A detachable cable connector and an assembly method thereof

Abstract

The present invention discloses a detachable cable connector and an assembly method thereof, comprising providing an adapter plate, plugging a plurality of male components into a first interface of the adapter plate in sequence, setting initial electrical parameters of each male component, verifying the initial electrical parameters of each male component through a detection circuit in the adapter plate, adjusting the initial electrical parameters of the corresponding male component according to the electrical parameters of the female component through a parameter matching module provided in the adapter plate; monitoring the load feedback data of each male component in real time through a load monitoring module of the adapter plate, dynamically adjusting the power supply strategy of the female component according to the load feedback data through a distribution circuit in the adapter plate, and realizing rapid access and adaptive adjustment of the male component and its load through the parameter matching module and the load monitoring module, realizing efficient management of the power supply system, improving the operation efficiency of the overall system, and enhancing the adaptability and safety of the system.

Description

Technical Field

[0001] The present invention relates to the technical field of cables, and in particular to a detachable cable connector and an assembling method thereof. Background Art

[0002] In modern industry and electrical engineering, cable connectors are widely used in the fields of electricity, communications, data transmission, etc., especially in complex power supply and signal transmission systems, where cable connectors play a vital role. With the diversification of equipment types and specifications, the design and use requirements of cable connectors have become more complex. Especially in systems that require power supply for multiple loads of different specifications, the installation, commissioning and maintenance of multiple sets of connectors not only involve the adaptation of different electrical parameters, but also require the system to be able to flexibly respond to load changes to ensure the stability and efficiency of the entire power system. In such a complex scenario, how to achieve efficient, flexible and reliable cable connections has become a key issue in the industry.

[0003] In the prior art, connectors are usually connected through preset electrical parameters and rely on manual settings or identifiers (such as color coding) to distinguish different connector groups. After each connector group is inserted into the system, it will be directly connected to the corresponding female component to achieve power supply. Under multi-specification load conditions, multiple groups of connectors need to handle their own electrical parameter settings separately to ensure the normal operation of different devices. However, the existing system in this way cannot automatically identify and adapt to new load requirements, which makes it difficult for the system to achieve adaptive adjustment when facing loads of various specifications. This limitation not only increases the burden on the power supply system, but also in the process of connecting new connectors and their loads, there is a tendency for power supply parameters to mismatch, resulting in a technical problem of reduced power supply stability for the entire system.

[0004] Therefore, the cable connector in the prior art is improved to solve the problem that it lacks a connection assembly solution that can self-adapt to multiple load requirements. Summary of the invention

[0005] The object of the present invention is to provide a detachable cable connector and an assembling method thereof to solve the above technical problems.

[0006] To achieve this object, the present invention adopts the following technical solutions:

[0007] A method for assembling a detachable cable connector, the detachable cable connector comprising a plurality of sets of male head components and a plurality of correspondingly arranged female head components;

[0008] The assembly method comprises:

[0009] Provide an adapter board, the adapter board having a plurality of first interfaces and second interfaces, wherein the second interface is connected to the female head assembly;

[0010] Inserting a plurality of male components into the first interface of the adapter board in sequence, and setting the initial electrical parameters of each male component through the adapter board;

[0011] The initial electrical parameters of each male component are verified by the detection circuit in the adapter board, and the detection circuit monitors the parasitic impedance and output current stability index of each male component in real time;

[0012] The adapter board electrically connects the male component that has passed the electrical parameter verification to the corresponding female component, and adjusts the initial electrical parameters of the corresponding male component according to the electrical parameters of the female component through the parameter matching module provided in the adapter board;

[0013] After the female component and the male component are connected, the load feedback data of each male component is monitored in real time through the load monitoring module of the adapter board, and the distribution circuit in the adapter board dynamically adjusts the power supply strategy of the female component according to the load feedback data.

[0014] Optionally, multiple male components are sequentially plugged into the first interface of the adapter board, and initial electrical parameters of each male component are set through the adapter board, specifically including:

[0015] Each inserted male component is uniquely identified by the identification module in the adapter board, and the identification module identifies the male component by reading the unique code on the male component to obtain the model information of the male component;

[0016] According to the model information of the identified male component, the parameter setting module in the adapter board selects initial electrical parameter values ​​suitable for the corresponding model according to a preset information database; the initial electrical parameter values ​​include voltage, current and impedance.

[0017] Optionally, the initial electrical parameters of each male component are verified by a detection circuit in the adapter board, and the detection circuit monitors the parasitic impedance and output current stability index of each male component in real time, specifically including:

[0018] The initial electrical parameters of each male connector component are quickly sampled by the detection circuit in the adapter board, and the sampling content includes voltage, current and parasitic impedance;

[0019] After the sampling is completed, the adapter board compares the sampling results of each male component with the initial setting parameters, and calculates the deviation ratio between the sampling results and the initial setting parameters;

[0020] A short-time steady-state test is performed on the male component, and the short-time steady-state test includes continuously monitoring the fluctuation of the output current of the male component, with the monitoring time set to 2-5 seconds, and calculating the current fluctuation range of the male component in real time, and obtaining the output current stability index based on the current fluctuation range.

[0021] Optionally, the current fluctuation range of the male component is calculated in real time, and the output current stability index is obtained based on the current fluctuation range, and then the following steps are further included:

[0022] During the short-time steady-state test, the adapter board introduces a transient response verification module, which verifies that the parameter recovery time of the male head component is less than the first set value by increasing or decreasing the current load for a preset short time;

[0023] The adapter board records the verification results of the initial electrical parameters of each male plug component and generates a signal indicating that the parameter verification has passed.

[0024] Optionally, the adapter board electrically connects the male component that has passed the electrical parameter verification with the corresponding female component, and adjusts the initial electrical parameters of the corresponding male component according to the electrical parameters of the female component through a parameter matching module provided in the adapter board, specifically including:

[0025] The female connector identification module of the adapter board is used to identify the electrical parameters of the connected female connector component, wherein the identification content includes the working voltage, rated current and characteristic impedance of the female connector component;

[0026] The electrical parameters of the female component are transmitted to the parameter matching module, and the parameter matching module compares the electrical parameters of the female component with the initial setting parameters of the male component, calculates the difference between the two, and starts the adjustment mechanism when the difference exceeds the preset matching threshold.

[0027] Optionally, the adjustment mechanism is:

[0028] According to the comparison results, the working voltage and current of the male component are adjusted in real time, and the adjustment is performed through the regulating power module in the adapter board;

[0029] During the adjustment process, the adapter board monitors the load change and instantaneous current fluctuation between the male component and the female component in real time through a feedback loop, and performs secondary adjustment when it is detected that the load change exceeds a predetermined range;

[0030] The parameter confirmation module in the adapter board confirms the adjusted electrical parameters of the male plug component and generates a completion signal of the parameter adjustment.

[0031] Optionally, the distribution circuit in the adapter board dynamically adjusts the power supply strategy of the female head component according to the load feedback data, specifically including:

[0032] The load monitoring module in the adapter board collects the load feedback data of each male component in real time, wherein the load feedback data includes the real-time power consumption and load change trend of the female component;

[0033] The load feedback data is transmitted to the control module of the distribution circuit, and the control module analyzes the load condition of the female head component and determines whether the power supply strategy needs to be adjusted;

[0034] If it is detected that the load change trend exceeds the preset power supply range, the distribution circuit adjusts the power supply parameters of the female head component according to the load feedback data, and the adjustment includes adjusting the power supply voltage and the power supply current;

[0035] During the adjustment process, the distribution circuit further optimizes the power distribution strategy according to the instantaneous load changes of the female head assembly through the dynamic adjustment module;

[0036] The distribution circuit records the adjusted power supply parameters and generates a dynamic adjustment completion signal through the adapter board, wherein the dynamic adjustment completion signal indicates that the power supply strategy has been updated and meets the current load demand.

[0037] Optionally, the distribution circuit in the adapter board dynamically adjusts the power supply strategy of the female head component according to the load feedback data, and then further includes:

[0038] During operation, when the load feedback data of any of the male components is detected to be abnormal, the control module of the adapter board adjusts the power supply parameters or disconnects the male component from the corresponding female component.

[0039] The present invention also provides a detachable cable connector, which is connected by using the assembling method of the detachable cable connector as described above, and the detachable cable connector comprises:

[0040] An adapter board having a plurality of first interfaces and second interfaces;

[0041] A plurality of male connector components are provided, used to connect to a load and plug into the first interface of the adapter board;

[0042] A plurality of female head components are provided, and each of the female head components is correspondingly provided with a male head component;

[0043] Wherein, a control circuit board is arranged on the adapter board, and the control circuit board has an identification module, a detection circuit, a parameter matching module, a load monitoring module and a distribution circuit.

[0044] Compared with the prior art, the present invention has the following beneficial effects: when working, an interface is provided through an adapter board, so that multiple male components and female components can be quickly connected, the male component is inserted into the first interface of the adapter board, and its initial electrical parameters are set through the adapter board, and the detection circuit of the adapter board verifies the electrical parameters of the male component, and monitors its parasitic impedance and output current stability in real time; after detection and verification, the male component is electrically connected to the corresponding female component, and the electrical parameters of the male component are adjusted according to the electrical parameters of the female component through the parameter matching module. After the male and female heads are connected, the load monitoring module of the adapter board will monitor the load feedback data of the male component in real time, and dynamically adjust the power supply strategy of the female component according to the feedback data through the distribution circuit to ensure the adaptability and stability of the system when the load demand changes; this scheme improves the system stability by means of electrical parameter verification and real-time monitoring of electrical parameter adjustment, and realizes the rapid access and adaptive adjustment of the male component and its load through the parameter matching module and the load monitoring module, realizes efficient management of the power supply system, improves the operating efficiency of the overall system, and enhances the adaptability and safety of the system. BRIEF DESCRIPTION OF THE DRAWINGS

[0045] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.

[0046] The structures, proportions, sizes, etc. illustrated in the drawings of this specification are only used to match the contents disclosed in the specification so as to facilitate understanding and reading by persons familiar with this technology. They are not used to limit the conditions under which the present invention can be implemented, and therefore have no substantive technical significance. Any structural modification, change in proportion or adjustment of size, without affecting the effects and purposes that can be achieved by the present invention, should still fall within the scope of the technical contents disclosed by the present invention.

[0047] Figure 1 This is one of the flowchart diagrams of the assembly method of the detachable cable connector of the first embodiment;

[0048] Figure 2 The second flowchart of the assembling method of the detachable cable connector of the first embodiment;

[0049] Figure 3 This is a schematic diagram of the connection structure of the detachable cable connector of the second embodiment. DETAILED DESCRIPTION

[0050] In order to make the purpose, features and advantages of the present invention more obvious and easy to understand, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the embodiments described below are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0051] In the description of the present invention, it should be understood that the terms "upper", "lower", "top", "bottom", "inside", "outside" and the like indicate positions or positional relationships based on the positions or positional relationships shown in the drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation of the present invention. It should be noted that when a component is considered to be "connected" to another component, it may be directly connected to the other component or there may be a centrally arranged component at the same time.

[0052] The technical solution of the present invention is further described below with reference to the accompanying drawings and through specific implementation methods.

[0053] Embodiment 1:

[0054] Combination Figure 1 and Figure 2 As shown, an embodiment of the present invention provides an assembly method of a detachable cable connector. The detachable cable connector includes a plurality of groups of male connector components 20 and a plurality of corresponding groups of female connector components 30.

[0055] Assembly methods include:

[0056] S1, providing an adapter board 10, the adapter board 10 having a plurality of first interfaces 11 and a second interface, wherein the second interface is connected to the female connector assembly 30;

[0057] By providing an adapter board 10 having a plurality of first interfaces 11 and a second interface, the connection between multiple sets of male components 20 and female components 30 is realized. The adapter board 10 serves as an intermediate platform, so that the male components 20 can be flexibly plugged and connected with the corresponding female components 30. Through this structural design, the assembly process of multiple sets of connectors can be simplified, avoiding the messy connection of multiple cables in the traditional way, and improving the assembly efficiency and the convenience of cable management.

[0058] S2, plugging a plurality of male components 20 into the first interface 11 of the adapter board 10 in sequence, and setting the initial electrical parameters of each male component 20 through the adapter board 10;

[0059] The initial electrical parameters of the plugged male component 20 are set through the adapter board 10. The setting process ensures that the voltage, current and other parameters of the male component 20 are consistent with its working requirements.

[0060] S3, verifying the initial electrical parameters of each male component 20 through the detection circuit in the adapter board 10, and the detection circuit monitors the parasitic impedance and output current stability index of each male component 20 in real time;

[0061] In this step, the initial electrical parameters of each male component 20 are verified by the detection circuit in the adapter board 10 to ensure that the set parameters are within the working range. The detection circuit monitors key electrical indicators in real time, such as parasitic impedance and output current stability, to ensure that each male component 20 is in a stable state before connecting to the female component 30. This step greatly reduces the connection problems caused by electrical parameter mismatch or abnormality, and enhances the stability and safety of the entire system.

[0062] S4, the adapter board 10 electrically connects the male component 20 that has passed the electrical parameter verification to the corresponding female component 30, and adjusts the initial electrical parameters of the corresponding male component 20 according to the electrical parameters of the female component through the parameter matching module provided in the adapter board 10;

[0063] After the electrical parameters are verified, the male component 20 and the corresponding female component 30 are electrically connected through the adapter board 10. Through the parameter matching module, the adapter board 10 can dynamically adjust the electrical parameters of the male component 20 according to the electrical parameters of the female component 30. This intelligent adjustment mechanism enables the connector to adapt to different load requirements, ensures that the system operates stably in a complex electrical environment, and effectively avoids the risks caused by electrical parameter mismatch.

[0064] S5, after the female component 30 is connected to the male component 20, the load feedback data of each male component 20 is monitored in real time through the load monitoring module of the adapter board 10, and the distribution circuit in the adapter board 10 dynamically adjusts the power supply strategy of the female component 30 according to the load feedback data.

[0065] After the male component 20 is connected to the female component 30, the load monitoring module monitors the load feedback data of each male component 20 in real time, and dynamically adjusts the power supply strategy based on the feedback data. Through the adjustment function of the distribution circuit, the system can optimize the power supply parameters according to the real-time load changes of the female component 30, ensure the reasonable distribution of the load, prevent overload or unbalanced power supply, and improve the flexibility and operation efficiency of the system.

[0066] The working principle of the present invention is as follows: when working, an interface is provided through the adapter board 10, so that multiple male components 20 and female components 30 can be quickly connected, the male component 20 is inserted into the first interface 11 of the adapter board 10, and its initial electrical parameters are set through the adapter board 10, and the detection circuit of the adapter board 10 verifies the electrical parameters of the male component 20, and monitors its parasitic impedance and output current stability in real time; after the detection and verification, the male component 20 is electrically connected to the corresponding female component 30, and the electrical parameters of the male component 20 are adjusted according to the electrical parameters of the female component 30 through the parameter matching module, and the male component 20 is connected to the female component 30 according to the electrical parameters of the female component 30. After the male and female connectors are connected, the load monitoring module of the adapter board 10 will monitor the load feedback data of the male component 20 in real time, and dynamically adjust the power supply strategy of the female component 30 according to the feedback data through the distribution circuit to ensure the adaptability and stability of the system when the load demand changes; this solution improves the system stability through electrical parameter verification and real-time monitoring of electrical parameter adjustments, and realizes rapid access and adaptive adjustment of the male component 20 and its load through the parameter matching module and the load monitoring module, thereby realizing efficient management of the power supply system, improving the operating efficiency of the overall system, and enhancing the adaptability and safety of the system.

[0067] In this embodiment, it is specifically described that step S2 specifically includes:

[0068] S21, uniquely identifying each inserted male component 20 through the identification module in the adapter board 10, the identification module identifies the male component 20 by reading the unique code on the male component 20, and obtains the model information of the male component 20;

[0069] In this step, the adapter board 10 uniquely identifies each inserted male component 20 through the built-in identification module. By reading the unique code on the male component 20, the system can automatically obtain the model information of the male component 20. Through unique code identification, the entire system can manage different components more intelligently, improving the efficiency and accuracy of the assembly process.

[0070] S22, according to the model information of the identified male component 20, the parameter setting module in the adapter board 10 selects the initial electrical parameter values ​​suitable for the corresponding model according to the preset information database; the initial electrical parameter values ​​include voltage, current and impedance. The information database is preset based on the standard specifications of the male component 20 and stored in the storage module in the adapter board 10.

[0071] In this embodiment, it is specifically described that step S3 specifically includes:

[0072] S31, quickly sampling the initial electrical parameters of each male component 20 through the detection circuit in the adapter board 10, the sampling content includes voltage, current and parasitic impedance; the sampling signal is immediately performed after the male component 20 is inserted into the first interface 11, and the sampling time is controlled within the preset response time;

[0073] The adapter board 10 quickly samples the initial electrical parameters of each male component 20 through the detection circuit, and the sampling content includes voltage, current and parasitic impedance. Through rapid sampling, the system can obtain the electrical performance data of the male component 20 in a shorter time. This real-time acquisition method ensures the efficiency and accuracy of the detection, provides a data basis for subsequent verification and adjustment, and ensures that the electrical parameters of each male component 20 are effectively evaluated before work.

[0074] S32, after the sampling is completed, the adapter board 10 compares the sampling results of each male component 20 with the initial setting parameters, and calculates the deviation ratio between the sampling results and the initial setting parameters; if the deviation is within the allowable range (for example, ±5%), it proceeds to the next step of verification, otherwise it triggers an alarm signal or readjusts the initial setting parameters.

[0075] S33, perform a short-time steady-state test on the male component 20. The short-time steady-state test includes continuously monitoring the fluctuation of the output current of the male component 20. The monitoring time is set to 2-5 seconds, and the current fluctuation range of the male component 20 is calculated in real time. The output current stability index is obtained based on the current fluctuation range; ensuring that the parameter fluctuation is less than the preset threshold (such as ±2%).

[0076] Through the short-term steady-state test, the system continuously monitors the output current fluctuation of the male component 20, the monitoring time is set to 2-5 seconds, and the current fluctuation range is calculated in real time. By analyzing the current fluctuation range, the stability index of the output current is obtained. This test process ensures that the current output of the male component 20 can remain stable under normal operating conditions, provides a guarantee for subsequent connections, and avoids power supply failures caused by excessive current fluctuations.

[0077] S34, during the short-time steady-state test, the adapter board 10 introduces a transient response verification module. The transient response verification module verifies that the parameter recovery time of the male component 20 is less than the first setting (for example, 50 milliseconds) by preset short-time increase or decrease of the current load. The transient response verification module simulates the system to test the response performance of the male component 20 under sudden load changes. The sudden load change is achieved by short-time increase or decrease of the current load. The preset short time does not exceed 100 milliseconds to ensure that the parameter recovery time of the male component 20 under sudden conditions is less than the set value.

[0078] During the short-term steady-state test, the adapter board 10 introduces a transient response verification module to verify the transient response capability of the male component 20 by increasing or decreasing the current load for a short period of time. This test simulates the working condition of the system under sudden load changes to ensure that the male component 20 can return to a stable state within the set time. This test improves the reliability of the system, especially in working environments with large load fluctuations, and can respond in time and provide stable power supply.

[0079] S35, the adapter board 10 records the verification result of the initial electrical parameters of each male component 20, and generates a signal indicating that the parameter verification has passed, allowing the male component 20 to enter the next step of the female component 30 connection process.

[0080] In this embodiment, it is specifically described that step S4 specifically includes:

[0081] S41, performing electrical parameter identification of the connected female connector assembly 30 through the female connector identification module of the adapter board 10, wherein the identification content includes the working voltage, rated current and characteristic impedance of the female connector assembly 30;

[0082] The adapter board 10 uses the female head identification module to identify the electrical parameters of the connected female head component 30, including the operating voltage, rated current and characteristic impedance. This step ensures that the adapter board 10 can accurately understand the electrical characteristics of the female head component 30, so as to provide accurate data support for subsequent parameter matching and adjustment. Through comprehensive identification of the parameters of the female head component 30, the system can adapt to female head components 30 of different types and specifications, improving the adaptability of the connector.

[0083] S42, the electrical parameters of the female component 30 are transmitted to the parameter matching module, the parameter matching module compares the electrical parameters of the female component 30 with the initial setting parameters of the male component 20, calculates the difference between the two, and starts the adjustment mechanism when the difference exceeds the preset matching threshold.

[0084] Specifically, the adjustment mechanism is:

[0085] S421, according to the comparison result, the working voltage and current of the male component 20 are adjusted in real time, and the adjustment is performed by the adjustment power module in the adapter board 10;

[0086] It should be noted that after the adjustment mechanism is activated, the system adjusts the working voltage and current of the male component 20 in real time according to the comparison results. The adjustment process is implemented by the adjustment power module in the adapter board 10 to ensure that the electrical parameters of the male component 20 quickly respond to the needs of the female component 30.

[0087] S422, during the adjustment process, the adapter board 10 monitors the load changes and instantaneous current fluctuations between the male component 20 and the female component 30 in real time through the feedback loop, and performs secondary adjustments when it is detected that the load changes exceed the predetermined range; this dynamic feedback and adjustment mechanism ensures the stability of the system when the load fluctuates, especially when the load changes are large, and can effectively prevent power supply instability or equipment failure.

[0088] S423, the parameter confirmation module in the adapter board 10 confirms the adjusted electrical parameters of the male plug assembly 20 and generates a parameter adjustment completion signal.

[0089] In this embodiment, it is specifically described that step S5 specifically includes:

[0090] S51, collecting load feedback data of each male component 20 in real time through the load monitoring module in the adapter board 10, the load feedback data including the real-time power consumption and load change trend of the female component 30;

[0091] The load monitoring module in the adapter board 10 collects the load feedback data of each male component 20 in real time, including the real-time power consumption and load change trend of the female component 30. This process ensures that the system can continuously monitor the actual load of each female component 30 and obtain accurate power consumption information. By collecting real-time data, the system can quickly respond to load changes, thereby providing basic data support for the adjustment of the power supply strategy.

[0092] S52, transmitting the load feedback data to the control module of the distribution circuit, the control module analyzes the load condition of the female head component 30, and determines whether the power supply strategy needs to be adjusted;

[0093] The load feedback data is transmitted to the control module of the distribution circuit, and the control module analyzes the load condition of the female head assembly 30. The module determines whether it is necessary to adjust the current power supply strategy by analyzing the real-time feedback data. This analysis process ensures that the system can intelligently respond to load changes, optimize the power supply plan, and improve the energy efficiency and stability of the overall system.

[0094] S53, if it is detected that the load change trend exceeds the preset power supply range, the distribution circuit adjusts the power supply parameters of the female head component 30 according to the load feedback data, and the adjustment includes adjusting the power supply voltage and the power supply current;

[0095] When the control module detects that the load change trend exceeds the preset power supply range, the system starts the distribution circuit and adjusts the power supply parameters of the female head component 30 according to the feedback data. The adjustment content includes the adjustment of the power supply voltage and current. This step ensures that the system can dynamically adapt to different load requirements, thereby avoiding insufficient power supply or overload caused by load mismatch, and improving the power supply reliability of the system.

[0096] S54, during the adjustment process, the distribution circuit further optimizes the power distribution strategy according to the instantaneous load change of the female head assembly 30 through the dynamic adjustment module;

[0097] During the adjustment process, the distribution circuit further optimizes the power distribution strategy according to the instantaneous load changes of the female head assembly 30 through the dynamic adjustment module. The dynamic adjustment module enables the system to respond quickly to instantaneous changes, ensuring that the power supply parameters always match the actual load requirements, thereby achieving balanced and efficient management of power supply and preventing system instability caused by sudden load changes.

[0098] S55, the distribution circuit records the adjusted power supply parameters and generates a dynamic adjustment completion signal through the adapter board 10, the dynamic adjustment completion signal indicating that the power supply strategy has been updated and meets the current load demand.

[0099] After the adjustment is completed, the distribution circuit will record the new power supply parameters and generate a dynamic adjustment completion signal. This signal indicates that the update of the power supply strategy has been completed, indicating that the current power supply scheme meets the load requirements of the female head component 30. This signal provides feedback information for the power supply system to ensure the effectiveness of the power supply adjustment and provides basic data for subsequent load changes.

[0100] In this embodiment, it is further explained that after step S5, the following steps are further included:

[0101] S6, during operation, when the load feedback data of any male component 20 is detected to be abnormal, the control module of the adapter board 10 adjusts the power supply parameters or disconnects the male component 20 from the corresponding female component 30.

[0102] It should be noted that the system monitors the load feedback data of each male component 20 in real time through the control module of the adapter board 10, and continuously pays attention to the dynamic changes of the load during operation. When an abnormality is detected in the load feedback data of any male component 20, the control module immediately takes corresponding measures. These measures include adjusting the power supply parameters to ensure that the electrical parameters return to the normal range, or disconnecting the male component 20 from the corresponding female component 30 when necessary. This protection mechanism ensures the safety of the system under abnormal conditions, effectively prevents equipment damage or system failures caused by load abnormalities, and improves the stability and reliability of the system.

[0103] Embodiment 2:

[0104] Combination Figure 3 As shown, the present invention also provides a detachable cable connector, which is connected by using the assembling method of the detachable cable connector of the first embodiment, and the detachable cable connector includes:

[0105] The adapter board 10 has a plurality of first interfaces 11 and second interfaces.

[0106] There are multiple male connector components 20 for connecting to a load and plugging into the first interface 11 of the adapter board 10 .

[0107] There are multiple female head components 30 , and each of the female head components 30 is correspondingly provided with a male head component 20 .

[0108] The adapter board 10 is provided with a control circuit board, and the control circuit board has an identification module, a detection circuit, a parameter matching module, a load monitoring module and a distribution circuit.

[0109] As described above, the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that the technical solutions described in the aforementioned embodiments may still be modified, or some of the technical features thereof may be replaced by equivalents. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A method for assembling a detachable cable connector, characterized in that: The detachable cable connector includes a plurality of sets of male head components and a plurality of sets of corresponding female head components; The assembly method comprises: Provide an adapter board, the adapter board having a plurality of first interfaces and second interfaces, wherein the second interface is connected to the female head assembly; Inserting a plurality of male components into the first interface of the adapter board in sequence, and setting the initial electrical parameters of each male component through the adapter board; The initial electrical parameters of each male component are verified by the detection circuit in the adapter board, and the detection circuit monitors the parasitic impedance and output current stability index of each male component in real time; The adapter board electrically connects the male component that has passed the electrical parameter verification to the corresponding female component, and adjusts the initial electrical parameters of the corresponding male component according to the electrical parameters of the female component through the parameter matching module provided in the adapter board; After the female component and the male component are connected, the load feedback data of each male component is monitored in real time through the load monitoring module of the adapter board, and the distribution circuit in the adapter board dynamically adjusts the power supply strategy of the female component according to the load feedback data; The initial electrical parameters of each male component are verified by the detection circuit in the adapter board, and the detection circuit monitors the parasitic impedance and output current stability index of each male component in real time, specifically including: The initial electrical parameters of each male connector component are quickly sampled by the detection circuit in the adapter board, and the sampling content includes voltage, current and parasitic impedance; After the sampling is completed, the adapter board compares the sampling results of each male component with the initial setting parameters, and calculates the deviation ratio between the sampling results and the initial setting parameters; A short-time steady-state test is performed on the male component, and the short-time steady-state test includes continuously monitoring the fluctuation of the output current of the male component, with the monitoring time set to 2-5 seconds, and calculating the current fluctuation range of the male component in real time, and obtaining the output current stability index based on the current fluctuation range.

2. The method for assembling a detachable cable connector according to claim 1, characterized in that: Inserting a plurality of male components into the first interface of the adapter board in sequence, and setting the initial electrical parameters of each male component through the adapter board, specifically including: Each inserted male component is uniquely identified by the identification module in the adapter board, and the identification module identifies the male component by reading the unique code on the male component to obtain the model information of the male component; According to the model information of the identified male component, the parameter setting module in the adapter board selects initial electrical parameter values ​​suitable for the corresponding model according to a preset information database; the initial electrical parameter values ​​include voltage, current and impedance.

3. The method for assembling a detachable cable connector according to claim 1, characterized in that: The current fluctuation range of the male component is calculated in real time, and the output current stability index is obtained based on the current fluctuation range, and then the following is further included: During the short-time steady-state test, the adapter board introduces a transient response verification module, which verifies that the parameter recovery time of the male head component is less than the first set value by increasing or decreasing the current load for a preset short time; The adapter board records the verification results of the initial electrical parameters of each male plug component and generates a signal indicating that the parameter verification has passed.

4. The method for assembling a detachable cable connector according to claim 1, characterized in that: The adapter board electrically connects the male component that has passed the electrical parameter verification to the corresponding female component, and adjusts the initial electrical parameters of the corresponding male component according to the electrical parameters of the female component through the parameter matching module provided in the adapter board, specifically including: The female connector identification module of the adapter board is used to identify the electrical parameters of the connected female connector component, wherein the identification content includes the working voltage, rated current and characteristic impedance of the female connector component; The electrical parameters of the female component are transmitted to the parameter matching module, and the parameter matching module compares the electrical parameters of the female component with the initial setting parameters of the male component, calculates the difference between the two, and starts the adjustment mechanism when the difference exceeds the preset matching threshold.

5. The method for assembling a detachable cable connector according to claim 4, characterized in that: The adjustment mechanism is: According to the comparison results, the working voltage and current of the male component are adjusted in real time, and the adjustment is performed through the regulating power module in the adapter board; During the adjustment process, the adapter board monitors the load change and instantaneous current fluctuation between the male component and the female component in real time through a feedback loop, and performs secondary adjustment when it is detected that the load change exceeds a predetermined range; The parameter confirmation module in the adapter board confirms the adjusted electrical parameters of the male plug component and generates a completion signal of the parameter adjustment.

6. The method for assembling a detachable cable connector according to claim 1, characterized in that: The distribution circuit in the adapter board dynamically adjusts the power supply strategy of the female head component according to the load feedback data, specifically including: The load monitoring module in the adapter board collects the load feedback data of each male component in real time, wherein the load feedback data includes the real-time power consumption and load change trend of the female component; The load feedback data is transmitted to the control module of the distribution circuit, and the control module analyzes the load condition of the female head component and determines whether the power supply strategy needs to be adjusted; If it is detected that the load change trend exceeds the preset power supply range, the distribution circuit adjusts the power supply parameters of the female head component according to the load feedback data, and the adjustment includes adjusting the power supply voltage and the power supply current; During the adjustment process, the distribution circuit further optimizes the power distribution strategy according to the instantaneous load changes of the female head assembly through the dynamic adjustment module; The distribution circuit records the adjusted power supply parameters and generates a dynamic adjustment completion signal through the adapter board, wherein the dynamic adjustment completion signal indicates that the power supply strategy has been updated and meets the current load demand.

7. The method for assembling a detachable cable connector according to claim 1, characterized in that: The distribution circuit in the adapter board dynamically adjusts the power supply strategy of the female head component according to the load feedback data, and then further includes: During operation, when the load feedback data of any of the male components is detected to be abnormal, the control module of the adapter board adjusts the power supply parameters or disconnects the male component from the corresponding female component.

8. A detachable cable connector, characterized in that: The connection is achieved by using the assembly method of the detachable cable connector according to any one of claims 1 to 7, wherein the detachable cable connector comprises: An adapter board having a plurality of first interfaces and second interfaces; A plurality of male connector components are provided, used to connect to a load and plug into the first interface of the adapter board; A plurality of female head components are provided, and each of the female head components is correspondingly provided with a male head component; Wherein, a control circuit board is arranged on the adapter board, and the control circuit board has an identification module, a detection circuit, a parameter matching module, a load monitoring module and a distribution circuit.

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