TWI817919B - Fine adjustment high frequency detection module - Google Patents

Abstract

The present invention provides a detection module, which includes a carrier, a fine adjustment component and a high-frequency electrical detection component. If it is desired to ensure smooth mechanical connection or electrical connection between the components of the detection mechanism and the mechanism to be tested, , it is a technical feature that the fine adjustment component of the detection module can move slightly. In this way, the effect of fine adjustment movement can be effectively achieved between the two components of the detection mechanism and the mechanism to be tested.

Description

Fine adjustment high frequency detection module

The present invention relates to electronic product testing technology, and in particular refers to a finely adjusted high-frequency detection module suitable for detecting high-frequency electronic products.

There are many types of electronic product testing modules currently in use. In order to further ensure that the product can operate normally and completely after manufacturing is completed, electronic products need to undergo certain procedural electrical testing before being shipped; however, , sometimes some electronic products with special specifications, such as: electronic products with high frequency (HF, High Frequency) or very high frequency (VHF, Very High Frequency), due to the electrical testing process of the aforementioned electronic products with special specifications , is very sensitive to fine adjustments of the mechanism, so it often indirectly affects the yield rate of the electronic product after the electrical testing process. Therefore, how to adapt to electronic products with special specifications such as high frequency (HF, High Frequency) or ultra-high frequency (VHF, Very High Frequency) and effectively conduct their electrical properties detection is actually an issue that the present invention urgently seeks to improve. Purpose.

In order to solve the problems described in the prior art, the present invention provides a detection module that is adapted to electrically detect electronic products with special specifications, such as high frequency (HF, High Frequency) or ultra high frequency (VHF). , Very High Frequency) and other electronic products, through the technical characteristics of a fine-tuning component and its sub-components disclosed by the detection component, It will be able to effectively improve the contact sensitivity between the components of the detection mechanism and the mechanism to be tested.

In order to achieve the above object, the present invention provides a detection module, which includes a carrier, a fine adjustment component and a high-frequency electrical detection component; and the carrier system has a first assembly part, a corresponding The first assembly part has a second assembly part and a third assembly part surrounding and respectively connecting the first assembly part and the second assembly part; and the fine adjustment component includes a fine adjustment member And an actuating part, the fine-tuning part is provided with a fine-tuning ball, the actuating part has an assembly top and an actuating bottom corresponding to the assembly top, and is recessed from the actuating bottom toward the direction of the assembly top. An actuating recess is formed, and the end of the fine-tuning ball of the fine-tuning component is corresponding to and limited to the position of the actuating recess of the actuating bottom of the actuating component, wherein the assembly top of the actuating component of the fine-tuning component is corresponding and assembled. The first assembly part is provided on the carrier; and the high-frequency electrical detection component includes a high-frequency pin holder, an electrical detection circuit board and an electrical detection holder, and the high-frequency pin holder has a pin The top and an assembly bottom corresponding to the top of the needle. The electrical detection seat includes a needle part and an assembly part corresponding to the needle part, wherein the high-frequency needle seat of the high-frequency electrical detection component The electrical detection base can be selectively assembled at the position of the second assembly part or the third assembly part of the carrier.

If an electrical connection occurs between the top of the high-frequency needle holder of the high-frequency electrical detection component of the detection module disclosed in the present invention and the detection part of the electronic product to be detected, When there is a slight deviation in the docking of the mechanism, which in turn leads to a slight deviation in the fine-tuning ball of the fine-tuning part of the fine-tuning component and the actuating recess of the actuating part, at this time, the detection mode can be used The fine-tuning part of the fine-tuning component The technical feature of the fine-tuning ball is that it can move slightly, so that the end of the fine-tuning ball of the fine-tuning part can be matched and return to the original matching position of the actuator after a slight sliding movement. In the actuating recess, and through the carrier arranged on the top of the actuating member, the top of the high-frequency needle holder of the high-frequency electrical detection component is indirectly pushed slightly toward the direction of the detection part of the electronic product. Until the mechanical assembly is completed and the electrical connection is completed, the fine adjustment movement between the two components of the testing mechanism and the mechanism to be tested will be effectively achieved.

1. 1A: Detection module

10, 10A: Carrier

11, 11A: The first organization department

13, 13A: Second Organization Department

15, 15A: The third organization department

20, 20A: Fine adjustment components

21, 21A: Fine adjustment parts

211, 211A: Fine-tuning the top

212, 212A: Assembly holes

213, 213A: Assembly bottom

214, 214A: concave hole

215, 215A: fine adjustment ball

22, 22A: Interval space

23, 23A: Actuator

231, 231A: top of assembly

232, 232A: Assembly holes

233, 233A: Action bottom

234, 234A: Locking hardware

235, 235A: Actuating recess

30: High frequency electrical detection components

31: High frequency needle seat

311: Top of needle

313:Assembly bottom

32: High frequency metal probe

321: High frequency insulation parts

323: High frequency metal wire

33: Electrical detection circuit board

35: Electrical test socket

351:Acupuncture Department

352:Open your mouth

353: Electrical detection metal probe

355: Organization Department

30A: High frequency electrical detection component

31A: High frequency needle seat

311A: Top of needle

312A: Opening

313A: Assembly bottom

314A: Opening

315A: Accommodation space

33A: Electrical detection circuit board

331A: High frequency metal probe part

335A: Electrical detection metal probe part

35A: Electrical test socket

351A: Needle insertion part

353A: Metal guide pin set

355A: Organization Department

900, 900A: Electronic products

901, 901A: Inspection Department

Figure 1 is a schematic three-dimensional view of the first preferred embodiment of the present invention, which mainly discloses a detection module.

FIG. 2 is an exploded and three-dimensional schematic diagram of some components of FIG. 1 , mainly revealing the corresponding states between the sub-components of the detection module.

Figure 3 is a partial component assembly and a three-dimensional schematic diagram of Figure 1, which mainly discloses the assembly state of the high-frequency metal probe of the detection module.

Figure 4 is a cross-sectional and three-dimensional schematic view of some components of Figure 1.

FIG. 5 is a schematic cross-sectional view of some components similar to FIG. 4 , mainly revealing a state in which a high-frequency pin base of the detection module has corresponded to the detection part of an electronic product.

FIG. 6 is a schematic cross-sectional view of some components similar to FIG. 5 , mainly revealing the state in which the high-frequency pin base of the detection module is correspondingly connected to the detection part of the electronic product and is not yet electrically connected.

FIG. 7 is an enlarged and cross-sectional schematic view of some components of FIG. 6 .

FIG. 8 is a schematic cross-sectional view of some components similar to FIG. 6 , mainly revealing the state in which the high-frequency pin holder of the detection module is correspondingly connected to the detection part of the electronic product and has completed electrical connection.

FIG. 9 is an enlarged and cross-sectional schematic view of some components of FIG. 8 .

Figure 10 is a schematic three-dimensional view of the second preferred embodiment of the present invention, mainly disclosing another detection module.

FIG. 11 is an exploded and three-dimensional schematic view of some components of FIG. 10 , mainly revealing the corresponding states between the sub-components of the detection module.

Figure 12 is a cross-sectional and three-dimensional schematic view of some components of Figure 10.

FIG. 13 is a schematic cross-sectional view of some components similar to FIG. 10 , mainly revealing a state in which one of the high-frequency pin bases of another detection module has corresponded to the detection part of an electronic product.

FIG. 14 is a schematic cross-sectional view of some components similar to FIG. 13 , mainly revealing the state in which the high-frequency pin base of the detection module is correspondingly connected to the detection part of the electronic product and is not yet electrically connected.

FIG. 15 is a schematic cross-sectional view of some components similar to FIG. 14 , mainly revealing the state in which the high-frequency pin base of the detection module is correspondingly connected to the detection part of the electronic product and has completed electrical connection.

Figure 16 is an enlarged and cross-sectional schematic view of some components of Figure 15.

The applicant would like to first explain that throughout the entire description, including the embodiments introduced below and the claims within the scope of the patent application, all terms related to directionality refer to the diagrams listed in this case [Brief Description of Illustrations]. direction as the base. Secondly, in the embodiments and drawings to be introduced below, the same component numbers represent the same or similar components or structural features. Moreover, regarding the detailed structure, characteristics, assembly or use, manufacturing, etc. of the present invention, The following detailed description of the embodiments will be described. However, those with ordinary knowledge in the field of the present invention should understand that these detailed descriptions and the examples listed in the present invention are only used to support the explanation of the practical capabilities of the present invention. This implementation is not intended to limit the patentable scope of the present invention.

Please refer to Figure 1 and Figure 2 first, which shows a detection module 1 disclosed in the first preferred embodiment of the present invention, which is suitable for detecting some electronic products with special specifications, such as: high frequency (HF, High Frequency) or There are very high frequency (VHF, Very High Frequency) and other electronic products, and the detection module 1 includes a carrier 10, a fine adjustment component 20 and a high-frequency electrical detection component 30; and the carrier 10 has a A first assembly part 11, a second assembly part 13 corresponding to the first assembly part 11, and a third assembly part surrounding and respectively connecting the first assembly part 11 and the second assembly part 13. The assembly part 15; and the fine adjustment component 20 is assembled at the position of the first assembly part 11 of the carrier 10, and the high-frequency electrical detection component 30 and its related sub-components are selectively corresponding and assembled at The position of the second assembly part 13 or the third assembly part 15 of the carrier 10 .

Please refer to FIGS. 1 , 2 , 4 and 5 together. The fine adjustment component 20 includes a fine adjustment member 21 and an actuator 23 . The fine-tuning member 21 has a fine-tuning top 211 and an assembly bottom 213 corresponding to the fine-tuning top 211. The assembly bottom 213 can be selectively assembled on external adapted equipment or devices, wherein, Four assembly holes 212 and four recessed holes 214 are formed from the fine-adjusting top 211 of the fine-tuning member 21 toward the assembly bottom 213. The assembly holes 212 and the recessed holes 214 are recessed. They are arranged in a staggered manner and are spaced apart from each other. In addition, a fine-tuning ball 215 is provided in any of the concave holes 214 and is exposed at the position of the fine-tuning top 211. Of course, the fine-tuning of the fine-tuning component 20 The fine-tuning ball 215 of item 21 can also be a roller, and its end is arc-shaped. The ball is exposed at the position of the top 211 of the fine adjustment. The actuator 23 has an assembly top 231 and an actuator bottom 233 corresponding to the assembly top 231, wherein the assembly top 231 of the actuator 23 of the fine adjustment assembly 20 corresponds to and is assembled on The position of the first assembly portion 11 of the carrier 10 and the actuating bottom 233 of the actuating member 23 correspond to the position of the fine-tuning top 211 of the fine-tuning member 21, from the assembly top 231 of the actuating member 23 toward the actuating bottom Four spaced assembly holes 232 are drilled in the direction of 233, so that the assembly holes 232 of the actuating member 23 respectively correspond to the positions of the assembly holes 212 of the fine-tuning member 21, and by Four zinc rod screws 234 are respectively passed through the assembly holes 232 of the actuating member 23 and then locked in the corresponding assembly holes 212 of the fine-tuning member 21 to prevent the fine-tuning member 21 The two components of the actuating member 23 may inadvertently separate during detection. Preferably, a predetermined spacing space is formed between the fine-tuning top 211 of the fine-tuning member 21 and the actuating bottom 233 of the actuating member 23. 22. In addition, four spaced-apart actuating recesses 235 are recessed from the actuating bottom 233 of the actuating member 23 toward the assembly top 231, so that the four fine-tuning balls of the fine-tuning top 211 of the fine-tuning member 21 The ends of 215 respectively correspond to and are limited to the positions of the four actuating recesses 235 of the actuating bottom 233 of the actuating member 23 . It is worth mentioning that, of course, only one fine-tuning ball 215 can be provided on the fine-tuning top 211 of the fine-tuning member 21 of the fine-tuning assembly 20 to correspond to and limit the movement of the actuating bottom 233 of the actuating member 23. Any position of the actuating recess 235, and the aforementioned technical features of the fine adjustment assembly 20 and its sub-components are all those with ordinary knowledge in the art after referring to the first preferred embodiment of the present invention. That is, they are easy to think of, or they are only simple changes in quantity. Therefore, they are not used as technical features to limit the claims of the present invention and are described in advance.

Please refer to Figures 1 to 5 again, and the high-frequency electrical property detection component 30 includes a high-frequency needle base 31, a plurality of high-frequency metal probes 32, an electrical property detection circuit board 33 and an electrical property detection circuit board 33. Seat 35. The high-frequency needle seat 31 has a needle top 311 and an assembly bottom 313 corresponding to the needle top 311, wherein the assembly bottom 313 of the high-frequency needle seat 31 of the high-frequency electrical detection component 30 The electrical detection circuit board 33 is corresponding to and assembled at the position of the second assembly part 13 of the carrier 10 , and the electrical detection circuit board 33 is assembled between the first assembly part 11 of the carrier 10 and the actuator 23 of the fine adjustment component 20 The position between the two components of the top 231 of the assembly is such that one end of the plurality of high-frequency metal probes 32 penetrates the high-frequency needle base 31 from the top 311 of the high-frequency needle base 31 toward the bottom 313 of the assembly. After the frequency pin holder 31 is inserted into the electrical detection circuit board 33 at the same time, it is then assembled at the position of the assembly top 231 of the actuator 23 of the fine adjustment component 20, and the plurality of high-frequency metal probes 32 The other ends are all located in the needle top 311 of the high-frequency needle base 31. In addition, the plurality of high-frequency metal probes 32 are arranged at a predetermined distance from each other. The electrical detection base 35 includes a needle insertion part 351, a plurality of electrical detection metal probes 353, and an assembly part 355 corresponding to the needle insertion part 351; wherein, the electrical properties of the high-frequency electrical detection component 30 The assembly part 355 of the detection base 35 corresponds to and is assembled at the position of the third assembly part 15 of the carrier 10. Preferably, the needle pricking part 351 of the electrical detection base 35 corresponds to the assembly part. 355 and both are located in the same axis direction, so the needle portion 351 extends vertically upward in a direction away from the third assembly portion 15 of the carrier 10 and forms an opening 352; wherein, the high-frequency electrical detection One end of any electrical detection metal probe 353 of the electrical detection base 35 of the component 30 is electrically connected to the electrical detection circuit board 33, and the other end of any electrical detection metal probe 353 is located in the needle insertion part 351. It is worth mentioning that any of the high-frequency metal probes 32 of the high-frequency electrical detection component 30 is basically made of A high-frequency insulating member 321 surrounds a high-frequency metal wire 323, and when one end of any high-frequency metal probe 32 penetrates the body of the high-frequency needle base 31, the electrical detection circuit board 33 and When assembled on the assembly top 231 of the actuator 23 of the fine adjustment assembly 20, it is assembled through the high-frequency insulating member 321. Only when the thickness of the electrical detection circuit board 33 is penetrated The high-frequency metal wire 323 is exposed and used to electrically connect the internal metal conductive circuit corresponding to the electrical detection circuit board 33; in addition, any of the high-frequency metal probes 32 is suitable for detecting some electronic products with special specifications, such as : Electronic products with high frequency (HF, High Frequency) or very high frequency (VHF, Very High Frequency).

The above are the technical features of the detection module 1 disclosed in the first preferred embodiment of the present invention and its respective sub-components. Subsequently, it will be further disclosed how to perform the detection module 1 disclosed in the first preferred embodiment of the present invention. Electronic products 900 with special specifications, such as: electrical testing of electronic products 900 with high frequency (HF, High Frequency) or ultra-high frequency (VHF, Very High Frequency), and their main actions and intended effects lies in:

First, please refer to FIGS. 1 to 6 together. First, the detection part 901 of the electronic product 900 to be electrically detected corresponds to the high-frequency pin holder of the high-frequency electrical detection component 30 of the detection module 1. 31, and then, the needle top 311 of the high-frequency needle base 31 of the high-frequency electrical detection component 30 is gradually pushed toward the detection part 901 of the electronic product 900 until it gives way to the high-frequency needle. The plurality of high-frequency metal probes 32 in the needle top 311 of the base 31 are electrically connected to the detection part 901 of the electronic product 900 respectively. In this way, through the plurality of high-frequency metal probes The needle 32 is a technical feature located in the needle top 311 of the high-frequency needle seat 31 of the high-frequency electrical detection component 30. Compared with the previous technology, it is used for electrical testing of electronic products 900 with special specifications. , will be able to effectively improve the relationship between testing institutions and to-be-tested The contact sensitivity between the two components of the mechanism is thereby indirectly improved to the detection yield effect of the electronic product 900 .

Second, please refer to Figures 1 to 9 together. Then, when the needle top 311 of the high-frequency needle base 31 of the high-frequency electrical detection component 30 and the detection part 901 of the electronic product 900 are between the two components, When the micro-deviation phenomenon of the mechanism docking occurs during the electrical connection process, the fine-tuning balls 215 of the fine-tuning part 21 of the fine-tuning component 20 are individually or individually connected to the actuating recesses 235 of the actuating part 23 When the two components also have a slight deviation phenomenon, at this time, any one of the fine-tuning parts 21 of the fine-tuning component 20 of the detection module 1 has a slightly spherical shape and can move slightly. The technical feature is that in this way, any of the fine-tuning balls 215 of the fine-tuning part 21 can move slightly and return to the originally matched actuating recess 235 of the actuating part 23, and can be assembled on the actuating part. The carrier 10 with the top 231 assembled at 23 indirectly slightly pushes the needle top 311 of the high-frequency needle base 31 of the high-frequency electrical detection component 30 toward the direction of the detection part 901 of the electronic product 900 to complete the mechanical assembly. , and then complete the electrical connection between the plurality of high-frequency metal probes 32 located in the top 311 of the needle and the detection part 901 of the electronic product 900. Therefore, the detection mechanism will be able to communicate with the patient. The two components of the measuring mechanism can effectively achieve the effect of fine adjustment movement.

Third, please refer to Figures 1 to 4 together. When the plurality of high-frequency metal probes 32 in the needle top 311 of the high-frequency needle base 31 of the high-frequency electrical detection component 30 and the electronic product 900 After the mechanical assembly and electrical connection between the two components of the detection part 901 have been determined, at this time, the needle insertion part 351 of the electrical detection base 35 of the high-frequency electrical detection component 30 can be Based on the technical feature that the direction of the third assembly portion 15 of the carrier 10 extends vertically upward and forms the opening 352, in this way, the corresponding electrical properties can be matched through the outside. Testing instruments, machines or equipment are convenient for electrically connecting the positions of the plurality of electrically detecting metal probes 353 in the needle-piercing part 351 of the electrically detecting base 35, and through the plurality of electrically detecting metal probes The needle 353 is electrically connected to the electrical detection circuit board 33 and the plurality of high-frequency metal probes 32 located in the high-frequency pin base 31. At this time, the corresponding external electrical detection instrument, machine or The equipment can communicate with the detection part of the electronic product 900 through the plurality of high-frequency metal probes 32 in the high-frequency electrical detection component 30 of the detection module 1 disclosed in the first preferred embodiment of the present invention. 901 to conduct electrical testing, thereby adapting to special specifications of high frequency (HF, High Frequency) or ultra high frequency (VHF, Very High Frequency) electronic products and significantly improving the electrical testing yield.

Please refer to Figure 10 and Figure 11 first, which is a detection module 1A disclosed in the second preferred embodiment of the present invention, which is suitable for detecting some electronic products 900A with special specifications, such as: high frequency (HF, High Frequency) Or electronic products such as VHF (Very High Frequency), the main structure and technical characteristics and the functions to be achieved during assembly are all the same as the first preferred embodiment disclosed above, that is, the detection model Group 1A includes a carrier 10A, a fine adjustment component 20A and a high-frequency electrical detection component 30A.

Following the above, please refer to Figure 11 again. Similarly, the carrier 10A has a first assembly part 11A, a second assembly part 13A corresponding to the first assembly part 11A and a surrounding and each The third assembly part 15A is respectively connected to the first assembly part 11A and the second assembly part 13A; and the fine adjustment component 20A is assembled at the position of the first assembly part 11A of the carrier 10A, and the The high-frequency electrical detection component 30A and its related sub-components are selectively assembled at the second assembly part 13A or the third assembly part 15A of the carrier 10A.

Following the above, please refer to FIGS. 11 to 13 again. Similarly, the fine adjustment component 20A includes a fine adjustment member 21A and an actuator 23A. The fine-tuning member 21A has a fine-tuning top 211A and an assembly bottom 213A corresponding to the fine-tuning top 211A. The assembly bottom 213A can be selectively assembled on external adapted equipment or devices, wherein, Four assembly holes 212A and four recessed holes 214A are penetrated from the fine-adjusting top 211A of the fine-tuning member 21A toward the assembly bottom 213A. The assembly holes 212A and the recessed holes 214A are They are arranged in a staggered manner and are spaced apart from each other. In addition, a fine-tuning ball 215A is provided in any of the concave holes 214A and is exposed at the position of the fine-tuning top 211A. Of course, the fine-tuning member of the fine-tuning component 20A The fine-tuning ball 215A of 21A can also be a roller, the end of which is an arc-shaped ball and is exposed at the position of the fine-tuning top 211A. The actuator 23A has an assembly top 231A and an actuator bottom 233A corresponding to the assembly top 231A, wherein the assembly top 231A of the actuator 23A of the fine adjustment assembly 20A corresponds to and is assembled on The position of the first assembly portion 11A of the carrier 10A and the actuating bottom 233A of the actuating member 23A correspond to the position of the fine-tuning top 211A of the fine-tuning member 21A, from the assembly top 231A of the actuating member 23A toward the actuating bottom Four spaced assembly holes 232A are drilled in the direction of 233A, so that the assembly holes 232A of the actuating member 23A respectively correspond to the positions of the assembly holes 212A of the fine-tuning member 21A, and by The four locking members 234A (for example, zinc rod screws, etc.) are respectively passed through the assembly holes 232A of the actuating member 23A, and then locked in the corresponding assembly holes 212A of the fine-tuning member 21A. In order to avoid the phenomenon that the two components of the fine-tuning part 21A and the actuating part 23A are inadvertently separated during detection, preferably, the fine-tuning top 211A of the fine-tuning part 21A and the actuating bottom 233A of the actuating part 23A are A predetermined interval space 22A is formed. In addition, Four spaced-apart actuating recesses 235A are recessed from the actuating bottom 233A of the actuating member 23A toward the assembly top 231A, so that the ends of the four fine-tuning balls 215A of the fine-tuning top 211A of the fine-tuning member 21A are The positions of the four actuating recesses 235A respectively correspond to and are limited to the actuating bottom 233A of the actuating member 23A. It is worth mentioning that, similarly, only one fine-tuning ball 215A can be provided on the fine-tuning top 211A of the fine-tuning member 21A of the fine-tuning assembly 20A, and is used to correspond to and be limited to the actuating bottom 233A of the actuating member 23A. any position of the actuating recess 235A.

The above is the technical characteristics of the detection module 1A and its respective sub-components disclosed in the second preferred embodiment of the present invention, and the functions to be achieved during assembly are the same as those in the first preferred embodiment disclosed above. When describing the first preferred embodiment, the difference is that: please refer to Figures 10 to 13 again. The high-frequency electrical detection component 30A includes a high-frequency needle base 31A, an electrical Detection circuit board 33A and an electrical detection socket 35A. The high-frequency needle base 31A has a needle top 311A and an assembly bottom 313A corresponding to the needle top 311A, and an accommodating space 315A is formed from the needle top 311A toward the assembly bottom 313A. In addition, the high-frequency needle seat 31A of the high-frequency electrical detection component 30A is assembled at the third assembly portion 15A of the carrier 10A through the assembly bottom 313A and its outer peripheral wall. The electrical detection circuit board 33A is fixedly assembled at the inner peripheral wall of the accommodating space 315A of the needle top 311A of the high-frequency needle base 31A through a plurality of fasteners. In addition, the electrical detection circuit board 33A It has a high-frequency metal probe part 331A and an electrical detection metal probe part 335A, and the high-frequency metal probe part 331A is electrically connected to the electrical detection metal probe part 335A, wherein the electrical detection metal probe part 335A is electrically connected to the electrical detection metal probe part 335A. The high-frequency metal probe part 331A of the detection circuit board 33A corresponds to and faces the needle of the high-frequency needle base 31A. An opening 312A of the top 311A connected to the accommodating space 315A protrudes in the direction of the opening 312A. The electrical detection metal probe part 335A of the electrical detection circuit board 33A corresponds to and faces the bottom of the high-frequency needle base 31A. An opening 314A of 313A connected to the accommodating space 315A extends and is exposed. The electrical detection socket 35A has a needle insertion part 351A and an assembly part 355A corresponding to the needle insertion part 351A. The electrical detection socket 35A is assembled on the electrical detection circuit board through the assembly part 355A. 33A, and the electrical detection seat 35A corresponds to the position of the electrical detection metal probe part 335A of the electrical detection circuit board 33A, so that the plurality of metal guide pin groups 353A provided in the electrical detection seat 35A can be Each is electrically connected to the electrical detection metal probe part 335A of the electrical detection circuit board 33A, and is indirectly electrically connected to the high-frequency metal probe part 331A of the electrical detection circuit board 33A. Among them, the high-frequency metal probe part 331A of the electrical detection circuit board 33A and the electrical detection base 35A are extended in different directions based on the electrical detection circuit board 33A. In this way, The position of the plurality of metal guide pin groups 353A in the needle insertion part 351A of the electrical detection base 35A can be easily electrically connected through corresponding external electrical testing instruments, machines or equipment. It is worth mentioning that the high-frequency metal probe part 331A of the electrical detection circuit board 33A is mainly composed of a plurality of high-frequency probes with high-frequency conductive effects, and is suitable for testing some electronic products with special specifications. For example: electronic products with high frequency (HF, High Frequency) or very high frequency (VHF, Very High Frequency); in addition, the plurality of high-frequency metal probes are embedded in the device at intervals. Of course, the electrical detection circuit board 33A can also be embedded with an FFC probe set (Flexible Flat Cable, soft flat cable) or FPC probe set (Flex Printed Circuit, flexible printed circuit board) with high-frequency conductive effects. High frequency metal probe components. It is also worth mentioning that the electrical detection circuit board 33A has an electrical detection metal Both the probe part 335A and the plurality of metal guide pin groups 353A in the electrical detection base 35A are composed of general metal probe components.

The above are the technical features of the detection module 1A disclosed in the second preferred embodiment of the present invention and its respective sub-components. Subsequently, it will be further disclosed how to perform the detection module 1A disclosed in the second preferred embodiment of the present invention. 900A electrical testing of electronic products with special specifications, and its main actions and intended effects are:

First, please refer to Figures 10 to 14 again. When the detection part 901A of the electronic product 900A is located at the bottom, first, connect the high-frequency pin of the high-frequency electrical detection component 30A of the detection module 1A. The base 31A corresponds to the position of the detection part 901A of the electronic product 900A to be electrically tested. Then, the needle top 311A of the high-frequency needle base 31A of the high-frequency electrical testing component 30A is gradually moved toward the electronic product. The detection part 901A of 900A is pushed forward until the high-frequency metal probe part 331A of the electrical detection circuit board 33A in the needle top 311A of the high-frequency needle base 31A is respectively connected with the detection part of the electronic product 900A. 901A until the electrical connection is completed. In this way, the high-frequency metal probe part 331A of the electrical detection circuit board 33A of the high-frequency electrical detection component 30A is located on the high-frequency electrical detection component. The technical features of the needle top 311A of the 30A high-frequency needle base 31A are compared with those mentioned in the previous technology. When performing electrical testing of the electronic product with special specifications of 900A, similarly, its functions are the same as those mentioned above. The first preferred embodiment can not only effectively improve the contact sensitivity between the components of the detection mechanism and the mechanism to be tested, thereby indirectly improving the detection yield of the electronic product 900A, but also effectively achieve preliminary schematics. corresponds to the corresponding function of the detection part 901A located at the bottom of the electronic product 900A.

Second, please refer to Figures 10 to 16 again. Similarly, the effect is as described in the first preferred embodiment. When the needle of the high-frequency needle seat 31A of the high-frequency electrical detection component 30A When a slight deviation of the mechanical connection occurs during the electrical connection between the top 311A and the detection part 901A of the electronic product 900A, this will lead to the fine adjustment of the fine adjustment component 21A of the fine adjustment component 20A. When the two components of the ball 215A individually or individually and the actuating recesses 235A of the actuating member 23A also produce slight deviations, at this time, the fine-tuning component 21A of the fine-tuning component 20A of the detection module 1A can be used The technical characteristics of any of the fine-tuning balls 215A being slightly spherical and capable of micro-sliding movement will allow any of the micro-adjusting balls 215A of the micro-adjusting member 21A to move slightly and return to the original matching position. In the actuating recess 235A of the actuating member 23A, and through the carrier 10A assembled on the assembly top 231A of the actuating member 23A, the needle top of the high-frequency needle base 31A of the high-frequency electrical detection component 30A is slightly pushed indirectly. 311A completes the mechanical assembly in the direction of the detection part 901A of the electronic product 900A, and then the high-frequency metal probe part 331A of the electrical detection circuit board 33A located in the top 311A of the needle is connected to the electronic product 900A respectively. until the electrical connection between the detection parts 901A is completed. Therefore, as described in the first preferred embodiment, the effect of fine adjustment movement between the two components of the detection mechanism and the mechanism to be tested will be effectively achieved. .

1: Detection module

10: Carrier

20: Fine adjustment components

30: High frequency electrical detection components

Claims (9)

A detection module including: A carrier (10, 10A) has a first assembly part (11, 11A), a second assembly part (13, 13A) corresponding to the first assembly part (11, 11A) and a third assembly parts (15, 15A) surrounding and respectively connecting the first assembly part (11, 11A) and the second assembly part (13, 13A); A fine-tuning component (20, 20A) includes a fine-tuning part (21, 21A) and an actuating part (23, 23A). The fine-tuning part (21, 21A) is provided with a fine-tuning ball (215, 215A). The actuating member (23, 23A) has a set top (231, 231A) and an actuating bottom (233, 233A) corresponding to the set top (231, 231A). From the actuating bottom (233, 233A) An actuating recess (235, 235A) is recessed toward the top (231, 231A) of the assembly, and the ends of the fine-tuning balls (215, 215A) of the fine-tuning part (21, 21A) are corresponding and limited to the The position of the actuating recess (235, 235A) of the actuating bottom (233, 233A) of the actuating member (23, 23A), wherein the assembly of the actuating member (23, 23A) of the fine adjustment assembly (20, 20A) The top (231, 231A) corresponds to and is assembled on the first assembly part (11, 11A) of the carrier (10, 10A); and A high-frequency electrical property detection component (30, 30A) includes a high-frequency pin holder (31, 31A), an electrical property detection circuit board (33, 33A) and an electrical property detection socket (35, 35A). The high-frequency needle holder (31, 31A) has a needle top (311, 311A) and an assembly bottom (313, 313A) corresponding to the needle top (311, 311A). The electrical detection seat (35, 35A) includes a needle-piercing part (351, 351A) and an assembly part (355, 355A) corresponding to the needle-piercing part (351, 351A), wherein the high-frequency electrical detection component (30, 30A) The needle seat (31, 31A) and the electrical detection seat (35, 35A) can be selectively assembled in the second assembly part (13, 13A) or the third assembly of the carrier (10, 10A). The position of the parts (15, 15A). The detection module as claimed in claim 1, wherein the assembly bottom (313) of the high-frequency needle base (31) of the high-frequency electrical detection component (30) is corresponding to and is assembled on the carrier (10) The position of the second assembly part (13), and the electrical detection circuit board (33) is assembled on the first assembly part (11) of the carrier (10) and the action of the fine adjustment component (20) The position of the top (231) of the assembly (23) between the two components. The detection module as claimed in claim 2, wherein the assembly part (355) of the electrical detection base (35) of the high-frequency electrical detection component (30) is corresponding to and arranged on the carrier (10) The position of the third component (15). The detection module as claimed in claim 1, wherein the assembly part (355) of the electrical detection base (35) of the high-frequency electrical detection component (30) is corresponding to and arranged on the carrier (10) The position of the third component (15). The detection module as claimed in claim 1, wherein the direction from the top (311A) of the high-frequency needle base (31A) of the high-frequency electrical detection component (30A) toward the bottom (313A) of the assembly is It runs through to form an accommodation space (315A). The detection module as described in any one of claims 1 to 5, wherein the fine adjustment parts (21, 21A) of the fine adjustment assembly (20, 20A) have a fine adjustment top (211, 211A) and a corresponding The assembly bottom (213, 213A) of the fine-tuning top (211, 211A) is concave from the fine-tuning top (211, 211A) of the fine-tuning part (21, 21A) toward the assembly bottom (213, 213A). It is assumed that a concave hole (214, 214A) is formed so that the fine-tuning balls (215, 215A) of the fine-tuning component (21, 21A) are disposed in the concave hole (214, 214A). The detection module as claimed in claim 6, wherein the actuating bottom (233, 233A) of the actuating member (23, 23A) of the fine adjusting component (20, 20A) corresponds to the fine adjusting member (21, 21A) Fine-tune the position of the top (211, 211A). The detection module as described in claim 7, wherein the fine-tuning top (211, 211A) of the fine-tuning part (21, 21A) of the fine-tuning component (20, 20A) and the actuating bottom of the actuating part (23, 23A) (233, 233A) forms a predetermined interval space (22, 22A) between them. The detection module as claimed in claim 6, wherein a bottom portion (213, 213A) is provided from the top portion (211, 211A) of the trimmer portion (21, 21A) of the trimmer component (20, 20A) toward the assembly. A set of holes (212, 212A) is perforated in the direction of the actuator (23, 23A), and a set of holes (212, 212A) are perforated in the direction from the top (231, 231A) of the actuator (23, 23A) toward the bottom (233, 233A) of the actuator. Holes (232, 232A) are provided corresponding to the position of the assembly holes (212, 212A) of the fine-tuning component (21, 21A), and a locking piece (234, 234A) is passed through the actuating component (23) , 23A) assembly holes (232, 232A) are then locked in the assembly holes (212, 212A) of the fine-tuning parts (21, 21A).

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