CN114966365A

CN114966365A - Circuit board line detection system and detection method

Info

Publication number: CN114966365A
Application number: CN202210470648.XA
Authority: CN
Inventors: 何文卿
Original assignee: Shanghai Wingtech Electronic Technology Co Ltd
Current assignee: Shanghai Wingtech Electronic Technology Co Ltd
Priority date: 2022-04-28
Filing date: 2022-04-28
Publication date: 2022-08-30
Also published as: WO2023207177A1

Abstract

The invention discloses a circuit board line detection system and a detection method, wherein the circuit board line detection system is used for detecting the open circuit position of a first radio frequency line or a first grounding line on a circuit board, and the circuit board line detection system also comprises a second radio frequency line and a second grounding line. And the second radio frequency circuit is provided with a first conductive part and a second conductive part, and when the circuit board is detected, the first conductive part and the second conductive part are both used for being electrically connected with the first radio frequency circuit. And the second grounding circuit is provided with a third conductive part and a fourth conductive part, and when the circuit board is detected, the third conductive part and the fourth conductive part are both used for being electrically connected with the first grounding circuit. The circuit board line detection system and the circuit board line detection method provided by the invention can be used for detecting the open circuit position of the first radio frequency circuit or the first grounding circuit and repairing the open circuit position, and are beneficial to reducing the production cost of the circuit board.

Description

Circuit board line detection system and detection method

Technical Field

The invention relates to the technical field of circuit detection, in particular to a circuit board line detection system and a circuit board line detection method.

Background

In the circuit of the electronic equipment, no effective means is currently used for detecting the open circuit position of the radio frequency circuit, so that when the situation that the matched device on the radio frequency circuit cannot be used exists, the matched device connected with the radio frequency circuit is replaced, and the purpose of detecting and repairing the radio frequency circuit is achieved. However, the replaced accessory connected with the rf line cannot determine whether the rf line is broken or the accessory is damaged. Therefore, when the rf line is disconnected and the accessory is normal, the disconnection position of the rf line cannot be found, which results in that the rf line cannot be repaired, and the replaced accessory connected with the rf line cannot be reused, which causes waste of the accessory and increases the production cost of the rf line.

Disclosure of Invention

The embodiment of the invention discloses a circuit board line detection system and a detection method, wherein the circuit board line detection system can be used for detecting and repairing the open circuit position of a first radio frequency circuit or a first grounding circuit, and is beneficial to reducing the production cost of a circuit board.

In order to achieve the above object, in a first aspect, the present invention discloses a circuit board line detection system, including:

the circuit board is provided with a first radio frequency line, a first grounding line and an electronic device, the first grounding line and the first radio frequency line are arranged at intervals, and the electronic device is connected to the first radio frequency line and used for receiving radio frequency signals sent by the first radio frequency line;

the second radio frequency circuit is provided with a first conductive part and a second conductive part, and the first conductive part and the second conductive part are both used for being electrically connected with the first radio frequency circuit; and

the second grounding circuit and the second radio frequency circuit are arranged at intervals, the second grounding circuit is provided with a third conductive part and a fourth conductive part, and the third conductive part and the fourth conductive part are both used for being electrically connected with the first grounding circuit.

As an alternative implementation manner, in an embodiment of the present invention, the first conductive part and/or the second conductive part is/are slidably disposed on the second rf line, and/or,

the third conductive part and/or the fourth conductive part are/is arranged on the second grounding circuit in a sliding mode.

As an optional implementation manner, in an embodiment of the present invention, when the first conductive part is slidably disposed on the second rf line and the third conductive part is slidably disposed on the second ground line, the circuit board line detection system further includes a first connection component, where the first connection component is connected to the first conductive part and the third conductive part; and/or the presence of a gas in the gas,

when the second conductive part is slidably disposed on the second radio frequency circuit and the fourth conductive part is slidably disposed on the second ground circuit, the circuit board circuit detection system further includes a second connection part, and the second connection part is connected to the second conductive part and the fourth conductive part.

As an optional implementation manner, in an embodiment of the present invention, the circuit board line detection system further includes a first conductive connector, a second conductive connector, a third conductive connector, and a fourth conductive connector;

the first conductive connecting piece and the second conductive connecting piece are slidably arranged on the second radio frequency circuit, the first conductive part is arranged on the first conductive connecting piece and is electrically connected with the second radio frequency circuit through the first conductive connecting piece, and the second conductive part is arranged on the second conductive connecting piece and is electrically connected with the second radio frequency circuit through the second conductive connecting piece; and/or the presence of a gas in the gas,

the third conductive connecting piece and the fourth conductive connecting piece are slidably arranged on the second grounding circuit, the third conductive part is arranged on the third conductive connecting piece and is electrically connected with the third conductive connecting piece, and the fourth conductive part is arranged on the fourth conductive connecting piece and is electrically connected with the fourth conductive connecting piece.

As an optional implementation manner, in an embodiment of the present invention, when the first conductive connecting element is slidably disposed on the second radio frequency line, and the third conductive connecting element is slidably disposed on the second ground line, the circuit board line detection system further includes a first connecting element, and the first connecting element is connected to the first conductive connecting element and the third conductive connecting element; and/or the presence of a gas in the gas,

the second conductive connecting piece is slidably arranged on the second radio frequency circuit, the fourth conductive connecting piece is slidably arranged on the second grounding circuit, the circuit board circuit detection system further comprises a second connecting piece, and the second connecting piece is connected with the second conductive connecting piece and the fourth conductive connecting piece.

As an optional implementation manner, in an embodiment of the present invention, the number of the second ground lines is two, and the two second ground lines are respectively disposed on two sides of the second radio frequency line.

In a second aspect, the present invention also discloses a detection method for a circuit board line detection system, wherein the detection method comprises:

providing a circuit board, wherein a first radio frequency line, a first grounding line and an electronic device are arranged on the circuit board, the first grounding line and the first radio frequency line are arranged at intervals, and the electronic device is connected to the first radio frequency line and used for receiving radio frequency signals sent by the first radio frequency line;

providing a second radio frequency circuit, wherein the second radio frequency circuit is provided with a first conductive part and a second conductive part, and the first conductive part and the second conductive part of the second radio frequency circuit are electrically connected with the first radio frequency circuit;

providing a second grounding circuit, wherein the second grounding circuit and the second radio frequency circuit are arranged at intervals, the second grounding circuit is provided with a third conductive part and a fourth conductive part, and the third conductive part and the fourth conductive part of the second grounding circuit are electrically connected to the first grounding circuit;

when the electronic device on the circuit board receives the radio-frequency signal sent by the first radio-frequency line, it is determined that a fracture exists in the first radio-frequency line.

the third conductive part and/or the fourth conductive part are/is arranged on the second grounding circuit in a sliding mode;

when the electronic device on the circuit board receives the radio frequency signal sent by the first radio frequency line, and after it is determined that a fracture exists in the first radio frequency line, the detection method further includes:

sliding the first conductive part and/or the second conductive part until the length of the second radio frequency line between the first conductive part and the second conductive part is matched with the fracture length of the first radio frequency line, so as to determine a first target length of the second radio frequency line;

sliding the third conductive part and/or the fourth conductive part until the length of a second grounding line between the third conductive part and the fourth conductive part is matched with the fracture length of the first radio frequency line, so as to determine a second target length of the second grounding line;

or;

and synchronously sliding the first conductive part and the third conductive part, and/or synchronously sliding the second conductive part and the fourth conductive part until the length of the second radio frequency line between the first conductive part and the second conductive part and the length of a second grounding line between the third conductive part and the fourth conductive part are matched with the fracture length of the first radio frequency line so as to determine a first target length of the second radio frequency line and determine a second target length of the second grounding line.

As an optional implementation manner, in an embodiment of the present invention, after the determining the first target length of the second radio frequency line and the determining the second target length of the second ground line, the detecting method further includes:

cutting off other parts of the second radio frequency circuit except the first target length;

cutting off the other part of the second grounding circuit except the second target length.

As an optional implementation manner, in an embodiment of the present invention, after determining that there is a fracture in the first radio frequency line when the electronic device on the circuit board receives the radio frequency signal sent by the first radio frequency line, the detection method further includes:

welding the first conductive part and the second conductive part at a fracture position of the first radio frequency circuit;

and welding the third conductive part and the fourth conductive part at the fracture position of the first grounding circuit corresponding to the first radio frequency circuit.

Compared with the prior art, the invention has the beneficial effects that:

the embodiment of the invention provides a circuit board line detection system and a detection method, wherein the circuit board line detection system comprises a second radio frequency line and a second grounding line, and the second radio frequency line can transmit radio frequency signals by electrically connecting a first conductive part and a second conductive part arranged on the second radio frequency line with two ends of a detection area of the first radio frequency line on a circuit board and electrically connecting a third conductive part and a fourth conductive part arranged on the second grounding line with two ends of the detection area of the first grounding line on the circuit board. When the detection area has the problem of circuit breaking, the second radio frequency circuit can connect the first radio frequency circuits at two ends of the circuit breaking position, so that radio frequency signals can be continuously transmitted to the electronic device on the first radio frequency channel, and the electronic device can be normally used at the moment. That is, when the first rf line or the first ground line has an open circuit problem, after the first conductive part and the second conductive part of the circuit board line detection system are connected to two ends of the detection area of the first rf line, and the third conductive part and the fourth conductive part are connected to two ends of the detection area of the first ground line, if the electronic device on the rf line can be normally used at this time, it is indicated that the open circuit problem exists in the detection area. In addition, after the open circuit position on the first radio frequency line or the first grounding line is detected, the circuit detection system of the circuit board can be electrically connected to the open circuit position, so that the aim of repairing the first radio frequency line or the first grounding line is fulfilled. The circuit board line detection system provided by the invention can detect and repair the first radio frequency line or the first grounding line, so that the first radio frequency line or the first grounding line with faults do not need to be communicated with and replaced with the electronic device connected with the first radio frequency line or the first grounding line, and the production cost of the circuit board is favorably reduced.

Drawings

In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings needed to be used in the embodiments will be briefly described below, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and it is obvious for those skilled in the art that other drawings can be obtained according to these drawings without creative efforts.

Fig. 1 is a schematic structural diagram of a circuit board line detection system according to an embodiment of the disclosure;

FIG. 2 is a schematic structural diagram of a circuit board according to an embodiment of the present invention;

FIG. 3 is a schematic diagram of a circuit board trace detection system (not shown) according to an embodiment of the present invention;

FIG. 4 is a flow chart of a method for testing a circuit board trace testing system according to an embodiment of the present invention;

fig. 5 is another flowchart of a detection method of a circuit board line detection system according to an embodiment of the disclosure.

Description of the main reference numerals: 100. a circuit board line detection system; 10. a circuit board; 101. a first radio frequency circuit; 1011. breaking off; 102. a first ground line; 103. an electronic device; 11. a second radio frequency circuit; 111. a first conductive portion; 112. a second conductive portion; 12. a second ground line; 121. a third conductive portion; 122. a fourth conductive portion; 13. a first connecting member; 131. a first hollowed-out portion; 132. a second hollowed-out portion; 14. a second connecting member; 141. a third hollowed-out portion; 142. a fourth hollowed-out portion; 15. a first conductive connector; 16. a second conductive connection; 17. a third conductive connection; 18. a fourth conductive connection; 19. and a bonding pad.

Detailed Description

The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.

In the present invention, the terms "upper", "lower", "left", "right", "front", "rear", "top", "bottom", "inner", "outer", "center", "vertical", "horizontal", "lateral", "longitudinal", and the like indicate an orientation or positional relationship based on the orientation or positional relationship shown in the drawings. These terms are used primarily to better describe the invention and its embodiments and are not intended to limit the indicated devices, elements or components to a particular orientation or to be constructed and operated in a particular orientation.

Moreover, some of the above terms may be used to indicate other meanings besides the orientation or positional relationship, for example, the term "on" may also be used to indicate some kind of attachment or connection relationship in some cases. The specific meanings of these terms in the present invention can be understood by those skilled in the art as appropriate.

Furthermore, the terms "mounted," "disposed," "provided," "connected," and "connected" are to be construed broadly. For example, it may be a fixed connection, a removable connection, or a unitary construction; can be a mechanical connection, or an electrical connection; may be directly connected, or indirectly connected through intervening media, or may be in internal communication between two devices, elements or components. The specific meanings of the above terms in the present invention can be understood according to specific situations by those of ordinary skill in the art.

Furthermore, the terms "first," "second," and the like, are used primarily to distinguish one device, element, or component from another (the specific nature and configuration may be the same or different), and are not used to indicate or imply the relative importance or number of the indicated devices, elements, or components. "plurality" means two or more unless otherwise specified.

The technical solution of the present invention will be further described with reference to the following embodiments and the accompanying drawings.

Referring to fig. 1 to fig. 3 together, the present application discloses a circuit board line detection system, where the circuit board line detection system 100 includes a circuit board 10, a second rf line 11, and a second ground line 12 spaced apart from the second rf line 11, the rf line may include a first rf line 101, a first ground line 102, and an electronic device 103 connected to the first rf line 101, the first ground line 102 is used to enable an rf signal to be transmitted along the first rf line 101, and the electronic device 103 is used to receive an rf signal sent by the first rf line 101. The second rf line 11 is provided with a first conductive portion 111 and a second conductive portion 112, the first conductive portion 111 and the second conductive portion 112 are both used for electrically connecting with the first rf line 101, the second ground line 12 is provided with a third conductive portion 121 and a fourth conductive portion 122, and the third conductive portion 121 and the fourth conductive portion 122 are both used for electrically connecting with the first ground line 102.

The circuit board line detection system 100 provided by the present application enables the second rf line 11 to transmit rf signals by electrically connecting the first conductive part 111 and the second conductive part 112 disposed on the second rf line 11 with two ends of the detection area of the first rf line 101, and electrically connecting the third conductive part 121 and the fourth conductive part 122 disposed on the second ground line 12 with two ends of the detection area of the first ground line 102. When the detection area has a problem of circuit breaking, the second rf line 11 can connect the first rf lines 101 at two ends of the circuit breaking position, so that the rf signal can be continuously transmitted to the electronic device 103 on the first rf channel, and at this time, the electronic device 103 can be normally used. That is, when the first rf line 101 or the first ground line 102 has an open circuit problem, the first conductive part 111 and the second conductive part 112 on the second rf line 11 of the circuit board line inspection system 100 are connected to both ends of the inspection area of the first rf line 101, and the third conductive part 121 and the fourth conductive part 122 on the second ground line 12 are connected to both ends of the inspection area of the first ground line 102. Thus, when there is a problem of open circuit in the detection area, the rf signal on the first rf line 101 can be transmitted from one end of the open circuit position to the second rf line 11, and then transmitted back to the other end of the open circuit position through the second rf line 11 to be re-transmitted back to the first rf line 101, so that the electronic device 103 can receive the rf signal on the first rf line 101, and the electronic device 103 can be normally used. In addition, after the open circuit position on the first rf line 101 or the first ground line 102 is detected, the circuit board line detection system 100 can be electrically connected to the open circuit position, that is, two ends of the open circuit position are electrically connected to the second rf line 11 and the second ground line 12, so as to achieve the purpose of repairing the first rf line 101 or the first ground line 102. In addition, since the circuit board line detection system 100 provided by the present application can detect and repair the first rf line 101 or the first ground line 102, the failed first rf line 101 or the first ground line 102 does not need to be replaced together with the electronic device 103 connected thereto, which is beneficial to reducing the production cost of the circuit board 10.

Optionally, the electronic device 103 may be a lamp bead or an alarm, etc. Illustratively, when the electronic device 103 is a lamp bead, if the first radio frequency circuit 101 connected to the electronic device 103 has a problem of open circuit, the lamp bead cannot be lit; if the first conductive part 111 and the second conductive part 112 of the second rf line 11 are electrically connected to two ends of the open position of the first rf line 101, respectively, and the third conductive part 121 and the fourth conductive part 122 of the second ground line 12 are electrically connected to two ends of the open position of the first ground line 102, respectively, the rf signal on the first rf line 101 can be transmitted to the lamp bead through the second rf line 11, and the lamp bead can be lit up at this time.

It is worth noting that there are three conditions for the open circuit state of the rf circuit, the first is that the first rf circuit 101 has an open circuit problem, and the first grounding circuit 102 is normal, at this time, the rf circuit cannot realize the function of transmitting rf signals, at this time, the electronic device 103 cannot work, if the lamp bead cannot be lighted; the second is that the first radio frequency circuit 101 and the first grounding circuit 102 both have a problem of open circuit, at this time, the radio frequency circuit cannot realize the function of transmitting radio frequency signals, at this time, the electronic device 103 cannot work, and if a lamp bead cannot be lighted; the third type of the first radio frequency circuit 101 is normal, and the first grounding circuit 102 has a problem of open circuit, at this time, the radio frequency circuit has a poor radio frequency signal transmission effect, and at this time, the electronic device 103 cannot work or cannot work normally, for example, the lamp bead cannot be lighted up or the brightness of the lamp bead cannot reach the expected brightness.

The specific structure of the circuit board trace detection system 100 will be described in detail below by taking the case where the first rf trace 101 is broken and the first ground trace 102 is normal. That is, the first rf line 101 has a break 1011 (see fig. 2 for details).

In some embodiments, to ensure that the rf signals are transmitted on the first rf line 101 and the second rf line 11 with the same effect, the impedance of the second rf line 11 needs to be equal to the impedance of the first rf line 101. Thus, the transmission effect of the radio frequency signal on the first radio frequency line 101 and the second radio frequency line 11 is the same, the accuracy of the circuit board line detection system 100 for detecting the open circuit position of the radio frequency line can be improved, and the repaired radio frequency line is ensured not to influence the transmission of the radio frequency signal.

Alternatively, the first conductive portion 111, the second conductive portion 112, the third conductive portion 121, and the fourth conductive portion 122 may be conductive materials such as probes or wires, which may be determined according to actual situations.

As an alternative embodiment, the first conductive part 111 and/or the second conductive part 112 may be slidably disposed on the second rf line 11, and/or the third conductive part 121 and/or the fourth conductive part 122 may be slidably disposed on the second ground line 12. That is, the following conditions exist: first, the first conductive part 111 can be slidably disposed on the second rf circuit 11, and the third conductive part 121 can be slidably disposed on the second ground circuit 12; second, the first conductive part 111 can be slidably disposed on the second rf line 11, and the fourth conductive part 122 can be slidably disposed on the second ground line 12; third, the first conductive part 111 can be slidably disposed on the second rf line 11, and both the third conductive part 121 and the fourth conductive part 122 can be slidably disposed on the second ground line 12; fourth, the second conductive part 112 is slidably disposed on the second rf line 11, and the third conductive part 121 is slidably disposed on the second ground line 12; fifth, the second conductive part 112 is slidably disposed on the second rf line 11, and the fourth conductive part 122 is slidably disposed on the second ground line 12; sixthly, the second conductive part 112 is slidably disposed on the second rf line 11, and both the third conductive part 121 and the fourth conductive part 122 are slidably disposed on the second ground line 12; seventh, the first conductive part 111 and the second conductive part 112 can be slidably disposed on the second rf line 11, and the third conductive part 121 can be slidably disposed on the second ground line 12; eighth, the first conductive part 111 and the second conductive part 112 can be slidably disposed on the second rf line 11, and the fourth conductive part 122 can be slidably disposed on the second ground line 12; ninth, the first conductive portion 111 and the second conductive portion 112 can be slidably disposed on the second rf trace 11, and the third conductive portion 121 and the fourth conductive portion 122 can be slidably disposed on the second ground trace 12. This arrangement can facilitate adjustment of the length of the second rf line 11 between the first conductive portion 111 and the second conductive portion 112, and adjustment of the length of the second ground line 12 between the third conductive portion 121 and the fourth conductive portion 122, so that the length of the second rf line 11 between the first conductive portion 111 and the second conductive portion 112 and the length of the second ground line 12 between the third conductive portion 121 and the fourth conductive portion 122 can be adapted to the size of the break 1011, so that the first conductive portion 111 and the second conductive portion 112 can be connected to the first rf line 101, and the third conductive portion 121 and the fourth conductive portion 122 can be connected to the first ground line 102.

In this embodiment, when the first conductive part 111 is slidably disposed on the second rf trace 11 and the third conductive part 121 is slidably disposed on the second ground trace 12, the circuit board trace detection system 100 further includes a first connecting component 13, wherein the first connecting component 13 is connected to the first conductive part 111 and the third conductive part 121. Thus, the inspector can slide the first conductive part 111 and the second conductive part 112 simultaneously by sliding the first connecting member 13, which is advantageous for simplifying the inspecting process of the inspector.

When the second conductive part 112 is slidably disposed on the second rf line 11 and the fourth conductive part 122 is slidably disposed on the second ground line 12, the circuit board line inspection system 100 further includes a second connecting part 14, wherein the second connecting part 14 is connected to the second conductive part 112 and the fourth conductive part 122. Thus, the inspector can slide the second connecting member 14 to slide the second conductive part 112 and the fourth conductive part 122 at the same time, which is advantageous for simplifying the inspecting process of the inspector.

As another alternative embodiment, the circuit board line inspection system 100 further includes a first conductive connector 15, a second conductive connector 16, a third conductive connector 17, and a fourth conductive connector 18. The first conductive connecting piece 15 and/or the second conductive connecting piece 16 are/is slidably disposed on the second radio frequency circuit 11, the first conductive portion 111 is disposed on the first conductive connecting piece 15 and is electrically connected to the second radio frequency circuit 11 through the first conductive connecting piece 15, the second conductive portion 112 is disposed on the second conductive connecting piece 16 and is electrically connected to the second radio frequency circuit 11 through the second conductive connecting piece 16, that is, the first conductive connecting piece 15 is slidably disposed on the second radio frequency circuit 11, or the second conductive connecting piece 16 is slidably disposed on the second radio frequency circuit 11, or both the first conductive connecting piece 15 and the second conductive connecting piece 16 are slidably disposed on the second radio frequency circuit 11. Thus, the inspector can slide the first conductive connecting piece 15 and/or the second conductive connecting piece 16 according to the size of the fracture 1011 of the radio frequency line, that is, slide the first conductive connecting piece 15, or slide the second conductive connecting piece 16, or slide the first conductive connecting piece 15 and the second conductive connecting piece 16 simultaneously, so as to adjust the length of the second radio frequency line 11 between the first conductive connecting piece 15 and the second conductive connecting piece 16, so that the first conductive part 111 on the first conductive connecting piece 15 and the second conductive part 112 on the second conductive connecting piece 16 can be connected to the first radio frequency line 101 at two ends of the fracture 1011.

Similarly, the third conductive connecting element 17 and/or the fourth conductive connecting element 18 are slidably disposed on the second grounding line 12, the third conductive portion 121 is disposed on the third conductive connecting element 17 and electrically connected to the third conductive connecting element 17, and the fourth conductive portion 122 is disposed on the fourth conductive connecting element 18 and electrically connected to the fourth conductive connecting element 18. That is, the third conductive connecting element 17 can be slidably disposed on the second ground trace 12, or the fourth conductive connecting element 18 can be slidably disposed on the second ground trace, or both the third conductive connecting element 17 and the fourth conductive connecting element 18 can be slidably disposed on the second ground trace 12. Thus, the inspector can slide the third conductive connector 17 and/or the fourth conductive connector 18 according to the size of the fracture 1011 of the radio frequency line, i.e., slide the third conductive connector 17, or slide the fourth conductive connector 18, or slide the third conductive connector 17 and the fourth conductive connector 18 at the same time, thereby adjusting the length of the second ground line 12 between the third conductive connector 17 and the fourth conductive connector 18, and enabling the third conductive part 121 on the third conductive connector 17 and the fourth conductive part 122 on the fourth conductive connector 18 to be connected to the first ground lines 102 at two ends of the fracture 1011.

In summary, the first conductive connecting element 15, the second conductive connecting element 16, the third conductive connecting element 17 and the fourth conductive connecting element 18 may be arranged in a plurality of ways, the first conductive connecting element 15 may be slidably disposed on the second rf line 11, and the third conductive connecting element 17 may be slidably disposed on the second ground line 12; secondly, the first conductive connecting piece 15 can be slidably arranged on the second radio frequency circuit 11, and the fourth conductive connecting piece 18 can be slidably arranged on the second grounding circuit 12; thirdly, the first conductive connecting piece 15 is slidably disposed on the second rf line 11, and both the third conductive connecting piece 17 and the fourth conductive connecting piece 18 are slidably disposed on the second ground line 12; fourthly, the second conductive connecting piece 16 can be slidably arranged on the second radio frequency circuit 11, and the third conductive connecting piece 17 can be slidably arranged on the second grounding circuit 12; fifth, the second conductive connecting element 16 is slidably disposed on the second rf line 11, and the fourth conductive connecting element 18 is slidably disposed on the second ground line 12; sixthly, the second conductive connecting piece 16 can be slidably arranged on the second radio frequency circuit 11, and the third conductive connecting piece 17 and the fourth conductive connecting piece 18 can be slidably arranged on the second grounding circuit 12; seventh, the first conductive connecting piece 15 and the second conductive connecting piece 16 can be slidably disposed on the second rf line 11, and the third conductive connecting piece 17 can be slidably disposed on the second ground line 12; eighthly, both the first conductive connecting piece 15 and the second conductive connecting piece 16 can be slidably arranged on the second radio frequency circuit 11, and the fourth conductive connecting piece 18 can be slidably arranged on the second grounding circuit 12; ninth, the first conductive connecting element 15 and the second conductive connecting element 16 are slidably disposed on the second rf line 11, and the third conductive connecting element 17 and the fourth conductive connecting element 18 are slidably disposed on the second ground line 12.

For the convenience of detecting the fracture 1011 of the first rf line 101, the first conductive portion 111, the second conductive portion 112, the third conductive portion 121 and the fourth conductive portion 122 are generally made into relatively thin wires. This is advantageous for controlling the contact position of the first and second

conductive portions

111 and 112 with the first rf line 101, and for controlling the contact position of the third and fourth

conductive portions

121 and 122 with the first ground line 102. In addition, it can also prevent the problem that when the first rf circuit 101 is detected, the first conductive part 111, the second conductive part 112, the third conductive part 121, or the fourth conductive part 122 is connected to multiple lines at the same time due to the fact that the first conductive part 111, the second conductive part 112, the third conductive part 121, or the fourth conductive part 122 is too thick, which causes the problem of short circuit of the first rf circuit 101 or the first grounding circuit 102, and thus causes the short circuit damage of the circuit board 10.

However, when the first conductive portion 111, the second conductive portion 112, the third conductive portion 121, and the fourth conductive portion 122 are all thin wires, if the first conductive portion 111 is directly electrically connected to the second rf line 11, so that the contact area between the first conductive portion 111 and the second rf line 11 is very small, there may be poor electrical connection stability between the first conductive portion 111 and the second rf line 11, electrical connection stability between the second conductive portion 112 and the second rf line 11, electrical connection stability between the third conductive portion 121 and the second ground line 12, and electrical connection stability between the fourth conductive portion 122 and the second ground line 12, so that the first conductive portion 111 and the second conductive portion 112 may be easily separated from the second rf line 11, or the third conductive portion 121 and the fourth conductive portion 122 may be easily separated from the second ground line 12.

The first conductive connection 15 is provided so that the first conductive portion 111 can be connected to the first conductive connection 15 by soldering, and thus to the second rf line 11. In the soldering process, the contact area between the first conductive part 111 and the first conductive connecting piece 15 can be increased by the solder soldered on the first conductive part 111, so that the soldering stability between the first conductive part 111 and the first conductive connecting piece 15 is improved, and the connection stability between the first conductive part 111 and the second radio frequency circuit 11 is further improved. The second conductive connecting member 16, the third conductive connecting member 17 and the fourth conductive connecting member 18 are provided for the same reason as the first conductive connecting member 15, and are not described in detail herein.

The first conductive connecting piece 15, the second conductive connecting piece 16, the third conductive connecting piece 17 and the fourth conductive connecting piece 18 are made of conductive materials such as copper, copper alloy or silver. And the first conductive connecting member 15, the second conductive connecting member 16, the third conductive connecting member 17 and the fourth conductive connecting member 18 may be sleeve-shaped structures, such as a square sleeve, a circular sleeve, etc.

In this embodiment, when the first conductive connecting element 15 is slidably disposed on the second rf trace 11 and the third conductive connecting element 17 is slidably disposed on the second ground trace 12, the circuit board trace detection system 100 further includes a first connecting element 13, wherein the first connecting element 13 is connected to the first conductive connecting element 15 and the third conductive connecting element 17. Thus, the detection personnel can slide the first connecting part 13 to simultaneously slide the first conductive connecting part 15 and the third conductive connecting part 17, which is beneficial to simplifying the detection steps.

When the second conductive connector 16 is slidably disposed on the second rf trace 11 and the fourth conductive connector 18 is slidably disposed on the second ground trace 12, the circuit board trace detection system 100 further includes a second connection component 14, wherein the second connection component 14 is connected to the second conductive connector 16 and the fourth conductive connector 18. Thus, the inspector can slide the second connecting member 14 to slide the second conductive connecting member 16 and the fourth conductive connecting member simultaneously, which is advantageous for simplifying the inspecting process.

For the convenience of the operation of the detecting person, in this embodiment, it is preferable that the first conductive connecting part 15 and the second conductive connecting part 16 are slidably disposed on the second rf line 11, and the third conductive connecting part 17 and the fourth conductive connecting part 18 are slidably disposed on the second ground line 12. In this way, the inspector can slide the first connecting part 13 alone, or slide the second connecting part 14 alone, or slide the first connecting part 13 and the second connecting part 14 simultaneously, so as to adjust the length of the second rf line 11 between the first conductive connecting part 15 and the second conductive connecting part 16 and the length of the second ground line 12 between the third conductive connecting part 17 and the fourth conductive connecting part 18 simultaneously, thereby improving the detection efficiency of the rf line; meanwhile, the length of the second radio frequency line 11 between the first conductive connecting piece 15 and the second conductive connecting piece 16 is equal to the length of the second grounding line 12 between the third conductive connecting piece 17 and the fourth conductive connecting piece 18, so that when the circuit board line detection system 100 is used for repairing a fracture 1011 on the radio frequency line, the appearance of the radio frequency line can be neat. The first conductive connecting element 15 and the second conductive connecting element 16 are slidably disposed on the second rf line 11, and the third conductive connecting element 17 and the fourth conductive connecting element 18 are slidably disposed on the second ground line 12.

It is understood that the first connection part 13 may be connected between the first conductive connection part 15 and the third conductive connection part 17, or may be sleeved on the outer peripheries of the first conductive connection part 15 and the third conductive connection part 17, that is, the first connection part 13 is covered around the first conductive connection part 15 and the third conductive connection part 17. Similarly, the second connection part 14 may be connected between the second conductive connection part 16 and the fourth conductive connection part 18, or sleeved around the second conductive connection part 16 and the fourth conductive connection part 18, that is, the second connection part 14 is wrapped around the second conductive connection part 16 and the fourth conductive connection part 18. As long as it is ensured that the first connecting part 13 can simultaneously drive the first conductive connecting part 15 and the third conductive connecting part 17 to slide relative to the second rf line 11 or the second ground line 12, and the second connecting part 14 can simultaneously drive the second conductive connecting part 16 and the fourth conductive connecting part 18 to slide relative to the second rf line 11 or the second ground line 12, the embodiment is not particularly limited.

Alternatively, the first and

second connection parts

13 and 14 may be square, oval, cylindrical, or the like, and the embodiment is not particularly limited.

In addition, when the first connection member 13 and the second connection member 14 are provided, the first conductive portion 111, the second conductive portion 112, the third conductive portion 121, and the fourth conductive portion 122 may be connected to the first conductive connector 15, the second conductive connector 16, the third conductive connector 17, and the fourth conductive connector 18, respectively, and then the first connection member 13 may be provided so that the first connection member 13 can connect the first conductive connector 15 and the third conductive connector 17, and the second connection member 14 may be provided so that the second connection member 14 can connect the second conductive connector 16 and the fourth conductive connector 18. Or the first connecting component 13 is first arranged so that the first connecting component 13 can connect the first conductive connecting piece 15 and the third conductive connecting piece 17, the second connecting component 14 is arranged so that the second connecting component 14 can connect the second conductive connecting piece 16 and the fourth conductive connecting piece 18, and then the first conductive part 111, the second conductive part 112, the third conductive part 121 and the fourth conductive part 122 are respectively connected to the first conductive connecting piece 15, the second conductive connecting piece 16, the third conductive connecting piece 17 and the fourth conductive connecting piece 18. In order to avoid the first conductive part 111, the second conductive part 112, the third conductive part 121 and the fourth conductive part 122 from affecting the connection between the first connecting part 13 and the second connecting part 14. The first mounting mode is preferably adopted in the present embodiment.

It is to be noted that when a structure in which the first connection part 13 is connected between the first conductive connector 15 and the third conductive connector 17 and a structure in which the second connection part 14 is connected between the second conductive connector 16 and the fourth conductive connector 18 are employed, the first connection part 13 and the second connection part 14 are made of an insulating material. Therefore, the second radio frequency line 11 and the second grounding line 12 are ensured to be in insulated connection, and the circuit board 10 is prevented from being disconnected due to the fact that the second radio frequency line 11 and the second grounding line 12 are electrically connected.

When the first connecting part 13 is sleeved on the peripheries of the first conductive connecting part 15 and the third conductive connecting part 17, and the second connecting part 14 is sleeved on the peripheries of the second conductive connecting part 16 and the fourth conductive connecting part 18, the first connecting part 13 and the second connecting part 14 are sleeved on the first connecting part 13 and the second connecting part 14, which are required to ensure that the second rf line 11 and the second ground line 12 are connected in an insulating manner, if the first connecting part 13 and the second connecting part 14 are sleeved on the second connecting part 11 and the second ground line 12, which will cause a short circuit, the circuit board line detection system 100 loses the function of detecting the open circuit position of the rf line.

In one example, the first connecting part 13 may be an insulating sleeve made of an insulating material, and the first connecting part 13 is provided with a first hollow portion 131 at a position corresponding to the first conductive connecting part 15 to expose the first conductive connecting part 15, and a second hollow portion 132 at a position corresponding to the third conductive connecting part 17 to expose the third conductive connecting part 17, so that when the first connecting part 13 is sleeved on the outer circumference of the first conductive connecting part 15 and the third conductive connecting part 17, the first conductive connecting part 15 and the third conductive connecting part 17 can be provided at the first hollow portion 131 and the second hollow portion 132 to prevent the first connecting part 13 from shielding the first conductive connecting part 15 and the third conductive connecting part 17, so that the first conductive part 111 and the third conductive part 121 are difficult to be electrically connected to the first conductive connecting part 15 and the third conductive connecting part 17, thereby causing a problem that the first conductive portion 111 is difficult to be electrically connected to the second radio frequency line 11 and the third conductive portion 121 is difficult to be electrically connected to the second ground line 12. Similarly, the second connecting part 14 may also be an insulating sleeve made of an insulating material, and a third hollow-out portion 141 is provided at a position of the second connecting part 14 corresponding to the second conductive connecting part 16, and a fourth hollow-out portion 142 is provided at a position corresponding to the fourth conductive connecting part 18, so that when the second connection part 14 is fitted around the outer circumferences of the second conductive connection 16 and the fourth conductive connection 18, so that the second conductive connecting piece 16 and the fourth conductive connecting piece 18 can be disposed at the third hollow-out portion 141 and the fourth hollow-out portion 142, and the second connecting part 14 is prevented from shielding the second conductive connecting piece 16 and the fourth conductive connecting piece 18, so that the second conductive portion 112 is difficult to be electrically connected to the second conductive connecting piece 16 and the fourth conductive portion 122 is difficult to be electrically connected to the fourth conductive connecting piece 18, thereby causing a problem that the second conductive portion 112 is difficult to be electrically connected to the second radio frequency line 11 and the fourth conductive portion 122 is difficult to be electrically connected to the second ground line 12.

Alternatively, the first connecting part 13 may be made of an insulating material and a conductive material, that is, the first connecting part 13 may include a first portion, a second portion and a third portion, which are connected in sequence, the first portion is made of a conductive material and is disposed at the outer periphery of the first conductive connecting part 15, the third portion is made of a conductive material and is disposed at the outer periphery of the third conductive connecting part 17, the second portion is made of an insulating material and is connected between the first portion and the third portion, so that the first conductive connecting part 15 and the third conductive connecting part 17 are not electrically connected through the first connecting part 13, but are kept in an insulating arrangement, which can ensure the insulation between the second rf line 11 and the second ground line 12, and the first conductive part 111 can be disposed on the first portion of the first connecting part 13, so that the first conductive part 111 can be electrically connected to the first conductive connecting part 15 through the first portion of the first connecting part 13, so that the first conductive portion 111 is electrically connected to the second rf line 11, and the third conductive portion 121 can be disposed on the third portion of the first connecting member 13, so that the third conductive portion 121 can be electrically connected to the third conductive connector 17 through the third portion of the first connecting member 13, so that the third conductive portion 121 is electrically connected to the second ground line 12.

Similarly, the second connecting component 14 is made of an insulating material and a conductive material, that is, the second connecting component 14 may include a fourth portion, a fifth portion and a sixth portion, which are connected in sequence, the fourth portion is made of a conductive material and is sleeved on the outer periphery of the second conductive connecting component 16, the sixth portion is made of a conductive material and is sleeved on the outer periphery of the fourth conductive connecting component 18, the fifth portion is made of an insulating material and is connected between the fourth portion and the sixth portion, so that the second conductive connecting component 16 and the fourth conductive connecting component 18 are not electrically connected through the second connecting component 14, but are kept in an insulating arrangement, which not only can ensure the insulation between the second rf line 11 and the second ground line 12, but also can arrange the second conductive portion 112 on the fourth portion of the second connecting component 14, so that the second conductive portion 112 can be electrically connected to the second conductive connecting component 16 through the fourth portion of the second connecting component 14, so that the second conductive portion 112 is electrically connected to the second rf line 11, and the fourth conductive portion 122 can be disposed on the sixth portion of the second connecting member 14, so that the fourth conductive portion 122 can be electrically connected to the fourth conductive connector 18 through the sixth portion of the second connecting member 14, so that the fourth conductive portion 122 is electrically connected to the second ground line 12.

In some embodiments, the number of the second grounding lines 12 is two, and the two second grounding lines 12 are respectively disposed on two sides of the second rf line 11, so that when the circuit board line detection system 100 detects the open circuit position of the first rf line 101, and then the second rf line 11 and the second grounding line 12 are respectively connected to the fracture 1011 positions of the first rf line 101 and the first grounding line 102, the rf signal can be better promoted to pass through the second rf line 11, which is beneficial to improving the transmission effect of the first rf line 101 on the rf signal.

Of course, the number of the second ground lines 12 may also be one, three, four, or more, and specifically may be determined according to the number of the first ground lines 102 on the periphery of the first radio frequency line 101 and the actual detection condition of the radio frequency line, which is not specifically limited in this embodiment.

Referring to fig. 1, fig. 4 and fig. 5, the present application also discloses a detection method based on the circuit board line detection system 100, which can detect and repair the open circuit position of the first rf line 101 or the first ground line 102, and reduce the production cost of the circuit board 10.

As an alternative embodiment, the detection method includes the following steps (see fig. 4 in particular):

step 201: a circuit board is provided.

The circuit board 10 is provided with a first rf line 101, a first ground line 102 and an electronic device 103, the first ground line 102 and the first rf line 101 are arranged at an interval, the electronic device 103 is connected to the first rf line 101, and the electronic device 103 is configured to receive an rf signal transmitted by the first rf line 101.

Step 202: and providing a second radio frequency circuit, and electrically connecting the first conductive part and the second conductive part of the second radio frequency circuit to the first radio frequency circuit.

Step 203: providing a second grounding circuit, and electrically connecting a third conductive part and a fourth conductive part of the second grounding circuit to the first grounding circuit.

Step 204: when the electronic device on the circuit board receives a radio frequency signal sent by the first radio frequency line, it is determined that a fracture exists in the first radio frequency line.

Optionally, the electronic device 103 may be a lamp bead or an alarm, etc. Taking the electronic device 103 as an example of a lamp bead, if the first radio frequency circuit 101 connected to the electronic device 103 has a problem of open circuit, the lamp bead cannot be turned on; if the first conductive part 111 and the second conductive part 112 of the second rf line 11 are electrically connected to two ends of the detection position of the first rf line 101, respectively, and the third conductive part 121 and the fourth conductive part 122 of the second ground line 12 are electrically connected to two ends of the detection position of the first ground line 102, respectively, the rf signal on the first rf line 101 can be transmitted to the lamp bead through the second rf line 11, and at this time, the lamp bead can be lit up, indicating that there is a fracture 1011 at the detection position.

Step 205: and sliding the first conductive part and/or the second conductive part until the length of a second radio frequency line between the first conductive part and the second conductive part is matched with the fracture length of the first radio frequency line so as to determine a first target length of the second radio frequency line.

As can be seen from the foregoing, when the first conductive part 111 and/or the second conductive part 112 are slidably disposed on the second rf line 11, the first conductive part 111, the second conductive part 112, or both the first conductive part 111 and the second conductive part 112 may be directly slid until the length of the second rf line 11 between the first conductive part 111 and the second conductive part 112 matches the length of the fracture 1011 of the first rf line 101, where the length of the second rf line 11 between the first conductive part 111 and the second conductive part 112 is the first target length of the second rf line 11.

When the circuit board line detection system 100 further includes a first conductive connecting part 15 and a second conductive connecting part 16, and the first conductive connecting part 15 and the second conductive connecting part 16 can be slidably disposed on the second radio frequency line 11, the first conductive part 111 is disposed on the first conductive connecting part 15 and electrically connected to the second radio frequency line 11 through the first conductive connecting part 15, and the second conductive part 112 is disposed on the second conductive connecting part 16 and electrically connected to the second radio frequency line 11 through the second conductive connecting part 16, the first conductive part 111 can be driven to slide by directly sliding the first conductive connecting part 15, or the second conductive part 112 can be driven to slide by directly sliding the second conductive connecting part 16, or the first conductive connecting part 15 and the second conductive connecting part 16 are simultaneously slid to drive the first conductive part 111 and the second conductive part 112 to slide, until the length of the second radio frequency line 11 located between the first conductive part 111 and the second conductive part 112 is matched with the fracture length 1011 of the first radio frequency line 101, at this time, the length of the second rf line 11 between the first conductive part 111 and the second conductive part 112 is the first target length of the second rf line 11.

It should be noted that, when it is detected that there is a fracture 1011 at the detection position, the length of the fracture 1011 may be determined by sliding the first conductive part 111 and the second conductive part 112, that is, by sliding the first conductive part 111 and the second conductive part 112 respectively towards the center of the detection position, when the first conductive part 111 and the second conductive part 112 slide to the state where the electronic device 103 is changed from the normal operating state to the abnormal operating state, the critical point is the position of the fracture 1011, and at this time, the distance between the first conductive part 111 and the second conductive part 112 on the first rf line 101 is the fracture length 1011.

Step 206: and sliding the third conductive part and/or the fourth conductive part until the length of a second grounding circuit between the third conductive part and the fourth conductive part is matched with the fracture length of the first radio frequency circuit so as to determine a second target length of the second grounding circuit.

As can be seen from the foregoing, when the third conductive part 121 and/or the fourth conductive part 122 are/is slidably disposed on the second ground line 12, the third conductive part 121, the fourth conductive part 122, or both the third conductive part 121 and the fourth conductive part 122 may be directly slid until the length of the second rf line 11 located between the third conductive part 121 and the fourth conductive part 122 matches the length of the fracture 1011 of the first rf line 101, and at this time, the length of the second ground line 12 located between the third conductive part 121 and the fourth conductive part 122 is the second target length of the second ground line 12.

When the circuit board line detection system 100 further includes a third conductive connecting part 17 and a fourth conductive connecting part 18, and the third conductive connecting part 17 and the fourth conductive connecting part 18 are slidably disposed on the second ground line 12, the third conductive part 121 is disposed on the third conductive connecting part 17 and electrically connected to the second ground line 12 through the third conductive connecting part 17, and the fourth conductive part 122 is disposed on the fourth conductive connecting part 18 and electrically connected to the second ground line 12 through the fourth conductive connecting part 18, the third conductive connecting part 121 can be driven to slide by directly sliding the third conductive connecting part 17, or the fourth conductive connecting part 122 can be driven to slide by directly sliding the fourth conductive connecting part 18, or the third conductive connecting part 17 and the fourth conductive connecting part 18 can be simultaneously slid to drive the third conductive part 121 and the fourth conductive part 122 to slide, until the length of the second ground line 12 between the third conductive part 121 and the fourth conductive part 122 is adapted to the fracture length 1011 of the first radio frequency line 101, at this time, the length of the second ground line 12 between the third conductive part 121 and the fourth conductive part 122 is the second target length of the second ground line 12.

Step 207: and cutting off the other parts of the second radio frequency circuit except the first target length.

That is, the length of the second rf line 11 is cut to the first target length, so as to avoid the situation that the circuit board 10 is disconnected due to the extra second rf line 11 disposed on the circuit board 10.

Step 208: and cutting off the other parts of the second grounding circuit except the second target length.

That is, the length of the second grounding line 12 is cut to a second target length, so as to avoid the situation that the redundant second grounding line 12 is arranged on the circuit board 10 to cause the circuit board 10 to be broken.

Step 209: and welding the first conductive part and the second conductive part at the fracture position of the first radio frequency circuit.

As can be seen from the foregoing, in order to facilitate the circuit board circuit inspection system 100 to inspect the rf circuit, it is preferable to use thin conductive wires for the first conductive part 111 and the second conductive part 112, for example, the first conductive part 111 and the second conductive part 112 are directly soldered on the first rf circuit 101, and the first conductive part 111 and the second conductive part 112 are easily broken by an external force, so that the first rf circuit 101 is broken. Therefore, before the first conductive part 111 and the second conductive part 112 are soldered to the first rf line 101, the first conductive part 111 and the second conductive part 112 may be replaced by thicker wires, such as thicker wires having the same thickness as the first rf line 101, so as to improve the force-bearing capability of the first conductive part 111 and the second conductive part 112.

Since the first conductive portion 111 and the second conductive portion 112 are directly soldered on the first rf line 101, the contact area between the first conductive portion 111 and the first rf line 101 and the contact area between the second conductive portion 112 and the first rf line 101 are small, which results in poor connection stability between the first conductive portion 111 and the first rf line 101 and the second conductive portion 112, and the first conductive portion 111 and the second conductive portion 112 are easily separated from the first rf line 101. Therefore, in some embodiments, the pads 19 are soldered at one end of the first conductive portion 111 and the second conductive portion 112 to the first rf traces 101 before the circuit board trace detection system 100 is electrically connected to the circuit board 10 at the open position. In the process of soldering, the soldering area between the first conductive part 111 and the pad 19 may be increased by solder, so that the soldering area between the first conductive part 111 and the pad 19 is larger than the soldering area between the first conductive part 111 and the first rf circuit 101 when the first conductive part 111 is directly soldered, and the principle of the second conductive part 112 is similar, which is not described herein again. That is, providing the pad 19 enables the first conductive part 111 and the second conductive part 112 to be electrically connected to the first radio frequency line 101 through the pad 19, respectively, thereby improving the soldering stability of the first conductive part 111 and the second conductive part 112 to the first radio frequency line 101.

Step 210: and welding the third conductive part and the fourth conductive part at the fracture position of the first grounding circuit corresponding to the first radio frequency circuit.

Before the third conductive part 121 and the fourth conductive part 122 are soldered to the first ground line 102 at the position corresponding to the fracture 1011 of the first rf line 101, the third conductive part 121 and the fourth conductive part 122 may be replaced by thicker wires, for example, thicker wires having the same thickness as the first rf line 101, so as to improve the stress carrying capacity of the third conductive part 121 and the fourth conductive part 122; and a bonding pad 19 at one end to which the third conductive portion 121 and the fourth conductive portion 122 are bonded to the first ground line 102. The reason for this can be seen in step 209, and is not described in detail here.

As another alternative embodiment, the detection method includes the following steps (see fig. 5 in particular):

step 301: a circuit board is provided.

Step 302: and providing a second radio frequency circuit, and electrically connecting the first conductive part and the second conductive part of the second radio frequency circuit to the first radio frequency circuit.

Step 303: providing a second grounding circuit, and electrically connecting a third conductive part and a fourth conductive part of the second grounding circuit to the first grounding circuit.

Step 304: when an electronic device on the circuit board receives a radio frequency signal sent by a first radio frequency line, it is determined that a fracture exists in the first radio frequency line.

Step 305: and synchronously sliding the first conductive part and the third conductive part and/or synchronously sliding the second conductive part and the fourth conductive part until the length of a second radio frequency line 11 between the first conductive part and the second conductive part and the length of a second grounding line between the third conductive part and the fourth conductive part are matched with the fracture length of the first radio frequency line so as to determine a first target length of the second radio frequency line and determine a second target length of the second grounding line.

As can be seen from the foregoing, when the first connecting component 13 is connected between the first conductive part 111 and the third conductive part 121, and the second connecting component 14 is connected between the second conductive part 112 and the fourth conductive part 122, or when the circuit board line detection system 100 further includes the first conductive connecting component 15, the second conductive connecting component 16, the third conductive connecting component 17, the fourth conductive connecting component 18, the first connecting component 13 and the second connecting component 14, and the first conductive connecting component 15 and the second conductive connecting component 16 are slidably disposed on the second rf line 11, the third conductive connecting component 17 and the fourth conductive connecting component 18 are slidably disposed on the second ground line 12, the first conductive part 111 is disposed on the first conductive connecting component 15 and is electrically connected to the second rf line 11 through the first conductive connecting component 15, the second conductive part 112 is disposed on the second conductive connecting component 16 and is electrically connected to the second rf line 11 through the second conductive connecting component 16, the third conductive part 121 is disposed on the third conductive connecting part 17 and electrically connected to the second ground line 12 through the third conductive connecting part 17, the fourth conductive part 122 is disposed on the fourth conductive connecting part 18 and electrically connected to the second ground line 12 through the fourth conductive connecting part 18, the first connecting part 13 is connected to the first conductive connecting part 15 and the third conductive connecting part 17, when the second connecting part 14 is connected to the second conductive connecting part 16 and the fourth conductive connecting part 18, the first conductive part 111 and the third conductive part 121 can be slid synchronously by sliding the first connecting part 13, or the second conductive part 112 and the fourth conductive part 122 can be slid synchronously by sliding the second connecting part 14, or the first connecting part 13 and the second conductive part 14 can be slid synchronously to slide the first conductive part 111, the second conductive part 112, the third conductive part 121 and the fourth conductive part 122, the lengths of the second rf line 11 up to between the first conductive part 111 and the second conductive part 112, and the length of the second ground line 12 between the third conductive part 121 and the fourth conductive part 122 are adapted to the length of the break 1011 of the first rf line 101. At this time, the length of the second rf line 11 between the first conductive part 111 and the second conductive part 112 is a first target length of the second rf line 11, and the length of the second ground line 12 between the third conductive part 121 and the fourth conductive part 122 is a second target length of the second ground line 12.

It should be noted that the method for determining the length of the discontinuity 1011 is similar to the previous embodiment, and is not described herein again.

Step 306: and cutting off the other parts of the second radio frequency circuit except the first target length.

Step 307: and cutting off the other parts of the second grounding circuit except the second target length.

Step 308: and welding the first conductive part and the second conductive part at the fracture position of the first radio frequency circuit.

Step 309: and welding the third conductive part and the fourth conductive part at the fracture position of the first grounding circuit corresponding to the first radio frequency circuit.

It is to be noted that step 301, step 302, step 303, step 304, step 306, step 307, step 308 and step 309 are the same as those in the foregoing embodiments, and may specifically participate in the foregoing description, and are not described herein again.

The circuit board line detection system and the circuit board line detection method disclosed by the embodiment of the invention are described in detail, a specific example is applied in the description to explain the principle and the implementation mode of the invention, and the description of the embodiment is only used for helping to understand the circuit board line detection system and the circuit board line detection method and the core idea of the circuit board line detection system and the circuit board line detection method; meanwhile, for a person skilled in the art, according to the idea of the present invention, the specific embodiments and the application range may be changed, and in summary, the content of the present specification should not be construed as a limitation to the present invention.

Claims

1. A circuit board trace detection system, comprising:

2. The circuit board trace detection system of claim 1, wherein said first conductive portion and/or said second conductive portion is slidably disposed on said second RF trace, and/or,

3. The circuit board trace detection system of claim 2, wherein when said first conductive portion is slidably disposed over said second rf trace and said third conductive portion is slidably disposed over said second ground trace, said circuit board trace detection system further comprises a first connecting component, said first connecting component being connected to said first conductive portion and said third conductive portion; and/or the presence of a gas in the gas,

4. The circuit board trace detection system of claim 2, further comprising a first conductive connector, a second conductive connector, a third conductive connector, and a fourth conductive connector;

5. The circuit board trace detection system of claim 4,

when the first conductive connecting piece is slidably arranged on the second radio frequency circuit and the third conductive connecting piece is slidably arranged on the second grounding circuit, the circuit board circuit detection system further comprises a first connecting piece which is connected to the first conductive connecting piece and the third conductive connecting piece; and/or the presence of a gas in the gas,

6. The circuit board line detection system according to any one of claims 1 to 5, wherein the number of the second ground lines is two, and the two second ground lines are respectively disposed on two sides of the second radio frequency line.

7. A detection method of a circuit board line detection system comprises the following steps:

8. The method of claim 7, wherein the first conductive portion and/or the second conductive portion is slidably disposed on the second RF link, and/or,

or;

and synchronously sliding the first conductive part and the third conductive part, and/or synchronously sliding the second conductive part and the fourth conductive part until the length of the second radio frequency circuit between the first conductive part and the second conductive part and the length of a second grounding circuit between the third conductive part and the fourth conductive part are matched with the fracture length of the first radio frequency circuit so as to determine the first target length of the second radio frequency circuit and determine the second target length of the second grounding circuit.

9. The detection method according to claim 8,

after the determining the first target length of the second radio frequency line and the determining the second target length of the second ground line, the detection method further includes:

10. The method for detecting according to any one of claims 7-9, wherein after determining that there is a break in the first rf line when the electronic device on the circuit board receives the rf signal transmitted by the first rf line, the method further comprises: