An industrial Internet of Things data collector

Abstract

The present invention seeks to protect an industrial Internet of Things data collector, which includes a main control module, and a display module, a scanning module and a printing module respectively connected to the main control module. The main control module is used to collect data from third-party devices through a network port or a serial port, and transmit the data to a cloud server through a network. It also includes a number of sub-collection modules connected to the main control module, and each sub-collection module collects data from different third-party devices through a network port or a serial port. The cloud server is provided with a statistics module and a comparison module that are interconnected. In summary, the above technical solution has the following beneficial effects: the industrial Internet of Things data collector can collect data produced by third-party devices for assembling finished products through the main control module, collect the work number of the operating employee through the scanning module, and transmit the work number and production data of the employee to the cloud server, and the printing module can bind the work number information of the employee and the production data in the cloud server to form a work order and print it out.

Description

Technical Field

[0001] The present invention relates to the field of industrial Internet of Things, and more specifically, to an industrial Internet of Things data collector. Background Art

[0002] Industrial Internet of Things is the Internet of Things technology in the industrial field. It interconnects the sensing equipment, control terminal equipment, and industrial network equipment in the industrial field based on global mobile communication technology. With the application of emerging technologies in traditional industrial fields, the new industrial production model that integrates cloud platforms, edge computing, big data analysis, and artificial intelligence is prompting the rapid transformation of the Industrial Internet of Things to digitalization and intelligence. However, the existing collectors have a single function and can only collect data separately. Therefore, how to make the collector have more convenient functions is the problem of this application.

[0003] For this reason, many manufacturers and knowledgeable people have carried out development and research, but no ideal product has been launched so far. Summary of the invention

[0004] In view of the shortcomings of the existing technology, on the one hand, an industrial Internet of Things data collector is provided, which can form a work order together with employee information and finished product information.

[0005] To achieve the above objectives, on the one hand, the following technical solutions are provided:

[0006] An industrial Internet of Things data collector includes a main control module, and a display module, a scanning module and a printing module respectively connected to the main control module. The main control module is used to collect data from a third-party device through a network port or a serial port, and transmit the data to a cloud server through a network. The display module is used for employees to view and operate. The scanning module is used to scan the employee's work number and the work order of the finished product. The printing module is used to print the work order of the finished product.

[0007] It also includes several sub-collection modules connected to the main control module, and each sub-collection module collects data from different third-party devices through an Internet port or a serial port.

[0008] The cloud server is provided with interconnected statistical module and comparison module. The statistical module is used to store the types and quantities of parts transmitted by the main control module. The comparison module is preset with the types and quantities of parts of the finished product. The printing module prints the corresponding number of work orders according to the ratio of the data in the statistical module and the comparison module.

[0009] In summary, the above technical solution has the following beneficial effects: the industrial Internet of Things data collector can collect data produced by third-party equipment for assembling finished products through the main control module, collect the work number of the operating employee through the scanning module, and transmit the work number and production data of the employee to the cloud server. The printing module can bind the work number information of the employee in the cloud server with the production data to form a work order and print it out. After the work order is pasted on the finished product, it can be scanned by the scanning module to determine the production situation of the employees in the factory. The sub-collection module is used to collect the production data of the parts of the finished product and the work number of the employee who produces the parts, and transmit the data to the main control module. When the printing module prints the work order of the finished product, it binds the production data of the parts and the work number information of the employee who produces the parts. The quantity and type information of the parts collected by the sub-collection module is transmitted to the statistical module through the main control module. The comparison module compares the quantity and type information of the parts with the preset quantity and type information of the parts and prints the corresponding number of work orders. The production situation of the employees can be quickly and conveniently understood through the cloud server, so that the production information and employee information are combined, which greatly improves the efficiency of information transmission. BRIEF DESCRIPTION OF THE DRAWINGS

[0010] Figure 1 This is a schematic diagram of the module structure of an industrial Internet of Things data collector;

[0011] Figure 2 It is a schematic diagram of the structure of the upper shell and lower shell of an industrial Internet of Things data collector;

[0012] Figure 3 This is a schematic diagram of the bending structure of an industrial Internet of Things data collector;

[0013] Figure 4 A schematic diagram of a clamping part of an industrial Internet of Things data collector;

[0014] Figure 5 A schematic diagram of loosening the clamping part of an industrial Internet of Things data collector;

[0015] Figure 6 It is a schematic diagram of the front view of the elastic structure of an industrial Internet of Things data collector;

[0016] Figure 7 A schematic diagram of a left active block and a right active block of an industrial Internet of Things data collector;

[0017] Figure 8 A schematic diagram of a conveyor belt of an industrial Internet of Things data collector.

[0018] Figure numerals: 10, main control module; 20, display module; 30, scanning module; 40, printing module; 50, cloud server; 51, statistics module; 52, comparison module; 60, work order; 61, clamping edge; 70, sub-collection module; 80, labeling structure; 81, front conduit; 82, connecting conduit; 83, rear conduit; 84, bending part; 841, front rod; 842, rotating part; 843, rear rod; 85, adsorption head; 90, tray; 91, clamping part; 911, left clamping block; 9111, left fixed block; 9112, left movable block; 91 2. Right clamping block; 9121. Right fixed block; 9122. Right movable block; 913. Bolt; 100. Upper shell; 110. Lower shell; 120. Elastic structure; 121. Left telescopic rod; 1211. Left primary rod; 1212. Left secondary rod; 1213. Left tertiary rod; 122. Right telescopic rod; 1221. Right primary rod; 1222. Right secondary rod; 1223. Right tertiary rod; 123. Left connecting telescopic rod; 124. Right connecting telescopic rod; 125. Support rod; 130. Conveyor belt; 131. Placement position; 132. Return channel. DETAILED DESCRIPTION

[0019] The present invention is further described in detail below in conjunction with the accompanying drawings and embodiments. The same parts are represented by the same reference numerals. It should be noted that the words "front", "rear", "left", "right", "upper" and "lower" used in the following description refer to directions in the accompanying drawings, and the words "bottom surface" and "top surface", "inner" and "outer" refer to directions toward or away from the geometric center of a specific component, respectively.

[0020] like Figure 1As shown, an industrial Internet of Things data collector includes a main control module 10, and a display module 20, a scanning module 30 and a printing module 40 respectively connected to the main control module 10, the main control module 10 is used to collect data from third-party devices through a network port or a serial port, and transmit the data to a cloud server 50 through a network, the display module 20 is used for employees to view and operate, the scanning module 30 is used to scan the employee's work number and the work order 60 of the finished product, and the printing module 40 is used to print the work order 60 of the finished product; it also includes a plurality of sub-collection modules 70 connected to the main control module 10, each sub-collection module 70 collects data from different third-party devices through a network port or a serial port; the cloud server 50 is provided with a statistics module 51 and a comparison module 52 connected to each other, the statistics module 51 is used to store the types and quantities of parts transmitted by the main control module 10, the comparison module 52 is preset with the types and quantities of parts of the finished product, and the printing module 40 prints a corresponding number of work orders 60 according to the ratio of the data in the statistics module 51 and the comparison module 52. The industrial Internet of Things data collector can collect data produced by third-party equipment for assembling finished products through the main control module 10, collect the work number of the operating employee through the scanning module 30, and transmit the work number and production data of the employee to the cloud server 50. The printing module 40 can bind the work number information of the employee in the cloud server 50 with the production data to form a work order 60 and print it out. After the work order 60 is pasted on the finished product and scanned by the scanning module 30, the production situation of the employees in the factory can be determined. The sub-collection module 70 is used to collect the production data of the parts of the finished product and the work number of the employee who produces the parts, and transmit the data to the main control module 10. When the printing module 40 prints the work order 60 of the finished product, it binds the production data of the parts and the work number information of the employee who produces the parts. The quantity and type information of the parts collected by the sub-collection module 70 is transmitted to the statistical module 51 through the main control module 10. The comparison module 52 compares the quantity and type information of the parts with the preset quantity and type information of the parts and prints the corresponding number of work orders 60. Through the cloud server 50, the production situation of the employees can be quickly and conveniently understood, and the production information and employee information are combined, which greatly improves the efficiency of information transmission.

[0021] like Figure 2As shown, it also includes an upper shell 100 for installing the main control module 10, the display module 20 and the scanning module 30, and a lower shell 110 for installing the printing module 40. The upper shell 100 is movably connected to the lower shell 110, and the direction and distance of movement, as well as the angle of rotation are controlled by the main control module 10; it also includes a labeling structure 80 arranged on the upper shell 100, and the labeling structure 80 is coupled to the main control module 10, and is used to stick the work order 60 to the finished product. The structure of the upper shell 100 and the lower shell 110 allows the input part composed of the display module 20 and the scanning module 30 to be separated from the output part composed of the printing module 40, thereby improving the operating efficiency of the industrial Internet of Things data collector. The labeling structure 80 is used to stick the work order 60 to the finished product. When in use, the position between the upper shell 100 and the lower shell 110 is adjusted so that the labeling structure 80 can cooperate with the printing module 40 to complete the labeling action. The main control module 10 completes the rotation between the upper shell 100 and the lower shell 110 through the motor, and completes the movement between the upper shell 100 and the lower shell 110 through the slide rail.

[0022] The main control module 10 is coupled to the lower housing 110 and is used to receive the work order 60. The labeling structure 80 is externally connected to a negative pressure device. The main control module 10 is used to control the labeling structure 80 to suck up the work order 60 and paste it on the finished product. The main control module 10 is coupled to the negative pressure device to control whether the negative pressure device generates negative pressure during the labeling process.

[0023] like Figure 3 As shown, the labeling structure 80 includes a front conduit 81, a connecting conduit 82 and a rear conduit 83 connected in sequence, and a bending portion 84 connected to the front conduit 81 and the rear conduit 83 respectively, and the bending portion 84 is used to control the bending of the front conduit 81. The bending portion 84 is coupled to the main control module 10, and its bending is controlled by the main control module 10. When attaching the work order 60, the main control module 10 controls the bending portion 84 to bend down and suck up the work order 60 through the negative pressure device, and then the main control module 10 controls the bending portion 84 to straighten and attach the work order 60 to the finished product by controlling the movement of the upper shell 100, and finally the main control module 10 controls the negative pressure device to close.

[0024] The bending portion 84 includes a front rod 841, a rotating member 842 and a rear rod 843. The rotating member 842 is fixedly connected to the rear conduit 83 through the rear rod 843. The rotating member 842 is connected to the front conduit 81 through the front rod 841 to drive the front conduit 81 to bend. The rotating member 842 is coupled to the main control module 10, and its rotation is controlled by the main control module 10.

[0025] An elastic adsorption head 85 is provided at one end of the front conduit 81. The adsorption head 85 is elastic and can leave room for the stroke of action when adsorbing and pasting the work order 60. The adsorption head 85 can be replaced. Preferably, the adsorption head 85 is adapted to the size and shape of the sticker on the work order 60. The opening of the adsorption head 85 is a honeycomb structure to prevent the sticker from wrinkling when adsorbing the sticker on the work order 60.

[0026] like Figure 4 and 5 As shown, the tray 90 is provided with a clamping part 91 rotatably connected thereto, the area of ​​the isolation paper of the work order 60 is larger than the area of ​​the sticker, thereby forming a clamping edge 61 for the clamping part 91 to clamp, and the lower shell 110 is provided with an elastic structure 120 coupled to the main control module 10, and the elastic structure 120 is arranged in linkage with the clamping part 91, and is used to control the clamping part 91 to clamp or release the clamping edge 61. The adsorption head 85 is used to adsorb the sticker, and the area of ​​the isolation paper is larger than the sticker for the clamping part 91 to clamp the clamping edge 61, so that the sticker can be torn off.

[0027] The clamping portion 91 includes a left clamping block 911 and a right clamping block 912 rotatably arranged on both sides of the tray 90, and the elastic structure 120 includes a left telescopic rod 121, a right telescopic rod 122, a left connecting telescopic rod 123 and a right connecting telescopic rod 124, and the left telescopic rod 121 and the right telescopic rod 122 are respectively coupled to the main control module 10; the left telescopic rod 121 is rotatably connected to one end of the left connecting telescopic rod 123, and the other end of the left connecting telescopic rod 123 is connected to the left clamping block 911. When the left telescopic rod 121 is extended, the left connecting telescopic rod 123 drives the left clamping block 911 to clamp the clamping edge 61 on one side of the isolation paper; the right telescopic rod 122 is rotatably connected to one end of the right connecting telescopic rod 124, and the other end of the right connecting telescopic rod 124 is connected to the right clamping block 912. When the right telescopic rod 122 is extended, the right connecting telescopic rod 124 drives the right clamping block 912 to clamp the clamping edge 61 on the other side of the isolation paper. The left telescopic rod 121 and the left connecting telescopic rod 123 can rotate in any direction, and the right telescopic rod 122 and the right connecting telescopic rod 124 can also rotate in any direction. After the left telescopic rod 121 is extended, the left connecting telescopic rod 123 will be lifted. After one end of the left connecting telescopic rod 123 is lifted, the other end is fixedly connected to the left clamping block 911, and the angle with the left clamping block 911 remains unchanged, thereby controlling the left clamping block 911 to clamp the clamping edge 61. The linkage relationship between the right telescopic rod 122, the right connecting telescopic rod 124 and the right clamping block 912 is similar.

[0028] like Figure 6As shown, the left telescopic rod 121 includes a left primary rod 1211, a left secondary rod 1212 and a left tertiary rod 1213 which are telescopically connected in sequence from top to bottom, and the right telescopic rod 122 includes a right primary rod 1221, a right secondary rod 1222 and a right tertiary rod 1223 which are telescopically connected in sequence from top to bottom, the left primary rod 1211 is rotatably connected to the left connected telescopic rod 123, the right primary rod 1221 is rotatably connected to the right connected telescopic rod 124, the tray 90 is rotatably connected to the lower shell 110, the left secondary rod 1212 and the right secondary rod A support rod 125 is arranged between 1222, and the top of the support rod 125 is used to support the tray 90; when the left primary rod 1211 is extended, the left connecting telescopic rod 123 drives the left clamping block 911 to clamp the clamping edge 61 on one side of the isolation paper; when the right primary rod 1221 is extended, the right connecting telescopic rod 124 drives the right clamping block 912 to clamp the clamping edge 61 on the other side of the isolation paper; when the left secondary rod 1212 is retracted into the left tertiary rod 1213 and the right secondary rod 1222 is retracted into the right tertiary rod 1223, the tray 90 tilts. The main control module 10 is coupled to the left first-level rod 1211, the left second-level rod 1212, the left third-level rod 1213, the right first-level rod 1221, the right second-level rod 1222 and the right third-level rod 1223 respectively, and is used to individually control the extension and retraction of each rod. The left first-level rod 1211 and the right first-level rod 1221 are respectively used to control whether the left clamping block 911 and the right clamping block 912 clamp the clamping edge 61. The left second-level rod 1212, the right second-level rod 1222 and the support rod 125 are lowered together to control the tilt of the tray 90. After the adsorption head 85 adsorbs the sticker of the work order 60, the tilt of the tray 90 will drive one end of the isolation paper to tilt, thereby facilitating the separation of the isolation paper and the sticker of the work order 60.

[0029] like Figure 7As shown, the left clamping block 911 includes left fixed blocks 9111 located at both ends and a left movable block 9112 located in the middle. The two left fixed blocks 9111 are rotatably connected to the tray 90 respectively, and the left movable block 9112 is connected to the left connecting telescopic rod 123. The left movable block 9112 can move relative to the left fixed block 9111. The two left fixed blocks 9111 are provided with bolts 913 for fixing the left movable block 9112. The right clamping block 912 includes right fixed blocks 9121 located at both ends and a right movable block 9112 located in the middle. 22, the two right fixed blocks 9121 are rotatably connected to the tray 90 respectively, the right movable block 9122 is connected to the right connecting telescopic rod 124, the right movable block 9122 can move relative to the right fixed block 9121, and the two right fixed blocks 9121 are provided with bolts 913 for fixing the right movable block 9122; when the left movable block 9112 and the right movable block 9122 are adjusted to a distance that can clamp the clamping edge 61, the positions of the left movable block 9112 and the right movable block 9122 are fixed respectively by adjusting the bolts 913. Specifically, the left movable block 9112 is movably connected to the two left fixed blocks 9111, and the left movable block 9112 can move left and right on the plane of the tray 90. The right movable block 9122 is movably connected to the two right fixed blocks 9121, and the right movable block 9122 can move left and right on the plane of the tray 90. The left movable block 9112 and the right movable block 9122 can be adjusted to a position suitable for the work order 60 by moving left and right to clamp the clamping edge 61. After the left movable block 9112 and the right movable block 9122 are adjusted, the position is fixed by the bolts 913 on both sides. The adjustable left movable block 9112 and the right movable block 9122 can adapt to the pasting requirements of work orders 60 of different sizes.

[0030] like Figure 8 As shown, the finished product is transported by a conveyor belt 130. The conveyor belt 130 includes two layers. The upper layer of the conveyor belt 130 is provided with a plurality of placement positions 131, and the lower layer of the conveyor belt is provided with a return channel 132. The placement positions 131 can be opened. The placement positions 131 are coupled to the main control module 10. When the scanning module 30 does not scan the work order 60, the main control module 10 controls the placement positions 131 to open, allowing the finished product to fall into the return channel 132 and be transported to the initial position to re-attach the work order 60.

[0031] The above are only preferred embodiments of the present invention. The protection scope of the present invention is not limited to the above embodiments. All technical solutions under the concept of the present invention belong to the protection scope of the present invention. It should be pointed out that for ordinary technicians in this technical field, some improvements and modifications without departing from the principle of the present invention should also be regarded as the protection scope of the present invention.

Claims

1. An industrial Internet of Things data collector, characterized in that: The invention comprises a main control module (10), and a display module (20), a scanning module (30) and a printing module (40) respectively connected to the main control module (10), wherein the main control module (10) is used to collect data from a third-party device through a network port or a serial port, and transmit the data to a cloud server (50) through a network, the display module (20) is used for employees to view and operate, the scanning module (30) is used to scan the employee's work number and the work order (60) of the finished product, and the printing module (40) is used to print the work order (60) of the finished product; It also includes a plurality of sub-collection modules (70) connected to the main control module (10), each of the sub-collection modules (70) collecting data from different third-party devices through a network port or a serial port; The cloud server (50) is provided with a statistics module (51) and a comparison module (52) which are connected to each other, the statistics module (51) is used to store the types and quantities of parts transmitted by the main control module (10), the comparison module (52) is preset with the types and quantities of parts of the finished product, and the printing module (40) prints a corresponding number of work orders (60) according to the ratio of the data in the statistics module (51) and the comparison module (52); It also includes an upper housing (100) for mounting the main control module (10), the display module (20) and the scanning module (30), and a lower housing (110) for mounting the printing module (40); the upper housing (100) is movably connected to the lower housing (110), and the direction and distance of movement, as well as the angle of rotation, are controlled by the main control module (10); Also included is a labeling structure (80) disposed on the upper housing (100), wherein the labeling structure (80) is coupled to the main control module (10) and is used to adhere the work order (60) to the finished product; It also includes a tray (90) connected to the lower shell (110), the tray (90) is used to receive the work order (60), the labeling structure (80) is externally connected to a negative pressure device, and the main control module (10) is used to control the labeling device to suck up the work order (60) and stick it on the finished product; The labeling structure (80) comprises a front conduit (81), a connecting conduit (82) and a rear conduit (83) which are connected in sequence, and a bending portion (84) which is respectively connected to the front conduit (81) and the rear conduit (83), wherein the bending portion (84) is used to control the bending of the front conduit (81); The bending portion (84) comprises a front rod (841), a rotating member (842) and a rear rod (843); the rotating member (842) is fixedly connected to the rear conduit (83) via the rear rod (843); the rotating member (842) is connected to the front conduit (81) via the front rod (841) and is used to drive the front conduit (81) to bend; One end of the front conduit (81) is provided with an elastic adsorption head (85); The tray (90) is provided with a clamping portion (91) rotatably connected thereto; the area of ​​the isolation paper of the work order (60) is larger than the area of ​​the sticker, thereby forming a clamping edge (61) for being clamped by the clamping portion (91); the lower shell (110) is provided with an elastic structure (120) coupled to the main control module (10); the elastic structure (120) is arranged in linkage with the clamping portion (91) for controlling the clamping portion (91) to clamp or release the clamping edge (61).

2. The industrial Internet of Things data collector according to claim 1, characterized in that: The clamping portion (91) comprises a left clamping block (911) and a right clamping block (912) rotatably arranged on both sides of the tray (90); the elastic structure (120) comprises a left telescopic rod (121), a right telescopic rod (122), a left connecting telescopic rod (123) and a right connecting telescopic rod (124); the left telescopic rod (121) and the right telescopic rod (122) are respectively coupled to the main control module (10); The left telescopic rod (121) is rotatably connected to one end of the left connecting telescopic rod (123), and the other end of the left connecting telescopic rod (123) is connected to the left clamping block (911). When the left telescopic rod (121) is extended, the left connecting telescopic rod (123) drives the left clamping block (911) to clamp the clamping edge (61) on one side of the isolation paper. The right telescopic rod (122) is rotatably connected to one end of the right connecting telescopic rod (124), and the other end of the right connecting telescopic rod (124) is connected to the right clamping block (912). When the right telescopic rod (122) is extended, the right connecting telescopic rod (124) drives the right clamping block (912) to clamp the clamping edge (61) on the other side of the isolation paper.

3. The industrial Internet of Things data collector according to claim 2, characterized in that: The left telescopic rod (121) comprises a left primary rod (1211), a left secondary rod (1212) and a left tertiary rod (1213) which are telescopically connected in sequence from top to bottom; the right telescopic rod (122) comprises a right primary rod (1221), a right secondary rod (1222) and a right tertiary rod (1223) which are telescopically connected in sequence from top to bottom; the left primary rod (1211) is rotatably connected to the left connected telescopic rod (123); the right primary rod (1221) is rotatably connected to the right connected telescopic rod (124); the tray (90) is rotatably connected to the lower shell (110); a support rod (125) is provided between the left secondary rod (1212) and the right secondary rod (1222); the top of the support rod (125) is used to support the tray (90); When the left primary rod (1211) is extended, the left connecting telescopic rod (123) drives the left clamping block (911) to clamp the clamping edge (61) on one side of the isolation paper; when the right primary rod (1221) is extended, the right connecting telescopic rod (124) drives the right clamping block (912) to clamp the clamping edge (61) on the other side of the isolation paper; When the left secondary rod (1212) is retracted into the left tertiary rod (1213) and the right secondary rod (1222) is retracted into the right tertiary rod (1223), the tray (90) is tilted.

4. The industrial Internet of Things data collector according to claim 3 is characterized in that: The left clamping block (911) comprises left fixed blocks (9111) located at two ends and a left movable block (9112) located in the middle, the two left fixed blocks (9111) are respectively rotatably connected to the tray (90), the left movable block (9112) is connected to the left connecting telescopic rod (123), the left movable block (9112) can move relative to the left fixed block (9111), and the two left fixed blocks (9111) are provided with bolts (913) for fixing the left movable block (9112); The right clamping block (912) comprises right fixed blocks (9121) located at both ends and a right movable block (9122) located in the middle, the two right fixed blocks (9121) are respectively rotatably connected to the tray (90), the right movable block (9122) is connected to the right connecting telescopic rod (124), the right movable block (9122) can move relative to the right fixed block (9121), and bolts (913) for fixing the right movable block (9122) are provided on the two right fixed blocks (9121); When the left movable block (9112) and the right movable block (9122) are adjusted to a distance capable of clamping the clamping edge (61), the positions of the left movable block (9112) and the right movable block (9122) are fixed respectively by adjusting the bolts (913).

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