Multi-channel whole-column shunting conveying device

Abstract

The utility model discloses a multi-channel whole-column shunting conveying device which comprises a module base, a first-stage flow channel assembly, a second-stage flow channel assembly and a third-stage flow channel assembly, a first-stage shunting mechanism is arranged between the first-stage flow channel assembly and the second-stage flow channel assembly, and a plurality of second-stage shunting mechanisms are arranged between the second-stage flow channel assembly and the third-stage flow channel assembly. According to the utility model, a multi-stage shunting mode is adopted, so that the feeding requirements of multiple rows of products are met, and the main runner, the second-stage sub-runner, the third-stage sub-runner and other parts can be replaced aiming at different products, so that the conveying requirements of different products are met. Meanwhile, due to the adoption of a multi-stage flow dividing mode, the machining and feeding requirements of multiple stations are met, the overall machining efficiency is greatly improved, and the requirement for enlarging the production scale is met.

Description

Technical Field

[0001] This utility model relates to the field of automated production equipment technology, and in particular to a multi-channel aligning and diverting conveyor device. Background Technology

[0002] A lining conveyor is an automated mechanical mechanism that neatly arranges scattered, irregularly packaged products and transports them in a fixed direction. A lining conveyor typically consists of a vibrating base, six vibrating tracks, sensors, and a driver control system. Currently available lining conveyors have the following shortcomings:

[0003] 1. Limited flexibility and poor adaptability: For items of different sizes or shapes, it may be necessary to replace equipment or make complex adjustments. Furthermore, the transmission paths of existing equipment are usually preset, making it difficult to cope with needs requiring temporary changes.

[0004] 2. Limited scalability and capacity bottlenecks prevent the conveyor system from increasing its carrying capacity to accommodate the expansion of production scale.

[0005] Therefore, existing technologies have shortcomings and need to be improved. Utility Model Content

[0006] The purpose of this invention is to overcome the shortcomings of the prior art and provide a multi-channel aligning and diverting conveying device.

[0007] The technical solution of this utility model is as follows: A multi-channel alignment and diversion conveying device is provided, comprising: a module base, a primary flow channel assembly, a secondary flow channel assembly, and a tertiary flow channel assembly disposed on the module base. The primary flow channel assembly is provided with a main flow channel, the secondary flow channel assembly is provided with a plurality of secondary diversion channels, and the tertiary flow channel assembly is provided with a plurality of tertiary diversion channels. A primary diversion mechanism is disposed between the primary flow channel assembly and the secondary flow channel assembly, and a plurality of secondary diversion mechanisms are disposed between the secondary flow channel assembly and the tertiary flow channel assembly. Different motion states of the primary diversion mechanism correspond to the main flow channel and the secondary diversion channels, respectively, and different motion states of the secondary diversion mechanism correspond to the secondary diversion channels and the tertiary diversion channels, respectively.

[0008] Furthermore, the primary diversion mechanism includes: a primary distributing cylinder disposed at the rear end of the primary flow channel assembly, and a primary distributing block disposed on the moving end of the primary distributing cylinder. The primary distributing block is provided with a primary distributing flow channel. The primary distributing cylinder drives the primary distributing block to move, so that the primary distributing flow channel moves to a position corresponding to the main flow channel or the secondary distributing flow channel.

[0009] Furthermore, the secondary flow channel component is provided with two sets of secondary branch channels corresponding to the main flow channel of the primary flow channel component.

[0010] Furthermore, the secondary diversion mechanism includes: a secondary distributing cylinder disposed at the rear end of the secondary flow channel assembly, and a secondary distributing block disposed on the moving end of the secondary distributing cylinder. The secondary distributing block is provided with a secondary distributing flow channel. The secondary distributing cylinder drives the secondary distributing block to move, so that the secondary distributing flow channel moves to the position corresponding to the secondary distributing flow channel or the tertiary distributing flow channel, respectively.

[0011] Furthermore, the three-stage flow channel assembly is provided with two sets of three-stage flow channels for each set of two-stage flow channels.

[0012] Furthermore, the module base is provided with independent support seats for the primary flow channel assembly, the secondary flow channel assembly and the tertiary flow channel assembly respectively. A direct vibration feeder is provided on each support seat, and the primary flow channel assembly, the secondary flow channel assembly and the tertiary flow channel assembly are respectively provided on the direct vibration feeder.

[0013] By adopting the above solution, this utility model uses a multi-stage diversion method to meet the feeding needs of multiple product lines. Furthermore, the main flow channel, secondary diversion channel, and tertiary diversion channel can be replaced for different products to adapt to their transportation requirements. Simultaneously, the multi-stage diversion method ensures the material supply needs of multiple workstations, thereby significantly improving overall processing efficiency and meeting the demands of expanded production scale. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the structure of this utility model.

[0015] Figure 2 for Figure 1 A magnified view of a portion of point A in the middle.

[0016] Figure 3 for Figure 1 A magnified view of a portion of point B in the middle. Detailed Implementation

[0017] The present invention will be described in detail below with reference to the accompanying drawings and specific embodiments.

[0018] Please see Figure 1This utility model provides a multi-channel alignment and diversion conveying device, including: a module base 1, a primary flow channel assembly 2, a secondary flow channel assembly 3, and a tertiary flow channel assembly 4 disposed on the module base 1. The primary flow channel assembly 2 is provided with a main flow channel 21, the secondary flow channel assembly 3 is provided with a plurality of secondary diversion channels 31, and the tertiary flow channel assembly 4 is provided with a plurality of tertiary diversion channels 41. A primary diversion mechanism 5 is disposed between the primary flow channel assembly 2 and the secondary flow channel assembly 3, and a plurality of secondary diversion mechanisms 6 are disposed between the secondary flow channel assembly 3 and the tertiary flow channel assembly 4. The different motion states of the primary diversion mechanism 5 correspond to the main flow channel 21 and the secondary diversion channels 31, respectively, and the different motion states of the secondary diversion mechanism 6 correspond to the secondary diversion channels 31 and the tertiary diversion channels 41, respectively.

[0019] During operation, the primary flow channel assembly 2 connects to the feeding mechanism. When the feeding mechanism is activated, the product is delivered to the main flow channel 21 of the primary flow channel assembly 2. When the product reaches the end of the main flow channel 21, the primary diversion mechanism 5 moves to a position corresponding to the main flow channel 21, thus docking with the main flow channel 21 and transferring the product onto the primary diversion mechanism 5. Then, the primary diversion mechanism 5 is moved to a position corresponding to one of the secondary diversion channels 31 of the secondary flow channel assembly 3, aligning with that secondary diversion channel 31 to facilitate the transfer of the product from the primary diversion mechanism 5 to that secondary diversion channel 31. When product diversion is required, the primary diversion mechanism 5 is moved to a position corresponding to another set of secondary diversion channels 31, and the product is transferred accordingly, thereby achieving product diversion from the main flow channel 21 to the secondary diversion channel 31.

[0020] Similarly, when products are transported along the secondary distribution channel 31, the secondary distribution mechanism 6 moves to a position corresponding to the main distribution channel 21, thus docking with the secondary distribution channel 31 and transferring the product onto it. Then, the secondary distribution mechanism 6 is moved to a position corresponding to one of the sets of tertiary distribution channels 41 in the tertiary distribution channel assembly 4, aligning with that channel to facilitate the transfer of products from the secondary distribution mechanism 6 into that channel. When product diversion is required, the secondary distribution mechanism 6 is moved to a position corresponding to another set of tertiary distribution channels 41, and the product is transferred accordingly, thereby achieving product diversion from the secondary distribution channel 31 to the tertiary distribution channel 41.

[0021] This invention employs a multi-stage diversion method to meet the feeding needs of multiple product lines. Furthermore, the main feeder 21, secondary diversion feeder 31, and tertiary diversion feeder 41 can be replaced to adapt to different product transport requirements. Simultaneously, the multi-stage diversion method ensures the material supply to multiple workstations, significantly improving overall processing efficiency and meeting the needs of expanded production scale.

[0022] In some embodiments, please refer to Figure 1 , Figure 2 The primary distribution mechanism 5 includes: a primary distribution cylinder 51 disposed at the rear end of the primary flow channel assembly 2, and a primary distribution block 52 disposed on the moving end of the primary distribution cylinder 51. The primary distribution block 52 is provided with a primary distribution flow channel 521. The primary distribution cylinder 51 drives the primary distribution block 52 to move, so that the primary distribution flow channel 521 moves to a position corresponding to the main flow channel 21 or the secondary distribution channel 31. The secondary flow channel assembly 3 is provided with two sets of secondary distribution channels 31 corresponding to the main flow channel 21 of the primary flow channel assembly 2. During operation, the primary distribution block 52 is driven to move by the primary distribution cylinder 51. When the primary distribution block 52 moves to the corresponding position of the primary flow channel assembly 2, so that the primary distribution flow channel 521 corresponds to the main flow channel 21, the product on the main flow channel 21 can be transferred to the primary distribution flow channel 521. Then, the primary distribution cylinder 51 moves the primary distribution block 52 to a position corresponding to one of the secondary distribution channels 31 in the secondary flow channel assembly 3, so that the primary distribution channel 521 corresponds to the secondary distribution channel 31, facilitating the movement of products from the primary distribution channel 521 to the current secondary distribution channel 31. Then, the primary distribution cylinder 51 drives the primary distribution block 52 to move again to a position corresponding to the main flow channel 21, moving the product into the primary distribution channel 521. Finally, the primary distribution cylinder 51 drives the primary distribution block 52 to move to a position corresponding to another set of secondary distribution channels 31 for feeding.

[0023] In some specific embodiments, the main channel 21 and one of the secondary diversion channels 31 are located on the same straight line. When material distribution is not required, the primary material distribution block 52 is located between the main channel 21 and the secondary diversion channel 31, thereby connecting the main channel 21 and the current secondary diversion channel 31 through the primary material distribution channel 521 to meet the needs of continuous material feeding.

[0024] In some specific embodiments, two sets of secondary diversion channels 31 are respectively arranged on both sides of the main channel 21, and a three-position cylinder is used as the primary material distribution cylinder 51 to meet the requirement of moving the primary material distribution block 52 between the main channel 21 and the two secondary diversion channels 31.

[0025] In some specific embodiments, the primary material distribution block 52 is provided with two sets of primary material distribution channels 521. When the distribution block moves to the left limit position under the drive of the primary material distribution cylinder 51, the left primary material distribution channel 521 corresponds to the left secondary distribution channel 31, and the right primary material distribution channel 521 corresponds to the main channel 21. When the primary material distribution cylinder 51 drives the primary material distribution block 52 to move to the right limit position, the left primary material distribution channel 521 corresponds to the main channel 21, and the right primary material distribution channel 521 corresponds to the right secondary distribution channel 31. This arrangement facilitates the transfer of material from the other set of primary material distribution channels 521 to the secondary distribution channel 31 while the main channel 21 transfers material to the primary material distribution channel 521, thereby improving material transportation efficiency.

[0026] In some embodiments, please refer to Figure 1 , Figure 3 The secondary distribution mechanism 6 includes: a secondary distribution cylinder 61 disposed at the rear end of the secondary flow channel assembly 3, and a secondary distribution block 62 disposed on the moving end of the secondary distribution cylinder 61. The secondary distribution block 62 is provided with a secondary distribution flow channel 621. The secondary distribution cylinder 61 drives the secondary distribution block 62 to move, causing the secondary distribution flow channel 621 to move to a position corresponding to either the secondary distribution channel 31 or the tertiary distribution channel 41. The tertiary flow channel assembly 4 is provided with two sets of tertiary distribution channels 41 corresponding to each set of secondary distribution channels 31. During operation, the secondary distribution block 62 is driven to move by the secondary distribution cylinder 61. When the secondary distribution block 62 moves to the corresponding position in the secondary flow channel assembly 3, so that the secondary distribution channel 621 corresponds to the secondary distribution channel 31, the product on the secondary distribution channel 31 can be transferred to the secondary distribution channel 621. Then, the secondary distribution cylinder 61 moves the secondary distribution block 62 to a position corresponding to one of the three-stage distribution channels 41 in the three-stage flow channel assembly 4, so that the secondary distribution channel 621 corresponds to the three-stage distribution channel 41, facilitating the movement of the product in the secondary distribution channel 621 to the current three-stage distribution channel 41. Then, the secondary distribution cylinder 61 drives the secondary distribution block 62 to move again to a position corresponding to the secondary distribution channel 31, moving the product into the secondary distribution channel 621. Then, the secondary distribution cylinder 61 drives the secondary distribution block 62 to move to a position corresponding to another set of three-stage distribution channels 41 for feeding.

[0027] In some specific embodiments, the secondary distribution channel 31 and one of the tertiary distribution channels 41 are located on the same straight line. When material distribution is not required, the secondary distribution block 62 is located between the secondary distribution channel 31 and the tertiary distribution channel 41, thereby connecting the secondary distribution channel 31 and the current tertiary distribution channel 41 through the secondary distribution channel 621 to meet the needs of continuous material feeding.

[0028] In some specific embodiments, two sets of three-stage diversion channels 41 are respectively arranged on both sides of the main channel 21, and a three-position cylinder is used as the secondary material distribution cylinder 61 to meet the requirement of moving the secondary material distribution block 62 between the secondary diversion channel 31 and the two sides of the three-stage diversion channels 41.

[0029] In some specific embodiments, the secondary material distribution block 62 is provided with two sets of secondary material distribution channels 621. When the material distribution block moves to the left limit position under the drive of the secondary material distribution cylinder 61, the left secondary material distribution channel 621 corresponds to the left tertiary distribution channel 41, and the right secondary material distribution channel 621 corresponds to the position of the secondary distribution channel 31. When the secondary material distribution cylinder 61 drives the secondary material distribution block 62 to move to the right limit position, the left secondary material distribution channel 621 corresponds to the position of the secondary distribution channel 31, and the right secondary material distribution channel 621 corresponds to the position of the right tertiary distribution channel 41. This arrangement facilitates the transfer of material from the other set of secondary material distribution channels 621 to the tertiary distribution channel 41 while material is being transferred from the secondary distribution channel 31 to the secondary material distribution channel 621, thereby improving material transportation efficiency.

[0030] In some embodiments, the module base 1 is provided with independent support seats 11 corresponding to the primary flow channel assembly 2, the secondary flow channel assembly 3, and the tertiary flow channel assembly 4. A direct vibration feeder 12 is respectively mounted on each support seat 11, and the primary flow channel assembly 2, the secondary flow channel assembly 3, and the tertiary flow channel assembly 4 are respectively mounted on the direct vibration feeder 12. By providing independent support seats 11, modular design of the primary flow channel assembly 2, the secondary flow channel assembly 3, and the tertiary flow channel assembly 4 is facilitated, meeting the multi-channel alignment and diversion feeding requirements under different usage environments and needs. Simultaneously, by providing a direct vibration feeder 12 on each support seat 11, the material transport needs of each flow channel are met, avoiding situations where material transport is impossible due to loss of thrust.

[0031] In summary, this utility model employs a multi-stage diversion method to meet the feeding needs of multiple product lines. Furthermore, the main flow channel, secondary flow channel, and tertiary flow channel can be replaced to adapt to the different product transport requirements. Simultaneously, the multi-stage diversion method ensures the material supply to multiple workstations, thereby significantly improving overall processing efficiency and meeting the needs of expanding production scale.

[0032] The above are merely preferred embodiments of the present utility model and are not intended to limit the present utility model. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A multi-channel aligning and splitting conveying device, characterized in that, include: The module base includes a primary flow channel assembly, a secondary flow channel assembly, and a tertiary flow channel assembly disposed on the module base. The primary flow channel assembly has a main flow channel, the secondary flow channel assembly has several secondary branch flow channels, and the tertiary flow channel assembly has several tertiary branch flow channels. A primary flow splitting mechanism is disposed between the primary and secondary flow channel assemblies, and several secondary flow splitting mechanisms are disposed between the secondary and tertiary flow channel assemblies. Different movement states of the primary flow splitting mechanism correspond to the main flow channel and the secondary branch flow channels, respectively, and different movement states of the secondary flow splitting mechanism correspond to the secondary branch flow channels and the tertiary branch flow channels, respectively.

2. The multi-channel alignment and distribution conveying device according to claim 1, characterized in that, The primary diversion mechanism includes: a primary distributing cylinder disposed at the rear end of the primary flow channel assembly, and a primary distributing block disposed on the moving end of the primary distributing cylinder. The primary distributing block is provided with a primary distributing flow channel. The primary distributing cylinder drives the primary distributing block to move, so that the primary distributing flow channel moves to the position corresponding to the main flow channel or the secondary distributing flow channel.

3. The multi-channel alignment and distribution conveying device according to claim 1, characterized in that, The secondary flow channel component has two sets of secondary branch channels corresponding to the main flow channel of the primary flow channel component.

4. The multi-channel alignment and distribution conveying device according to claim 1, characterized in that, The secondary diversion mechanism includes: a secondary distributing cylinder disposed at the rear end of the secondary flow channel assembly, and a secondary distributing block disposed on the moving end of the secondary distributing cylinder. The secondary distributing block is provided with a secondary distributing flow channel. The secondary distributing cylinder drives the secondary distributing block to move, so that the secondary distributing flow channel moves to the position corresponding to the secondary distributing flow channel or the tertiary distributing flow channel respectively.

5. The multi-channel alignment and distribution conveying device according to claim 1, characterized in that, The three-stage flow channel assembly is provided with two sets of three-stage flow channels for each set of two-stage flow channels.

6. The multi-channel alignment and distribution conveying device according to claim 1, characterized in that, The module base is provided with independent support seats for the primary flow channel component, the secondary flow channel component and the tertiary flow channel component respectively. A direct vibration feeder is provided on each support seat, and the primary flow channel component, the secondary flow channel component and the tertiary flow channel component are respectively provided on the direct vibration feeder.

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