of a portion of point G;

[0034] Figure 5 This is a right view of the sorting narrow strip assembly of the present invention;

[0035] Figure 6 For the present invention Figure 5 Sectional view along line AA;

[0036] Figure 7 For the present invention Figure 6 A magnified view of section B;

[0037] Figure 8 This is a schematic diagram of the drive triangular slot structure of the present invention;

[0038] Figure 9 This is a front view of the sorting narrow strip assembly of the present invention;

[0039] Figure 10 For the present invention Figure 9 Sectional view along line CC;

[0040] Figure 11 For the present invention Figure 10 A magnified view of a portion at point D;

[0041] Figure 12 This is a second perspective view of the sorting narrow strip assembly of the present invention. Detailed Implementation

[0042] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0043] Please see Figures 1-12 The present invention provides a narrow strip sorting machine for sorting irregularly shaped parts, including a logistics input channel 1 and a sorting channel 2 connected to the logistics input channel 1. Multiple sorting narrow strip components 3 are evenly distributed longitudinally on the sorting channel 2, and a linear array positioning shaft component 40 is arranged between two adjacent sorting narrow strip components 3.

[0044] The linear array positioning axis assembly 40 includes multiple elastic telescopic positioning axes 5 evenly distributed in the transverse direction; each elastic telescopic positioning axis 5 has a range-extending telescopic positioning axis 6 disposed within it; a synchronous contraction inclined top structure 4 is disposed between the sorting narrow strip assembly 3 and the multiple elastic telescopic positioning axes 5; a range-extending drive structure 7 is disposed between the elastic telescopic positioning axes 5 and the range-extending telescopic positioning axes 6; and a height-correcting inclined guide structure 8 is disposed between the sorting channel 2 and the range-extending telescopic positioning axes 6. Under normal conditions, the multiple elastic telescopic positioning axes 5 maintain a contracted state flush with the upper surface of the sorting narrow strip assembly 3 under the drive of the synchronous contraction inclined top structure 4. When an irregularly shaped product is placed in, the lower surface of the irregularly shaped product covers the upper end of the corresponding elastic telescopic positioning axis 5. At this time, the synchronous contraction inclined top structure 4 is unlocked, and the multiple elastic telescopic positioning axes 5 naturally rise under the action of elastic force, covering the upper end of the product. The elastic telescopic positioning shaft 5 at the bottom of the irregular product cannot be pushed up. The elastic telescopic positioning shaft 5 that is not covered at the bottom of the irregular product is pushed up and used to limit the outer surface of the irregular product, forming a limiting contour to prevent the irregular item from shifting or rolling during the conveying process. At the same time, the elastic telescopic positioning shaft 5 during the upward process will drive the internal extended telescopic positioning shaft 6 to follow and push up synchronously. The extended telescopic positioning shaft 6 will be pushed up by the cooperation of the height correction inclined guide structure 8 and the extended drive structure 7, so that the extended telescopic positioning shaft 6 pushes up a higher distance relative to the elastic telescopic positioning shaft 5. When the irregular product reaches the sorting target point, the synchronous contraction inclined top structure 4 will be activated to retract and reset the multiple elastic telescopic positioning shafts 5 and extended telescopic positioning shafts 6 to below the upper surface of the sorting narrow belt assembly 3, and the sorting narrow belt assembly 3 will be activated to perform lateral conveying to move the irregular item to the target sorting position.

[0045] Under normal conditions, the synchronous contraction inclined top structure 4 drives the elastic telescopic positioning shaft 5 to contract, making its top end flush with the upper surface of the sorting narrow belt assembly 3. After the irregularly shaped product is placed in, its lower surface covers the corresponding elastic telescopic positioning shaft 5, the synchronous contraction inclined top structure 4 unlocks, and the uncovered elastic telescopic positioning shaft 5 is pushed up under the action of elastic force, forming a limiting contour on the outer surface of the irregularly shaped product to prevent deviation and rolling. When the elastic telescopic positioning shaft 5 is pushed up, it drives the extended telescopic positioning shaft 6 to move synchronously. Through the cooperation of the height correction inclined guide structure 8 and the extended drive structure 7, the extended telescopic positioning shaft 6 is pushed out relative to the elastic telescopic positioning shaft 5, which strengthens the limiting. After the irregularly shaped product reaches the sorting target point, the synchronous contraction inclined top structure 4 drives both to contract to the bottom of the sorting narrow belt assembly 3, and the sorting narrow belt assembly 3 moves laterally to transport the irregularly shaped product to the target position.

[0046] The sorting channel 2 of the present invention includes a base, on which a longitudinal conveying device is arranged in the longitudinal direction; a plurality of sorting narrow strip components 3 are arranged laterally, and the plurality of sorting narrow strip components 3 are evenly distributed along the longitudinal direction of the longitudinal conveying device; the longitudinal conveying device is provided on the base of the sorting channel 2, and the plurality of sorting narrow strip components 3 arranged laterally are evenly distributed along the longitudinal conveying device. When the longitudinal conveying device is in operation, it drives the sorting narrow strip components 3 connected thereto and the irregular products and standard parts carried above to achieve longitudinal uniform speed conveying, providing basic conveying power for subsequent sorting operations.

[0047] The sorting narrow belt assembly 3 of the present invention includes a connecting frame 301 for connecting a longitudinal conveying device. Two rollers 302 are provided on the connecting frame 301, and a narrow conveyor belt 303 is connected between the two rollers 302. A forward and reverse drive motor 304 for connecting the end of one of the rollers 302 is provided on the connecting frame 301. The connecting frame 301 of the sorting narrow belt assembly 3 fixedly supports the two rollers 302, and the narrow conveyor belt 303 is sleeved between the two rollers 302 to form a conveying surface. The forward and reverse drive motor 304 is connected to the end of one of the rollers 302. When the motor rotates forward or reverse, it drives the roller 302 to rotate, thereby driving the narrow conveyor belt 303 to move laterally, so as to realize the sorting of irregular products.

[0048] The linear array positioning shaft assembly 40 of the present invention further includes a connecting plate 4010 disposed between two adjacent sorting narrow strip assemblies 3, and a plurality of elastic telescopic positioning shafts 5 are evenly distributed on the connecting plate 4010 in the transverse direction;

[0049] The elastic telescopic positioning shaft 5 includes a vertical outer shaft cylinder 501 disposed at the bottom of the connecting plate 4010. A vertical telescopic positioning shaft 502 is movably disposed inside the vertical outer shaft cylinder 501. A spring structure 503 for keeping the vertical telescopic positioning shaft 502 pressed upward is disposed between the vertical outer shaft cylinder 501 and the vertical telescopic positioning shaft 502. The connecting plate 4010 fixes multiple elastic telescopic positioning shafts 5 between adjacent sorting narrow belt assemblies 3. The vertical outer shaft cylinder 501 of the elastic telescopic positioning shaft 5 provides a sliding guide for the vertical telescopic positioning shaft 502. The spring structure 503 continuously applies upward pressure to the vertical telescopic positioning shaft 502, ensuring that after the synchronous contraction inclined top structure 4 is unlocked, the vertical telescopic positioning shaft 502 not covered by the irregular part can quickly rise to form a limit position.

[0050] The extended range telescopic positioning shaft 6 of the present invention includes a hollow portion 601 disposed in the middle of the vertical telescopic positioning shaft 502. The vertical extended range positioning shaft 602 is movably disposed in the hollow portion 601. The hollow portion 601 in the middle of the vertical telescopic positioning shaft 502 provides vertical sliding space for the vertical extended range positioning shaft 602, so that the vertical extended range positioning shaft 602 can move synchronously with the vertical telescopic positioning shaft 502. At the same time, it can move up and down relative to the vertical telescopic positioning shaft 502 under the action of the extended range drive structure 7, thereby realizing the extension of the limit height.

[0051] The synchronous retractable inclined top structure 4 of the present invention includes a transverse electric track 401 along the connecting frame 301. A transverse reset slider 402 is movably disposed on the transverse electric track 401. A reset drive plate 403 is disposed on the transverse reset slider 402. A plurality of drive triangular slots 404 are evenly distributed on the reset drive plate 403 in the transverse direction. A drive longitudinal shaft 405 is disposed at the lower end of the vertical telescopic positioning shaft 502. The drive longitudinal shaft 405 is movably installed in a corresponding drive triangular slot 404. The transverse electric track 401 drives the transverse reset slider 402 and the reset drive plate 403 to move laterally. The drive triangular slots 404 on the reset drive plate 403 cooperate with the drive longitudinal shaft 405 at the lower end of the vertical telescopic positioning shaft 502. When the reset drive plate 403 moves laterally, the upper inclined surface 4041 of the drive triangular slot 404 pushes down on the drive longitudinal shaft 405, causing the vertical telescopic positioning shaft 502 to compress the spring structure 503 and retract synchronously, realizing multi-axis unified reset.

[0052] The extended range drive structure 7 of the present invention includes a longitudinal slide rail 701 disposed at the lower end of the vertical telescopic positioning shaft 602, a longitudinal slider 702 movably disposed within the longitudinal slide rail 701, a first hinge seat 703 disposed at the lower end of the vertical extended range positioning shaft 602, a second hinge seat 704 disposed on the longitudinal slider 702, and a connecting rod 705 hinged between the first hinge seat 703 and the second hinge seat 704. When the longitudinal slider 702 moves toward one side of the vertical extended range positioning shaft 602, it pushes the inner end of the connecting rod 705 upward, causing the... The first hinge seat 703 moves upward, enabling the vertical extension positioning shaft 602 to move upward; the longitudinal slider 702 can slide longitudinally along the longitudinal slide rail 701 at the lower end of the vertical telescopic positioning shaft 502; the two ends of the connecting rod 705 are respectively hinged to the vertical extension positioning shaft 602 and the longitudinal slider 702 through the first hinge seat 703 and the second hinge seat 704; when the longitudinal slider 702 moves toward the vertical extension positioning shaft 602, it pushes the inner end of the connecting rod 705 to swing upward, and drives the vertical extension positioning shaft 602 to move upward along the hollow part 601 through the first hinge seat 703, thereby achieving extension limit.

[0053] The height correction inclined guide structure 8 of the present invention includes a side plate 801 disposed on one side of the vertical outer shaft cylinder 501, the side plate 801 being provided with an inclined slot 802, and a correction drive crossbar 803 disposed in the middle of the connecting rod 705, the correction drive crossbar 803 being movably installed in the inclined slot 802; the side plate 801 on one side of the vertical outer shaft cylinder 501 is provided with an inclined slot 802, and the correction drive crossbar 803 in the middle of the connecting rod 705 is embedded in the inclined slot 802; when the vertical telescopic positioning shaft 502 is pushed up, it drives the connecting rod 705 to rise synchronously, the correction drive crossbar 803 slides along the inclined slot 802, forcing the connecting rod 705 to swing laterally and drive the longitudinal slider 702 to move, linking the range extension drive structure 7, and at the same time ensuring that the vertical range extension positioning shaft 602 is pushed out vertically without deviation.

[0054] The driving triangular slot 404 of the present invention includes an upper inclined surface 4041 for pushing down the driving longitudinal shaft 405 and a lower surface 4042 for providing clearance space for the driving longitudinal shaft 405 at the lowest position. The lower surface 4042 is used to prevent the driving triangular slot 404 from colliding with the driving longitudinal shaft 405 at the lowest position when the driving triangular slot 404 moves left and right. The driving longitudinal shaft 405 at the lowest position is the area covered by the lower surface of the irregular product. The corresponding driving longitudinal shaft 405 remains stationary when the driving triangular slot 404 moves laterally.

[0055] The inclined slot 802 is inclined from the lower outer side to the upper inner side; the upper inclined surface 4041 of the drive triangular slot 404 is used to push down the drive shaft 405 during horizontal movement, causing the vertical telescopic positioning shaft 502 to retract; the lower plane 4042 provides clearance for the drive shaft 405, which is at its lowest position and is covered by the irregular product, to avoid collision with the reset drive plate 403 during horizontal movement, ensuring that the positioning shaft in the area covered by the irregular part is stationary and not disturbed; the inclination angle of the inclined slot 802 guides the sliding of the correction drive crossbar 803, ensuring the stability of the extended range linkage.

[0056] An intelligent control method includes the following steps:

[0057] Step S1, Initialization control: Control the sorting narrow belt assembly 3 to maintain a uniform longitudinal conveying state, control the synchronous shrinking inclined top structure 4 to be in a locked state, drive multiple elastic telescopic positioning shafts 5 and internal extended telescopic positioning shafts 6 to shrink and reset, so that the top of the elastic telescopic positioning shaft 5 is flush with the upper surface of the narrow conveyor belt 303 of the sorting narrow belt assembly 3.

[0058] Step S2, irregular part detection and unlocking: The visual recognition module and weight detection module at the input end of the sorting channel 2 identify whether the item entering the sorting channel 2 is an irregular part. If it is determined to be an irregular part, an unlocking signal is output to the synchronous shrinking inclined top structure 4 to release the synchronous shrinking inclined top structure 4 from the lock of the elastic telescopic positioning shaft 5.

[0059] Step S3, Elastic Positioning and Extended Range Limiting: The elastic telescopic positioning shaft 5 is pushed upward under the elastic force of the spring structure 503. The elastic telescopic positioning shaft 5 covered by the lower surface of the irregular part is kept in a contracted state under pressure, while the uncovered elastic telescopic positioning shaft 5 is pushed upward and restricts the outer surface of the irregular part, forming a limiting contour to prevent lateral displacement and rolling during the conveying of irregular items. During the upward pushing process of the synchronous elastic telescopic positioning shaft 5, the linkage extended range drive structure 7 and the height correction inclined guide structure 8 cooperate to drive the extended range telescopic positioning shaft 6 to push upward relative to the elastic telescopic positioning shaft 5, thereby strengthening the limiting effect of the irregular part and preventing the irregular part from shifting or rolling during conveying.

[0060] Step S4, Sorting Positioning and Reset Trigger: The position of the irregular part is collected in real time by the positioning sensor on the sorting channel 2. When the irregular part is detected to have reached the preset sorting target point, a shrinkage reset signal and a sorting trigger signal are output.

[0061] Step S5, Synchronous contraction and sorting execution: Receive the contraction reset signal, control the synchronous contraction inclined top structure 4 to start, drive all elastic telescopic positioning shafts 5 and extended telescopic positioning shafts 6 to synchronously contract below the upper surface of the narrow conveyor belt 303, releasing the restriction on the irregular parts; Receive the sorting trigger signal, according to the preset sorting target position, control the forward and reverse drive motors 304 of the corresponding sorting narrow belt assembly 3 to start in a directional manner, drive the narrow conveyor belt 303 to move laterally, and move the irregular parts laterally to the target sorting position;

[0062] Step S6, Sorting Reset: After detecting that the irregular part has detached from the sorting narrow belt assembly 3, control the forward and reverse drive motor 304 of the sorting narrow belt assembly 3 to stop and reset to the longitudinal conveying state, and simultaneously control the synchronous shrinking inclined top structure 4 to reset to the locked state, waiting for the next item to be sorted.

[0063] The foregoing has shown and described the basic principles and main features of the present invention, as well as its advantages. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the present invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

1. A narrow strip sorting machine for sorting irregularly shaped parts, comprising a material input channel (1) and a sorting channel (2) connected to the material input channel (1), wherein a plurality of narrow strip sorting components (3) are evenly distributed longitudinally on the sorting channel (2), characterized in that: Linear array positioning axis assembly (40) between two adjacent sorting narrow strip assemblies (3); The linear array positioning axis assembly (40) includes a plurality of elastic telescopic positioning axes (5) evenly distributed in the lateral direction; an extended range telescopic positioning axis (6) is provided inside the elastic telescopic positioning axis (5); a synchronous shrinking inclined top structure (4) is provided between the sorting narrow strip assembly (3) and the plurality of elastic telescopic positioning axes (5); an extended range drive structure (7) is provided between the elastic telescopic positioning axis (5) and the extended range telescopic positioning axis (6); and a height correction inclined guide structure (8) is provided between the sorting channel (2) and the extended range telescopic positioning axis (6). The sorting channel (2) includes a base, on which a longitudinal conveying device is provided along the longitudinal direction; The sorting narrow strip assembly (3) includes a connecting frame (301) for connecting to a longitudinal conveyor. The linear array positioning axis assembly (40) also includes a connecting plate (4010) disposed between two adjacent sorting narrow strip assemblies (3). The elastic telescopic positioning shaft (5) includes a vertical outer shaft cylinder (501) disposed at the bottom of the connecting plate (4010), and a vertical telescopic positioning shaft (502) is movably disposed inside the vertical outer shaft cylinder (501). The range extender telescopic positioning shaft (6) includes a hollow part (601) disposed in the middle of the vertical telescopic positioning shaft (502), and the vertical range extender positioning shaft (602) is movably disposed inside the hollow part (601). The synchronous retractable inclined top structure (4) includes a transverse electric track (401) along the connecting frame (301), a transverse reset slider (402) is movably arranged on the transverse electric track (401), a reset drive plate (403) is arranged on the transverse reset slider (402), a plurality of drive triangular slots (404) are evenly distributed on the reset drive plate (403) in the transverse direction, and a drive longitudinal shaft (405) is arranged at the lower end of the vertical telescopic positioning shaft (502), and the drive longitudinal shaft (405) is movably installed in a corresponding drive triangular slot (404); The range extender drive structure (7) includes a longitudinal slide rail (701) disposed at the lower end of the vertical telescopic positioning shaft (502), a longitudinal slider (702) is movably disposed in the longitudinal slide rail (701), a first hinge seat (703) is disposed at the lower end of the vertical range extender positioning shaft (602), a second hinge seat (704) is disposed on the longitudinal slider (702), and a connecting rod (705) is hinged between the first hinge seat (703) and the second hinge seat (704). The height correction inclined guide structure (8) includes a side plate (801) disposed on one side of the vertical outer shaft cylinder (501), an inclined slot (802) is provided on the side plate (801), and a correction drive crossbar (803) is provided in the middle of the connecting rod (705), and the correction drive crossbar (803) is movably installed in the inclined slot (802).

2. The narrow-strip sorting machine for sorting irregularly shaped parts according to claim 1, characterized in that: The sorting channel (2) also includes a plurality of sorting narrow strip components (3) arranged laterally, and the plurality of sorting narrow strip components (3) are evenly distributed along the longitudinal direction of the longitudinal conveying device.

3. A narrow-strip sorting machine for sorting irregularly shaped parts according to claim 2, characterized in that: The sorting narrow belt assembly (3) also includes two rollers (302) arranged on the connecting frame (301), a narrow conveyor belt (303) connected between the two rollers (302), and a forward and reverse drive motor (304) for connecting the end of one of the rollers (302) arranged on the connecting frame (301).

4. A narrow-strip sorting machine for sorting irregularly shaped parts according to claim 3, characterized in that: The linear array positioning axis assembly (40) also includes a plurality of elastic telescopic positioning axes (5) evenly distributed in the transverse direction on the connecting plate (4010); The elastic telescopic positioning shaft (5) also includes a spring structure (503) between the vertical outer shaft cylinder (501) and the vertical telescopic positioning shaft (502) for keeping the vertical telescopic positioning shaft (502) pressed upward.

5. A narrow-strip sorting machine for sorting irregularly shaped parts according to claim 4, characterized in that: The drive triangular slot (404) includes an upper inclined surface (4041) for pushing down the drive longitudinal shaft (405) and a lower surface (4042) for providing clearance space for the drive longitudinal shaft (405) in its lowest position. The inclined slot (802) is inclined from the outer side of the lower end to the inner side of the upper end.

6. An intelligent control method for a narrow-strip sorting machine capable of sorting irregularly shaped parts according to claim 5, characterized in that, Includes the following steps: Step S1, Initialization control: Control the sorting narrow belt assembly (3) to maintain a uniform longitudinal conveying state, control the synchronous shrinking inclined top structure (4) to be in a locked state, drive multiple elastic telescopic positioning shafts (5) and internal extended telescopic positioning shafts (6) to shrink and reset, so that the top of the elastic telescopic positioning shaft (5) is flush with the upper surface of the narrow conveyor belt (303) of the sorting narrow belt assembly (3); Step S2, irregular part detection and unlocking: The visual recognition module and weight detection module at the input end of the sorting channel (2) identify whether the item entering the sorting channel (2) is an irregular part. If it is determined to be an irregular part, an unlocking signal is output to the synchronous shrinking inclined top structure (4) to release the synchronous shrinking inclined top structure (4) from locking the elastic telescopic positioning shaft (5). Step S3, Elastic Positioning and Extended Range Limiting: The elastic telescopic positioning shaft (5) is pushed upward under the elastic force of the spring structure (503). The elastic telescopic positioning shaft (5) covered by the lower surface of the irregular part is kept in a contracted state under pressure. The elastic telescopic positioning shaft (5) that is not covered is pushed upward and restricts the outer surface of the irregular part, forming a limiting contour to prevent the irregular part from shifting and rolling during the conveying process. During the upward push of the synchronous elastic telescopic positioning shaft (5), the linkage extended range drive structure (7) and the height correction inclined guide structure (8) cooperate to drive the extended range telescopic positioning shaft (6) to push upward relative to the elastic telescopic positioning shaft (5) to enhance the limiting effect of the irregular part and prevent the irregular part from shifting or rolling during conveying. Step S4, sorting positioning and reset trigger: The position of the irregular part is collected in real time by the positioning sensor on the sorting channel (2). When the irregular part is detected to have reached the preset sorting target point, the shrinkage reset signal and the sorting trigger signal are output. Step S5, synchronous shrinkage and sorting execution: Receive shrinkage reset signal, control the synchronous shrinkage inclined top structure (4) to start, drive all elastic telescopic positioning shafts (5) and extended telescopic positioning shafts (6) to shrink synchronously to below the upper surface of the narrow conveyor belt (303), and release the restriction on the irregular parts; Receive sorting trigger signal, according to the preset sorting target position, control the forward and reverse drive motors (304) of the corresponding sorting narrow belt assembly (3) to start in a directional manner, drive the narrow conveyor belt (303) to move laterally, and move the irregular parts laterally to the target sorting position; Step S6, Sorting Reset: After detecting that the irregular part has detached from the sorting narrow belt assembly (3), control the forward and reverse drive motor (304) of the sorting narrow belt assembly (3) to stop and reset to the longitudinal conveying state, and synchronously control the synchronous shrinking inclined top structure (4) to reset to the locked state, waiting for the next item to be sorted.

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