CN108072831B - Complete machine detection device and detection method - Google Patents
Complete machine detection device and detection method Download PDFInfo
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- CN108072831B CN108072831B CN201810035408.0A CN201810035408A CN108072831B CN 108072831 B CN108072831 B CN 108072831B CN 201810035408 A CN201810035408 A CN 201810035408A CN 108072831 B CN108072831 B CN 108072831B
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- G—PHYSICS
- G01—MEASURING; TESTING
- G01R—MEASURING ELECTRIC VARIABLES; MEASURING MAGNETIC VARIABLES
- G01R31/00—Arrangements for testing electric properties; Arrangements for locating electric faults; Arrangements for electrical testing characterised by what is being tested not provided for elsewhere
- G01R31/28—Testing of electronic circuits, e.g. by signal tracer
- G01R31/2832—Specific tests of electronic circuits not provided for elsewhere
- G01R31/2834—Automated test systems [ATE]; using microprocessors or computers
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B07—SEPARATING SOLIDS FROM SOLIDS; SORTING
- B07C—POSTAL SORTING; SORTING INDIVIDUAL ARTICLES, OR BULK MATERIAL FIT TO BE SORTED PIECE-MEAL, e.g. BY PICKING
- B07C5/00—Sorting according to a characteristic or feature of the articles or material being sorted, e.g. by control effected by devices which detect or measure such characteristic or feature; Sorting by manually actuated devices, e.g. switches
- B07C5/34—Sorting according to other particular properties
- B07C5/344—Sorting according to other particular properties according to electric or electromagnetic properties
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- G—PHYSICS
- G06—COMPUTING; CALCULATING OR COUNTING
- G06K—GRAPHICAL DATA READING; PRESENTATION OF DATA; RECORD CARRIERS; HANDLING RECORD CARRIERS
- G06K7/00—Methods or arrangements for sensing record carriers, e.g. for reading patterns
- G06K7/10—Methods or arrangements for sensing record carriers, e.g. for reading patterns by electromagnetic radiation, e.g. optical sensing; by corpuscular radiation
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- H—ELECTRICITY
- H04—ELECTRIC COMMUNICATION TECHNIQUE
- H04B—TRANSMISSION
- H04B17/00—Monitoring; Testing
- H04B17/0082—Monitoring; Testing using service channels; using auxiliary channels
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Abstract
The invention discloses a complete machine detection device and a detection method, which are used for automatically detecting an electronic complete machine of communication equipment with multiple connection ports. The complete machine detection device includes: the device comprises a detection table, a test system and an electrical control system; the detection platform comprises at least one plugging tool, and comprises a triaxial driving part, a plugging part arranged on the triaxial driving part and a buffer part arranged on the plugging part; the plug-in part comprises at least one quick plug which can be correspondingly plugged in the connection port of the electronic complete machine by means of the triaxial driving part. The whole machine detection device realizes automatic detection of the electronic whole machine, improves the test efficiency and prolongs the service life of the detection device; the automatic flexible port pulling and inserting mode is adopted, namely, a buffer part is additionally arranged on the inserting tool to ensure that the port is stably, reliably and safely inserted, so that the technical bottleneck that automation is difficult to realize due to poor product consistency is solved.
Description
Technical Field
The invention relates to the technical field of whole machine detection, in particular to a detection device and a detection method of an electronic whole machine of communication equipment with multiple connection ports.
Background
Testing of electronic complete machines of multi-port communication devices is common practice in the communication industry to arrange for manual testing by operators. Taking a channel machine as an example, the whole machine test working flow is as follows:
1. preparation: the operator configures software and prepares a connection cable according to the product information;
2. the plug connector: the product is moved to a test bench from a turnover material vehicle, and a test backboard, a transmitting port (TX) and a channel interface B, MCX of an SMA connecting port are inserted into the test bench;
3. test 1 (B-B): manually starting a test system, and starting the test by the test system and outputting a test result 1;
4. replacement port: pulling the MCX cable out of a channel interface B of the MCX connecting port and connecting the MCX cable to a channel interface A;
5. test 2 (B-ase:Sub>A): manually confirming preparation OK, and starting a test step 2 and outputting a result by a test system;
6. replacement port: pulling the MCX cable out of a channel interface A of the MCX connecting port and connecting the MCX cable to a channel interface C;
7. test 3 (B-C): manually confirming preparation OK, and starting a test step 3 and outputting a result by a test system;
8. replacement port: pulling the SMA cable out of a channel interface B of the SMA connection port, connecting the SMA cable to a channel interface A, pulling the MCX cable out of a channel interface C of the MCX connection port, and connecting the MCX cable to the channel interface B;
9. Test 4 (a-B): manually confirming preparation OK, and starting a test step 4 and outputting a result by a test system;
10. replacement port: pulling the MCX cable out of a channel interface B of the MCX connecting port and connecting the MCX cable to a channel interface A;
11. test 5 (A-A): manually confirming preparation OK, and starting a test step 5 and outputting a result by a test system;
12. replacement port: pulling the MCX cable out of a channel interface A of the MCX connecting port and connecting the MCX cable to a channel interface C;
13. test 6 (a-C): manually confirming preparation OK, and starting a test step 6 and outputting a result by a test system;
14. replacement port: pulling the SMA cable out of the channel interface A of the SMA connection port to connect to the channel interface C, pulling the MCX cable out of the channel interface C of the MCX connection port to connect to the channel interface B;
15. test 7 (C-B): manually confirming preparation OK, and starting a test step 7 and outputting a result by a test system;
16. replacement port: pulling the MCX cable out of a channel interface B of the MCX connecting port and connecting the MCX cable to a channel interface A;
17. test 8 (C-se:Sub>A): manually confirming preparation OK, and starting a test step 8 and outputting a result by a test system;
18. replacement port: pulling the MCX cable out of a channel interface A of the MCX connecting port and connecting the MCX cable to a channel interface C;
19. test 9 (C-C): manually confirming preparation OK, and starting a test step 9 and outputting a result by a test system;
20. Replacement port: the SMA cable is pulled out of the channel interface C of the SMA connection port and is connected to the channel interface B, the cable is pulled out of the channel interface C of the MCX connection port, and the channel interface B of the other PCBA board are connected through the double-jack MCX cable ’ ；
21. Test 10 (B-B) ’ ): manually confirming preparation OK, and starting a test step 9 and outputting a result by a test system;
22. and (3) blanking: pulling out all the connection ports, and placing good products as marks back to the turnover vehicle;
23. defective products are removed: and (3) interrupting the test of defective products in any link in the test process, marking the defective products, and isolating the defective products.
The existing test flow is complicated, and all links need manual operation. The production method has low automation degree and wastes manpower; the false judgment is easily caused by the fact that a port is manually inserted by mistake; often, the port cannot be replaced in time by manpower, so that test waiting is caused, and working hours are wasted.
Disclosure of Invention
The invention aims to provide a complete machine detection device, which solves the technical problems that all detection links in the prior art need manual operation, labor is wasted, misjudgment is easily caused by manually misplacing ports, and working hours are wasted due to untimely manual port replacement. The automatic flexible port pulling and inserting mode is adopted, namely, a buffer part is additionally arranged on the inserting tool to ensure that the port is stably, reliably and safely inserted, so that the technical bottleneck that automation is difficult to realize due to poor product consistency is solved.
In order to achieve the above purpose, the present invention specifically adopts the following technical scheme:
a complete machine detection device for automatically detecting an electronic complete machine of a communication device with multiple connection ports, the complete machine detection device comprising:
the detection platform is used for positioning the electronic complete machine to be detected and plugging all the connecting ports to be detected on the electronic complete machine;
the test system is connected with the detection platform to realize the connection between the test system and the connection ports to be detected, and is used for gradually detecting all the connection ports to be detected and outputting detection results;
the electrical control system is respectively connected with the detection table and the test system bus and is used for controlling the automatic detection process of the whole detection device; wherein,
the detection platform comprises at least one plugging tool, and comprises a triaxial driving part, a plugging part arranged on the triaxial driving part and a buffer part arranged on the plugging part; the plug-in part comprises at least one quick plug which can be correspondingly plugged in the connection port of the electronic complete machine by means of the triaxial driving part.
As an improvement of the whole machine detection device, the detection table further comprises a conveying tool used for conveying the whole electronic machine, a positioning tool used for accurately positioning the whole electronic machine in a detection area and a power supply tool used for supplying power to the whole electronic machine during detection, wherein the conveying tool, the positioning tool, the power supply tool and the plugging tool are all connected with the electrical control system bus, and a conductive probe of the power supply tool and a quick plug of the plugging tool are both connected with the test system bus.
As an improvement of the complete machine detection device provided by the invention, the conveying tool 22 comprises a conveying mechanism, an RFID reading head, an in-place inductive switch and a limiting part; the conveying mechanism is used for conveying the electronic complete machine to enter and exit the detection area under the action of a power source; the RFID reading head is arranged at the front end of the conveying mechanism, and the in-place inductive switch and the limiting piece are arranged at the tail end of the conveying mechanism.
As an improvement of the whole machine detection device provided by the invention, the positioning tool comprises a tray positioning assembly and a product positioning assembly, wherein the tray positioning assembly is used for accurately fixing a tray bearing the electronic whole machine in the detection area in three directions X, Y, Z; the product positioning assembly is used for fixing the electronic complete machine in the product area on the tray in the directions X, Y, Z.
As an improvement of the whole machine detection device provided by the invention, the tray is provided with the baffle plates at the periphery, and the baffle plates at the periphery enclose the product area and are used for bearing and limiting the electronic whole machine.
As an improvement of the whole machine detection device provided by the invention, the trays are provided with the RFID cards with the electronic whole machine information, and the RFID cards correspond to the RFID reading heads.
As an improvement of the whole machine detection device, the invention further comprises a radio frequency switch, and the quick plug is connected with a test system through the radio frequency switch.
The whole machine detection method comprises the following steps:
feeding: conveying the whole machine to be detected into a detection area;
matching test scheme: the test system acquires the S/N information of the whole machine and correspondingly matches a test scheme;
product positioning: accurately positioning the whole machine in X, Y, Z directions;
automatic plug port: after the product is positioned, all the connecting ports to be detected on the whole machine are inserted to realize the connection between the test system and the connecting ports to be detected;
and (3) testing: the test system tests all the connection ports to be tested step by step according to the test scheme and outputs test results.
Compared with the prior art, the invention has the following beneficial effects:
the whole machine detection device realizes the conversion from manual to full-automatic test of the electronic whole machine, simplifies the complicated test flow, improves the test efficiency, and inserts all the connection ports to be detected at one time, thereby avoiding the trouble and error of pulling and inserting the quick plugs back and forth on a plurality of connection ports to be detected and prolonging the service life of the detection device; meanwhile, the technical problems that misjudgment is caused by manually misplacing the port and working hours are wasted due to untimely replacement of the port are solved. The automatic flexible port pulling and inserting mode is adopted, namely, a buffer part is additionally arranged on the inserting tool to ensure that the port is stably, reliably and safely inserted, so that the technical bottleneck that automation is difficult to realize due to poor product consistency is solved.
Drawings
In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings that are needed in the description of the embodiments or the prior art will be briefly described, and it is obvious that the drawings in the description below are some embodiments of the present invention, and other drawings can be obtained according to the drawings without inventive effort for a person skilled in the art.
Fig. 1 is a perspective view of a complete machine detection device provided in an embodiment of the present invention;
FIG. 2 is a perspective view of a test stand according to an embodiment of the present invention;
fig. 3 is a perspective view of a conveying tool 22 according to an embodiment of the present invention;
fig. 4 is a perspective view of a positioning tool according to an embodiment of the present invention;
fig. 5 is another perspective view of the positioning tool provided by the embodiment of the invention, wherein the tray and the electronic complete machine are in an exploded state;
FIG. 6 is a perspective view of a tray positioning assembly according to an embodiment of the present invention;
fig. 7 is an exploded view of a tray and an electronic complete machine provided in an embodiment of the present invention;
fig. 8 is a perspective view of a power supply tool and an inserting tool according to an embodiment of the present invention;
FIG. 9 is a perspective view of an SMA plug-in mechanism provided by an embodiment of the present invention;
Fig. 10 is an exploded schematic view of an SMA plug part and an SMA buffer part according to an embodiment of the invention.
Note that, the whole electronic unit or the channel unit in the drawing is not shown, but only a housing portion thereof is shown.
Detailed Description
As shown in fig. 1-2, the complete machine detection apparatus provided in this embodiment is used for automatically detecting an electronic complete machine 10 of a communication device with multiple connection ports, where the communication device with multiple connection ports refers to a communication device on the electronic complete machine, where the communication device with multiple connection ports needs to be detected after the complete machine is produced, and the communication device may be, preferably but not limited to, a communication base station system unit such as a channel machine, a power supply unit complete machine (PSU), a Base Station Control Unit (BSCU), a splitter (DIU), a Combiner (COM), and the like. Specifically, the complete machine detection device includes:
the detection table is used for positioning the electronic complete machine 10 to be detected and plugging all the connection ports to be detected on the electronic complete machine 10;
the testing system is connected with the detection table to realize the connection between the testing system and the connection ports to be detected, and is used for gradually detecting all the connection ports to be detected according to a set detection program and outputting detection results;
The electrical control system is respectively connected with the detection table and the test system bus and is used for controlling the automatic detection process and the like of the whole detection device; wherein,
as shown in fig. 2, the detection platform includes a conveying tool 2 for conveying the electronic complete machine 10, a positioning tool for accurately positioning the electronic complete machine 10 in a detection area, a power supply tool 5 for supplying power to the electronic complete machine 10 during detection, and at least one plugging tool 6, 7, 8 for plugging all the connection ports to be detected, wherein at least one quick plug is provided on the plugging tool 6, 7, 8 to enable one plugging tool 6, 7, 8 to plug a plurality of connection ports to be detected at the same time, the conveying tool 2, the positioning tool, the power supply tool 5 and the plugging tools 6, 7, 8 are all connected with the electrical control system bus, and the conductive probes of the power supply tool 5 and the quick plugs of the plugging tools 6, 7, 8 are all connected with the test system bus.
The complete machine detection device realizes the conversion from manual to full-automatic test of the electronic complete machine 10, simplifies the complicated test flow, improves the test efficiency, and inserts all the connection ports to be detected at one time, thereby avoiding the trouble and error of pulling and inserting the quick plugs back and forth on a plurality of connection ports to be detected and prolonging the service life of the detection device; meanwhile, the technical problems that misjudgment is caused by manually misplacing the port and working hours are wasted due to untimely replacement of the port are solved.
In particular, the method comprises the steps of,
the conveying tool 2 comprises a conveying mechanism, an RFID reading head, an in-place inductive switch and a limiting piece. The conveying mechanism is arranged on the operation board 11 of the support frame 1 and is used for conveying the electronic complete machine 10 to enter and exit the detection area under the action of a power source, and preferably, but not limited to, the conveying mechanism can be a chain conveying mechanism, a belt conveying mechanism or a gear conveying mechanism, etc. The RFID reading head is arranged at the front end of the conveying mechanism, and the in-place inductive switch and the limiting piece are arranged at the tail end of the conveying mechanism. In specific implementation, the transmission mechanism starts to transmit the electronic complete machine 10 from the front end, the RFID reading head connected with the test system reads ID information of the electronic complete machine 10 (embedded RFID cards are arranged on a tray 9 carrying the electronic complete machine 10, the ID information in the embedded RFID cards is unique), obtains a product S/N bound with the ID information and sends the product S/N to the test system, and the test system automatically matches a test scheme after obtaining the S/N; the tray 9 contacts the limiting piece, the in-place induction switch senses a signal, the conveying mechanism stops conveying, and at the moment, the electronic complete machine 10 is located in the detection area and is in a state to be accurately positioned and detected. The number of the stoppers 10 may be one or plural. When the detection is completed, the electronic complete machine 10 is reversely transported out of the detection area by the conveying mechanism.
The positioning tool comprises a tray positioning assembly 3 and a product positioning assembly 4, wherein the tray positioning assembly 3 and the product positioning assembly 4 are arranged on the support frame 1, and the tray positioning assembly 3 can accurately fix the tray 9 in the detection area in three directions which are perpendicular to each other; the product positioning assembly 4 is used for fixing the electronic complete machine 10 in the product area on the tray 9 in three directions perpendicular to each other; wherein, three directions refer to three directions X, Y, Z mutually perpendicular to each other. When the electronic complete machine 10 is specifically implemented, the tray 9 is fixed in the detection area in three directions through the tray positioning assembly 3, the electronic complete machine 10 is fixed in the product area in three directions through the product positioning assembly 4, accurate positioning is realized in two directions, the accuracy of the position of the electronic complete machine 10 can be ensured, the consistency of product positioning is ensured, the possibility and the accuracy are provided for subsequent automatic insertion, namely, the plugging tools 6, 7 and 8 and the power supply tool 5 can be conveniently, rapidly and accurately inserted into each connecting port and each electric port of the electronic complete machine 10.
It should be noted that, the tray 9 is provided with a baffle around, the baffle around encloses a product area for carrying and defining the electronic complete machine 10, the baffle may only define a moving range of the electronic complete machine 10, but not completely block the electronic complete machine 10, and the product area in the tray 9 may be set to a general style in the industry, so that the tray 9 can adapt to several different electronic complete machines 10, and each tray 9 is provided with an RFID card with information of the electronic complete machine 10, corresponding to the RFID reading head.
It should be noted that the baffle plate on the tray 9 may also completely block the electronic complete machine 10, that is, the tray 9 is fixedly connected with the electronic complete machine 10, and the two do not slide mutually. When the tray 9 completely blocks the electronic complete machine 10, the positioning tool may be only the tray positioning assembly 3, or may be only the product positioning assembly 4.
The power supply tooling 5 and the plugging tooling 6, 7 and 8 comprise three-shaft driving parts, so that the power supply tooling 5 and the plugging tooling 6, 7 and 8 are aligned with an electric port and each connecting port of the electronic complete machine 10 respectively when the first debugging is facilitated, two directions are fixed after the alignment is finished, and only one direction is reserved to be capable of advancing and retreating to plug the ports. Further, the power supply fixture 5 further includes at least one conductive probe disposed on the triaxial driving portion, and the conductive probe can be correspondingly plugged into the electrical port of the electronic complete machine 10 by means of the triaxial driving portion. The plugging tool 6, 7, 8 further comprises a plugging part arranged on the triaxial driving part and a buffer part arranged on the plugging part; the plugging portion includes at least one quick plug, which can be correspondingly plugged into the connection port of the electronic complete machine 10 by means of the triaxial driving portion. Considering the position tolerance of the connection port of the electronic complete machine 10 (the hole positions and gaps of the pins of the port and the PCBA board, and the deviation will occur certainly after the SMT plug-in unit goes to the reflow soldering), the plugging tools 6, 7 and 8 adopt a flexible insertion mode, namely by adding the buffer part, the buffer part can automatically perform small-amplitude deflection, absorb the offset of the product and ensure the plugging success as far as possible. By conduction of the buffer, the insertion force < elasticity < product breaking force, i.e. the product is ensured not to be damaged when the offset is too large to be inserted.
With the structure, the invention not only realizes the automatic test of the electronic complete machine 10, but also solves the technical problems of misjudgment caused by manual misinsertion of ports and waste of working hours caused by untimely manual replacement of ports. Further, the tray 9 is fixed in the detection area through the tray positioning assembly 3 in three directions, the electronic complete machine 10 is fixed in the product area through the product positioning assembly 4 in three directions, and the accuracy of the position of the electronic complete machine 10 can be ensured through double positioning and accurate positioning in all three directions, so that the possibility, accuracy and convenience are provided for automatic insertion of the subsequent ports; the automatic flexible port pulling and inserting mode is adopted, namely, the buffer part is additionally arranged to ensure that the port is stably, reliably and safely inserted, so that the technical bottleneck that automation is difficult to realize due to poor product consistency is solved.
The electric control system comprises a PLC electric control cabinet, a touch screen, buttons and the like; the test system comprises test software, an industrial personal computer, a test instrument, a control circuit (for controlling the switching of a radio frequency switch) and the like; the test software can define a test scheme, such as a test flow, test conditions, parameters and the like, is programmed into a specific test item, automatically tests according to a set flow, can realize the combination of a plurality of test items, and is executed according to batches; after the test is finished, the test software can automatically display the test result and generate a test report. The industrial personal computer is used for controlling the testing instrument, the testing software, the control circuit and the like so as to finish automatic testing according to the matched testing scheme and output a testing result; the control circuit is matched with the radio frequency switch and used for controlling the on-off state of each test link of the system, namely, all the connection ports to be detected of the whole electronic whole machine can be automatically detected by pulling and inserting each connection port once. All mechanisms of the PLC electronic control gauge control device act in a coordinated manner and are matched with the test system, so that full-automatic detection of the electronic complete machine of the communication equipment with multiple connection ports is realized.
For convenience of description, the whole machine detection device of the present invention will be described in detail by taking the channel machine 10 as an example, but it should be noted that the detection device is not limited to the whole machine detection of the channel machine 10, that is, the whole machine detection device of the present invention is applicable to an electronic whole machine with a communication device having multiple connection ports. Of course, the person skilled in the art can make appropriate adjustments according to the structural model of the electronic whole machine actually to be detected.
Referring to fig. 1 to 10, taking the detection of the channel machine 10 as an example, the transmitting channel interface of the TX connection port, the a-B-C three channel interface of the SMA connection port and the a-B-C-B' four channel interface of the MCX connection port all need to pass through the detection, and if one of the channels does not pass through the detection, the channel machine is a defective product. Specifically, the channel machine 10 detection device includes: the test system comprises a test table, a test system and an electrical control system, wherein the test table is connected with the test system, and the test table and the test system are connected with the electrical control system through buses. Preferably, the complete machine detection device further comprises a display device connected with the test system, and specifically comprises a mouse 18, a keyboard 17, a display 16 and the like.
As shown in fig. 2, the detection station is configured to accurately position the channelizer 10 and plug all channel interfaces on the TX connection port, the SMA connection port, and the MCX connection port on the channelizer 10. Specifically, the detection platform sets up on support frame 1, and this detection platform is including conveying frock 2, location frock, power supply frock 5 and grafting frock, wherein, conveying frock 2, location frock, power supply frock 5 and grafting frock all with electrical control system bus connection, the quick plug of power supply frock 5's conductive probe 52 and grafting frock all with test system bus connection.
As shown in fig. 3, the conveying tool 2 specifically includes a conveying mechanism 21, an RFID reading head 22, an in-place inductive switch 23, and a limiting member 24. The conveying mechanism 21 is arranged on the operation plate 11 of the support frame 1 and is used for conveying the electronic whole machine under the action of a power source so as to enter and exit the detection area. The RFID reading head 22 is arranged at the front end of the conveying mechanism 21, and the in-place inductive switch 23 and the limiting piece 24 are arranged at the tail end of the conveying mechanism 21. In specific implementation, the transmission mechanism 21 starts to transmit the channel machine 10 from the front end, the RFID reading head 22 connected with the test system reads the ID information of the electronic complete machine, obtains the product S/N bound with the ID information and sends the product S/N to the test system, and the test system automatically matches with a test scheme after obtaining the S/N; the tray 9 carrying the channelling machine 10 contacts the limiting piece 24, the in-place inductive switch 23 senses a signal, the conveying mechanism 21 stops conveying, and at this time, the channelling machine 10 is located in the detection area and is in a state to be accurately positioned and detected. When the detection is completed, the electronic complete machine is reversely transported out of the detection area by the conveying mechanism 21. The conveying tool 2 further comprises an exit inductive switch 25 arranged at the front end of the conveying mechanism, preferably but not limited to near the RFID reading head 22. When the tray 9 is confirmed to have left the detection table by the exit sensor switch 25, the conveyor 21 stops operating; specifically, the sensing signal exiting the sensing switch 25 is a pre-signal for the next test of the test system, and the received signal enters the state to be started, and the RFID reader 22 enters the card searching state.
As shown in fig. 4 to 6, the positioning fixture comprises a tray positioning assembly 3 and a product positioning assembly 4, wherein the tray positioning assembly 3 and the product positioning assembly 4 are both arranged on the supporting frame 1, and the tray positioning assembly 3 can accurately fix the tray 9 in the detection area in three directions perpendicular to each other; the product positioning assembly 4 is used for fixing the channelizer 10 in three directions perpendicular to each other in a product area on the tray 9; wherein, three directions refer to three directions X, Y, Z mutually perpendicular to each other. As shown in fig. 7, a baffle 91 is disposed around the tray 9, preferably, the baffle 91 is an L-shaped baffle 91, and the peripheral baffle 91 encloses a product area for carrying and defining the electronic whole machine, that is, defining the movable range of the channelling machine 10, without completely clamping the channelling machine 10. Further, an RFID card 92 with information of the channelizer 10 is provided on each of the trays 9, corresponding to the RFID reading head 22.
Specifically, as shown in fig. 6, the tray positioning assembly 3 includes a tray coarse positioning mechanism 31, a tray XY-direction positioning mechanism 32, and a tray Z-direction positioning mechanism 33.
The tray coarse positioning mechanism 31 is used for pressing the tray 9 against the limiting piece 24 for coarse positioning after the tray 9 is in place; preferably, but not limited to, the tray coarse positioning mechanism 31 includes a first base 311 fixed on the support frame 1, a turnover driving part 312 mounted on the first base 311, a coarse positioning plate 313 connected to the turnover driving part 312, and a coarse positioning wheel 314 rotatably mounted on the coarse positioning plate 313 via a rotation shaft. When the tray 9 is in place, the turning driving part 312 drives the coarse positioning plate 313 to turn under the action of the power source after the in-place sensing switch 23 senses a signal, so that the coarse positioning wheel 314 abuts against the side edge of the tray 9 and presses the coarse positioning wheel against the limiting piece 24 to realize coarse positioning of the tray 9.
The tray XY positioning mechanism 32 is configured to simultaneously position the roughly positioned tray 9 in the X direction and the Y direction; the tray Z-direction positioning mechanism 33 is configured to position the tray 9 in the Z-direction, specifically, after the tray 9 XY-direction is positioned, move upward until the tray Z-direction positioning mechanism 33 is abutted, that is, the accurate positioning of the tray 9 in the three directions X, Y, Z is completed. Preferably, but not limited to, the tray XY-direction positioning mechanism 32 is disposed below the detection area, the tray XY-direction positioning mechanism 32 includes a second base 321 fixed to the support frame 1, a tray lifting driving part 322 mounted on the second base 321, a lifting plate 323 connected to the tray lifting driving part 322, and a positioning guide post 324 fixed to the lifting plate 323, the positioning guide post 324 corresponding to the positioning hole 93 on the tray 9; the tray Z-direction positioning mechanism 33 includes a plurality of tray 9Z-direction positioning portions located above the detection area, each tray 9Z-direction positioning portion includes a third base 331 fixed on the support frame 1, and a tray Z-direction positioning wheel 332 rotatably disposed on the third base 331 via a rotation shaft, where a plurality of Z-direction positioning portions are uniformly distributed around the tray 91 circumferentially, and preferably, four corners of the tray 9 are respectively provided with a tray 9Z-direction positioning portion. After the tray 9 is roughly positioned, the tray lifting driving part 322 drives the lifting plate 323 to lift under the action of a power source so that the positioning guide posts 324 enter the positioning holes 93 to simultaneously position the tray 9 in the X direction and the Y direction; after the tray 9 is positioned in the XY direction, the lifting plate 323 pushes the tray 9 to move upwards continuously, so that the tray 9 abuts against the tray Z-direction positioning wheel 332, and accurate positioning of the tray 9 in the X, Y, Z directions is completed.
As shown in fig. 4 and 5, the product positioning assembly 4 includes a product X-direction positioning mechanism 41, a product Y-direction positioning mechanism 42, and a product Z-direction positioning mechanism 43, and the channelling machine 10 is precisely positioned in the product area in three directions by the product X-direction positioning mechanism 41, the product Y-direction positioning mechanism 42, and the product Z-direction positioning mechanism 43.
The product X-direction positioning mechanism 41 includes a fourth base 411 fixed on the support frame 1, a product X-direction driving portion 412 mounted on the fourth base 411, a product X-direction connecting plate 413 connected with the product X-direction driving portion 412, and a product X-direction positioning wheel 414 rotatably disposed on the product X-direction connecting plate 413 via a rotation shaft, when the accurate positioning of the tray 9 is specifically implemented, the product X-direction driving portion 412 drives the product X-direction positioning wheel 414X to move under the action of a power source so as to abut against the channel machine 10 and push the product X-direction positioning wheel to the baffle 91 located in the direction of the tray 9X, so that the positioning of the product in the direction X is implemented. In order to better adapt to different types of channelling machines 10 and facilitate adjustment, the fourth base 411 is further provided with a lifting driving mechanism 415 capable of driving the product X-direction driving portion 412 to move up and down.
The product Y-direction positioning mechanism 42 includes a fifth base 421 fixed on the support frame 1, a product Y-direction driving portion 422 mounted on the fifth base 421, and a product Y-direction pushing block 423 connected to the product Y-direction driving portion 422, where, in specific implementation, the product Y-direction driving portion 422 drives the product Y-direction pushing block 423 to abut against the channelizer 10 under the action of a power source and push the product Y-direction pushing block 423 to the baffle 91 located in the Y direction of the tray 9, so as to implement positioning of the product in the Y direction. As a preferred solution, the cross section of the product Y-direction pushing block 423 is trapezoidal, and this structure meets the requirements of the appearance structure of the channelling machine 10, so that it contacts the channelling machine 10 more tightly, and the limit is more accurate.
The product Z-direction positioning mechanism 43 includes a sixth base 431 fixed on the support frame 1, a product Z-direction driving portion 432 mounted on the sixth base 431, a product Z-direction connecting plate 433 connected with the product Z-direction driving portion 432, and a product Z-direction positioning wheel 434 rotatably disposed on the product Z-direction connecting plate 433 through a rotation shaft, when the product is positioned in the X, Y direction, the product Z-direction driving portion 432 drives the product Z-direction positioning wheel 434 to downwards abut against the channel machine 10 under the action of a power source and press the product Z-direction positioning wheel 434 against the tray 9, so that accurate positioning of the channel machine 10 in the X, Y, Z direction is completed. Preferably, a buffer spring 435 is further disposed between the product Z-direction positioning wheel 434 and the product Z-direction connecting plate 433, and the buffer spring 435 provides a buffer force when the channelling machine 10 is positioned in the Z-direction to avoid crushing the channelling machine 10 when positioned.
The detecting device of the channel machine 10 further comprises a lower shell 15, a middle shell 14 and an upper shell 13 which are sleeved outside the supporting frame 1 from bottom to top in sequence, an operating plate 11 and a connecting frame 12 fixed on the operating plate 11 are arranged in the middle of the supporting frame 1, and the conveying mechanism 21 is arranged on the operating plate 11; preferably, but not limited to, the first to sixth bases 311 to 431 may be integrated on the operation panel 11 or the connection frame 12 according to actual situations.
As shown in fig. 7, the plugging tool includes a TX plugging mechanism 6, an MCX plugging mechanism 7 and an SMA plugging mechanism 8, which are enclosed together with the power supply tool 5 to form the detection area around the tray 9, and the power supply tool 5, the TX plugging mechanism 6, the MCX plugging mechanism 7 and the SMA plugging mechanism 8 are used for respectively performing automatic plugging on an electrical port, a TX connection port, an MCX connection port and an SMA connection port of the channel machine 10, where the MCX connection port and the SMA connection port have multiple channel interfaces, that is, the MCX plugging mechanism 7 simultaneously plugs four channel interfaces of the MCX connection port, and the SMA plugging mechanism 8 simultaneously plugs three channel interfaces of the SMA connection port.
The power supply tooling 5 comprises a power supply triaxial driving part 51 fixed on the operation panel 11 and at least one conductive probe 52 connected with the power supply triaxial driving part 51, wherein the power supply triaxial driving part 51 is used for providing power for the conductive probe 52 to move in the X, Y, Z three directions, so that the conductive probe 52 and an electrical port of the channelling machine 10 are conveniently aligned in the first debugging, Y, Z directions are fixed after alignment, and only the X direction can be moved forward and backward to pull out the plugging port.
As shown in fig. 9 and 10, the SMA plug-in mechanism 8 includes an SMA triaxial driving portion 81 fixed to the operation plate 11, an SMA plug-in portion 82 connected to the SMA triaxial driving portion 81, and an SMA buffer portion 83 provided on the SMA plug-in portion 82.
The three-axis driving part 81 is used for providing power for the movement of the SMA plug-in part 82 in the directions X, Y, Z, so that the SMA plug-in part can be conveniently aligned with the SMA connection port of the channel machine 10 when debugging is performed for the first time, the direction Y, Z is fixed after the alignment is completed, and only the direction X is left to be capable of advancing and retreating to plug the port. Preferably, but not limited to, the SMA triaxial driving part 81 includes an X-axis driving part 811 fixed on the operation board 11, a Y-axis driving part 812 slidably disposed on the X-axis driving part 811, and a Z-axis driving part 813 slidably disposed on the Y-axis driving part 812, in which, in a specific debugging process, the Z-axis driving part 813 drives the SMA plug-in part 82 to move in a Z-direction under the action of a power source so as to align the SMA connection port in the Z-direction and lock the Z-axis driving part 813, so that the SMA plug-in part 82 no longer moves in the Z-direction, and the Y-axis driving part 812 drives the Z-axis driving part 813 to move in a Y-direction under the action of the power source so as to indirectly drive the SMA plug-in part 82 to align the SMA connection port in the Y-direction and lock the Y-axis driving part 812, so that the SMA plug-in part 82 no longer moves in the Y-direction; the X-axis driving part 811 drives the Y-axis driving part 812 to move in the X direction under the action of a power source, so as to indirectly drive the SMA plug part 82 to move in the X direction, so as to realize the plug and plug of the SMA plug part 82 relative to the SMA connection port.
The X-axis driving unit 811, the Y-axis driving unit 812, and the Z-axis driving unit 813 are not particularly limited, and the movement of the SMA plug 82 in the three directions X, Y, Z is driven so that the SMA plug 82 can be aligned with the test port of the channelizer 10. Specifically, an appropriate driver may be selected as the driving unit according to the required moving distance, and in this embodiment, the moving distance required by the Y-axis driving unit 812 and the Z-axis driving unit 813 is small, preferably a single-axis fine tuning translation stage is used, and more preferably, a micrometer fine tuning translation stage with self-locking is used, so that accurate adjustment can be better achieved. The Y-axis drive 812 and Z-axis drive 813 may also be integrated, i.e., a fine tuning translation stage that uses Y-Z dual axes. It is noted that the fine tuning translation stage is a conventional device, and will not be described herein.
The SMA buffer portion 83 is configured to absorb an insertion offset, and specifically, the SMA buffer portion 83 includes a buffer fixing plate 831 fixedly connected to the SMA triaxial driving portion 81, at least one pressing block 832 fixed on the buffer fixing plate 831, the pressing block 832 is a hollow structure and encloses with the buffer fixing plate 831 to form an accommodating space, and the accommodating space further includes a plurality of guide posts 833 disposed between the buffer fixing plate 831 and each pressing block 832, a flange adapter 834 relatively sliding along the guide posts 833, and a spring 835 sleeved on each guide post 833, where the spring 835 is preferably but not limited to fixedly connected to the flange adapter 834; the SMA plug-in portion 82 comprises a plug connection rod 821 connected to the flange adapter 834 and 3 SMA quick plugs 822 fixed to the plug connection rod 821. In particular, when the SMA connection ports of the channelizer 10 are offset, the SMA quick plugs 822 are subjected to resistance force during the process of being inserted into the 3 channel interfaces of the SMA connection ports, the resistance force is decomposed into two directions of axial force and radial force, the flange adapter 834 is stressed to retract along the guide post 833 under the action of the axial force, and at the moment, the springs 835 are compressed; under radial force, the flange adaptor 834 is biased by radial force until the SMA plug 822 coincides with the channel interface axis of the SMA connection port, and the SMA plug 822 can be inserted smoothly. Meanwhile, the compressible length of the spring 835 is larger than the length of the SMA quick plug 822 inserted into the channel interface in the normal state, so that the SMA quick plug 822 cannot be inserted at all and cannot be in rigid contact, and the elastic force is insufficient to damage a product when the SMA quick plug 822 is compressed to the limit, so that stable, reliable and safe plugging of the port is ensured. Furthermore, the force is conducted through the spring 835, the insertion force < elasticity < product breaking force, and the product is not damaged when the deflection is too large to insert.
It should be noted that other plugging mechanisms: the MCX plugging mechanism 7 and the TX plugging mechanism 6 also respectively have a corresponding MCX triaxial driving portion, an MCX plugging portion and an MCX buffer portion, and the specific structures of the portions of the respective plugging mechanisms may be the same as or different from those of the SMA plugging mechanism 8, so long as the corresponding functions can be realized. For convenience of description, the SMA plug-in mechanism 8 is taken as an example, and the MCX plug-in mechanism 7 and the TX plug-in mechanism 6 are applicable in the same manner, which is not described herein.
It should be noted that, the power supply tool 5, the MCX plug mechanism 7, the SMA plug mechanism 8 and the TX plug mechanism 6 may not all satisfy the movements in the three directions X, Y, Z, and may selectively satisfy the movements in at least one direction according to practical situations. The power supply tool 5, the MCX plugging mechanism 7, the SMA plugging mechanism 8 and the TX plugging mechanism 6 may not all adopt a flexible insertion mode, and may select a flexible insertion mode or a hard insertion mode according to practical situations, for example, the power supply tool 5 in this embodiment adopts a hard insertion mode, but is not limited thereto.
It should be noted that, the numbers of the conductive probes 52 and the quick plugs on the power supply fixture 5, the MCX plugging mechanism 7, the SMA plugging mechanism 8 and the TX plugging mechanism 6 may be set according to actual situations, for example, in this embodiment, two conductive probes 52 may be inserted into two electrical ports at the same time; three quick plugs on the SMA plug-in mechanism 8 can be simultaneously inserted into three channel interfaces; four quick plugs on the MCX plugging mechanism 7 can be simultaneously plugged into four channel interfaces; one quick plug is arranged on the TX plug-in mechanism 6; but are not limited thereto, and may be suitably adjusted according to the specific product model and detection requirements.
On the basis of the above embodiment, specifically, the detecting device of the channelizer 10 further includes a radio frequency switch, which is used for switching the channel interface to be detected, specifically, the quick plugs of the MCX plug-in mechanism 7 and the SMA plug-in mechanism 8 are both connected with the testing system through the radio frequency switch. Specifically, after all quick plugs of all plug-in mechanisms are inserted into all connection ports to be detected, a test process is started, and the whole test process is only required to call a channel interface of a required connection port through the radio frequency switch, so that the channel interface is not required to be switched back and forth, and the test efficiency and the service life of the port are improved.
It should be noted that, in the present invention, each driving portion may be a motor driver, a cylinder driver, or the like, and may be selected according to practical situations.
It should be noted that, when the positioning tool specifically works, all directions are sequentially performed, after the positioning in the front direction is completed, the tray or the product can slide relatively with the contact surface of the positioned positioning mechanism when the positioning in the rear direction is repositioned, so that as a preferred scheme, the positioning tool adopts the roller as the positioning wheel, and the sliding friction can be changed into rolling friction by using the roller, so that the tray, the product and each positioning mechanism are further protected.
The working flow of the detection device of the channel machine 10 is as follows:
(1) Feeding: the channel machine 10 to be tested is conveyed to the detection area along with the tray 9 by the conveying mechanism 21;
(2) Identifying the S/N of the product, and calling a test system scheme: the RFID reading head 22 connected with the test system reads the ID information on the RFID card 92 arranged on the tray 9, acquires the S/N of the product bound with the ID card, and automatically matches the test scheme after the test system acquires the S/N;
(3) Product positioning: starting the tray positioning assembly 3 and the product positioning assembly 4 to accurately position the tray 9 and the channelizer 10 to be tested in three directions X, Y, Z respectively;
(4) Automatic plug port: starting the power supply tool 5, the MCX plug-in mechanism 7, the SMA plug-in mechanism 8 and the TX plug-in mechanism 6, and respectively inserting a conductive probe 52 and a quick plug into corresponding connection ports, wherein three channel interfaces of the SMA connection ports are simultaneously inserted, and four channel interfaces of the MCX interface are simultaneously inserted;
(5) And (3) testing: the test system receives the PLC signal of the electrical control system to start the test, and the radio frequency switch switches different channels to perform the test step by step according to a given test scheme, particularly, the test 1 to the test 10 in the background technology, but the channel interfaces of the connection ports do not need to be replaced in all test processes;
(6) And (3) result feedback: the test system returns the test result and the S/N to the MES system, and an MES database is stored;
(7) Discharging: the conductive probes 52 and the quick plugs exit the ports and the channelizer 10 flows back with the tray 9 through the transfer mechanism 21.
It should be noted that, the detection device of the channel machine 10 is only one station of the intelligent automatic line of the whole channel machine 10, the intelligent automatic line is used for mixed flow production of different products, each product operates according to the respective process route established by the MES, the products are scheduled through logic operation of the upper computer software, and each product is distributed into the corresponding station according to the process route.
It should be noted that, PCBA: printed Circuit Board Assembly printed circuit board assembly, MES: manufacturing Execution System A, SMA, sub-Miniture-A radio antenna interface, MCX, push-in connection structure, small and exquisite MCX shape, and RF coaxial connector for quick connection. RFID Radio Frequency Identification, also known as radio frequency identification, is a communication technology that can identify a specific object by radio signals and read and write related data without the need for mechanical or optical contact between the identification system and the specific object.
Finally, it should be noted that: the above embodiments are only for illustrating the technical solution of the present invention, and not for limiting the same; although the invention has been described in detail with reference to the foregoing embodiments, it will be understood by those of ordinary skill in the art that: the technical scheme described in the foregoing embodiments can be modified or some or all of the technical features thereof can be replaced by equivalents; such modifications and substitutions do not depart from the spirit of the invention.
Claims (5)
1. A complete machine detection device for automatically detecting an electronic complete machine of a communication device with multiple connection ports, the complete machine detection device comprising:
The detection platform is used for positioning the electronic complete machine to be detected and plugging all the connecting ports to be detected on the electronic complete machine;
the test system is connected with the detection platform to realize the connection between the test system and the connection ports to be detected, and is used for gradually detecting all the connection ports to be detected and outputting detection results;
the electrical control system is respectively connected with the detection table and the test system bus and is used for controlling the automatic detection process of the whole detection device; wherein,
the detection platform comprises at least one plugging tool, and comprises a triaxial driving part, a plugging part arranged on the triaxial driving part and a buffer part arranged on the plugging part; the plug-in part comprises at least one quick plug which can be correspondingly plugged in a connection port of the electronic complete machine by means of the triaxial driving part;
the detection table further comprises a conveying tool for conveying the electronic complete machine, a positioning tool for accurately positioning the electronic complete machine in a detection area and a power supply tool for supplying power to the electronic complete machine during detection, wherein the conveying tool, the positioning tool, the power supply tool and the plugging tool are all connected with the electrical control system bus, and a conductive probe of the power supply tool and a quick plug of the plugging tool are both connected with the test system bus;
The conveying tool comprises a conveying mechanism, an RFID reading head, an in-place inductive switch and a limiting part; the conveying mechanism is used for conveying the electronic complete machine to enter and exit the detection area under the action of a power source; the RFID reading head is arranged at the front end of the conveying mechanism, and the in-place inductive switch and the limiting piece are arranged at the tail end of the conveying mechanism;
the positioning tool comprises a tray positioning assembly and a product positioning assembly, wherein the tray positioning assembly is used for accurately fixing a tray bearing the electronic complete machine in the detection area in the directions X, Y, Z; the product positioning assembly is used for fixing the electronic complete machine in the product area on the tray in the directions of X, Y, Z;
the plugging tool comprises a TX plugging mechanism, an MCX plugging mechanism and an SMA plugging mechanism, the TX plugging mechanism, the MCX plugging mechanism and the SMA plugging mechanism are arranged around the periphery of the tray together with the power supply tool to form the detection area, and the power supply tool, the TX plugging mechanism, the MCX plugging mechanism and the SMA plugging mechanism are used for automatically plugging and unplugging an electric port, a TX connection port, an MCX connection port and an SMA connection port of the channel machine respectively;
the SMA plug-in mechanism comprises an SMA triaxial driving part fixed on the operation plate, an SMA plug-in part connected with the SMA triaxial driving part and an SMA buffer part arranged on the SMA plug-in part;
The SMA buffer part is used for absorbing the plugging offset and comprises a buffer fixing plate fixedly connected with the SMA triaxial driving part and at least one pressing block fixed on the buffer fixing plate, the pressing block is of a hollow structure, an accommodating space is formed by surrounding the pressing block and the buffer fixing plate, the accommodating space also comprises a plurality of guide posts arranged between the buffer fixing plate and each pressing block, a flange adapter relatively sliding along the guide posts, and a spring sleeved on each guide post, and the spring is fixedly connected with the flange adapter; the SMA plug-in connection part comprises a plug connecting rod connected with the flange adapter and 3 SMA quick plugs fixed on the plug connecting rod;
the tray positioning assembly comprises a tray coarse positioning mechanism, a tray XY-direction positioning mechanism and a tray Z-direction positioning mechanism;
the tray coarse positioning mechanism comprises a first base fixed on a support frame, a turnover driving part arranged on the first base, a coarse positioning plate connected with the turnover driving part and a coarse positioning wheel rotatably arranged on the coarse positioning plate through a rotating shaft, wherein after the tray is in place, the in-place induction switch senses a signal, the turnover driving part drives the coarse positioning plate to turn under the action of a power source so that the coarse positioning wheel is abutted against the side edge of the tray and is pressed against the limiting piece to realize coarse positioning of the tray;
The tray XY directional positioning mechanism is arranged below the detection area and comprises a second base fixed on the support frame, a tray lifting driving part arranged on the second base, a lifting plate connected with the tray lifting driving part and a positioning guide post fixed on the lifting plate, and the positioning guide post corresponds to a positioning hole on the tray;
the tray Z-direction positioning mechanism comprises a plurality of tray Z-direction positioning parts positioned above the detection area, each tray Z-direction positioning part comprises a third base fixed on the support frame and tray Z-direction positioning wheels rotatably arranged on the third base through a rotating shaft, and the plurality of tray Z-direction positioning parts are uniformly distributed around the circumference of the tray, wherein after the tray is roughly positioned, the tray lifting driving part drives the lifting plate to lift under the action of a power source so that the positioning guide posts enter the positioning holes to simultaneously position the tray in the X direction and the Y direction; after the tray is positioned in the XY direction, the lifting plate pushes the tray to move upwards continuously so that the tray is abutted against the Z-direction positioning wheel of the tray, and then accurate positioning of the tray in the X, Y, Z directions is completed;
The product positioning assembly comprises a product X-direction positioning mechanism, a product Y-direction positioning mechanism and a product Z-direction positioning mechanism;
the product X-direction positioning mechanism comprises a fourth base fixed on the supporting frame, a product X-direction driving part arranged on the fourth base, a product X-direction connecting plate connected with the product X-direction driving part and a product X-direction positioning wheel which is rotationally arranged on the product X-direction connecting plate through a rotating shaft, wherein after the tray is precisely positioned, the product X-direction driving part drives the product X-direction positioning wheel to move in the X direction under the action of a power source so as to be propped against the channel machine and push the product X-direction positioning wheel to a baffle plate positioned in the X direction of the tray, so that the positioning of the product in the X direction is realized;
the product Y-direction positioning mechanism comprises a fifth base fixed on the supporting frame, a product Y-direction driving part arranged on the fifth base and a product Y-direction pushing block connected with the product Y-direction driving part, wherein the product Y-direction driving part drives the product Y-direction pushing block to abut against the channel machine under the action of a power source and pushes the product Y-direction pushing block to a baffle plate positioned in the Y direction of the tray, so that the positioning of the product in the Y direction is realized;
The product Z-direction positioning mechanism comprises a sixth base fixed on the support frame, a product Z-direction driving part installed on the sixth base, a product Z-direction connecting plate connected with the product Z-direction driving part and a product Z-direction positioning wheel which is rotationally arranged on the product Z-direction connecting plate through a rotating shaft, wherein after the product is positioned in the X, Y direction, the product Z-direction driving part drives the product Z-direction positioning wheel to downwards butt against the channel machine under the action of a power source and press the channel machine against the tray, so that the accurate positioning of the channel machine in the X, Y, Z direction is completed.
2. The complete machine detection device according to claim 1, wherein baffles are arranged on the periphery of the tray, and the product area is surrounded by the baffles on the periphery and is used for bearing and limiting the electronic complete machine.
3. The complete machine detection device according to claim 2, wherein the trays are provided with an RFID card having the electronic complete machine information, corresponding to the RFID reading head.
4. The complete machine detection device according to claim 1, further comprising a radio frequency switch, wherein the fast plug is connected to the test system via the radio frequency switch.
5. A complete machine detection method for detecting a complete machine detection device according to any one of claims 1-4, comprising the steps of:
(1) Feeding: conveying the whole machine to be detected into a detection area;
(2) Matching test scheme: the test system acquires the S/N information of the whole machine and correspondingly matches a test scheme;
(3) Product positioning: accurately positioning the whole machine in X, Y, Z directions;
(4) Automatic plug port: after the product is positioned, all the connecting ports to be detected on the whole machine are inserted to realize the connection between the test system and the connecting ports to be detected;
(5) And (3) testing: the test system tests all the connection ports to be tested step by step according to the test scheme and outputs test results.
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| CN108899737A (en) * | 2018-06-29 | 2018-11-27 | 武汉心浩智能科技有限公司 | Connector automatic plug-pull device for the automatic commissioning device of microwave communication product |
| CN117452121A (en) * | 2023-10-30 | 2024-01-26 | 乐沪电子有限公司 | Method, device and computer storage medium for testing electronic product through code scanner |
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| CN107462794A (en) * | 2017-08-18 | 2017-12-12 | 深圳市艾特讯科技有限公司 | A kind of automatic test device |
| CN207650354U (en) * | 2018-01-15 | 2018-07-24 | 深圳市海能达通信有限公司 | Complete machine detection device |
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| CN108072831A (en) | 2018-05-25 |
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