TWI723827B - Fast screening test piece manufacturing system - Google Patents

Abstract

A quick screening test piece manufacturing system, which is suitable for laminating processing of multiple materials set on the tray, and includes a conveying device for conveying the tray, and a material preview for detecting whether the materials on the tray are complete. The inspection unit, the suction and transfer unit used to transfer the objects on the feeding tray for stacking and bonding, and the control unit. The control unit can control the conveying device to stop when it analyzes and judges that the detection signal of the material pre-inspection unit represents the lack of material, and analyzes the image of one of the materials to determine that the material deflection or deviation is too large. The material pre-inspection unit can pre-check whether the material on the tray is complete, and the control unit can automatically determine whether the material on the tray is deflected or deviated too much through image analysis, which can achieve the automatic production of fast screening test pieces. The purpose of it is a very convenient and practical creation.

Description

Fast screening test piece manufacturing system

The invention relates to a test reagent manufacturing system, in particular to a quick screening test piece manufacturing system.

At present, the common manufacturing method of quick-screen test pieces is to manually place the various materials required to make the quick-screen test pieces on a tray, and then continue to use other processors to place the materials on the tray. The pieces are laminated and bonded, and then the semi-finished product of the bonded test piece is cut to make a plurality of quick-screen test pieces. Then, check whether the finished quick-screen test piece structure is qualified by manual inspection method or sample inspection method, and reject defective products. In addition to the labor-intensive manufacturing method, the processing quality is not easy to control, and it is easy to affect the quality of the quick-screen test piece produced due to human processing errors and missing defective products.

Therefore, the purpose of the present invention is to provide a fast screening test piece manufacturing system that can improve at least one of the disadvantages of the prior art.

Therefore, the quick screening test piece manufacturing system of the present invention is suitable for preparing a large plate, one absorbent pad, one release matrix pad, one whole blood separation filter membrane and one The sample pad is laminated. The quick screening test piece manufacturing system includes a conveying device for conveying the tray, a material pre-inspection unit, an image capture unit, a suction and transfer unit, and a control unit.

The material pre-inspection unit includes a plurality of detection modules for separately detecting whether the material tray being transferred through carries the large plate, the absorbent pad, the release matrix pad, the whole blood separation filter membrane and the sample pad. Each detection module generates a detection signal corresponding to its detection result. The image capturing unit can be used for image capturing of the large plate carried by the tray to obtain a large plate image. The suction and transfer unit includes a plurality of transfer molds that can be controlled to separate the absorbent pad, the release matrix pad, the whole blood separation filter membrane, and the sample pad from the tray, and transfer the transfer molds attached to the large plate. group.

The control unit includes a lack of material judgment module that can generate a warning signal when analyzing and judging that one of the detection signals represents no material, and a module that can analyze the image of the large plate to determine that the large plate deflection exceeds the threshold and/or the deviation exceeds the threshold. Threshold is an image analysis module that generates a warning signal, and a bonding control module. The bonding control module will be triggered by the warning signal and control the conveying device to stop, and will be triggered when the warning signal is not triggered. At this time, the transfer modules are controlled to transfer the absorbent pad, the release matrix pad, the whole blood separation filter membrane and the sample pad respectively.

The effect of the present invention is that the material pre-inspection unit can pre-check the design of whether the material on the material tray is complete, and the control unit can automatically determine whether the material on the material tray has deviated too much and the offset distance through image analysis It is too large and can automatically find out the problems of material shortage and placement error and carry out warning design, so that the fast screening test piece manufacturing system of the present invention can be used for the automatic production of fast screening test pieces, which is a very convenient and practical creation.

Before the present invention is described in detail, it should be noted that in the following description, similar elements are denoted by the same numbers.

Referring to Figures 1, 2, and 3, the embodiment of the fast screening test piece manufacturing system 100 of the present invention is suitable for transferring multiple trays, and can be used to laminate multiple materials carried by each tray 800 to manufacture one The semi-finished test piece 900 includes a large plate 901, a water-absorbent pad 902, a release matrix pad 903, a whole blood separation filter membrane 904, and a sample pad 905 for laminating processing. The large plate 901, the water-absorbent pad 902, the release matrix pad 903, the whole blood separation filter membrane 904, and the sample pad 905 are all in the shape of a long sheet extending left and right. The top surface of the tray 800 has a plurality of left and right extensions arranged at intervals in the front and rear, and the large plate 901, the absorbent pad 902, the release matrix pad 903, the whole blood separation filter membrane 904 and the sample pad 905 are respectively arranged槽801.

Wherein, the top surface of the large plate 901 is adhesive, which can be used for the absorbent pad 902, the release matrix pad 903, the whole blood separation filter membrane 904 and the sample pad 905 to be laminated to form the semi-finished test piece 900. In addition, the top surface of the large plate 901 is provided with a nitrocellulose membrane (NC membrane), which can drain the sample by capillary phenomenon; the absorbent pad 902 has the function of fast water absorption, which can make the made quick screening test piece be dripped After entering the sample, make the sample flow in the correct direction at an appropriate flow rate; the release matrix pad 903 is a glass fiber pad that can absorb the detection liquid required by the quick screening test piece; the whole blood separation filter 904 has Separate the red blood cells in the blood sample to reduce the interference of red blood cells on the detection; the sample pad 905 is a fiber matrix pad that can filter the solid components in the sample and reduce the interference that may affect the interpretation of the test piece. Since the above-mentioned materials are of numerous types and are not the focus of the improvement of the present invention, they will not be described in detail, and when implemented, the materials are not limited to the above-mentioned materials.

The quick-screen test piece manufacturing system 100 includes a base 2, a conveying device 3 arranged on the base 2 and used to sequentially convey a plurality of trays 800 along its extending direction, and a transport path along the tray 800. A material pre-inspection unit 4, an image capturing unit 6, a suction and transfer unit 5, and a control unit 7 are arranged on the base 2 at intervals.

The conveying device 3 has a front traverse module 31 and a rear traverse module 32 that extend left and right and are spaced parallel to each other, and extend back and forth and are respectively connected to the front traverse module 31 and the rear traverse module 32. A left vertical movement module 33 and a right vertical movement module 34 between the left end and the right end, and a left push module 35 and a left push module 35 located above the left vertical movement module 33 and the right vertical movement module 34 respectively A right push module 36, and the front lateral movement module 31, the rear lateral movement module 32, the left longitudinal movement module 33 and the right longitudinal movement module 34 cooperate to form a circular conveying path.

In this embodiment, both the front traverse module 31 and the rear traverse module 32 can be arranged to carry a plurality of trays 800 left and right. The left longitudinal movement module 33 has a carrier 331 for receiving a tray 800 pushed out to the left from the left end of the rear transverse movement module 32, and can be controlled to move the carried tray 800 forward to The left end of the front traverse module 31. The right vertical movement module 34 has a carrier 341 for carrying a tray 800 pushed out to the right at the right end of the front transverse movement module 31, and can be controlled to move the carried tray 800 backward To the right end of the rear lateral movement module 32.

The left pushing module 35 can be controlled to move the tray 800 carried by the left vertical movement module 33 to the right into the front lateral movement module 31, thereby forcing the materials carried by the front lateral movement module 31 The tray 800 is sequentially shifted to the right by a distance of one tray 800, so that the tray 800 on the rightmost side is moved to the right longitudinal movement module 34. The right pushing module 36 can be controlled to move the tray 800 carried by the right vertical movement module 34 to the left into the rear lateral movement module 32, thereby forcing the materials carried by the rear lateral movement module 32 The tray 800 is sequentially shifted to the left by a distance of one tray 800, so that the tray 800 on the leftmost side is moved to the left longitudinal movement module 33.

In this embodiment, both the left longitudinal movement module 33 and the right longitudinal movement module 34 are driven by the expansion and contraction of an air cylinder to move the carriers 331 and 341 back and forth to the feed tray 800. The left pushing module 35 and the right pushing module 36 are respectively installed on a left and right extending rail 350, 360 and can be driven left and right displacement pushing members 351, 361, respectively to push the left vertical movement module 33 And the tray 800 on the right longitudinal shift module 34. Since there are many types of mechanisms for transferring objects, in implementation, the manner in which the conveying device 3 transfers the trays 80 is not limited to the above-mentioned implementation aspects.

With reference to FIG. 4, the material pre-inspection unit 4 includes a plurality of detection modules 41 which are arranged on the front end of the right longitudinal movement module 34 at intervals from front to back. The detection modules 41 are respectively located in the longitudinal transfer module. Above the grooves 801 of the tray 800 carried by 51, it can be used to detect whether the grooves 801 respectively contain the large plate 901, the absorbent pad 902, the release matrix pad 903, and the whole blood separation. The filter membrane 904 and the sample pad 905 respectively generate a detection signal. In this embodiment, each detection module 41 is a light-reflective sensor, which sends a detection light downward to the corresponding groove 801, and transmits whether the detection light reflected from bottom to top or transmitted through Analyze the measured reflection time change of the reflected light and other methods to determine whether the groove 801 contains materials. However, during implementation, there are many ways to sense whether the groove 801 contains the material, so the implementation is not limited to the above-mentioned implementation aspects.

Referring to FIGS. 5 and 6, the suction and transfer unit 5 includes a plurality of transfer modules 51 arranged at intervals along the longitudinal direction of the rear lateral movement module 32. Each transfer module 51 has a telescopic mechanism 511 that can be driven forward and backward, a lifting mechanism 512 that can be driven to move up and down, and a lifting mechanism 512 that is installed at the bottom of the lifting mechanism 512 and can be driven to attract materials. The suction nozzle mechanism 513 of negative pressure suction. Each transfer module 51 can be controlled to drive, and the telescopic mechanism 511 and the lifting mechanism 512 drive the suction nozzle mechanism 513 to move into the corresponding specific groove 801 of the tray 800, and make the suction nozzle mechanism 513 The material in the specific groove 801 of the tray 800 is sucked up and removed, and the telescopic mechanism 511 and the lifting mechanism 512 are controlled to drive the suction nozzle mechanism 513 to transfer the sucked material to the same tray. The predetermined position of the top surface of the large board 901 in 800.

Referring to FIGS. 7, 8, and 9, where the transfer module 51 for sucking and transferring the release matrix pad 903 will first transfer the sucked release matrix pad 903 to a detection position that is separated from the rear lateral movement module 32 After that, the release matrix pad 903 is transferred and attached to a predetermined position on the top surface of the large plate 901. In addition, before the transfer module 51 attaches the release matrix pad 903 to the large plate 901, the suction nozzle mechanism 513 can also be controlled to rotate horizontally, that is, the release matrix pad can be rotated horizontally relative to the large plate 901 903.

With reference to Figures 13 and 14, in this embodiment, the transfer modules 51 are used to attach the corresponding absorbent pad 902 to the corresponding large plate 901 from right to left; The release matrix pad 903 is adsorbed and attached to the corresponding large plate 901; used to adsorb and attach the corresponding whole blood separation filter 904 to the corresponding large plate 901 and cover the corresponding release matrix pad 903; and for attaching the corresponding sample pad 905 to the large plate 901 by adsorption and covering the corresponding whole blood separation filter membrane 904 and the release matrix pad 903. Wherein, after the leftmost transfer module 51 attaches the sample pad 905 to the large plate 901, the production of the semi-finished test piece 900 is completed.

The image capturing unit 6 includes a first image capturing module 61 disposed above the rear end of the right longitudinal shift module 34, and a second image capturing module 62 disposed below the detection position. The first image capturing module 61 can be controlled to perform image capturing toward the large plate 901 on the tray 800 below to obtain a large plate image. The second image capturing module 62 can be controlled to perform image capturing upward toward the detection position, that is, image capturing of the release matrix pad 903 transferred to the detection position upward to obtain a release Matrix pad image.

1 and 3, the control unit 7 signals the conveying device 3, the material pre-inspection unit 4, the suction and transfer unit 5 and the image capture unit 6, and includes a material shortage judgment module 71 and an image The analysis module 72, a warning module 73, and a bonding control module 74.

The material shortage judgment module 71 can receive and analyze the detection signals, and when it judges that one of the detection signals represents material shortage, that is, when it judges that no material is placed in one of the grooves 801 of the tray 800, it generates a corresponding A warning sign.

The image analysis module 72 receives and analyzes the large plate image and the release matrix cushion image. The image analysis module 72 analyzes the front and back edges of the large panel image and at least one of the left and right edges, and further analyzes whether the front and rear width of the large panel 901 meets a predetermined size range, and analyzes the large panel 901. Whether the deflection angle of an X-axis and a Y-axis orthogonal to the front, rear, left, and right horizontally is less than or equal to a predetermined angle, and whether the offset distance between the left and right direction and the front and back direction of the large plate 901 is less than or equal to a predetermined distance, etc. When it is determined that the front and rear dimensions do not meet the requirements, the deflection angle is greater than the predetermined angle, or the offset distance is greater than the predetermined distance, a warning signal is generated.

In addition, the image analysis module 72 will also analyze the front and back edges of the release matrix pad image, and further analyze whether the front and rear width of the release matrix pad 903 meets a predetermined size range, and analyze the relative relationship of the release matrix pad 903. Whether the deflection angle between the X axis and the Y axis is less than or equal to a predetermined angle, and whether the front and back offset distance of the release matrix pad 903 is less than or equal to a predetermined distance is analyzed. And when it is determined that the front and rear width of the release matrix pad 903 does not meet the requirements, the offset distance is greater than the predetermined distance, or the deflection angle is greater than the predetermined angle, a warning signal is generated.

With reference to FIG. 9, the image analysis module 72 will determine that the front and rear dimensions meet the requirements, the offset distance is less than or equal to the predetermined angle, and the deflection angle is less than or equal to the fixed angle, and determine that the front and back dimensions of the release matrix pad 903 meet the requirements. It is stipulated that when the offset distance is less than the predetermined distance, and the deflection angle is less than or equal to the predetermined angle, the relative horizontal deflection angle of the large plate 901 and the release matrix pad 903 is further analyzed.

The laminating control module 74 controls the conveying device 3 to transport the trays 800 in a ring shape, controls the first image capturing module 61 and the second image capturing module 62 to perform image capturing, and controls the The transfer module 51 transfers and attaches the materials and controls the image analysis module 72 to perform image analysis. The attaching control module 74 is also triggered by any warning signal, and controls the conveyor 3 to stop and control The warning module 73 sends out corresponding warning messages. The warning message may be in the form of sound, light and/or video. The functions of the lamination control module 74 to control the conveying device 3 to transfer the trays 800 and the transfer modules 51 to transfer the lamination materials will be described later.

2 and 3, when the fast screening test piece manufacturing system 100 of the present invention is used, the trays 800 can be arranged on the front lateral movement module 31 and the rear lateral movement module 32, and arranged on the left On the longitudinal movement module 33, and respectively place corresponding materials in the grooves 801 of the trays 800, then the control unit 7 can be activated.

With reference to FIG. 10, the lamination control module 74 of the control unit 7 drives the left push module 35 to move the tray 800 on the left vertical movement module 33 to the right into the front lateral movement module 31, so that The tray 800 on the right side of the front lateral movement module 31 is pushed into the right longitudinal movement module 34. Then, the lamination control module 74 controls the carrier 331 of the left vertical movement module 33 to move to the left end of the rear lateral movement module 32, and the detection modules 41 are driven to detect the tray 800 Whether all the grooves 801 contain the material, and correspondingly generate the detection signals. The material shortage judgment module 71 analyzes the detection signals, and when it judges that one of the detection signals represents material shortage, that is, judges that one of the grooves 801 of the tray 800 on the right longitudinal shift module 34 is not damaged. When the material is placed, the warning signal is issued, so as to trigger the bonding control module 74 to control the conveying device 3 to stop, and to control the warning module 73 to generate a corresponding warning message.

With reference to Figures 11 and 12, when the bonding control module 74 is not triggered by the warning signal generated by the lack of material judging module 71, it means that the right longitudinal shift module 34 is currently conveying the material on the tray 800 All the parts are ready, the laminating control module 74 will continue to control the right vertical movement module 34 to move the currently loaded tray 800 to the bottom of the first image capturing module 61, and control the first image The capture module 61 captures the large panel image for analysis by the image analysis module 72, and when the image analysis module 72 does not issue the warning signal for the large panel image, controls the right push module 36 to The tray 800 carried by the right longitudinal movement module 34 is pushed into the rear lateral movement module 32 to the left. At the same time, the tray 800 on the leftmost side of the rear transverse movement module 32 is pushed into the carrier 331 of the left longitudinal movement module 33, that is, the tray 800 carrying the semi-finished test piece 900 Will be moved to the left vertical movement module 33.

With reference to Figures 13 and 14, then the transfer modules 51 are successively controlled to respectively transfer the corresponding materials on the tray 800, and at the same time, the second image capturing module 62 is synchronously controlled to capture the release Matrix mat image, and control the image analysis module 72 to analyze the release matrix mat image, and when not triggered by the warning signal of the image analysis module 72, control the corresponding transfer module 51 to release the matrix mat 903 It is attached to the large plate 901 of the corresponding material tray 800. While the transfer modules 51 are controlled to act, the semi-finished test piece 900 on the tray 800 of the left longitudinal movement module 33 will be sucked and moved by the suction module 906 of a cutting device (not shown). Go for subsequent processing.

Then, the lamination control module 74 controls the left vertical movement module 33 to move the loaded tray 800 forward to the right end of the front horizontal movement module 31, and controls the front of the carrier 341 of the right vertical movement module 34 Move to the right end of the front traverse module 31. At this time, the tray 800 on the left longitudinal movement module 33 does not contain any objects, and new materials can be placed on the tray 800 or replaced with other trays 800 containing materials, and then the paste The control module 74 repeats the above-mentioned processing steps, and the semi-finished product 900 of the test piece can be continuously produced in a loop.

When the image analysis module 72 analyzes the relative horizontal deflection angle of the large plate 901 and the release matrix pad 903, the attaching control module 74 controls the corresponding transfer module 51 to attach the release matrix pad 903 When it is attached to the corresponding large plate 901, the transfer module 51 is controlled to rotate the release matrix pad 903 horizontally relative to the large plate 901 by the horizontal deflection angle, and then the release matrix pad 903 is attached to the large plate 901. The release matrix pad 903 can be accurately attached to the predetermined position of the large plate 901.

In summary, through the structure design of the conveying device 3 that can cyclically transport the material tray 800, the material pre-inspection unit 4 can pre-check whether the material on each tray 800 is complete, and the control unit 7 can Through image analysis, it is automatically judged whether the large plate 901 and the release matrix pad 903 on each tray 800 have excessively deflected and skewed and the offset distance is too large, and the deflection angle of the release matrix pad 903 can be adjusted corresponding to the deflection angle of the large plate 901 The design attached to the large plate 901 enables the quick-screen test strip manufacturing system 100 of the present invention to be used in the automated production of fast-screen test strips, and can automatically detect material shortages and incorrect placement problems and give warnings. Quite convenient and practical creation, so it can indeed achieve the purpose of the invention.

However, the above are only examples of the present invention. When the scope of implementation of the present invention cannot be limited by this, all simple equivalent changes and modifications made in accordance with the scope of the patent application of the present invention and the content of the patent specification still belong to Within the scope covered by the patent of the present invention.

100: Fast screening test piece manufacturing system 2: pedestal 3: Conveying device 31: Front traverse module 32: Rear traverse module 33: Left vertical shift module 331: Stage 34: Right vertical shift module 341: Stage 35: Left push module 350: Orbit 351: Push Piece 36: Right push module 360: Orbit 361: push piece 4: Material pre-inspection unit 41: Detection module 5: Suction and transfer unit 51: transfer module 511: Telescopic mechanism 512: Lifting mechanism 513: Nozzle Mechanism 6: Image capture unit 61: The first image capture module 62: The second image capture module 7: Control unit 71: Lack of material judgment module 72: Image Analysis Module 73: warning module 74: Fitting control module 800: tray 801: Groove 900: Semi-finished test piece 901: Big Slab 902: Absorbent pad 903: Release Matrix Pad 904: Whole blood separation filter 905: sample pad 906: Suction Module

Other features and effects of the present invention will be clearly presented in the embodiments with reference to the drawings, in which: Figure 1 is a perspective view of an embodiment of the quick screening test piece manufacturing system of the present invention; Figure 2 is a top view of the embodiment; Figure 3 is a functional block diagram of this embodiment; Figure 4 is an incomplete perspective view of the embodiment; Figure 5 is a side view of one of the transfer modules of the embodiment, schematically illustrating the situation in which the transfer module sucks an absorbent pad in a tray; Figure 6 is a view similar to Figure 5, schematically illustrating the case where the transfer module stacks the absorbed absorbent pad on a large board; Figure 7 is a view similar to Figure 5, schematically illustrating another transfer module transfers the sucked release matrix pad to a detection position; FIG. 8 is a view similar to FIG. 7, schematically illustrating the situation that the transfer module stacks the absorbed release matrix pad on the large plate; Figure 9 is a top view of the transfer module shown in Figure 8, schematically illustrating the situation of the transfer module horizontally deflecting and transferring the absorbed release matrix pad; Fig. 10 is a view similar to Fig. 2 illustrating a situation in which a left push module pushes a tray on a left longitudinal shift module into a front lateral shift module; Fig. 11 is a view similar to Fig. 10, illustrating a situation in which a right vertical movement module transfers a tray to the right end side of a rear lateral movement module; Fig. 12 is a view similar to Fig. 11, illustrating a situation in which a right push module pushes the tray on the right longitudinal shift module into a rear lateral shift module; FIG. 13 is a view similar to FIG. 12, illustrating a situation in which a plurality of transfer modules suck and transfer materials; and FIG. 14 is a view similar to FIG. 13, illustrating the situation that the left longitudinal shift module moves forward the tray that has no semi-finished test piece.

100: Fast screening test piece manufacturing system

2: pedestal

3: Conveying device

31: Front traverse module

32: Rear traverse module

33: Left vertical shift module

331: Stage

34: Right vertical shift module

341: Stage

35: Left push module

350: Orbit

351: Push Piece

36: Right push module

360: Orbit

361: push piece

4: Material pre-inspection unit

41: Detection module

5: Suction and transfer unit

51: transfer module

511: Telescopic mechanism

512: Lifting mechanism

513: Nozzle Mechanism

6: Image capture unit

61: The first image capture module

62: The second image capture module

7: Control unit

800: tray

900: Semi-finished test piece

906: Suction Module

Claims (5)

A quick screening test piece manufacturing system, which is suitable for processing a large plate, an absorbent pad, a release matrix pad, a whole blood separation filter membrane and a sample pad that are set on a tray and used to prepare quick screening test pieces. For laminating processing, the quick screening test piece manufacturing system includes: a conveying device for conveying the material tray; a material pre-inspection unit, including a plurality of materials used to respectively detect whether the material tray being transported through carries the large plate, The absorbent pad, the release matrix pad, the whole blood separation filter membrane and the detection modules of the sample pad, each detection module generates a detection signal corresponding to its detection result; an image capture unit is used to The large plate carried by the tray performs image capture to obtain a large plate image: a suction and transfer unit, including a plurality of controllable and respectively the absorbent pad, the release matrix pad, the whole blood separation membrane and the sample The pad sucks away from the material tray and transfers the transfer module attached to the large plate; and a control unit, including a lack of material judgment module that can generate a warning signal when one of the detection signals represents no material, An image analysis module that can generate a warning signal when the deflection angle of the large plate is greater than the predetermined angle and/or the offset distance is greater than the predetermined distance by analyzing the image of the large plate, and a bonding control module, the bonding control module The group will be triggered by any of the foregoing warning signals to control the delivery device to stop, and when not triggered by any of the foregoing warning signals, the transfer modules will be controlled to respectively transfer the absorbent pad, the release matrix pad, and the whole blood separation The filter membrane and the sample pad. The quick screening test strip manufacturing system according to claim 1, wherein the transfer module for sucking the release matrix pad can be controlled to transfer the sucked release matrix pad to a detection position, the image capture The capturing unit includes a first image capturing module for capturing the large-plate image, and a first image capturing module for capturing the release matrix pad sucked to the detection position to obtain a release matrix pad image Two image capturing modules, the image analysis module will analyze the release matrix mat image and determine that the release matrix mat deflection is greater than a predetermined angle and/or the offset distance is greater than a predetermined distance to generate a warning signal, the bonding control The module will be triggered by any of the aforementioned warning signals to control the conveying device to stop. The quick screening test piece manufacturing system according to claim 2, wherein the bonding control module will control the conveying device to stop after being not triggered after the image analysis module analyzes the large plate image and the release matrix pad image When analyzing, obtain the relative horizontal deflection angle between the large plate and the release matrix pad, and the bonding control module will control the corresponding transfer module to rotate the absorbed release matrix pad relative to the large plate horizontally. After the deflection angle, the transfer module is controlled to attach the release matrix pad to a predetermined position on the top surface of the large plate. The fast screening test strip manufacturing system according to claim 1, 2 or 3, wherein the conveying device includes a front lateral movement module and a rear lateral movement module extending left and right and spaced forward and backward, respectively connected to the front lateral A left vertical movement module and a right vertical movement module between the left end and the right end of the rear lateral movement module and the rear lateral movement module, and a left vertical movement module corresponding to the left vertical movement module and the right vertical movement module respectively Push module and a right push module, the front lateral movement module and the rear lateral The moving module can be used to arrange multiple trays left and right. The left vertical moving module can be used to carry one of the trays that is pushed to the left away from the rear lateral moving module, and can be controlled by the lamination control module The loaded tray is forwarded to the left end side of the front transverse movement module. The right longitudinal movement module can be used to carry one of the trays that is pushed to the right away from the front transverse movement module and can be moved by the The laminating control module controls to move the loaded tray back to the right end side of the rear lateral movement module. The left push module can be controlled by the laminating control module to carry the left vertical movement module. The tray is pushed to the right into the front traverse module, and the rightmost pallet carried by the front traverse module is pushed out to the right. The right push module can be controlled by the lamination control module and the The material tray carried by the right longitudinal movement module is pushed into the rear lateral movement module to the left, and the leftmost material tray carried by the rear lateral movement module is pushed out to the left. The quick screening test strip manufacturing system according to claim 2, wherein the control unit further includes a warning module, the bonding control unit can be triggered by any warning signal, and the warning module is controlled to generate a corresponding warning message .

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