Notebook computer function automatic testing device

Abstract

The utility model relates to an automatic testing device for notebook computer functions, which comprises an upper-layer conveying mechanism and a lower-layer conveying mechanism which are arranged in parallel, a first feeding line is obliquely arranged at the front end of the upper-layer conveying mechanism, a first discharging line is obliquely arranged at the tail end of the upper-layer conveying mechanism, and a second feeding line is arranged at the front end of the lower-layer conveying mechanism. The tail end of the lower-layer conveying mechanism is provided with a first discharging line, the tail end of the lower-layer conveying mechanism is provided with a second discharging line, the first discharging line is used for being in butt joint with the second discharging line, and a gap for a carrier to pass through is formed between the first feeding line and the second feeding line and a gap for the carrier to pass through is formed between the first discharging line and the second discharging line. A code scanning positioning work station, a first keyboard testing work station, a second keyboard testing work station, a notebook computer brightness and LED lamp detection work station, a touch panel detection work station and a brightness sensor detection work station are sequentially arranged from the inflow end to the outflow end of the upper-layer conveying mechanism. The automatic testing device not only improves the universality of detection, but also reduces the strength of manual maintenance.

Description

Technical Field

[0001] The utility model relates to the technical field of notebook testing, in particular to an automatic notebook function testing device. Background Art

[0002] In the prior art, a complete set of test assembly lines is usually set up to detect various functions of notebooks after production. This test assembly line cannot adjust the detection sequence or add different detection links, resulting in poor versatility. Moreover, when a device in the test assembly line fails, it also increases the maintenance intensity. Summary of the Utility Model

[0003] The technical problem to be solved by the utility model is to provide an automatic notebook function testing device, which not only improves the versatility of detection but also reduces the manual maintenance intensity.

[0004] The technical solution adopted by the utility model to solve its technical problem is: an automatic notebook function testing device, including an upper conveying mechanism for conveying notebooks and a lower conveying mechanism for conveying carriers, which are arranged in parallel. At the front end of the upper conveying mechanism, a first loading line for loading notebooks is inclined. At the tail end of the upper conveying mechanism, a first unloading line is inclined. At the front end of the lower conveying mechanism, a second loading line is provided. At the tail end of the lower conveying mechanism, a second unloading line is provided. The first unloading line is used to dock with the second unloading line. A gap for the carrier to pass through is provided between the first loading line and the second loading line. A gap for the carrier to pass through is provided between the first unloading line and the second unloading line. Along the inflow end to the outflow end of the upper conveying mechanism, a barcode scanning and positioning station for scanning the notebook barcode, a first keyboard testing station for detecting the first three rows of keys of the notebook keyboard, a second keyboard testing station for detecting the last three rows of keys of the notebook keyboard, a notebook brightness and LED lamp detection station for detecting the keyboard backlight and LED lights of the notebook, a touchpad detection station for detecting the touchpad of the notebook, and a brightness sensor detection station for detecting the brightness sensor of the notebook are arranged in sequence.

[0005] In one embodiment, the upper conveying mechanism of the automatic notebook function testing device includes a plurality of first conveying components corresponding one by one to the barcode scanning and positioning station, the first keyboard testing station, the second keyboard testing station, the notebook brightness and LED lamp detection station, the touchpad detection station, and the brightness sensor detection station. The lower conveying mechanism includes a plurality of second conveying components corresponding one by one to the first conveying components.

[0006] In one embodiment, the code scanning and positioning station of the notebook function automatic testing device includes a first rack, a first positioning component, a first code scanner and a second code scanner. The first positioning component includes a front positioning component, a screen positioning component and a blocking positioning component. The front positioning component, the screen positioning component and the blocking positioning component are respectively used to position the notebook. The first code scanner and the second code scanner are respectively installed in the first rack. The first code scanner is used to scan and record the two-dimensional code on the notebook, and the second code scanner is used to scan and record the work order barcode on the notebook.

[0007] In one embodiment, the first keyboard testing station of the notebook function automatic testing device includes a second rack, a second positioning component for positioning the notebook and a sliding key component. The sliding key component includes a first sliding key roller, a first three-dimensional driving component and a first pressure sensor. The first three-dimensional driving component is installed in the second rack. The driving end of the first three-dimensional driving component is connected to a vertically arranged first air cylinder. The driving end of the first air cylinder is connected to the first sliding key roller. The first three-dimensional driving component is used to drive the first air cylinder to drive the first sliding key roller to move to detect the first three rows of the notebook keys. The first pressure sensor is installed between the first sliding key roller and the first air cylinder. The first pressure sensor is used to detect the pressure value when the first sliding key roller is detecting.

[0008] In one embodiment, the second keyboard testing station of the notebook function automatic testing device includes a third rack, a third positioning component for positioning the notebook, a second three-dimensional driving component, a second air cylinder, a third air cylinder, a second sliding key roller for detecting the last three rows of the notebook keys and a key component for detecting the functions of the notebook keys. The second three-dimensional driving component is installed in the third rack. The two ends of the driving end of the second three-dimensional driving component are respectively connected to the second air cylinder and the third air cylinder. The driving end of the second air cylinder is connected to the second sliding key roller. The driving end of the third air cylinder is connected to the key component. The key component includes a plurality of key heads and a plurality of key pen-shaped cylinders. The driving end of the key pen-shaped cylinder is connected to the key head.

[0009] In one embodiment, the notebook brightness and LED lamp detection workstation of the notebook function automatic test device includes a fourth rack, a fourth positioning component for positioning the notebook, a pressing drive component for switching the color of the notebook LED lamp, a camera component for image acquisition of the notebook keyboard backlight and LED lamp, and a brightness sensor for testing the brightness of the notebook screen. The pressing drive component includes a third three-dimensional drive component, a fourth cylinder, and a first pressing head. The third three-dimensional drive component is installed in the fourth rack, the drive end of the third three-dimensional drive component is connected to the fourth cylinder, and the drive end of the fourth cylinder is connected to the first pressing head. A two-dimensional code interaction component is provided on the end body of the drive end of the third three-dimensional drive component. The two-dimensional code interaction component includes a polygonal roller and a rotating motor. The drive end of the rotating motor is connected to the polygonal roller. The side surface of the polygonal roller is used to fit the notebook test signal two-dimensional code, the detection qualified two-dimensional code, and the detection unqualified two-dimensional code. The camera component includes a first CCD camera, a second CCD camera, a third CCD camera, and a fourth CCD camera. The first CCD camera, the second CCD camera, the third CCD camera, and the fourth CCD camera are respectively installed in the second rack. The first CCD camera and the second CCD camera are located at both ends of the notebook. The third CCD camera is located directly in front of the notebook. The fourth CCD camera is located directly above the notebook keyboard. The brightness sensor is installed in the fourth rack and is located directly in front of the notebook screen.

[0010] In one embodiment, the touchpad detection workstation of the notebook function automatic test device includes a fifth rack, a fifth positioning component for positioning the notebook, and a fingerprint button test component for detecting the touchpad of the notebook. The fingerprint button test component is installed in the fifth rack. The fingerprint button test component includes a fourth three-dimensional drive component, a fifth cylinder, a sixth cylinder, a first capacitive pen tip, and a second capacitive pen tip. The fifth cylinder and the sixth cylinder are symmetrically installed on the drive end of the fourth three-dimensional drive component respectively. The first capacitive pen tip is connected to the drive end of the fifth cylinder. The second capacitive pen tip is connected to the drive end of the sixth cylinder. A second pressure sensor is provided between the first capacitive pen tip and the fifth cylinder. A third pressure sensor is provided between the second capacitive pen tip and the sixth cylinder.

[0011] In one embodiment, the brightness sensor detection station of the notebook function automatic testing device includes a sixth rack, a sixth positioning component for positioning the notebook, and a brightness sensor detection component. The brightness sensor detection component is installed in the sixth rack. The brightness sensor detection component includes a fifth three-dimensional driving component, a seventh cylinder, a second pressing head, and a light source device. The driving end of the fifth three-dimensional driving component is connected to the seventh cylinder, the driving end of the seventh cylinder is connected to the second pressing head, and the light source device is connected to the side end of the driving end of the fifth three-dimensional driving component. The fifth three-dimensional driving is used to drive the second pressing head to perform the key opening test procedure and drive the light source device to detect the sensor on the notebook screen.

[0012] In one embodiment, universal caster assemblies with brakes are provided at the bottoms of the barcode scanning and positioning station, the first keyboard test station, the second keyboard test station, the notebook brightness and LED lamp detection station, the touchpad detection station, and the brightness sensor detection station of the notebook function automatic testing device.

[0013] In one embodiment, a first manual inspection station and a second manual inspection station for manually inspecting the notebook are sequentially arranged on one side of the second blanking line of the notebook function automatic testing device.

[0014] In one embodiment, the first manual inspection station of the notebook function automatic testing device includes a third conveying component, and the second manual inspection station includes a fourth conveying component.

[0015] The beneficial effects of this application are as follows:

[0016] This application provides a notebook function automatic testing device. The automatic testing device is separately provided with a barcode scanning and positioning station, a first keyboard test station, a second keyboard test station, a notebook brightness and LED lamp detection station, a touchpad detection station, and a brightness sensor detection station in sequence from the inflow end to the outflow end of the upper conveying mechanism, and they are correspondingly combined to form a test production line. The notebook on the upper conveying mechanism is scanned and positioned, the first keyboard test, the second keyboard test, the notebook brightness and LED lamp test, the touchpad test, and the notebook brightness sensor test are respectively carried out through the barcode scanning and positioning station, the first keyboard test station, the second keyboard test station, the notebook brightness and LED lamp detection station, the touchpad detection station, and the brightness sensor detection station. The notebook function automatic testing device realizes the universality of notebook detection by setting each separate station, and also reduces the intensity of manual maintenance of the equipment in each station.

[0017] This automated test device automatically detects the functions of the keyboard, touchpad, notebook brightness, and LED lights of the notebook, which not only improves the accuracy of detection but also greatly improves the detection efficiency. Description of the Drawings

[0018] Figure 1 Schematic diagram of the notebook function automated test device according to the embodiment of the present application;

[0019] Figure 2 Schematic diagram of the barcode scanning and positioning workstation of the notebook function automated test device according to the embodiment of the present application;

[0020] Figure 3 Schematic diagram of the first keyboard test workstation of the notebook function automated test device according to the embodiment of the present application;

[0021] Figure 4 Schematic diagram of the second keyboard test workstation of the notebook function automated test device according to the embodiment of the present application;

[0022] Figure 5 Schematic diagram of one perspective of the notebook brightness and LED light detection workstation of the notebook function automated test device according to the embodiment of the present application;

[0023] Figure 6 Schematic diagram of another perspective of the notebook brightness and LED light detection workstation of the notebook function automated test device according to the embodiment of the present application;

[0024] Figure 7 Schematic diagram of the touchpad detection workstation of the notebook function automated test device according to the embodiment of the present application;

[0025] Figure 8 Schematic diagram of the brightness sensor detection workstation of the notebook function automated test device according to the embodiment of the present application;

[0026] Wherein:

[0027] 1. Upper conveyor mechanism; 2. Lower conveyor mechanism; 3. Scanning and positioning station; 4. First keyboard testing station; 5. Second keyboard testing station; 6. Notebook brightness and LED lamp detection station; 7. Touchpad detection station; 8. Brightness sensor detection station; 9. First loading line; 10. First unloading line; 11. Second unloading line; 12. Second loading line; 14. First manual inspection station; 15. Second manual inspection station; 16. Notebook; 17. Carrier; 101. First conveyor component; 201. Second conveyor component; 141. Third conveyor component; 151. Fourth conveyor component; 31. First frame; 32. First positioning component; 33. First barcode scanner; 34. Second barcode scanner; 321. Front positioning component; 322. Screen positioning component; 323. Blocking positioning component; 41. Second frame; 42. Second positioning component; 43. Slide key component; 431. First slide key roller; 432. First three-dimensional driving component; 433. First pressure sensor; 434. First cylinder; 51. Third frame; 52. Third positioning component; 53. Second three-dimensional driving component; 54. Second cylinder; 55. Third cylinder; 56. Second slide key roller; 57. Key component; 571. Key head; 572. Key pen-shaped cylinder; 61. Fourth frame; 62. Fourth positioning component; 63. Pressing driving component; 65. Brightness sensor; 66. Two-dimensional code interaction component; 631. Third three-dimensional driving component; 632. Fourth cylinder; 633. First pressing head; 661. Polygonal roller; 662. Rotating motor; 641. First CCD camera; 642. Second CCD camera; 643. Third CCD camera; 644. Fourth CCD camera; 71. Fifth frame; 72. Fifth positioning component; 73. Fingerprint key testing component; 731. Fourth three-dimensional driving component; 732. Fifth cylinder; 733. Sixth cylinder; 734. First capacitive pen tip; 735. Second capacitive pen tip; 736. Second pressure sensor; 737. Third pressure sensor; 81. Sixth frame; 82. Sixth positioning component; 83. Brightness sensor detection component; 831. Fifth three-dimensional driving component; 832. Seventh cylinder; 833. Second pressing head; 834. Light source device. Detailed implementation manners

[0028] In order to make the above objects, features and advantages of the present utility model more obvious and understandable, the following detailed description of the specific implementation manners of the present utility model is provided in conjunction with the accompanying drawings.

[0029] As Figure 1As shown in the figure, an embodiment of the present application provides a notebook function automatic testing device, which includes an upper conveying mechanism 1 for conveying notebooks 16 and a lower conveying mechanism 2 for conveying carriers 17 arranged in parallel. A first feeding line 9 for feeding notebooks 16 is inclined at the front end of the upper conveying mechanism 1, and a first discharging line 10 is inclined at the tail end of the upper conveying mechanism 1. A second feeding line 12 is provided at the front end of the lower conveying mechanism 2, and a second discharging line 11 is provided at the tail end of the lower conveying mechanism 2. The first discharging line 10 is used to dock with the second discharging line 11. There is a gap for the carrier 17 to pass between the first feeding line 9 and the second feeding line 12, and there is a gap for the carrier 17 to pass between the first discharging line 10 and the second discharging line 11. Along the inflow end to the outflow end of the upper conveying mechanism 1, there are successively arranged a code scanning and positioning station 3 for scanning the barcodes of the notebooks 16, a first keyboard testing station 4 for detecting the first three rows of keys of the notebook 16 keyboard, a second keyboard testing station 5 for detecting the last three rows of keys of the notebook 16 keyboard, a notebook brightness and LED lamp detection station 6 for detecting the keyboard backlight and LED lamps of the notebook 16, a touchpad detection station 7 for detecting the touchpad of the notebook 16, and a brightness sensor detection station 8 for detecting the brightness sensor 65 of the notebook 16.

[0030] Specifically, first, the operator manually transfers the notebook 16 on the vehicle 17 through the inclined first loading line 9 to the upper conveying mechanism 1, and then places the vehicle 17 on the second loading line 12 and transfers it into the lower conveying mechanism 2. When the notebook 16 is transferred to the code scanning and positioning station 3, after the code scanning and positioning station 3 locates and scans and enters the notebook 16, the upper conveying mechanism 1 transfers the notebook 16 to the first keyboard test station 4. The first keyboard test station 4 locates the notebook 16 and then performs a sliding test on the first three rows of keys of the notebook 16 keyboard. After the test is completed, the upper conveying mechanism 1 transfers the notebook 16 to the second keyboard test station 5. The second keyboard test station 5 locates the notebook 16, then performs a sliding test on the last three rows of keys of the notebook 16 keyboard and detects the combination keys of the notebook 16 keyboard. After the test is completed, the upper conveying mechanism 1 transfers the notebook 16 to the notebook brightness and LED lamp detection station 6. The notebook brightness and LED lamp detection station 6 first locates the notebook 16, and then detects the backlight of the notebook 16 keyboard, the LED lamp of the keyboard and the screen display brightness, etc. After the test is completed, the upper conveying mechanism 1 transfers the notebook 16 to the touchpad detection station 7. The touchpad detection station 7 first locates the notebook 16, and then detects the touchpad of the notebook 16. After the test is completed, the upper conveying mechanism 1 transfers the notebook 16 to the brightness sensor detection station 8. The brightness sensor detection station 8 locates the notebook 16 and then detects the brightness sensor 65 above the screen of the notebook 16. After the test is completed, when the notebook 16 passes through the first unloading line 10, the operator places the notebook 16 on the vehicle 17 of the second unloading line 11, and the second unloading line 11 transfers the vehicle 17 and the notebook 16 to the first manual inspection station 14 and the second manual inspection station 15 for manual inspection and unloading. Among them, a test software has been installed in advance in the notebook 16 to be tested, and the test software can be obtained from the prior art. Before the test, turn on the notebook 16 to be tested and the test software in the notebook 16 to be tested. Among them, the second positioning component 42, the third positioning component 52, the fourth positioning component 62, the fifth positioning component 72 and the sixth positioning component 82 respectively include a blocking positioning component 323 and a front positioning component 321.

[0031] In the above structure, by separately setting the code scanning and positioning station 3, the first keyboard test station 4, the second keyboard test station 5, the notebook brightness and LED lamp detection station 6, the touchpad detection station 7 and the brightness sensor detection station 8 to detect different functions of the notebook 16 respectively, workstations can be added or the number of detection workstations can be reduced between workstations. During maintenance, the workstations can also be separately moved out for equipment maintenance operations. This notebook function automatic testing device not only improves the detection efficiency and detection accuracy, but also improves the versatility of the equipment and reduces the intensity of manual maintenance.

[0032] As shown Figures 1-8 In one embodiment, the upper conveyor mechanism 1 of the notebook function automatic test device includes a plurality of first conveyor components 101 corresponding one-to-one to the barcode scanning and positioning station 3, the first keyboard test station 4, the second keyboard test station 5, the notebook brightness and LED lamp detection station 6, the touchpad detection station 7, and the brightness sensor detection station 8. The lower conveyor mechanism 2 includes a plurality of second conveyor components 201 corresponding one-to-one to the first conveyor components 101.

[0033] Specifically, the upper conveyor mechanism 1 includes 6 first conveyor components 101, and the lower conveyor mechanism 2 includes 6 second conveyor components 201. The 6 first conveyor components 101 and the 6 second conveyor components 201 are parallel and corresponding to each other up and down. The 6 first conveyor components 101 and the 6 second conveyor components 201 are respectively located in the barcode scanning and positioning station 3, the first keyboard test station 4, the second keyboard test station 5, the notebook brightness and LED lamp detection station 6, the touchpad detection station 7, and the brightness sensor detection station 8. The first conveyor component 101 includes a first motor and a first conveyor line. The driving end of the first motor is connected to the first conveyor line, and the first motor drives the first conveyor line to rotate to transport the notebook 16. The second conveyor component 201 includes a second motor and a second conveyor line. The driving end of the second motor is connected to the second conveyor line, and the second motor drives the second conveyor line to rotate to transport the carrier 17. The driving directions of the first conveyor component 101 and the second conveyor component 201 are the same. The 6 first conveyor components 101 respectively correspond to the barcode scanning and positioning station 3, the first keyboard test station 4, the second keyboard test station 5, the notebook brightness and LED lamp detection station 6, the touchpad detection station 7, and the brightness sensor detection station 8. The arrangement of the 6 first conveyor components 101 facilitates the transportation of the notebook 16 to each work station.

[0034] As shown Figure 2 In one embodiment, the barcode scanning and positioning station 3 of the notebook function automatic test device includes a first frame 31, a first positioning component 32, a first barcode scanner 33, and a second barcode scanner 34. The first positioning component 32 includes a front positioning component 321, a screen positioning component 322, and a blocking positioning component 323. The front positioning component 321, the screen positioning component 322, and the blocking positioning component 323 are respectively used to position the notebook 16. The first barcode scanner 33 and the second barcode scanner 34 are respectively installed in the first frame 31. The first barcode scanner 33 is used to scan and record the two-dimensional code on the notebook 16, and the second barcode scanner 34 is used to scan and record the work order barcode on the notebook 16.

[0035] Specifically, the front positioning component 321 and the rear positioning component are respectively installed on the end bodies at both side ends of the first conveyor line, and the blocking and positioning component 323 is installed inside the second frame 41 at the output end of the first conveyor line. The front positioning component 321 includes an eighth cylinder and a push plate, the screen positioning component 322 includes a ninth cylinder and a positioning plate, and the blocking and positioning component 323 includes a tenth cylinder and a stopper. The first barcode scanner 33 and the second barcode scanner 34 are respectively connected to the upper end of the first frame 31. The first barcode scanner 33 is located above the second barcode scanner 34. The scanning port of the first barcode scanner 33 is aligned with the screen of the notebook 16, and the scanning port of the second barcode scanner is aligned with the keyboard orientation of the notebook 16. When the notebook 16 is conveyed into the first frame 31, the tenth cylinder drives the stopper to block the notebook 16, the eighth cylinder drives the push plate to push the notebook 16 to the side end of the positioning plate, and the ninth cylinder drives the positioning plate to position the screen of the notebook 16 by 90 degrees. After positioning, the first barcode scanner 33 scans and enters the QR code on the screen, and the second barcode scanner 34 scans and enters the work order barcode on the notebook 16.

[0036] The setting of the first positioning component 32 facilitates the positioning of the notebook 16. The settings of the first barcode scanner 33 and the second barcode scanner 34 facilitate the barcode scanning and entry of the notebook 16.

[0037] As Figure 3 shown, in one of the embodiments, the first keyboard test station 4 of the notebook function automatic test device includes a second frame 41, a second positioning component 42 for positioning the notebook 16, and a sliding key component 43. The sliding key component 43 includes a first sliding key roller 431, a first three-dimensional driving component 432, and a first pressure sensor 433. The first three-dimensional driving component 432 is installed inside the second frame 41. The driving end of the first three-dimensional driving component 432 is connected to a vertically arranged first cylinder 434. The driving end of the first cylinder 434 is connected to the first sliding key roller 431. The first three-dimensional driving component 432 is used to drive the first cylinder 434 to drive the first sliding key roller 431 to move to detect the first three rows of keys of the notebook 16. The first pressure sensor 433 is installed between the first sliding key roller 431 and the first cylinder 434. The first pressure sensor 433 is used to detect the pressure value when the first sliding key roller 431 is detecting.

[0038] Specifically, when the notebook 16 is conveyed into the second rack 41, the second positioning component 42 positions the notebook 16 respectively. After positioning, the first three-dimensional driving component 432 drives the first cylinder 434 to drive the first sliding key roller 431 to move above the first three rows of the keyboard of the notebook 16. The first cylinder 434 drives the first sliding key roller 431 to press down the keys of the keyboard of the notebook 16. The first three-dimensional driving component 432 drives the first cylinder 434 to drive the first sliding key roller 431 to perform a zigzag sliding detection on the first three rows of the keyboard of the notebook 16. The first pressure sensor 433 detects the downward pressure of the first sliding key roller 431.

[0039] The setting of the first keyboard test station 4 realizes the automatic detection of the first three rows of keys and the pressure value of the keyboard of the notebook 16, improving the detection accuracy and efficiency.

[0040] As Figure 4 shown, in one embodiment, the second keyboard test station 5 of the notebook function automatic test device includes a third rack 51, a third positioning component 52 for positioning the notebook 16, a second three-dimensional driving component 53, a second cylinder 54, a third cylinder 55, a second sliding key roller 56 for detecting the last three rows of the keys of the notebook 16, and a key component 57 for detecting the key functions of the notebook 16. The second three-dimensional driving component 53 is installed in the third rack 51. The two ends of the driving end of the second three-dimensional driving component 53 are respectively connected to the second cylinder 54 and the third cylinder 55. The driving end of the second cylinder 54 is connected to the second sliding key roller 56. The driving end of the third cylinder 55 is connected to the key component 57. The key component 57 includes a plurality of key heads 571 and a plurality of key pen-shaped cylinders 572. The driving end of the key pen-shaped cylinder 572 is connected to the key head 571.

[0041] Specifically, the key component 57 includes two key pen-shaped cylinders 572 and two key heads 571. The driving ends of the two key pen-shaped cylinders 572 are respectively connected to the two key heads 571. When the notebook 16 is conveyed into the second rack 41, the third positioning component 52 positions the notebook 16. After positioning, the second three-dimensional driving component 53 drives the second cylinder 54 to drive the second sliding key roller 56 to move above the last three rows of the keys of the notebook 16. The second cylinder 54 drives the second sliding key roller 56 to press down the keys of the keyboard. Then, the second three-dimensional driving component 53 drives the second cylinder 54 to drive the second sliding key roller 56 to perform a sliding and pressing detection on the last three rows of the keyboard of the notebook 16 in a zigzag direction. After the detection is completed, the second three-dimensional driving component 53 drives the third cylinder 55 to drive the key component 57 to move above the combination keys. The third cylinder 55 drives the key component 57 to move down to above the combination keys. Then, the two key pen-shaped cylinders 572 drive the key heads 571 to perform key operations on the combination keys simultaneously.

[0042] The setting of the second keyboard test station 5 realizes the automatic detection of the last three rows of keys and combination keys of the notebook 16 keyboard, with high detection accuracy and high efficiency.

[0043] As Figures 5-6 shown, in one embodiment, the notebook brightness and LED lamp detection station 6 of the notebook function automatic test device includes a fourth rack 61, a fourth positioning component 62 for positioning the notebook 16, a pressing drive component 63 for switching the color of the LED lamp of the notebook 16, a camera component for image acquisition of the backlight and LED lamp of the notebook 16 keyboard, and a brightness sensor 65 for testing the screen brightness of the notebook 16. The pressing drive component 63 includes a third three-dimensional drive component 631, a fourth cylinder 632, and a first pressing head 633. The third three-dimensional drive component 631 is installed in the fourth rack 61. The drive end of the third three-dimensional drive component 631 is connected to the fourth cylinder 632. The drive end of the fourth cylinder 632 is connected to the first pressing head 633. A two-dimensional code interaction component 66 is provided on the end body of the drive end of the third three-dimensional drive component 631. The two-dimensional code interaction component 66 includes a polygonal roller 661 and a rotation motor 662. The drive end of the rotation motor 662 is connected to the polygonal roller 661. The side surface of the polygonal roller 661 is used to fit the test signal two-dimensional code, the detection qualified two-dimensional code, and the detection unqualified two-dimensional code of the notebook 16. The camera component includes a first CCD camera 641, a second CCD camera 642, a third CCD camera 643, and a fourth CCD camera 644. The first CCD camera 641, the second CCD camera 642, the third CCD camera 643, and the fourth CCD camera 644 are respectively installed in the second rack 41. The first CCD camera 641 and the second CCD camera 642 are located at both ends of the notebook 16. The third CCD camera 643 is located directly in front of the notebook 16. The fourth CCD camera 644 is located directly above the keyboard of the notebook 16. The brightness sensor 65 is installed in the fourth rack 61 and is located directly in front of the screen of the notebook 16.

[0044] Specifically, when the notebook 16 is conveyed into the fourth rack 61, the fourth positioning component 62 positions the notebook 16. After positioning, the brightness sensor 65 detects the screen brightness. Then, the third three-dimensional driving component 631 drives the fourth cylinder 632 to drive the first pressing head 633 to move above the keys of the notebook 16. The fourth cylinder 632 drives the first pressing head 633 to press the specified keys of the notebook 16 to switch the color and turn on / off operation of the LED lights. Then, the first CCD camera 641, the second CCD camera 642, the third CCD camera 643, and the fourth CCD camera 644 conduct a full-range detection of the LED lights and the backlights of the keyboard. After the detection is completed, the third three-dimensional driving component 631 drives the rotating motor 662 to drive the polygonal roller 661 to move in front of the camera of the notebook 16. If the detection is qualified, the rotating motor 662 drives the polygonal roller 661 to rotate, so that the camera of the notebook 16 scans the qualified QR code on the polygonal roller 661 and displays the qualified signal on the screen of the notebook 16. On the contrary, the camera of the notebook 16 scans the unqualified QR code and displays the unqualified signal on the screen of the notebook 16.

[0045] The setting of the notebook brightness and LED light detection station 6 realizes the automated testing of the screen brightness, the backlight of the notebook 16, and the LED lights of the notebook 16, improving the detection efficiency and detection accuracy.

[0046] As Figure 7 shown, in one of the embodiments, the touchpad detection station 7 of the notebook function automated testing device includes a fifth rack 71, a fifth positioning component 72 for positioning the notebook 16, and a fingerprint key testing component 73 for detecting the touchpad of the notebook 16. The fingerprint key testing component 73 is installed in the fifth rack 71. The fingerprint key testing component 73 includes a fourth three-dimensional driving component 731, a fifth cylinder 732, a sixth cylinder 733, a first capacitive pen tip 734, and a second capacitive pen tip 735. The fifth cylinder 732 and the sixth cylinder 733 are symmetrically installed on the driving end of the fourth three-dimensional driving component 731 respectively. The first capacitive pen tip 734 is connected to the driving end of the fifth cylinder 732, and the second capacitive pen tip 735 is connected to the driving end of the sixth cylinder 733. A second pressure sensor 736 is arranged between the first capacitive pen tip 734 and the fifth cylinder 732, and a third pressure sensor 737 is arranged between the second capacitive pen tip 735 and the sixth cylinder 733.

[0047] Specifically, when the notebook 16 is transferred to the fifth frame 71, the fifth positioning component 72 positions the notebook 16, the fourth three-dimensional driving component 731 drives the fifth cylinder 732 to drive the first capacitive pen tip 734 to move toward the touch pad of the notebook 16, the fifth cylinder 732 drives the first capacitive pen tip 734 to press down, the fourth three-dimensional driving component 731 drives the first capacitive pen tip 734 to draw a "return" on the touch pad for sliding detection, the fourth three-dimensional driving component 731 drives the sixth cylinder 733 to drive the second capacitive pen tip 735 to move to above the left button below the touch pad, the sixth cylinder 733 drives the second capacitive pen tip 735 to detect the depression of the left button, the fourth three-dimensional driving component 731 drives the sixth cylinder 733 to drive the second capacitive pen tip 735 to move to above the right button below the touch pad, the sixth cylinder 733 drives the second capacitive pen tip 735 to detect the depression of the right button. The second pressure sensor 736 and the third pressure sensor 737 detect the downward pressure of the first capacitive pen tip 734 and the second capacitive pen tip 735 respectively.

[0048] The setting of the touchpad detection station 7 realizes the automated detection of the touchpad of the notebook 16, thereby improving the detection effect and accuracy of the touchpad.

[0049] like Figure 8 As shown, in one embodiment, the brightness sensor detection station 8 of the notebook function automation test device includes a sixth frame 81, a sixth positioning component 82 for positioning the notebook 16, and a brightness sensor detection component 83. The brightness sensor detection component 83 is installed in the sixth frame 81. The brightness sensor detection component 83 includes a fifth three-dimensional driving component 831, a seventh cylinder 832, a second pressing head 833 and a light source device 834. The driving end of the fifth three-dimensional driving component 831 is connected to the seventh cylinder 832, the driving end of the seventh cylinder 832 is connected to the second pressing head 833, and the light source device 834 is connected to the side end of the driving end of the fifth three-dimensional driving component 831. The fifth three-dimensional driving drive is used to drive the second pressing head 833 to perform a key opening test program and drive the light source device 834 to detect the sensor on the screen of the notebook 16.

[0050] Specifically, when the notebook 16 is transferred to the sixth rack 81, the sixth positioning component 82 positions the notebook 16. After positioning, the fifth three-dimensional driving component 831 drives the seventh cylinder 832 to drive the second pressing head 833 to move above the notebook 16 button. The seventh cylinder 832 drives the second pressing head 833 to press the notebook 16 button downward to open the test program. Then the fifth three-dimensional driving component 831 drives the light source device 834 to move diagonally in front of the screen, and then the light source device 834 detects the brightness sensor 65 above the screen.

[0051] The brightness sensor detection station 8 realizes the detection of the brightness sensor 65 of the notebook 16.

[0052] As Figure 1 shown, in one embodiment, universal caster assemblies with brakes are provided at the bottoms of the barcode scanning and positioning station 3, the first keyboard test station 4, the second keyboard test station 5, the notebook brightness and LED lamp detection station 6, the touchpad detection station 7, and the brightness sensor detection station 8 of the notebook function automatic test device. This setting facilitates pulling each station for movement.

[0053] As Figure 1 shown, in one embodiment, on one side of the second blanking line 11 of the notebook function automatic test device, a first manual detection station 14 and a second manual detection station 15 for manually detecting the notebook 16 are arranged in sequence. This setting facilitates manual detection of the notebook 16, and at the same time, when additional detection stations are needed, the first manual detection station 14 and the second manual detection station 15 can be removed.

[0054] As Figure 1 shown, in one embodiment, the first manual detection station 14 of the notebook function automatic test device includes a third conveying assembly 141, and the second manual detection station 15 includes a fourth conveying assembly 151. This setting facilitates transferring the carrier 17 and the notebook 16 in the carrier 17 to the manual detection position.

[0055] The above embodiments only represent several implementation manners of the present invention, and the description is relatively specific and detailed, but it should not be construed as a limitation on the scope of the utility model patent. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present invention, several deformations and improvements can still be made, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the utility model patent shall be subject to the appended claims.

Claims

1. An automated test device for notebook functions, characterized in that It includes an upper conveying mechanism (1) for conveying the notebook (16) and a lower conveying mechanism (2) for conveying the carrier (17) which are arranged in parallel. At the front end of the upper conveying mechanism (1), a first loading line (9) for loading the notebook (16) is inclined. At the tail end of the upper conveying mechanism (1), a first unloading line (10) is inclined. At the front end of the lower conveying mechanism (2), a second loading line (12) is provided. At the tail end of the lower conveying mechanism (2), a second unloading line (11) is provided. The first unloading line (10) is used to dock with the second unloading line (11). A gap for the carrier (17) to pass through is provided between the first loading line (9) and the second loading line (12). A gap for the carrier (17) to pass through is provided between the first unloading line (10) and the second unloading line (11). Along the inflow end to the outflow end of the upper conveying mechanism (1), a code scanning and positioning station (3) for scanning the barcode of the notebook (16), a first keyboard testing station (4) for testing the first three rows of keys of the notebook (16) keyboard, a second keyboard testing station (5) for testing the last three rows of keys of the notebook (16) keyboard, a notebook brightness and LED lamp detection station (6) for detecting the keyboard backlight and LED lamp of the notebook (16), a touchpad detection station (7) for detecting the touchpad of the notebook (16), and a brightness sensor detection station (8) for detecting the brightness sensor of the notebook (16) are arranged in sequence.

2. The notebook function automated test device according to claim 1, wherein, The upper conveying mechanism (1) includes a plurality of first conveying components (101) corresponding one by one to the code scanning and positioning station (3), the first keyboard testing station (4), the second keyboard testing station (5), the notebook brightness and LED lamp detection station (6), the touchpad detection station (7), and the brightness sensor detection station (8). The lower conveying mechanism (2) includes a plurality of second conveying components (201) corresponding one by one to the first conveying components (101).

3. The notebook function automated test device according to claim 1, characterized in that, The code scanning and positioning station (3) includes a first frame (31), a first positioning component (32), a first code scanning gun (33), and a second code scanning gun (34). The first positioning component (32) includes a front positioning component (321), a screen positioning component (322), and a blocking positioning component (323). The front positioning component (321), the screen positioning component (322), and the blocking positioning component (323) are respectively used to position the notebook (16). The first code scanning gun (33) and the second code scanning gun (34) are respectively installed in the first frame (31). The first code scanning gun (33) is used to scan and record the two-dimensional code on the notebook (16). The second code scanning gun (34) is used to scan and record the work order barcode on the notebook (16).

4. The notebook function automated testing device according to claim 1, characterized in that The first keyboard testing station (4) includes a second frame (41), a second positioning component (42) for positioning the notebook (16), and a sliding key component (43). The sliding key component (43) includes a first sliding key roller (431), a first three-dimensional driving component (432), and a first pressure sensor (433). The first three-dimensional driving component (432) is installed in the second frame (41). The driving end of the first three-dimensional driving component (432) is connected to a vertically arranged first air cylinder (434). The driving end of the first air cylinder (434) is connected to the first sliding key roller (431). The first three-dimensional driving component (432) is used to drive the first air cylinder (434) to drive the first sliding key roller (431) to move for detecting the first three rows of keys of the notebook (16). The first pressure sensor (433) is installed between the first sliding key roller (431) and the first air cylinder (434). The first pressure sensor (433) is used to detect the pressure value when the first sliding key roller (431) is detecting.

5. The notebook function automated test device according to claim 1, characterized in that The second keyboard testing station (5) includes a third frame (51), a third positioning component (52) for positioning the notebook (16), a second three-dimensional driving component (53), a second air cylinder (54), a third air cylinder (55), a second sliding key roller (56) for detecting the last three rows of keys of the notebook (16), and a key component (57) for detecting the key functions of the notebook (16). The second three-dimensional driving component (53) is installed in the third frame (51). The two ends of the driving end of the second three-dimensional driving component (53) are respectively connected to the second air cylinder (54) and the third air cylinder (55). The driving end of the second air cylinder (54) is connected to the second sliding key roller (56). The driving end of the third air cylinder (55) is connected to the key component (57). The key component (57) includes a plurality of key heads (571) and a plurality of key pen-shaped cylinders (572). The driving end of the key pen-shaped cylinder (572) is connected to the key head (571).

6. The notebook function automatic test device according to claim 1, characterized in that, The notebook brightness and LED lamp detection station (6) includes a fourth rack (61), a fourth positioning component (62) for positioning the notebook (16), a pressing drive component (63) for switching the color of the LED lamp of the notebook (16), a camera component for image acquisition of the backlight of the notebook (16) keyboard and the LED lamp, and a brightness sensor (65) for testing the brightness of the notebook (16) screen. The pressing drive component (63) includes a third three-dimensional drive component (631), a fourth cylinder (632), and a first pressing head (633). The third three-dimensional drive component (631) is installed in the fourth rack (61). The drive end of the third three-dimensional drive component (631) is connected to the fourth cylinder (632), and the drive end of the fourth cylinder (632) is connected to the first pressing head (633). A two-dimensional code interaction component (66) is provided on the end body of the drive end of the third three-dimensional drive component (631). The two-dimensional code interaction component (66) includes a polygonal roller (661) and a rotary motor (662). The drive end of the rotary motor (662) is connected to the polygonal roller (661). The side of the polygonal roller (661) is used to fit the test signal two-dimensional code, the detection qualified two-dimensional code, and the detection unqualified two-dimensional code of the notebook (16). The camera component includes a first CCD camera (641), a second CCD camera (642), a third CCD camera (643), and a fourth CCD camera (644). The first CCD camera (641), the second CCD camera (642), the third CCD camera (643), and the fourth CCD camera (644) are respectively installed in the second rack (41). The first CCD camera (641) and the second CCD camera (642) are located at both ends of the notebook (16). The third CCD camera (643) is located directly in front of the notebook (16). The fourth CCD camera (644) is located directly above the keyboard of the notebook (16). The brightness sensor (65) is installed in the fourth rack (61) and is located directly in front of the screen of the notebook (16).

7. The notebook function automated test device according to claim 1, wherein, The touch panel detection station (7) includes a fifth rack (71), a fifth positioning component (72) for positioning the notebook (16), and a fingerprint button test component (73) for detecting the touch panel of the notebook (16). The fingerprint button test component (73) is installed in the fifth rack (71). The fingerprint button test component (73) includes a fourth three-dimensional drive component (731), a fifth cylinder (732), a sixth cylinder (733), a first capacitive pen tip (734), and a second capacitive pen tip (735). The fifth cylinder (732) and the sixth cylinder (733) are symmetrically installed on the drive end of the fourth three-dimensional drive component (731) respectively. The first capacitive pen tip (734) is connected to the drive end of the fifth cylinder (732), and the second capacitive pen tip (735) is connected to the drive end of the sixth cylinder (733). A second pressure sensor (736) is arranged between the first capacitive pen tip (734) and the fifth cylinder (732), and a third pressure sensor (737) is arranged between the second capacitive pen tip (735) and the sixth cylinder (733).

8. The notebook function automated test device according to claim 1, characterized in that, The brightness sensor detection station (8) includes a sixth rack (81), a sixth positioning component (82) for positioning the notebook (16), and a brightness sensor detection component (83). The brightness sensor detection component (83) is installed in the sixth rack (81). The brightness sensor detection component (83) includes a fifth three-dimensional drive component (831), a seventh cylinder (832), a second pressing head (833), and a light source device (834). The drive end of the fifth three-dimensional drive component (831) is connected to the seventh cylinder (832), the drive end of the seventh cylinder (832) is connected to the second pressing head (833), and the light source device (834) is connected to the side end of the drive end of the fifth three-dimensional drive component (831). The fifth three-dimensional drive component (831) is used to drive the second pressing head (833) to press the button, so as to drive the light source device (834) to detect the sensor on the screen of the notebook (16).

9. The notebook function automatic test device according to claim 1, characterized in that, Universal caster wheel assemblies with brakes are provided at the bottoms of the barcode scanning and positioning station (3), the first keyboard test station (4), the second keyboard test station (5), the notebook brightness and LED lamp detection station (6), the touch panel detection station (7), and the brightness sensor detection station (8).

10. The notebook function automated test device according to claim 1, characterized in that, On one side of the second blanking line (11), a first manual inspection station (14) and a second manual inspection station (15) for manually inspecting the notebook (16) are arranged in sequence. The first manual inspection station (14) includes a third conveying component (141), and the second manual inspection station (15) includes a fourth conveying component (151).

Images