TWI741673B - Wireless communication electronic component testing device and testing equipment using the same - Google Patents

Abstract

The present invention reveals a wireless communication electronic component testing device, including a tester, an antenna, and a contactor. The contactor has a carrier and a pressing member. The pressing member is disposed to and moved by the carrier. The pressing member is made of low-k material, which has a small relative dielectric constant to allow wireless signal to pass therethrough. The pressing member is then placed between the antenna and the wireless communication electronic component, pressing on the electronic component to ensure electrical contact between the tester and the electric component without blocking the wireless signal between the electric component and the antenna. Therefore, electricity testing of the wireless communication electronic component can be processed smoothly.

Description

Radio frequency electronic component test device and its application test equipment

The invention provides a bonding mechanism that can crimp electronic components and transmit wireless signals.

Please refer to Figure 1. A radio frequency electronic component 10 with multiple built-in antennas is widely used in the fields of mobile communication area wireless network systems and wireless communication area network systems; currently the radio frequency electronic element 10 is provided with multiple contacts 11 on one side , And an antenna 12 is provided on the other side. Before leaving the factory, the radio frequency electronic component 10 needs to perform electrical testing operations in addition to wireless signal testing operations to ensure quality.

The test device for radio frequency electronic components is equipped with a circuit board 21 and a test base 22 that are electrically connected to the machine. The test base 22 has a plurality of probes 221 for testing the radio frequency electronic components 10, and the test device is additionally arranged above the test base 22 The antenna tester 23 transmits or receives wireless signals to the radio frequency electronic component 10; when the radio frequency electronic component 10 is placed on the test base 22, the radio frequency electronic element 10 contacts the probe 221 of the test base 22 with the contact 11 to perform electrical properties During the test operation, the antenna 12 is directed toward the antenna tester 23 in the preset direction to be tested to send out a wireless signal, and the antenna tester 23 receives the wireless signal to perform the wireless signal test operation.

The above-mentioned radio frequency electronic component 10 only uses the pressure of its own weight to make its contact 11 contact the probe 221 of the test base 22. Because the probe 221 has a spring, this self-weight pressure cannot make the contact 11 and the probe 221 really contact each other. , So as to affect the electrical test quality of the radio frequency electronic component 10; since the antenna 12 of the radio frequency electronic component 10 is relative to the antenna tester 23, how can the antenna tester 23 and the radio frequency electronic component 10 not affect the wireless signal transmission requirements? The crimping radio frequency electronic component 10 to perform the test operation is the target of the industry's research and development.

The first objective of the present invention is to provide a radio frequency electronic component testing device, including electrical Tester, antenna tester and jointing mechanism. The jointing mechanism is equipped with a carrier and anti-disturbance parts. The carrier is assembled and drives the displacement of the anti-disturbance parts. The anti-disturbance parts are made of shielding materials and have a low dielectric coefficient. The anti-disturbance component is located between the antenna tester and the radio frequency electronic component, and the anti-disturbance component is not only used to apply a crimping force to the radio frequency electronic component, so that the radio frequency electronic component does contact the electrical test. The test operation is performed by the device, and the wireless signal transmitted between the antenna tester and the radio frequency electronic component is subjected to the wireless signal test operation through the anti-interference pressure component, thereby improving the test quality.

The second objective of the present invention is to provide a radio frequency electronic component test device, the carrier of the joint mechanism is for assembling the anti-disturbance component and the antenna tester, the anti-disturbance component is located under the antenna tester, and the carrier drives the anti-disturbance component and The antenna tester moves synchronously to improve the test production efficiency.

The third objective of the present invention is to provide a radio frequency electronic component testing device, the bonding mechanism of which is provided with at least one pick-up member on the anti-disturbance pressure member or its surrounding side, whereby the pick-up member displaces the radio frequency electronic component to the electrical tester, and is matched with the anti-interference The pressure parts are crimped with radio frequency electronic components, thereby increasing test productivity.

The fourth object of the present invention is to provide a radio frequency electronic component testing device, further comprising a first platform, the first platform is equipped with an adjuster for adjusting the placement position or angle, and the first platform is for assembling the electrical tester and the joining mechanism, It not only enables the joint mechanism to adjust the position or angle synchronously with the electrical tester, but also enables the radio frequency electronic components to perform wireless signal test operations with different directions to be tested, so as to reduce the number of antenna testers, save the cost of the antenna tester and increase the use Practical benefits of effectiveness.

The fifth objective of the present invention is to provide a test equipment including a machine and a feeding device , The receiving device, the test device of the present invention, the conveying device and the central control device; the feeding device is arranged on the machine platform, and is provided with at least one feeding holder for accommodating the radio frequency electronic component to be tested; the receiving device is arranged on the machine The platform is equipped with at least one receiving holder for accommodating the tested radio frequency electronic components; the testing device of the present invention is arranged on the machine platform and includes an electrical tester, an antenna tester and a joint mechanism to test and crimp the radio frequency Electronic components; the conveying device is arranged on the machine table and is equipped with at least one conveyor to convey radio frequency electronic components ; The central control device is used to control and integrate the actions of various devices, and perform automated operations to achieve the practical benefits of improving operational efficiency.

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

Please refer to FIG. 2, the first embodiment of the test device 30 of the present invention includes an electrical tester 31, an antenna tester 32 and a joining mechanism 33.

The electrical tester 31 is provided with an electrically connected circuit board 311 and at least one test base 312. The test base 312 is electrically connected to at least one radio frequency electronic component at the test station to perform electrical testing operations on the radio frequency electronic component. Furthermore, the test base 312 has a plurality of probes 313, one end of the probe 313 is electrically connected to the circuit board 311, and the other end is electrically connected to the radio frequency electronic component. Furthermore, the test station is a position where the radio frequency electronic component is preset to perform the test operation. The test station can be located at the electrical tester 31 and the carrier. Or the conveyor, etc., are determined according to the requirements of different test operations, and are not limited to this embodiment; in this embodiment, the test station is located at the test seat 312.

The electrical tester 31 further includes at least one limiting component provided in the test base 312, and the limiting component can be a limiting plate, a limiting post, or an exhaust hole; in this embodiment, the limiting component is an air extraction hole 314, the air extraction hole 314 is connected to an air extraction device (not shown in the figure) to absorb the limit radio frequency electronic components.

The electrical tester 31 is assembled on the first platform 34. Furthermore, the first platform 34 can be a panel, an end, a frame or a base, or a part connected to related components of the electrical tester 31 is used as the first The form of the platform 34, the first platform 34 can be as long as it can be equipped with the electrical tester 31. In other words, the first platform 34 can be the platen of the machine, the mounting part of the adjuster, the panel of the test room or The supporting parts of the carrier, etc. The carrier can be a rotating tool, a linear drive source (such as an actuator arm, a slide rail set or a screw and screw seat set, etc.) or a drive source that includes the box cover and the displacement of the box cover; the first platform 34 can be fixed or movable. For example, when the first platform 34 is the table of the machine or the panel of the test room, the electrical tester 31 can be fixed at the preset position . The movable first platform 34 can be displaced in at least one direction or rotated in an angle, or can be displaced in at least one direction and rotated in an angle; Rotate the angle to adjust the placement angle or move at least one direction to change the placement position; for example, when the first platform 34 is the supporting part of the carrier, the electrical tester 31 can be driven to perform linear or rotational displacement; In an embodiment, the first platform 34 is a fixed configuration and is a platform of a machine for assembling the electrical tester 31.

The antenna tester 32 is provided with at least one signal work piece 321 for the radio frequency electronic components to perform wireless signal testing operations; for example, the antenna tester 32 performs radio signal reception or transmission operations for the radio frequency electronic components, for example, the antenna tester 32 performs radio signal test operations on the radio frequency electronic components. Components for receiving and transmitting wireless signals . The antenna tester 32 can be connected to an independent processor (not shown in the figure) to transmit the wireless signal of the receiving radio frequency electronic component to the processor, or transmit the wireless signal for testing the processor to the radio frequency electronic component, the processor It can also be the processor of a central control device (not shown in the figure). Furthermore, the angle of the operating axis L of the signal operating member 321 of the antenna tester 32 can be the same or close to the direction to be measured of the radio frequency electronic component (such as 0° or 45° or 30° direction).

The test device 30 can change the number and position of the antenna tester 32 according to the requirements of the test operation. For example, when testing a single-point wireless signal, a single antenna tester 32 can be configured. For example, when testing a different-point wireless signal, A plurality of antenna testers 32 are arranged in a plurality of positions; in this embodiment, the antenna tester 32 is assembled on the second platform 35, and the working axis L of the signal work piece 321 of the antenna tester 32 is positioned at 0° for receiving radio frequency electronics The wireless signal emitted by the component is transmitted to the processor of the central control device for an analysis to determine whether the strength of the wireless signal emitted by the beam emitted by the radio frequency electronic component to be measured is in compliance with the standard.

The second platform 35 can be a panel, an end, a frame or a base, or a part connected to related components of the antenna tester 32 is used as the second platform 35. The type of the second platform 35 can be used as long as the antenna tester can be assembled. 32. For example, the second platform 35 includes a plurality of panels in different positions, which can be used to assemble a plurality of antenna testers 32 in different positions. In other words, the second platform 35 can be the platform of the machine and the support of the adjuster. Mounting parts, panels of the test room, panels of the box cover, supporting parts of the carrier, supporting parts of the Rail set or screw seat set, etc.) or include the box cover and the drive source that can drive the displacement of the box cover. The second platform 35 can be a fixed type or a movable type. For example, when the second platform 35 is a table plate of a machine, a panel of a test room or a frame plate of a holder, the antenna tester 32 can be fixed at a preset position; The second platform 35 can be displaced or rotated in at least one direction, or rotated in at least one direction; for example, the second platform 35 is the mounting part of the adjuster for driving the antenna tester 32 to adjust the placement Angle or position; for example, the second platform 35 is a supporting part of the carrier for driving the antenna tester 32 for linear displacement or rotational displacement.

In this embodiment, the second platform 35 is a fixedly configured rack board for assembling the antenna tester 32. The working axis L angle of the signal work piece 321 of the antenna tester 32 is the same as the 0° of the radio frequency electronic component to be tested Pointing to receive the wireless signal of the beam emitted by the direction to be measured of the radio frequency electronic component.

The joining mechanism 33 includes a carrier 331 and an anti-disturbance component 332. The carrier 331 is provided with an anti-disturbance component 332. The anti-disturbance component 332 is made of a shielding material and has a low dielectric coefficient. The carrier 331 carries an anti-disturbance component. The component 332 is located between the antenna tester 32 and the radio frequency electronic component. One of the anti-interference pressure component 332 and the radio frequency electronic component is crimped and displaced toward the other to perform electrical testing operations. , Because different types of radio frequency electronic components have different volumes, their antennas can be configured on radio frequency electronic components For the crimping position or the non-crimping position, the crimping position is the preset position where the anti-disturbance pressure member 332 can be crimped; for example, for large-volume radio frequency electronic components, the antenna is arranged at the non-crimping position of the radio frequency electronic components In other words, the non-crimping position is not crimped by the anti-disturbance pressure part 332, and the anti-disturbance pressure part 332 will not be crimped above the antenna, so that the wireless signal transmitted between the antenna tester 32 and the radio frequency electronic component It is not necessary to pass the anti-disturbance component 332 to perform wireless signal testing operations; for example, for small radio frequency electronic components, the antenna is arranged below the crimping position of the radio-frequency electronic component, that is, the anti-disturbance component 332 will be crimped on the antenna Above , So that the wireless signal transmitted between the antenna tester 32 and the radio frequency electronic component can pass the anti-interference pressure component 332 to perform the wireless signal test operation. Furthermore, the carrier 331 carries the anti-disturbance component 332 and the radio frequency electronic component for relative displacement, and it is not necessary. The anti-disturbance component 332 can still be used to crimp the radio frequency electronic component to perform electrical testing operations.

The carrier 331 is a fixed or movable design. The carrier 331 can be a fixed frame, a movable arm, a crimping base, or a rotating shaft. For example, the carrier 331 is a fixed frame and is configured between the antenna tester 32 and the electrical tester 31 For example, the carrier 331 is a movable arm, a crimping seat, or a rotating shaft, and it is displaced in at least one direction. The displacement can be a linear displacement or a rotary displacement, or a linear displacement and a rotary displacement. The carrier 331 can be made of anti-shielding material or non-shielding material (such as metal material), and its strength as long as it can carry the anti-disturbance member 332; in this embodiment, the carrier 331 is a movable arm and is displaced in the XZ direction. The 331 has a receiving portion 3311 which penetrates the top surface and the bottom surface of the carrier 331.

The anti-disturbance component 332 is assembled on the carrier 331 and is made of anti-shielding material, and has a low dielectric coefficient; further, the anti-disturbance component 332 can be assembled on one side of the carrier 331, or can be inserted into the carrier 331 , And the carrier 331 is carried between the antenna tester 32 and the radio frequency electronic components; the anti-jamming material of the anti-disturbance component 332 can be closed-cell polyethylene foam or aerogel, when the inside of the anti-shielding material is vacuum , Its dielectric coefficient is 1. When the inside of the anti-shielding material is air, its dielectric coefficient is close to 1. The anti-disturbance member 332 has proper strength and elasticity and can return to its original state after being compressed; in this embodiment, The anti-disturbance component 332 is a closed-cell polyethylene foam with appropriate strength and elasticity. The anti-disturbance component 332 is assembled in the accommodating portion 3311 of the carrier 331, and one side is used as the crimping surface 3321 and the crimping surface 3321 It protrudes from the accommodating portion 3311 for crimping radio frequency electronic components, and the other side is an assembling surface 3322 for forming a transmission channel T between the crimping surface 3321 and the assembling surface 3322 relative to the antenna tester 32; the anti-disturbance member 332 The dielectric coefficient can be 1.06~1.03, and better, the dielectric coefficient is 1.03~1, the dielectric coefficient of the anti-interference pressure member 332 is low, especially the interference to the millimeter wave wireless signal is small, and the wireless signal can be reduced in the transmission The loss.

In addition, a frame made of non-shielding material (not shown in the figure) can be added to the peripheral side, top or bottom surface of the anti-interference pressure member 332 according to the operation requirements. The frame avoids the transmission channel T to ensure that the wireless signal transmission is without interference .

However, when the bonding mechanism 33 has the use requirements of crimping and transfer, at least one pick-up member can be provided on the anti-disturbance member 332 or its surrounding side, and the pick-up member is assembled on the carrier 331 for picking and placing radio frequency electronic components; In other words, when the joining mechanism 33 has a crimping use requirement, there is no need to dispose a pick-up member on the carrier 331; in this embodiment, the carrier 331 is attached to the surrounding side of the anti-disturbance member 332 and is provided with a pick-up member 333 for retrieval. Release and transfer radio frequency electronic components.

Referring to FIG. 3, the bonding mechanism 33 uses the pickup 333 to absorb a radio frequency electronic component 40 to be tested. One side of the radio frequency electronic component 40 has a plurality of contacts 41, and the other side has an antenna 42. The antenna 42 is located under the pressure of the radio frequency electronic component 40. Under the connection position; the carrier 331 of the joint mechanism 33 moves in the XZ direction to move the radio frequency electronic component 40 to be tested on the test seat 312 (ie, the test station) of the electrical tester 31, and the radio frequency electronic component 40 The contact 41 is initially electrically contacted with the probe 313 of the test base 312, and the test base 312 is limited by the suction hole 314 to adsorb the radio frequency electronic component 40.

However, in order to make the contact 41 of the radio frequency electronic component 40 actually contact the probe 313 of the test base 312, the carrier 331 of the joint mechanism 33 drives the anti-disturbance component 332 to move in the Z direction, so that the pressure-contact surface of the anti-disturbance component 332 The 3321 crimps the crimping position of the radio frequency electronic component 40 with a preset crimping force, so that the contact 41 of the radio frequency electronic component 40 does indeed contact the probe 313 of the test base 312, and the probe 313 executes the radio frequency electronic component 40 through the circuit board 311 Electrical testing operation; Furthermore, the direction to be measured of the antenna 42 of the radio frequency electronic component 40 is 0°, and the angle of the working axis L of the signal work piece 321 of the antenna tester 32 is the same as the direction to be measured of the radio frequency electronic component 40 and is 0° Although the anti-disturbance component 332 of the joining mechanism 33 is located between the antenna 42 of the radio frequency electronic component 40 and the antenna tester 32, since the anti-disturbance component 332 is made of shielding material, its dielectric coefficient is 1.03~1, which prevents interference pressure The component 332 can pass wireless signals. Therefore, when the mounting surface 3322 of the anti-disturbance component 332 is opposite to the antenna tester 32, the transmission channel T of the anti-disturbance component 332 can be relative to the antenna tester 32. When the antenna 42 of the radio frequency electronic component 40 of the test station emits a beam toward the 0° to-be-tested direction to transmit wireless signals Under the requirement that the anti-interference pressure component 332 has low dielectric coefficient and low loss, the wireless signal is transmitted to the antenna tester 32 through the transmission channel T of the anti-interference pressure component 332, and the signal operation component 321 of the antenna tester 32 receives the radio frequency The wireless signal of the electronic component 40 performs the wireless signal test operation. The antenna tester 32 transmits the received wireless signal to the processor of the central control device (not shown) for the processor to perform an analysis and determine the radio frequency Whether the strength of the wireless signal emitted by the direction to be measured of the electronic component 40 meets the standard; if it is, the radio frequency electronic component 40 is judged to be a good product, otherwise, the radio frequency electronic component 40 is judged to be a defective product Therefore, the bonding mechanism 33 of the test device 30 can not only crimp the radio frequency electronic component 40 to ensure the quality of the electrical test operation, but also provide for the smooth implementation of the wireless signal test operation, thereby improving production efficiency.

4 and 5, the second embodiment of the test device 30 of the present invention differs from the first embodiment in that the antenna tester 32 is assembled on the carrier 331 of the joint mechanism 33, and the carrier 331 has a signal channel inside. 3312. One end of the signal channel 3312 is for mounting the antenna tester 32, and the other end is equipped with the anti-disturbance component 332. The transmission channel T of the component 40 and the anti-disturbance component 332 can pass wireless signals; in this embodiment, after the radio frequency electronic component 40 is moved into the electrical tester 31, the carrier 331 of the joint mechanism 33 drives the antenna tester 32 and the anti-interference The spoiler 332 is synchronously displaced in the Z direction, so that the crimping surface 3321 of the anti-disturbance member 332 crimps the radio frequency electronic component 40 with a preset crimping force, so that the contact 41 of the radio frequency electronic component 40 does indeed contact the electrical tester 31 The probe 313 is used for electrical testing and is used for the antenna of the radio frequency electronic component 40 The wireless signal from 42 is transmitted to the antenna tester 32 through the transmission channel T of the anti-interference pressure member 332, so that the antenna tester 32 receives the wireless signal of the radio frequency electronic component 40, and then performs the wireless signal test operation.

6 and 7, the test device 30 of the present invention is equipped with at least one adjuster on the first platform 34 or the second platform for adjusting the position or angle of the electrical tester 31 or the antenna tester 32; In an embodiment, the test device 30 is equipped with an adjuster 36 on the first platform 34, and the first platform 34 is equipped with an electrical tester 31 for adjusting the position or angle of the electrical tester 31 so that the antenna 42 of the radio frequency electronic component 40 Perform wireless signal testing with different preset orientations to reduce the number of antenna testers 32 and save costs. Furthermore, the adjuster 36 can be a robotic arm or a rotating shaft, or include multiple adjustment rods to adjust the electrical test. The device 31 and the radio frequency electronic component 40 on it are placed at an angle required for the test operation (such as 0° , 30° or 45° pointing), for example, a plurality of adjusting rods can be moved at different heights to drive and adjust the first platform 34.

Furthermore, when the adjuster 36 drives the first platform 34 and the electrical tester 31 to adjust the placement angle synchronously, the coupling mechanism 33 can act independently, and depending on the placement angle of the electrical tester 31, the carrier 331 is used to adjust the placement angle. The placement angle of the disturbing member 332; however, the joint mechanism 33 can also be arranged on the first platform 34, and the adjuster 36 drives the first platform 34, the electrical tester 31 and the joint mechanism 33 to adjust the placement angle synchronously; In an embodiment, the carrier 331 of the joining mechanism 33 is disposed on the first platform 34 and is displaced in multiple directions When picking and unloading materials, the carrier 331 drives the anti-disturbance component 332 to make a linear displacement or a rotational displacement to avoid the conveyor (not shown in the figure), so that the conveyor can pick and place the radio frequency electronic component 40 on the electrical tester 31; During the test, the adjuster 36 drives the first platform 34, the electrical tester 31 and the radio frequency electronic component 40 to adjust the placement angle synchronously However, under the requirement that the anti-interference range of the anti-interference pressure component 332 is greater than the direction range of the radio frequency electronic component 40 to be measured, the antenna 42 of the radio frequency electronic component 40 transmits wireless signals toward the 30° direction to be measured, and the carrier 331 is used to drive the anti-interference The disturber 332 crimps the radio frequency electronic component 40 with a preset crimping force to perform an electrical test operation, and the wireless signal from the antenna 42 of the radio frequency electronic component 40 is transmitted to the antenna tester 32 through the anti-disturbance pressure component 332, so that The signal operation part 321 of the antenna tester 32 receives the wireless signal of the radio frequency electronic component 40, and then performs the wireless signal test operation.

Please refer to FIG. 8, a fourth embodiment of the test device 30 of the present invention. The test device 30 further includes a test room. The electrical tester 31, the antenna tester 32, and the bonding mechanism 33 are located in the test room during the test; the test room may be one An independent box room with a door panel, or a box cover with a door panel fixed on the machine table, and a test room is formed between the box cover and the machine table, or a cover that can be displaced in the Z direction is arranged above the machine table, When the outer cover is placed on the machine platform, a test chamber is formed between the outer cover and the machine platform; in this embodiment, the test device 30 is fixed on the machine platform 50 with a box cover 371 with a door panel 372, and the box cover 371 and The test chamber 373 is formed among the machines 50, and the test chamber 373 is provided with at least one delivery pipe 374 that can input the preset temperature fluid, so that the test chamber 373 forms a test environment that simulates the temperature of the application site of radio frequency electronic components in the future; electrical tester 31 and the bonding mechanism 33 are arranged on the machine 50 in the test room 373, and the carrier 331 of the bonding mechanism 33 is displaced in multiple directions (such as XZ direction) to facilitate the avoidance of the conveyor 52 and the crimpable radio frequency electronic component 40. The antenna tester 32 is arranged on the top plate 375 of the test room 373; when a conveyor 52 moves the radio frequency electronic component 40 to be tested into the test room 373, the carrier 331 is displaced in the XZ direction to avoid the conveyor 52 for conveying The device 52 moves the radio frequency electronic component 40 into the testing station of the electrical tester 31, and the bonding mechanism 33 uses the carrier 331 to drive the anti-disturbance pressure member 332 to crimp the radio frequency electronic component 40 to perform electrical testing operations, and to supply the radio frequency electronic component 40 The wireless signal from the antenna 42 of the antenna 42 is transmitted to the antenna tester 32 through the anti-interference pressure member 332, so that the antenna tester 32 receives the wireless signal of the radio frequency electronic component 40, and then performs the radio signal test operation; therefore, the test device 30 can enable the radio frequency The electronic component 40 performs a wireless signal test operation and an electrical test operation in the test room 373.

Please refer to FIG. 9, the fifth embodiment of the test device 30 of the present invention. The test device 30 further includes a test room. The electrical tester 31, the antenna tester 32 and the joining mechanism 33 are located in the test room during the test, and the electrical tester 31 It is arranged on the machine table 50 in the test room, and the joint mechanism 33 is arranged above the electrical tester 31. The carrier 331 can be displaced in multiple directions (such as XZ direction), and has a signal channel 3312 and a signal channel 3312 inside. One end is for mounting the antenna tester 32, and the other end is for mounting the anti-disturbance component 332 The mounting surface 3322 of the anti-interference pressure component 332 is opposite to the antenna tester 32, and the crimping surface 3321 is for the antenna 42 opposite to the radio frequency electronic component 40, and the anti-interference pressure component 332 can pass wireless signals; One side of the electrical tester 31 is provided with a carrier to carry the radio frequency electronic components; in this embodiment, the electrical tester 31 is provided with two carriers 381 and 382 for Y-direction displacement on the side of the electrical tester 31 to carry the radio frequency to be tested. The electronic component 40 and the tested radio frequency electronic component 40; when a carrier 381 carries the radio frequency electronic component 40 to be tested to the side of the electrical tester 31, the carrier 331 of the joining mechanism 33 drives the pickup 333 to move in the XZ direction , Make the pickup 333 take out the radio frequency electronic component 40 to be tested on a carrier 381 and move it into the electrical tester 31. The carrier 331 drives the anti-disturbance pressure component 332 and the antenna tester 32 to move in the Z direction to prevent interference The pressure piece 332 is crimped on the radio frequency electronic component 40 to perform electrical testing operations, and the wireless signal from the antenna 42 of the radio frequency electronic component 40 is transmitted to the antenna tester 32 through the anti-interference pressure piece 332, so that the antenna tester 32 can receive the radio frequency. The wireless signal of the electronic component 40 is performed to perform the wireless signal test operation. After the test is completed, the pickup 333 of the bonding mechanism 33 transfers the tested radio frequency electronic component 40 of the electrical tester 31 to another carrier 382 for discharging.

Please refer to Figures 2 and 10, a schematic diagram of the testing device 30 of the present invention applied to testing equipment , Including the machine 50, the feeding device 60, the receiving device 70, the test device 30 of the present invention, the conveying device 80 and the central control device (not shown); the feeding device 60 is arranged on the machine 50, and is arranged There is at least one feeding holder 61 for accommodating the radio frequency electronic component to be tested; the receiving device 70 is arranged on the machine 50, and at least one receiving holder 71 for accommodating the measured radio frequency electronic component is provided; the present invention The test device 30 is disposed on the machine 50, and includes an electrical tester 31, an antenna tester 32, and a joining mechanism 33 for crimping radio frequency electronic components, and performing electrical testing operations and wireless signal testing operations on radio frequency electronic components In this embodiment, the test device 30 is respectively arranged on the first side and the second side of the machine 50; the conveying device 80 is arranged on the machine 50, and is provided with at least one conveyor for conveying radio frequency electronic components, In this embodiment, the conveying device 80 is provided with a first conveyer 81 for displacement in the XYZ direction. The first conveyer 81 takes out the radio frequency electronic component to be tested from the feeding device 60 and transfers it to the second stage of the carrier. The second conveyor 82, the third conveyor 83 of the conveyor device 80, the second conveyor 82 and the electrical tester 31 of the test device 30 take and place the RF electronic components to be tested and the tested RF electronic components, the first conveyor 81 and then take out the tested radio frequency electronic components from the second conveyor 82, and according to the test results, transfer the tested radio frequency electronic components to the receiving device 70 for sorting and storing; the central control device is used to control and integrate each The device is activated to perform automated operations to achieve the practical benefits of enhancing operational performance.

[Learning] 10: RF electronic components 11: Contact 12: Antenna 21: circuit board 22: Test Block 221: Probe 23: Antenna Tester [this invention] 30: Test device 31: Electrical tester 311: Circuit Board 312: Test Block 313: Probe 314: Vent 32: Antenna Tester 321: Signal work piece L: work axis 33: Joint mechanism 331: Carrier 3311: containing part 3312: signal channel 332: Anti-disturbance pressure parts 3321: crimping surface 3322: Assembly surface T: Transmission channel 333: Pickup 34: The first platform 35: The second platform 36: adjuster 371: box cover 372: Door Panel 373: Test Room 374: Conveying Pipe 375: top plate 381, 382: Stage 40: RF electronic components 41: Contact 42: Antenna 50: machine 52: Conveyor 60: Feeding device 61: Feeder 70: Receiving device 71: Receiving Holder 80: Conveying device 81: The first conveyor 82: second conveyor 83: The third conveyor

Figure 1: Schematic diagram of the use of the conventional testing device. Figure 2: A schematic diagram of the first embodiment of the testing device of the present invention. Figure 3: A schematic diagram of the use of the first embodiment of the testing device of the present invention. Figure 4: A schematic diagram of the second embodiment of the testing device of the present invention. Figure 5: A schematic diagram of the use of the second embodiment of the testing device of the present invention. Fig. 6: A schematic diagram of the third embodiment of the testing device of the present invention. Fig. 7: A schematic diagram of the use of the third embodiment of the test device of the present invention. Fig. 8: A schematic diagram of the use of the fourth embodiment of the testing device of the present invention. Fig. 9: A schematic diagram of the use of the fifth embodiment of the test device of the present invention. Figure 10: A schematic diagram of the testing device of the present invention applied to testing equipment.

30: Test device

31: Electrical tester

313: Probe

32: Antenna Tester

33: Joint mechanism

331: Carrier

3312: signal channel

332: Anti-disturbance pressure parts

3321: crimping surface

T: Transmission channel

40: RF electronic components

41: Contact

42: Antenna

Claims (12)

A radio frequency electronic component testing device, comprising: an electrical tester: a circuit board provided with electrical connections and at least one test base, the test base is electrically connected to at least one radio frequency electronic element at a test station for the radio frequency Electronic components perform electrical testing operations; antenna tester: equipped with at least one signal work piece for performing wireless signal testing operations on the radio frequency electronic component; joint mechanism: equipped with a carrier and anti-disturbance components, the carrier works as Displacement in at least one direction and for assembling the anti-disturbance pressure component, the anti-disturbance pressure component has a crimping surface, and the carrier is used to drive the anti-disturbance pressure component to adjust different crimping forces to press the radio frequency electronic component. After testing, The carrier is used to drive the anti-disturbance component away from the electrical tester. A radio frequency electronic component testing device, comprising: an electrical tester: a circuit board provided with electrical connections and at least one test base, the test base is electrically connected to at least one radio frequency electronic element at a test station for the radio frequency Electronic components perform electrical testing operations; antenna tester: equipped with at least one signal work piece for performing wireless signal testing operations on the radio frequency electronic component; joint mechanism: equipped with a carrier and anti-disturbance components, the carrier works as Displacement in at least one direction and for assembling the antenna tester and the anti-disturbance component, the anti-disturbance component has a crimping surface, the carrier drives the antenna tester and the anti-disturbance component to move synchronously, and the carrier drives The anti-disturbance component adjusts different crimping forces to press down the radio frequency electronic component. After the test, the carrier is used to drive the antenna tester and the anti-disturbance component away from the electrical tester. In the radio frequency electronic component testing device according to claim 1, the electrical tester of the joining mechanism is assembled on a first platform, and the antenna tester is assembled on a second platform. In the radio frequency electronic component testing device according to claim 3, the first platform or the second platform is equipped with at least one adjuster for adjusting the position or angle of the electrical tester or the antenna tester. In the radio frequency electronic component testing device according to claim 3, the electrical tester and the joining mechanism are assembled on the first platform. According to the radio frequency electronic component testing device according to any one of claims 1 to 4, the carrier of the joining mechanism is provided with at least one pick-up element on the anti-disturbance member or its surrounding side for taking and placing the radio frequency electronic element. According to the radio frequency electronic component test device according to any one of claims 1 to 5, the anti-disturbance member of the joining mechanism is made of a shielding material and has a low dielectric coefficient. According to the radio frequency electronic component testing device according to any one of claims 1 to 5, the anti-interference range of the anti-interference pressure member of the joining mechanism is larger than the to-be-tested pointing range of the radio frequency electronic component. The radio frequency electronic component test device according to any one of claims 1 to 5, wherein one side of the anti-interference pressure member of the joining mechanism serves as the crimping surface for crimping the radio frequency electronic component, and the other side is for assembling Surface for forming a transmission channel between the crimping surface and the assembling surface relative to the antenna tester. The radio frequency electronic component test device according to any one of claims 1 to 5, further comprising a test room for the electrical tester, the antenna tester and the bonding mechanism to be located in the test room during testing. According to the radio frequency electronic component testing device of claim 10, the test room is provided with a carrier on one side of the electrical tester to carry radio frequency electronic components. A test equipment, including: a machine; a feeding device: arranged on the machine, and provided with at least one feeding holder for accommodating radio frequency electronic components to be tested; a receiving device: arranged on the machine, and Equipped with at least one receiving carrier for accommodating the tested radio frequency electronic components; at least one radio frequency electronic component testing device as described in claim 1 or 2: arranged on the machine; conveying device: arranged on the machine , And is equipped with at least one conveyor to transport radio frequency electronic components; central control device: to control and integrate the actions of each device to perform automated operations.

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