TW202122813A - Radio frequency electric component test device and test operation equipment applying the same achieving the practical benefit of increasing the test yield - Google Patents

Abstract

A radio frequency electric component test device comprises an antenna test unit and an electric property test unit. The antenna test unit is disposed with a transfer arm and an antenna tester. The antenna tester is driven by the transfer arm to perform at least a directional displacement so that an antenna of a radio frequency electric component located at a test station receives or emits a wireless signal. The electric property test unit is disposed with an electric property tester having a circuit board and a bonding member, and the radio frequency electric component located at the test station is electrically connected by the bonding member. Accordingly, when the electric property test unit executes electric property test operation for the radio frequency electric component located at the test station, the antenna test unit is synchronously utilized to perform wireless signal test operation for the antenna of the radio frequency electric component located at the test station, thereby achieving the practical benefit of increasing the test yield.

Description

Radio frequency electronic component test device and test operation equipment for its application

The invention provides a testing device for radio frequency electronic components.

Nowadays, in order to increase the data transmission speed of mobile communication area wireless network system, wireless communication area network system or Bluetooth wireless personal network system, etc., a radio frequency electronic component with built-in antenna is the aforementioned communication system The important application; the antenna's transmitting field type varies according to the application site, for example, the dipole antenna has an omnidirectional transmitting field type, which is applied to terminal equipment so that the terminal equipment can receive the wireless signals transmitted by beams of different directions; such as wireless The antenna of the network access device needs to be able to generate a specific directional (such as 0°, 45°, or 21° directional) transmitting field type, and receive the wireless signal emitted by the device at a specific location. At present, radio frequency electronic components are equipped with contacts and antennas on two sides, or on the same side. The phase and beamforming technology of the antenna are adjusted to adjust the transmission field pattern, even if the antenna array emits in a specific direction. /Receiving wireless signals are uniformly superimposed to produce the best transmitting/receiving beam; therefore, how to test the transmission performance of the radio frequency electronic component's antenna to the wireless signal transmission performance of the preset direction, and then eliminate the defective products, is the target of the industry's research and development.

The first object of the present invention is to provide a radio frequency electronic component test device, including an antenna test unit and an electrical test unit. The antenna test unit is provided with a transfer arm and an antenna tester, and the antenna tester is driven by the transfer arm to move at least one Directional displacement for receiving or transmitting wireless signals to the antenna of the radio frequency electronic component at the test station. The electrical test unit is equipped with an electrical tester with a circuit board and a joint part, and the joint part is electrically connected to the Radio frequency electronic components of the test station; when the electrical test unit performs electrical testing operations on the radio frequency electronic components located in the test station, the antenna test unit is used to simultaneously perform wireless signal test operations on the antenna of the radio frequency electronic component of the test station , To achieve the practical benefits of improving test productivity.

The second objective of the present invention is to provide a radio frequency electronic component test device, which further includes a carrier for assembling an electrical tester. The carrier is linearly displaced or rotationally displaced, and drives the electrical tester and The radio frequency electronic component is displaced according to the second test path to achieve the practical benefit of improving the test efficiency.

The third objective of the present invention is to provide a radio frequency electronic component testing device, which also includes a test room, which not only prevents external noise, but also allows radio frequency electronic components to be located in a simulated application site temperature test environment to perform test operations, thereby achieving practical benefits of improving test quality .

The fourth object of the present invention is to provide a radio frequency electronic component testing device, which further includes a socket. The socket holds the radio frequency electronic component at the test station, so that the electrical tester and the antenna tester are on the socket and located on the test station. The radio frequency electronic components of the station perform electrical test operations and wireless signal test operations , To achieve the practical benefits of improving test productivity.

The fifth object of the present invention is to provide a radio frequency electronic component test device, the transfer arm is provided with a signal channel and at least one work fixture, the signal channel is used for assembling the antenna tester, and the work fixture is used for picking up the radio frequency electronic components in the test Work station, not only can transfer radio frequency electronic components according to the first test path , And the power tester and antenna tester perform electrical test operations and wireless signal test operations on the radio frequency electronic components on the transfer arm and located in the test station to achieve the practical benefits of improving test productivity.

The sixth object of the present invention is to provide a radio frequency electronic component test device, the antenna test unit of which can be equipped with an antenna adjuster according to operational requirements for assembling the antenna tester, and the antenna adjuster is used to adjust the position or angle of the antenna tester , In order to facilitate the testing of radio frequency electronic components of different directions, thereby effectively reducing the number of antenna testers, and achieving the practical benefit of saving the cost of antenna testers.

The seventh objective of the present invention is to provide a radio frequency electronic component test device, the electrical test unit of which can be configured with an electrical adjuster according to operational requirements for assembling the electrical tester, and the electrical adjuster is used to adjust the electrical tester and The placement or angle of the radio frequency electronic components facilitates the testing of radio frequency electronic components of different orientations. It can also effectively reduce the number of antenna testers and achieve the practical benefit of saving the cost of antenna testers.

The eighth object of the present invention is to provide a test operation equipment, including a machine, a feeding device, a receiving device, a test device of the present invention, a conveying device, and a central control device; the feeding device is arranged on the machine and equipped with At least one feeding holder for accommodating the radio frequency electronic component to be tested; the receiving device is arranged on the machine, and is provided with at least one receiving holder for accommodating the measured radio frequency electronic component; the test device of the present invention is arranged on The machine platform includes an antenna test unit and an electrical test unit to perform electrical test operations and wireless signal test operations on radio frequency electronic components; the conveying device is arranged on the machine platform and is equipped with at least one conveyor for conveying Radio frequency electronic components; the central control device is used to control and integrate the actions of various devices to perform automated operations and achieve practical benefits of improving operational performance.

In order to enable your reviewer to have a better understanding of the present invention, a preferred embodiment is given with the drawings, and the details are as follows.

Please refer to Fig. 1, a first embodiment of the test device 10 of the present invention. The test device 10 includes an antenna test unit and an electrical test unit.

The antenna test unit includes a transfer arm 11 and an antenna tester 12, and also includes a test room. Furthermore, a test room can be formed between the panel and the box, or a cover can be placed on the panel to form a test room. The panel can be The machine board or frame board, the box body or the panel can be provided with a conveying channel, and a door panel that can be opened and closed can also be provided at the conveying channel; in this embodiment, the test device 10 is attached to the box 13 and the machine board 31 A test chamber 131 is formed between the RF electronic components (not shown in the figure) in a test environment that simulates the temperature of the application site. In addition, a conveying channel 132 and at least one conveying pipe 133 are provided in the box 13 for moving in/out. For radio frequency electronic components, the delivery pipe 133 is used to input the dry fluid with a preset temperature to the test chamber 131, so that the test chamber 131 maintains the preset temperature and prevents condensation.

The transfer arm 11 is displaced in at least one direction for assembling the antenna tester 12. Furthermore, the transfer arm 11 can be a frame or a rotating shaft, and is assembled on the frame or box 13, and is driven by a first drive source (Not shown in the figure) by driving displacement or rotation, the transfer arm 11 can perform linear displacement or rotational displacement, or linear displacement and rotational displacement. For example, the transfer arm 11 can perform Z-direction displacement or XYZ-direction displacement according to the first test path. The transfer antenna tester 12, for example, the transfer arm 11 rotates angularly according to the first test path and moves the transfer antenna tester 12 in the Z direction; and the transfer arm 11 is equipped with a work fixture and a signal channel, and a work fixture It is for picking up radio frequency electronic components at the test station, and the signal channel is for assembling the antenna tester 12 and for passing wireless signals. The transfer arm 11 can not only transfer the radio frequency electronic components according to the first test path, but also supply the antenna tester 12 The electrical testing unit and the electrical testing unit respectively perform electrical testing and wireless signal testing on the radio frequency electronic components on the transfer arm 11 and located at the testing station. The transfer arm 11 and the electrical tester of the electrical testing unit can perform relative displacement. In this embodiment, the transfer arm 11 is assembled in the box 13, and is driven by the first drive source (not shown) for displacement in the Z direction. The transfer arm 11 is a frame body, and is provided with The signal channel 111 is used for assembling the antenna tester 12 and for passing wireless signals.

At least one antenna tester 12 is mounted on the transfer arm 11 for performing wireless signal testing operations on the antennas of the radio frequency electronic components at the test station. For example, the antenna tester 12 performs radio signal reception operations on the radio frequency electronic components, such as The antenna tester 12 performs the operation of transmitting wireless signals for testing radio frequency electronic components. For example, the antenna tester 12 performs the operation of receiving and transmitting wireless signals for the radio frequency electronic components; and the antenna tester 12 can be connected to an independent processor (not shown in the figure) (Shown), in order to transmit the wireless signal of the receiving radio frequency electronic component to the processor, or transmit the wireless signal for testing of the processor to the radio frequency electronic component, the processor can also be the processing of the central control device (not shown) Furthermore, the operating axis L of the antenna tester 12 is located in the preset direction, and the angle of the operating axis L can be the same or close to the direction to be tested of the radio frequency electronic component (such as 0°, 45° or 30°), Receives wireless signals from the beams emitted from the direction to be tested of the radio frequency electronic component, or sends out wireless signals for testing toward the direction to be tested of the radio frequency electronic component; in this embodiment, the antenna tester 12 is mounted on the signal channel of the transfer arm 11 111. The angle of the operating axis L of the antenna tester 12 is at the preset 0° direction.

The test device 10 can change the configuration number of the antenna tester 12 according to the test operation requirements. The antenna tester 12 can adopt a fixed configuration or a movable configuration. For example, the antenna tester 12 can be fixed in the test room 131, such as the antenna tester 12 It can be combined with an antenna adjuster (not shown in the figure) to be assembled on the transfer arm 11 to adjust the position or angle. The antenna adjuster can be a robot arm, a rotating shaft, a slide rail set or a plurality of adjustment rods, which can be operated visually. It is required to drive the antenna tester 12 to shift the position or angle according to the direction to be tested, or rotate the original axis to adjust the position, so that the antenna tester 12 can test different directions to be tested (such as 0° , 45° or 30° pointing) radio frequency electronic components, thereby effectively reducing the number of antenna testers and saving costs. Furthermore, the antenna test unit can be provided with at least one intermediary (not shown in the figure) between the antenna tester 12 and the test station according to the requirements of the test operation. The intermediary can be a diamond mirror or a refraction element, etc. The intermediary It is used to transmit and transmit wireless signals between the radio frequency electronic components and the antenna tester 12.

The electrical test unit is provided with an electrical tester 21 with a circuit board 211 and a joining component 212, and the joining component 212 is electrically connected to the radio frequency electronic component at the test station to perform electrical testing; further, electrical testing The device 21 can be located in the test room 131, the carrier or the transfer arm 11, and the electrical tester can adopt a fixed configuration or a movable configuration. For example, the electrical tester 21 can be fixedly configured in the test room 131; for example, electrical testing The device 21 can be assembled to the carrier or the transfer arm 11 for displacement in at least one direction; further, the electrical tester 21 can be equipped with an electrical adjuster (not shown) to adjust the placement position or angle , The electrical adjuster can be a mechanical arm, a rotating shaft, a slide rail group or a plurality of adjusting rods, depending on the operation requirements, to drive the electrical tester 21 and the radio frequency electronic components to move and adjust the placement position according to the required direction of the test Or angle, or adjust the placement to different angles in the original axis to facilitate testing of radio frequency electronic components with different orientations (such as 0°, 45° or 30° orientation), thereby effectively reducing the number of antenna testers 12 and saving Cost; In this embodiment, the electrical tester 21 is provided with a circuit board 211 and a test base 213 with a bonding part 212, the test base 213 is provided with a receiving portion 2131 for holding radio frequency electronic components, and the bonding part 212 One end is electrically connected to the circuit board 211, and the other end is electrically connected to radio frequency electronic components.

As far as the electrical tester 21 is arranged on a carrier, the testing device 10 further includes a carrier for assembling the electrical tester. The carrier can be a carrier, a turntable or a lifter, etc., for holding the electrical tester. 21. It is driven by a second driving source for linear displacement or rotational displacement. The second driving source can be a linear motor, a cylinder, or a motor and a transmission. Depending on the operation requirements, the electrical tester 21 is driven to perform the second test. The path displacement moves the electrical tester 21 into/out of the test chamber 131; in this embodiment, the carrier is a carrier 41, and the carrier 41 is provided with a baffle 411 and a bearing plate 412, and the baffle 411 is for opening and closing The conveying channel 132 of the box 13 and the supporting plate 412 are used to hold the electrical tester 21. The second driving source 42 drives the carrier 41 to move into/out of the test room through the conveying channel 132 of the box 13 according to the second test path. 131. Move the electrical tester 21 into/out of the test chamber 131 carrying the radio frequency electronic components.

In addition, the test station may be located in the test room 131, the transfer arm 11 or the socket (not shown in the figure), depending on the requirements of different test operations, and is not limited to this embodiment; for example, the test station may be located in the test room 131 , The electrical tester 21 carries the radio frequency electronic components in the test room 131 to perform the test operation; for example, the test station can be located in the transfer arm 11, the transfer arm 11 has a work fixture and a signal channel 111, and the work fixture is transferred Radio frequency electronic components, and the test station is used as the test station. The signal channel 111 of the carrier arm 11 is used for passing wireless signals for the radio frequency electronic components to perform test operations at the test station; for example, the test station It can be located on a socket (not shown in the figure). The socket holds the radio frequency electronic components in the test room 131 for the radio frequency electronic components to perform test operations at the test station. The socket can be a fixed configuration , Or the socket and the electrical tester 21 can make relative displacement. Furthermore, there are no signal interference parts (such as metal parts or conductive parts) between the test station and the antenna tester 12 to avoid the loss of wireless signals during the transmission process, so that the antenna of the radio frequency electronic component is directed to the preset point at the test station Send out the wireless signal of the beam to perform the wireless signal test operation.

Please refer to Figures 2 and 3, assuming that the test station is located in the test chamber 131, the second driving source 42 drives the carrier 41 to move outward in the X direction, and makes the baffle 411 open the conveying channel 132 of the box 13. Move the carrying plate 412 of the carrier 41 carrying the electrical tester 21 out of the test chamber 131, so that the shifter 51 can move the radio frequency electronic component 61 into the accommodating portion 2131 of the test seat 213 of the electrical tester 21 for XYZ direction displacement; The radio frequency electronic component 61 has a contact 611 on one side, and an antenna 612 on the other side; the second driving source 42 drives the carrier 41 to make a reverse displacement in the X direction, so that the carrier board 412 of the carrier 41 carries the power transmission tester 21 and the radio frequency The electronic component 61 is moved into the testing room 131, the electrical tester 21 is located in the testing room 131, and the radio frequency electronic component 61 is located under the antenna tester 12, that is, the testing station is in the testing room 131, the carrier 41 and the baffle 411 The conveying channel 132 of the box 13 is closed. Since the joint part 212 of the electrical tester 21 is electrically connected to the contact 611 of the radio frequency electronic component 61, the circuit board 211 of the electrical tester 21 is connected to the radio frequency electronic component 61 through the joint part 212. To perform electrical testing operations, since the antenna tester 12 is assembled on the transfer arm 11, the transfer arm 11 can drive the antenna tester 12 to move in the Z direction to adjust the operating height according to operating requirements. The operating axis of the antenna tester 12 The angle of L is the same as the direction to be measured of the antenna 612 of the radio frequency electronic component 61 and is 0°. When the antenna 612 of the radio frequency electronic component 61 at the test station emits a beam toward 0° to transmit wireless signals, the antenna tester 12 That is, the wireless signal of the radio frequency electronic component 61 is received, and the received radio signal is transmitted to the processor (not shown in the figure) of the central control device for judging the quality of the radio frequency electronic component 61.

Please refer to Fig. 4, the second embodiment of the test device 10 of the present invention is different from the first embodiment in that the carrier is the application type of the turntable 43, and the test device 10 is located between the box body 13 and the machine table 31 A test chamber 131 is formed for the radio frequency electronic component 61 to be located in a test environment that simulates the temperature of the application site. In addition, a conveying channel 132 is provided in the box 13 for moving in/out of the radio frequency electronic component 61. The conveying channel 132 can be installed At least one shield 134 to prevent external noise; the turntable 43 can be rotated at a horizontal angle, or rotated at a horizontal angle and displaced in the Z direction, and is provided with at least one loading portion 431, which communicates with the bottom surface of the turntable 43 and provides The electrical tester 21 is assembled. In this embodiment, the turntable 43 is driven by a second driving source for angular rotation. The second driving source includes a motor (not shown) and a transmission that is a shaft 44 , The rotating shaft 44 is connected to the drive turntable 43 to rotate at an angle according to the second test path, so that the loading parts 431 of the turntable 43 move into/out of the test chamber 131; the electrical tester 21 of the electrical test unit can be mounted on each of the turntable 43 The mounting portion 431 is configured with an electrically connected circuit board 211 and a joining component 212, or each loading portion 431 of the turntable 43 is equipped with a test seat 213 with a joining component 212, and a supporting tool 214 is configured in the testing room 131, the supporting tool 214 supports the circuit board 211, so that the circuit board 211 is electrically connected to the joining member 212. The support 214 can be a fixed configuration, or the support 214 and the turntable 43 can move relative to each other; in this embodiment, the support The device 214 is displaced by at least one Z direction to carry the circuit board 211 to electrically connect the joining component 212 on the turntable 43; when the rotating shaft 44 drives the turntable 43 to rotate at an angle according to the second test path, the electrical tester 21 and the radio frequency are driven The electronic component 61 is moved into the testing room 131, and the testing station is located in the testing room 131. The holder 214 drives the circuit board 211 to move in the Z direction, so that the circuit board 211 is electrically connected to the joining part 212 on the turntable 43, and the electrical tester 21 That is, the electrical test operation is performed on the radio frequency electronic component 61. When the antenna of the radio frequency electronic component 61 emits a beam toward 0° to transmit wireless signals, the antenna tester 12 on the transfer arm 11 receives the radio signal of the radio frequency electronic component 61 , And transmit the received wireless signal to the processor (not shown in the figure) of the central control device for judging the quality of the radio frequency electronic component 61.

Please refer to Figure 5, which is the third embodiment of the test device 10 of the present invention. The difference from the second embodiment is that the bearing is the application type of the rotating table 71, and the test device 10 is attached to the box 13 and the table 31 A test chamber 131 is formed in between for the radio frequency electronic component 61 to be located in a test environment that simulates the temperature of the application site. In addition, a conveying channel 132 is provided in the box 13 for moving in/out of the radio frequency electronic component 61; one is a rotating table 71 The rotating table 71 can be rotated in the horizontal direction, or rotated in the horizontal direction and displaced in the Z direction, and is provided with at least one receiving portion 711 for receiving the radio frequency electronic component 61. The receiving portion 711 is provided with the bottom surface of the connected rotating table 71 The through hole 712; for passing the electrical tester 21, in this embodiment, the rotating table 71 is driven by a third driving source to rotate in a horizontal direction, the third driving source includes a motor (not shown) and a The transmission of the rotating shaft 72, the rotating shaft 72 is connected to drive the rotating table 71 to rotate in the horizontal direction, so that the receiving parts 711 of the rotating table 71 are moved into/out of the test chamber 131 from the conveying channel 132 of the box body 13, due to the rotation of the rotating table 71 The position where the receiving part 711 moves into the testing room 131 is relative to the antenna tester 12, so that the position of the receiving part 711 is the test station, and a carrier is in the form of a lifter 45 and is arranged in the testing room 131 for receiving The electrical tester 21 is set and driven to move in the Z direction. When the rotating shaft 72 drives the rotating table 71 to rotate at an angle according to the second test path, and drives the radio frequency electronic components 61 to move into the test chamber 131, the rotating table 71 makes the radio frequency electronic components 61 is located between the electrical tester 21 and the antenna tester 12. The lifter 45 drives the electrical tester 21 to move in the Z direction, so that the electrical tester 21 passes through the through hole 712 of the rotating table 71 and is electrically connected to the rotating table The radio frequency electronic component 61 on the 71 performs electrical testing operations. When the antenna of the radio frequency electronic component 61 emits a beam toward 0° to transmit wireless signals, the antenna tester 12 on the transfer arm 11 receives the radio frequency electronic component 61 The wireless signal is transmitted to the processor (not shown in the figure) of the central control device for determining the quality of the radio frequency electronic component 61.

Please refer to Fig. 6, which is the fourth embodiment of the test device 10 of the present invention. The difference from the third embodiment is that a carrier of the lifter 45 is equipped with a machine plate 31 for holding and driving electrical properties. The tester 21 is displaced in the Z direction, and the transfer arm 11 is displaced in at least one direction, and is provided with a signal channel 111 and at least one work fixture. The signal channel 111 is used to assemble the antenna tester 12, and the work fixture is a suction Mouth 112 , For transferring and crimping the radio frequency electronic component 61. The antenna 612 of the radio frequency electronic component 61 faces the antenna tester 12, and the contact point 611 faces the electrical tester 21. The test station is located on the transfer arm 11. When the transfer arm 11 drives the antenna tester 12 and the radio frequency electronic component 61 to make a relative displacement in the Z direction toward the electrical tester 21, and the lifter 45 drives the electrical tester 21 to make a relative displacement in the Z direction towards the radio frequency electronic element 61 , The electrical tester 21 is electrically connected to the radio frequency electronic component 61 on the transfer arm 11 and located at the test station to perform electrical testing operations. The antenna of the radio frequency electronic component 61 emits a beam toward 0° to transmit wireless signals. The antenna tester 12 on the carrier arm 11 receives the wireless signal of the radio frequency electronic component 61, and transmits the received radio signal to the processor (not shown in the figure) of the central control device for judging the quality of the radio frequency electronic component 61.

Please refer to Fig. 7, in the fifth embodiment of the test device 10 of the present invention, the electrical tester 21 is arranged in the test room 131, and the test station can be located in the test room 131, the transfer arm 11 or The socket (not shown in the figure) depends on the requirements of different test operations and is not limited to this embodiment; in this embodiment, a test chamber 131 is formed between the machine plate 31 and the box body 13, and is located in the box body Conveying channels 135 are arranged on both sides of 13; and the antenna test unit is equipped with at least one carrier on at least one conveying channel 135, or at least one carrier is arranged on the outside of the box 13, the carrier can carry the radio frequency electronic components to be tested Or tested radio frequency electronic components , Or to carry the radio frequency electronic components to be tested and the radio frequency electronic components that have been tested; in this embodiment, two transport channels 135 are provided with two Y-displacement stages 136 for carrying radio frequency electronic components; The tester 21 is assembled in the test room 131, and is provided with a circuit board 211 and a test base 213 with a bonding part 212. The test base 213 is provided with a accommodating part 2131 that can hold the radio frequency electronic component 61, and the bonding part 212 is electrically connected. Sexually connected to the circuit board 211; the transfer arm 11 is displaced in at least one direction, and is provided with a signal channel 111 and at least one work fixture. The signal channel 111 is used to assemble the antenna tester 12, and the work fixture is a nozzle 112 , For transferring the radio frequency electronic component 61 between the carrier 136 and the electrical tester 21.

Please refer to Figures 8 and 9, the test station is located in the test room 131. When a carrier 136 carries the radio frequency electronic component 61 to the side of the electrical tester 21, the transfer arm 11 moves in the XZ direction according to the first test path Displacement, so that the suction nozzle 112 takes out the radio frequency electronic component 61 to be tested on the stage 136, and transfers it to the accommodating portion 2131 of the electrical tester 21, and the bonding part 212 of the electrical tester 21 is electrically connected to the radio frequency electronic component 61 The contact 611; the transfer arm 11 then drives the antenna tester 12 to move to the preset operating height in the Z direction. When the electrical tester 21 performs electrical testing on the radio frequency electronic element 61, the antenna 612 of the radio frequency electronic element 61 The wireless signal of the transmitting beam at the 0° direction to be measured is transmitted to the antenna tester 12 through the signal channel 111 because the signal channel 111 of the transfer arm 11 is used to pass the wireless signal, so that the wireless signal of the antenna 612 of the radio frequency electronic component 61 is transmitted to the antenna tester 12 For wireless signal testing, after receiving the wireless signal, the antenna tester 12 transmits the wireless signal to the processor (not shown in the figure) of the central control device for determining and analyzing the quality of the radio frequency electronic component 61.

Please refer to Fig. 10, the sixth embodiment of the test device 10 of the present invention differs from the fifth embodiment in that the test station is located on the transfer arm 11, and a test chamber 131 is formed between the machine plate 31 and the box 13 , And a conveying channel 132 is provided in the box 13; the carrier is arranged in the test room 131, and the carrier is a lifter 45 for holding and driving the electrical tester 21 for displacement in the Z direction; the transfer arm 11 is Displacement in at least one direction, and is provided with a signal channel 111 and at least one work fixture. The signal channel 111 is used to assemble the antenna tester 12. The work fixture is a suction nozzle 112 for transferring radio frequency electronic components 61. The carrier arm 11 is moved in the XZ direction to move the radio frequency electronic component 61 from the conveying channel 132 of the box 13 into the test room 131, so that the radio frequency electronic component 61 is positioned on the electrical tester 21, when the lifter 45 drives the electrical tester 21 towards When the radio frequency electronic component 61 is relatively displaced in the Z direction, the electrical tester 21 is electrically connected to the radio frequency electronic component 61 to perform electrical testing operations. The antenna of the radio frequency electronic component 61 emits a beam toward 0° to transmit wireless signals, and transfers The antenna tester 12 on the arm 11 receives the wireless signal of the radio frequency electronic component 61 and transmits the received radio signal to the processor (not shown in the figure) of the central control device for judging the quality of the radio frequency electronic component 61.

Please refer to Figure 11, which is the seventh embodiment of the test device 10 of the present invention. The electrical tester 21 is arranged on the transfer arm 11. The test station can be located in the test chamber 131 and the transfer arm as described above. 11 or pedestal, depending on the requirements of different test operations, and is not limited to this embodiment; in this embodiment, the transfer arm 11 of the antenna test unit is displaced in at least one direction, and is provided with a signal channel 111 and At least one work fixture, the signal channel 111 is used for assembling the antenna tester 12, the work fixture is the suction nozzle 112 for transferring radio frequency electronic components, and the transfer arm 11 is equipped with a cover 113, which is driven by the transfer arm 11 113 and the antenna tester 12 move synchronously in the Z direction. The electrical tester 21 is assembled on the transfer arm 11, and is provided with an electrical circuit board 211 and a joint part 212 that are electrically connected to the radio frequency electronic components. ; In addition to the type of rotating table, the socket of the test device 10 can also be a seat body or a panel. If it is a seat body, it is provided with a socket for holding radio frequency electronic components. In this embodiment, it is The base plate 31 is provided with a bearing seat of the base body 73, and the base body 73 is provided with a receiving portion 731 for holding radio frequency electronic components.

Please refer to Figures 12 and 13, the test station is located in the test room 131, and the transfer arm 11 uses the suction nozzle 112 to pick up and transfer the RF electronic component 61, because the contact 611 of the RF electronic component 61 and the antenna 612 are arranged in the same The surface, and the electrical tester 21 are assembled on the transfer arm 11, so that the contact 611 of the radio frequency electronic component 61 can be electrically connected to the joint part 212 of the electrical tester 21, and the antenna 612 of the radio frequency electronic component 61 can face the antenna The tester 12, the transfer arm 11 moves the cover 113, the electrical tester 21 and the radio frequency electronic component 61 synchronously to the top of the base body 73 when the transfer arm 11 moves in the X direction; when the transfer arm 11 drives the cover 113, the electrical tester 21 When the radio frequency electronic component 61 and the radio frequency electronic component 61 are simultaneously moved in the Z direction, the outer cover 113 is placed on the machine plate 31 to form a test chamber 131, and the radio frequency electronic component 61 is moved into and crimped on the receiving part 731 of the base body 73 to make the electrical When the tester 21 performs electrical testing operations on the radio frequency electronic component 61, the antenna 612 of the radio frequency electronic component 61 emits a beam toward 0° to transmit wireless signals, and the antenna tester 12 on the transfer arm 11 receives the radio frequency electronic component 61 And transmit the received wireless signal to the processor (not shown in the figure) of the central control device for judging the quality of the radio frequency electronic component 61.

Please refer to Fig. 14, which is the eighth embodiment of the test device 10 of the present invention. The difference from the seventh embodiment is that the test station is located on the bearing 73, and the transfer arm 11 of the antenna test unit is oriented in at least one direction. It is equipped with a signal channel 111 and at least one work fixture. The signal channel 111 is used for assembling the antenna tester 12. The work fixture is a suction nozzle 112 for transferring radio frequency electronic components; the electrical tester 21 is mounted on The transfer arm 11 is provided with an electrically connected circuit board 211 and a joining part 212. The joining part 212 is electrically connected to radio frequency electronic components; the test device 10 is set on the machine board 31 as a seat for the seat body 73 , The base body 73 is provided with a receiving portion 731 that can hold radio frequency electronic components (not shown); when the suction nozzle 112 of the transfer arm 11 picks up and transfers the radio frequency electronic components, the contacts of the radio frequency electronic components can be made electrical Connect the joint part 212 of the electrical tester 21, and make the antenna of the radio frequency electronic component face the antenna tester 12, when the transfer arm 11 moves the radio frequency electronic component into and crimps it to the receiving part 731 of the base body 73, the electrical tester 21 is to perform electrical testing operations on radio frequency electronic components. The antenna of the radio frequency electronic components emits a beam toward 0° to transmit wireless signals. The antenna tester 12 on the transfer arm 11 receives the radio signals of the radio frequency electronic components and will receive The wireless signal is transmitted to the processor (not shown in the figure) of the central control device to determine the quality of the radio frequency electronic components.

Please refer to Figures 1 to 3 and 15, a schematic diagram of the first embodiment of the test device 10 of the present invention applied to test operation equipment, including the machine 30, the feeding device 80, the receiving device 90, the test device 10 of the present invention, and the conveying device. The device 100 and the central control device (not shown in the figure); the feeding device 80 is configured on the machine 30, and is provided with at least one feeding holder 81 that contains the radio frequency electronic component to be tested; the receiving device 90 is configured The machine 30 is provided with at least one receiving holder 91 for accommodating the tested radio frequency electronic components; the test device 10 of the present invention is arranged on the machine 30 and includes an antenna test unit and an electrical test unit, and an antenna The test unit is equipped with a transfer arm 11 and an antenna tester 12. The antenna tester 12 is moved by the transfer arm 11 to move at least in one direction to receive or transmit wireless signals to the antenna of the radio frequency electronic component at the test station. The electrical test unit is provided with an electrical tester 21 with a circuit board 211 and a joining component 212, and the joining component 212 is used to electrically connect the radio frequency electronic components at the testing station, so that the electrical testing unit is positioned to test When the radio frequency electronic components of the station perform electrical testing operations, the antenna test unit is used to simultaneously perform wireless signal testing operations on the antenna of the radio frequency electronic components of the test station; in this embodiment, the test device 10 is located on the first part of the machine 30 A plurality of antenna test units and electrical test units are respectively arranged on one side and the second side, and the first side and the second side of the machine 30 are respectively equipped with a test chamber 131 and a carrier that can be a carrier 41, In addition, a shifter 51 is respectively arranged on the first side and the second side of the machine 30 to transfer the plurality of electrical testers 21 on the first side and the second side carrier 41 to be tested/tested. For the radio frequency electronic components, the test device 10 is also equipped with a carrier 136 on the first side and the second side of the machine 30 to carry the radio frequency electronic components to be tested/tested; the conveying device 100 is arranged on the machine 30 , And at least one conveyor is provided for conveying radio frequency electronic components. In this embodiment, the conveying device 100 is provided with a conveyor 1001 that is displaced in the XYZ direction to take out the radio frequency electronic components to be tested from the feeding device 80 , And transferred to the carrier 136 of the test device 10, the carrier 136 for the shifter 51 to take out the radio frequency electronic components to be tested, and to move in the radio frequency electronic components that have been tested, and the shifter 51 moves the radio frequency electronic components to be tested Electrical tester 21 mounted on carrier 41 , The carrier 41 moves the electrical tester 21 and radio frequency electronic components into the test room 131 to perform electrical test operations and wireless signal test operations. The conveyor 1001 takes out the tested radio frequency electronic components on the carrier 136, and according to the test results, The tested radio frequency electronic components are transferred to the material receiving device 110 for sorting and storage; the central control device is used to control and integrate the actions of each device to perform automated operations and improve operational performance.

10: Test device 11: Transfer arm 111: signal channel 112: Nozzle 113: outer cover 12: Antenna tester L: work axis 13: cabinet 131: Test Room 132: Conveying Channel 133: Conveying Pipe 134: Shading 135: Conveying Channel 136: Stage 21: Electrical tester 211: Circuit Board 212: Joining Parts 213: Test Block 2131: accommodating part 214: Holder 30: Machine 31: machine board 41: Carrier 411: bezel 412: bearing plate 42: second drive source 43: turntable 431: Loading Department 44: shaft 45: lifter 51: Shifter 61: RF electronic components 611: Contact 612: Antenna 71: Rotating table 711: Acceptance Department 712: Through Hole 72: Rotation axis 73: Seat 731: Acceptance Department 80: Feeding device 81: Feeder 90: Receiving device 91: Receiving holder 100: Conveying device 1001: Conveyor

Figure 1: A schematic diagram of the first embodiment of the testing device of the present invention. Figure 2: A schematic diagram of the use of the first embodiment of the testing device of the present invention (1). Figure 3: A schematic diagram of the use of the first embodiment of the testing device of the present invention (2). Figure 4: A schematic diagram of the second embodiment of the testing device of the present invention. Figure 5: A schematic diagram of the third embodiment of the testing device of the present invention. Figure 6: A schematic diagram of the fourth embodiment of the testing device of the present invention. Figure 7: A schematic diagram of the fifth embodiment of the testing device of the present invention. Figure 8: A schematic diagram of the use of the fifth embodiment of the test device of the present invention (1). Figure 9: A schematic diagram of the use of the fifth embodiment of the test device of the present invention (2). Figure 10: A schematic diagram of the sixth embodiment of the testing device of the present invention. Figure 11: A schematic diagram of the seventh embodiment of the testing device of the present invention. Figure 12: A schematic diagram of the use of the seventh embodiment of the testing device of the present invention (1). Figure 13: A schematic diagram of the use of the seventh embodiment of the testing device of the present invention (2). Figure 14: A schematic diagram of the eighth embodiment of the testing device of the present invention. Figure 15: A schematic diagram of the testing device of the present invention applied to testing equipment.

10: Test device

11: Transfer arm

111: signal channel

12: Antenna tester

L: work axis

13: cabinet

131: Test Room

132: Conveying Channel

133: Conveying Pipe

21: Electrical tester

211: Circuit Board

212: Joining Parts

213: Test Block

2131: accommodating part

31: machine board

41: Carrier

411: bezel

412: bearing plate

42: second drive source

Claims (17)

A radio frequency electronic component testing device, including: Antenna test unit: a transfer arm and an antenna tester are provided. The transfer arm is provided for displacement in at least one direction. The antenna tester is mounted on the transfer arm for alignment of the radio frequency electronic component at the test station. Perform wireless signal test operations; Electrical test unit: at least one electrical tester is provided, and the electrical tester is equipped with a circuit Board and joint parts, the joint parts are electrically connected to the tester Position the radio frequency electronic components to perform electrical testing operations. According to the radio frequency electronic component test device described in item 1 of the scope of patent application, the transfer arm is used for assembling the electrical tester and is used for driving the electrical tester to move. According to the radio frequency electronic component test device described in item 1 of the scope of patent application, it also includes a test room , The test room is for assembling the electrical tester. The radio frequency electronic component test device described in item 1 of the scope of patent application further includes a carrier for assembling the electrical tester. According to the radio frequency electronic component test device described in item 4 of the scope of patent application, wherein the electrical tester is a test base equipped with the joint component on the carrier, and the test base is configured to hold the radio frequency electronic element, and the electrical The tester is equipped with at least one supporting tool to support the circuit board, so that the circuit board is electrically connected to the joint component. According to the radio frequency electronic component test device described in any one of items 1 to 4 of the scope of patent application, the test station is located on the transfer arm. The radio frequency electronic component test device according to any one of items 1, 2, 4, or 5 of the scope of patent application further includes a test room, and the test station is located in the test room. According to the radio frequency electronic component test device described in item 3 of the scope of patent application, the test station is located in the test room. According to the radio frequency electronic component test device described in item 3 or 8 of the scope of patent application, the test chamber is formed between the panel and the box, and the box or the panel is provided with a conveying channel. According to the radio frequency electronic component test device described in item 3 or 8 of the scope of patent application, the test chamber is formed when an outer cover is placed on the panel. According to any one of items 1 to 5 of the scope of patent application, the radio frequency electronic component testing device further includes a socket, and the test station is located on the socket. According to the radio frequency electronic component test device described in item 11 of the scope of patent application, the socket is provided with a through hole. According to the radio frequency electronic component test device described in items 1 to 5 of the scope of patent application, wherein the transfer arm is provided with at least one work fixture and a signal channel, the work fixture is for performing preset operations, and the signal channel It is for passing wireless signals. According to the radio frequency electronic component test device described in any one of items 1 to 4 of the scope of patent application, wherein the electrical test unit is provided with an electrical adjuster to assemble the electrical tester and supply the electrical tester Make at least one direction displacement or angle rotation, or make at least one direction displacement and angle rotation. According to the radio frequency electronic component test device described in any one of items 1 to 5 of the scope of patent application, wherein the antenna test unit is provided with an antenna adjuster to assemble the antenna tester, and the antenna tester is used for at least one direction Displacement or angular rotation, or at least one direction displacement and angular rotation. The radio frequency electronic component testing device described in any one of items 1 to 5 of the scope of patent application further includes at least one intermediary provided between the antenna tester and the testing station. A radio frequency electronic component testing equipment, including: Machine; Feeding device: It is configured on the machine and is equipped with at least one radio frequency electronic device to be tested Component feeder holder; Receiving device: it is arranged on the machine, and is equipped with at least one accommodating radio frequency electronic Component receiving holder; At least one radio frequency electronic component test device according to any one of items 1 to 5 in the scope of the patent application Setting: It is configured on the machine for testing the radio frequency electronic components; Conveying device: It is arranged on the machine and is equipped with at least one conveyor for conveying the RF electronic components; Central control device: used to control and integrate the actions of various devices to perform automated operations

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