Practical tool for simplifying ADB debugging process

Abstract

The invention relates to the technical field of ADB debugging, in particular to a practical tool for simplifying an ADB debugging process, which comprises the following steps of: acquiring a basic operation attribute and a connection state of terminal equipment through an equipment access module, debugging an interface by utilizing an equipment ADB and determining an SOC (System On Chip) platform type and a system environment; based on a debugging strategy matching module, a debugging strategy template is matched from a debugging capability matrix, a debugging process execution module is used for splitting and sequentially executing debugging steps according to strategies, and an exception processing module is combined for carrying out exception judgment on an execution state and selecting a processing path; and finally, outputting a command result, log data, a debugging strategy and execution state information of a debugging process through a log output module. According to the method and the device, the basic operation attributes of the terminal equipment are uniformly acquired, and the step sequence is automatically determined and the debugging process is executed based on the Windows or Linux platform debugging strategy of C + + language programming, so that the consistency and the stability of ADB debugging are improved.

Description

Technical Field

[0001] This invention relates to the field of ADB debugging technology, and in particular to a practical tool that simplifies the ADB debugging process. Background Technology

[0002] With the widespread use of smart terminal devices, Android-based terminals typically require debugging via the Android Debug Bridge during the research, development, testing, and maintenance phases. ADB, as a commonly used debugging interface tool, supports functions such as device connection, system information acquisition, command execution, and log collection, and is widely used in debugging scenarios involving multiple chip platforms, multiple system versions, and multiple terminal forms.

[0003] Traditional ADB debugging mostly relies on manual identification of device type and manual selection of debugging path. Due to its dependence on personal experience and lack of unified process control, it results in inconsistent debugging processes and is prone to errors. Summary of the Invention

[0004] To overcome the above shortcomings, this invention provides a practical tool to simplify the ADB debugging process, aiming to improve the problems of inconsistent debugging processes and easy errors in traditional ADB debugging.

[0005] This invention provides the following technical solution: a practical tool for simplifying the ADB debugging process includes: The device access module is used to obtain the basic operating attributes and device connection status information of the terminal device when the terminal device accesses the debugging interface; The device identification module is used to construct device information based on the basic operating attributes, and to perform matching processing on the device information according to preset identification rules to determine the chip platform type and system environment type corresponding to the terminal device. The debugging strategy matching module is used to determine the set of debugging capabilities corresponding to the terminal device from a pre-established debugging capability matrix based on the chip platform type and system environment type, and to match the corresponding debugging strategy template based on the set of debugging capabilities. The debugging process execution module is used to break down a predefined debugging operation into multiple debugging steps, determine the execution order of the debugging steps according to the debugging strategy template, and execute the corresponding debugging steps in sequence according to the execution order. An exception handling module is used to determine the execution status of the debugging steps, execute corresponding preset processing operations based on the determination results, and select the processing path corresponding to the exception type according to the determination results. The log output module is used to output the device information, the debugging strategy, and the execution status information of the debugging operation process.

[0006] By adopting the above technical solution, the basic operating attributes of the terminal device are uniformly acquired and the debugging strategy is matched based on the device identification results. Then, the execution order of the debugging steps is automatically determined and the debugging operation process is completed during the debugging process. This improves the traditional ADB debugging method, which mostly relies on manual judgment of device type and manual selection of debugging path. Due to the dependence on personal experience and lack of unified control of the process, the debugging process is inconsistent and prone to errors.

[0007] Furthermore, in the device access module, the step of obtaining the basic operating attributes and device connection status information of the terminal device includes: When the terminal device establishes a connection through the debugging interface, it sends a query command to obtain basic operating attributes; Receive basic operational attribute data returned by the terminal device; When at least one basic runtime attribute fails to return or returns an exception, an attribute status flag is generated for the corresponding basic runtime attribute. Receive the device connection status information returned by the terminal device, and output the attribute status flag together with the acquired basic operating attributes; The query command is sent through a standard interface and does not depend on a private interface; When the terminal device is not fully authorized, it only sends a query command to obtain the minimum set of information to complete the basic information detection.

[0008] Furthermore, in the device identification module, the step of constructing device information based on the basic operational attributes includes: Extract fields from the aforementioned basic operational attributes; Append corresponding field status identifiers to fields that have not been retrieved or have been marked; The extracted fields and their status identifiers are combined according to the preset field combination rules; Generate device information that includes a status identifier field.

[0009] Furthermore, in the device identification module, the step of matching the device information according to preset identification rules includes: First, the device information is judged based on the preset explicit recognition rules; If the rule match determination fails, a matching determination is performed based on multiple field features in the device information; Based on the judgment result, the chip platform type and system environment type are determined, and corresponding SOC identification information is generated.

[0010] Furthermore, in the debugging strategy matching module, the step of determining the set of debugging capabilities corresponding to the terminal device from the pre-established debugging capability matrix includes: Based on the chip platform type, system environment type, and the identified SOC information, locate the corresponding matrix unit in the debugging capability matrix; Read the debugging capability information associated with the matrix unit; A set of debugging capabilities corresponding to the terminal device is formed.

[0011] Furthermore, in the debugging strategy matching module, the step of matching the corresponding debugging strategy template based on the debugging capability set includes: Read a pre-established debugging strategy template, which contains version identification information to distinguish different debugging strategy templates; Match the set of debugging capabilities with the debugging strategy template; Based on the matching results and the version identification information, the corresponding debugging strategy template is determined.

[0012] Furthermore, in the debugging process execution module, the step of breaking down the predefined debugging operation into multiple debugging steps includes: Read predefined debug operations; The debugging operation is split according to a preset splitting rule; During the splitting process, corresponding step identification information is generated for each debugging step; Multiple debugging steps containing step identification information are obtained.

[0013] Furthermore, in the debugging process execution module, the step of sequentially executing the corresponding debugging steps according to the execution order includes: The execution order of the debugging steps is determined based on the debugging strategy template and the identified SOC information; During execution, the execution status information of each debugging step is obtained, and a step status identifier is generated for the corresponding debugging step; The continued execution of the debugging process is controlled based on the step status identifier. Debugging steps that have generated an abnormal status identifier will not be executed again, and the execution method of subsequent debugging steps will be determined based on the step status identifier.

[0014] Furthermore, in the exception handling module, the step of selecting the processing path corresponding to the exception type based on the determination result includes: Obtain the execution status information of debugging commands during the debugging process; Based on the execution status information, the abnormal status is determined to generate a corresponding abnormal type identifier. The corresponding processing path is determined based on the exception type identifier, and the exception type identifier is used as the control basis for subsequent debugging processes to trigger at least one processing operation corresponding to the exception type.

[0015] Furthermore, in the log output module, the step of outputting the device information, the debugging strategy, and the execution status information of the debugging operation process includes: Record the device information and its field status identifiers; Record the debugging strategy template, its version identifier, and the strategy number; Record the execution status information of each debugging step in the debugging operation process, the corresponding abnormal status identification information, and the explanation of success or failure. The above recorded information can be exported as a debug report with one click.

[0016] The present invention has the following beneficial effects: 1. In this invention, by uniformly acquiring the basic operating attributes of the terminal device and matching the debugging strategy based on the device identification result, the execution order of the debugging steps is automatically determined and the debugging operation process is completed during the debugging process. This improves the traditional ADB debugging method, which mostly relies on manual judgment of device type and manual selection of debugging path. Due to the dependence on personal experience and lack of unified control of the process, the debugging process is inconsistent and prone to errors.

[0017] 2. In this invention, by performing anomaly determination on the execution status of each debugging step during the debugging process and selecting the corresponding processing path based on the anomaly type, the continued execution of the debugging process is controlled. This improves the traditional ADB debugging method, which mostly relies on manual retrying or interruption when execution fails. Due to the lack of classification and identification of abnormal states and process-level control, the debugging process is not reproducible and the cause of failure is difficult to locate.

[0018] 3. In this invention, by uniformly recording and outputting debugging reports on the execution status information of equipment information, debugging strategies, and debugging operation procedures, a complete debugging process record is formed. This improves the traditional ADB debugging method, which mostly retains only scattered command output information. Due to the lack of structured records and unified output, the debugging process is difficult to trace and the cost of reproducing problems is high. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the architecture of a practical tool for simplifying the ADB debugging process proposed in this invention; Figure 2This is a flowchart illustrating the usage of a practical tool that simplifies the ADB debugging process, as proposed in this embodiment. Detailed Implementation

[0020] The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0021] Example 1: In the first embodiment of the present invention, the present invention provides a practical tool to simplify the ADB debugging process, including: The device access module is used to obtain the basic operating attributes and device connection status information of the terminal device when the terminal device accesses the debugging interface, and to obtain the device identification information corresponding to each terminal device when multiple terminal devices are detected to be accessing the interface. Furthermore, the steps in the device access module to obtain the basic operating attributes and device connection status information of the terminal device include: When the terminal device establishes a connection through the debugging interface, it sends a query command to obtain basic operating attributes; Receive basic operational attribute data returned by the terminal device; When at least one basic runtime attribute fails to return or returns an exception, an attribute status flag is generated for the corresponding basic runtime attribute. Receive device connection status information returned by the terminal device, and output the attribute status flags along with the acquired basic operating attributes; Query commands are sent through the standard interface and do not depend on private interfaces; When the terminal device is not fully authorized, it only sends a query command to obtain the minimum set of information to complete the basic information detection.

[0022] Specifically, when the terminal device establishes a connection with the utility tool through the debugging interface, the device access module first triggers the basic information collection process. It sends a query command to the terminal device via the standard debugging interface to retrieve basic operational attributes. These basic operational attributes include at least system read-only attribute information reflecting the terminal device's operating environment and hardware characteristics, as well as the current device connection status information. The query command is generated by the standard debugging interface command and does not rely on vendor-specific interfaces or customized commands. The device access module receives the basic operational attribute data returned by the terminal device and performs integrity verification on the returned results. When it detects that at least one basic operational attribute is not returned or the returned result does not conform to the expected format, it generates an attribute status flag for the corresponding basic operational attribute to indicate that the attribute is missing or in an abnormal state, while continuing to retain the successfully acquired basic operational attribute data. During the attribute acquisition process, the device access module synchronously receives device connection status information returned by the terminal device. This information indicates whether the current debugging interface connection is valid. The module then associates the device connection status information with the basic operational attributes and their corresponding attribute status flags, forming a basic information set for subsequent processing. When the terminal device is in an incompletely authorized state, the device access module, based on a preset minimum information set strategy, only sends a query command to obtain the minimum information set. This allows for basic information detection without relying on full debugging permissions. The minimum information set supports the subsequent device construction and debugging strategy matching process. This basic information set is then passed to the device identification module as input for constructing device information and identifying platform and system environment types, thus providing a data foundation for strategy selection and execution in the subsequent debugging process.

[0023] The device identification module is used to construct device information based on basic operating attributes and to match the device information according to preset identification rules to determine the chip platform type and system environment type corresponding to the terminal device. Furthermore, in the device identification module, the steps for constructing device information based on basic operational attributes include: Extract fields from basic runtime attributes; Append corresponding field status identifiers to fields that have not been retrieved or have been marked; The extracted fields and their status identifiers are combined according to the preset field combination rules; Generate device information that includes a status identifier field.

[0024] Specifically, the device identification module uses the basic operational attributes output from the previous processing stage as the input data set, and performs structured processing on the basic operational attributes to construct device information. This is achieved through three consecutive steps: field extraction, status identifier appending, and field combination. The device identification module first extracts a preset set of attribute fields from the basic operational attributes. These attribute fields characterize the hardware platform features and system operating environment features of the terminal device. In C++, this is achieved through a loop: `while (true) {checkAdb:if (!checkAdbConnect()) goto...` The `checkAdb;` conditional statement controls the loop flow, where `while` is the core control structure for repeatedly executing the code block. `while` is the primary type, and `checkAdb` serves as the condition status identifier. `goto` is the execution logic; by selecting, it executes the corresponding command to generate the required device information or log. The device information, while maintaining field integrity, displays any missing or abnormal fields to prevent overall recognition failure due to a single missing attribute. The generated device information is then passed as input to the recognition rule matching process, which determines the chip platform type and system environment type corresponding to the terminal device based on preset explicit rules or multi-field feature matching rules. This provides a structured and determinable data foundation for the subsequent determination of the debugging capability set and the matching of debugging strategy templates.

[0025] Furthermore, in the device identification module, the step of matching device information according to preset identification rules includes: First, the device information is judged based on the preset explicit recognition rules; When the rule match judgment fails, a matching judgment is performed based on multiple field features in the device information; Based on the judgment results, the chip platform type and system environment type are determined, and the corresponding SOC identification information is generated.

[0026] Specifically, after constructing the device information, the device identification module uses the device information as input to perform hierarchical matching processing to determine the chip platform type and system environment type corresponding to the terminal device. This is achieved through two consecutive stages: explicit rule judgment and multi-field feature matching. The device information can be represented as a set of multiple fields and their status information. ; among which each field Derived from basic operational attributes, various status identifiers The status markers originate from the attribute acquisition phase; in the first phase, the device identification module uses a pre-established set of explicit identification rules. The system performs rule-based hit checks on device information. If a rule exists... satisfy When a rule is matched, the chip platform type and system environment type associated with the rule are directly output; when no rule match occurs, the second stage of multi-field feature matching processing is initiated, which constructs a feature set based on multiple valid fields in the device information. The feature set is determined by field values ​​and their status information, and is matched with a preset feature pattern set to obtain candidate platform types and environment types. Based on this, the device identification module generates identification SOC information according to the number of fields involved in the matching, field status identifiers, and matching consistency. The identification SOC information is used to characterize the reliability of the current identification result. Finally, the chip platform type, system environment type, and corresponding identification SOC information are passed to the debugging strategy matching stage as input for determining the debugging capability set and selecting the debugging strategy template, so that the subsequent debugging process can be carried out under the identified device environment conditions.

[0027] The debugging strategy matching module is used to determine the set of debugging capabilities corresponding to the terminal device from a pre-established debugging capability matrix based on the chip platform type and system environment type, and to match the corresponding debugging strategy template based on the set of debugging capabilities. Furthermore, in the debugging strategy matching module, the step of determining the set of debugging capabilities corresponding to the terminal device from the pre-established debugging capability matrix includes: Based on the chip platform type, system environment type, and SOC identification information, locate the corresponding matrix unit in the debugging capability matrix; Read the debugging capability information associated with the matrix unit; To form a set of debugging capabilities corresponding to the terminal equipment.

[0028] Specifically, after obtaining the chip platform type, system environment type, and corresponding SOC identification information, the debugging strategy matching module determines the set of debugging capabilities supported by the terminal device through capability mapping, based on a pre-established debugging capability matrix; whereby the debugging capability matrix can be abstractly represented as a mapping relationship. , Indicates the chip platform type. Indicates the system environment type. This represents the set of debugging capabilities associated with the combination of the two; the chip platform type and system environment type originate from the matching results during the device identification phase, identifying SOC information and using it as a positioning reference parameter input to the debugging strategy matching module, through... The index operation locates the current and The corresponding matrix unit is pre-associated with at least one piece of debugging capability information. Each piece of debugging capability information is used to characterize the types of debugging operations that the terminal device is allowed to perform under the current platform and system environment. After reading the debugging capability information associated with the matrix unit, the debugging strategy matching module aggregates the debugging capability information to form a set of debugging capabilities corresponding to the terminal device. Among them, each debugging capability All data originates from the pre-configured data of the debugging capability matrix. The output of the debugging capability set serves as the input condition for subsequent debugging strategy template matching. It is used to filter the debugging strategy template that matches the current capability set in the debugging strategy template library, thereby providing clear capability boundaries and strategy basis for the subsequent debugging process execution stage, so that the generation and execution of debugging steps are controlled within the determined equipment capability range.

[0029] Furthermore, in the debugging strategy matching module, the step of matching the corresponding debugging strategy template based on the debugging capability set includes: Read the pre-built debugging strategy template, which contains version identification information to distinguish different debugging strategy templates; Match the set of debugging capabilities with the debugging strategy template; Based on the matching results and combined with version identification information, the corresponding debugging strategy template is determined.

[0030] Specifically, after obtaining the set of debugging capabilities corresponding to the terminal device, the debugging strategy matching module determines the debugging strategy template applicable to the current terminal device through a strategy matching mechanism. Based on capability constraints and template version management, the system pre-establishes a set of debugging strategy templates. Each debugging strategy template Each is associated with corresponding capability constraints and version identification information. The version identification information is used to characterize the update sequence of the debugging strategy template or the evolution status of the strategy. The debugging strategy matching module first reads the debugging strategy template set and then matches it with the debugging capability set output in the previous stage. As the matching input parameters, each debugging capability element originates from the positioning result of the debugging capability matrix. Subsequently, the debugging strategy matching module performs a matching judgment based on the capability constraints of the debugging capability set and each debugging strategy template. The matching judgment is used to determine whether the debugging capability set meets the execution prerequisite of the corresponding debugging strategy template. When multiple debugging strategy templates meet the matching conditions, the debugging strategy matching module further distinguishes and filters the candidate debugging strategy templates based on the version identification information to determine the final debugging strategy template to be adopted. The determined debugging strategy template is output as the matching result and is used to provide an executable debugging strategy basis for the subsequent debugging process execution stage, so that the organization order and execution method of the debugging steps are controlled by the matched strategy template, making the debugging process consistent with the capability status of the terminal device.

[0031] The debugging process execution module is used to break down predefined debugging operations into multiple debugging steps, determine the execution order of the debugging steps according to the debugging strategy template, and execute the corresponding debugging steps in sequence according to the execution order. Furthermore, in the debugging process execution module, the predefined debugging operation is broken down into multiple debugging steps, including: Read predefined debug operations; The debugging operations are split according to the preset splitting rules; During the splitting process, corresponding step identification information is generated for each debugging step; Multiple debugging steps containing step identification information are obtained.

[0032] Specifically, the debugging process execution module achieves controllable execution of the debugging process by structurally breaking down predefined debugging operations. Based on a rule-driven step generation mechanism, the system pre-stores a complete set of debugging operations. The debugging operation consists of multiple executable debugging actions, which are derived from the debugging process descriptions built into the tool or pre-configured; the debugging process execution module first reads the set of debugging operations. As input data, and according to preset splitting rules The debugging operations are parsed and processed, and the splitting rules are used to limit the boundary conditions and splitting granularity of each debugging action in the debugging operation; during the splitting process, the debugging process execution module maps the debugging operation to a set of debugging steps. And generate unique step identifier information for each debugging step. The step identification information is used to distinguish different debugging steps and establish step-level reference relationships. The resulting set of debugging steps and their corresponding step identification information are output as the splitting result. The output result is used in subsequent processes to combine with the determined debugging strategy template to arrange and control the execution of each debugging step in sequence, thereby providing basic data structure support for the orderly execution of the debugging process.

[0033] Furthermore, in the debugging process execution module, the corresponding debugging steps are executed sequentially according to the execution order, including: The execution order of debugging steps is determined based on the debugging strategy template and the identified SOC information; During execution, the execution status information of each debugging step is obtained, and a step status identifier is generated for the corresponding debugging step; The continued execution of the debugging process is controlled based on the step status identifier. Debugging steps that have generated an abnormal status identifier will not be executed again, and the execution method of subsequent debugging steps will be determined based on the step status identifier.

[0034] Specifically, the debugging process execution module, after generating the debugging steps, uses a process control method that combines policy constraints and state awareness to achieve the sequential execution and dynamic adjustment of the debugging steps. Its input data includes the debugging strategy template determined by the preceding module. Identify SOC information and the generated set of debugging steps The debugging strategy template is derived from the matching results between the debugging capability set and the strategy template, while the SOC identification information is derived from the matching judgment results during the device identification stage. The debugging process execution module first uses the debugging strategy template as the basis for its execution. Combined with SOC information identification For the set of debugging steps Perform sequential mapping to generate the execution sequence of debugging steps. This execution sequence is used to define the order of debugging steps; during the execution of debugging steps according to the execution sequence, the debugging process execution module obtains the execution status information corresponding to each debugging step. The execution status information is formed by the return results of the debugging commands, and a step status identifier is generated for the corresponding debugging step based on this. This is used to characterize the current execution status of a debugging step; subsequently, the debugging process execution module uses the step status identifier... The system controls the continued execution of the debugging process. When an abnormal status flag is generated for a certain debugging step, the debugging step is marked as a non-repeatable execution state. The execution method of subsequent debugging steps is determined based on the status flag of the step, including continuing execution, adjusting the execution order, or terminating the current execution path. Thus, the step status flag serves as the data basis for controlling the subsequent debugging process and supports the orderly advancement of the debugging process under different execution states.

[0035] The exception handling module is used to determine the exception status of the debugging steps, execute the corresponding preset processing operation based on the determination result, and select the processing path corresponding to the exception type according to the determination result. Furthermore, in the exception handling module, the step of selecting the processing path corresponding to the exception type based on the judgment result includes: Obtain the execution status information of debugging commands during the debugging process; Based on the execution status information, the abnormal status is determined to generate a corresponding abnormal type identifier; The corresponding processing path is determined based on the exception type identifier, and the exception type identifier is used as the control basis for subsequent debugging processes to trigger at least one processing operation corresponding to the exception type.

[0036] Specifically, the exception handling module continuously acquires the execution status information of the debugging commands during the debugging process. This execution status information comes from the results returned by the debugging interface, device feedback information, or command return codes, and is used to characterize the actual execution status of the debugging commands on the target device. An exception determination input is constructed based on this execution status information; the execution status information can be represented as a state vector. each state component These correspond to command return codes, execution durations, connection status, and resource usage changes, respectively. The status vectors are automatically collected and transmitted by the debugging process execution module at command completion or timeout nodes. The exception handling module determines the execution type of the status vectors based on predefined exception judgment rules; the judgment process can be represented as a mapping function. The exception type identifier is used to distinguish different exception categories such as command failure, execution timeout, device unresponsiveness, or environment mismatch. The generation result of the exception type identifier is output as structured control information and written into the debugging process context. After obtaining the exception type identifier, the exception handling module selects the corresponding processing path from the preset processing path set according to the exception type identifier. The processing path is used to indicate the subsequent control method of the debugging process, including triggering retry processing, performing rollback operation, switching debugging strategy, or terminating the current debugging process. The exception type identifier is passed to the debugging process execution module as the basis for debugging process control, so that it can decide whether to skip the debugging steps that have an exception, adjust the execution order of subsequent debugging steps, or call the processing operation that matches the exception type in subsequent steps, thereby realizing adaptive control of the debugging process and ensuring the continuity and controllability of the debugging process under abnormal conditions.

[0037] The log output module is used to output device information, debugging strategies, and execution status information of debugging operation procedures; Furthermore, the steps in the log output module that output device information, debugging strategies, and execution status information of the debugging operation process include: Record device information and its field status indicators; Record the debugging strategy template, its version identifier, and the strategy number; Record the execution status information of each debugging step in the debugging operation process, the corresponding abnormal status identification information, and the explanation of success or failure. The above recorded information can be exported as a debug report with one click.

[0038] Specifically, the log output module uniformly collects and records structured information from the device identification process, policy matching process, and debugging process execution process during the debugging process execution; among which, device information is output by the device identification process and represented as a set of fields. Each field Each field corresponds to a hardware model, system version, chip architecture, or communication capability information, and a field status identifier is generated for each field. Field status identifiers are used to indicate whether a field is valid, whether it participates in policy matching, or whether there are any missing fields; debugging policy-related information is provided by the debugging policy determination process, and the recorded debugging policy information includes policy template identifiers. Strategy version identifier The system also includes strategy number information, which characterizes the source and evolution of the strategy upon which the current debugging process is based. During the execution of the debugging operation process, the log output module continuously receives the execution status information of each debugging step and forms a step status sequence. The status of each step; Used to describe the execution result of the corresponding debugging step, and to associate an exception status identifier when an exception exists. The system also includes information explaining the reasons for success or failure, derived from the status judgment results output by the debugging process execution module and the exception handling module. The log output module generates a unified set of debugging log data based on the aforementioned device information, debugging strategy information, and debugging step execution status information. Upon receiving an export command, the system generates a debug report from the debug log data set in a predetermined format as the output. This report supports backtracking analysis, problem reproduction, and debug strategy optimization during the debugging process. The debug report, as the result output after the debugging process is completed, can be further used as a reference for subsequent debugging tasks or as a basis for the interpretability of the debugging process.

[0039] Example 2: A method for using a practical tool to simplify the ADB debugging process, including the following steps: When a terminal device accesses the debugging interface, the basic operating attributes of the terminal device and the device connection status information are obtained. Device information is constructed based on basic operating attributes, and the device information is matched according to preset identification rules to determine the chip platform type and system environment type corresponding to the terminal device. Based on the chip platform type and system environment type, the set of debugging capabilities corresponding to the terminal device is determined from the pre-established debugging capability matrix, and the corresponding debugging strategy template is matched based on the set of debugging capabilities. The predefined debugging operation is broken down into multiple debugging steps, and the execution order of the debugging steps is determined according to the debugging strategy template. The corresponding debugging steps are executed in sequence according to the execution order. The execution status of the debugging steps is judged for anomalies, and the corresponding preset processing operations are executed based on the judgment results. The processing path corresponding to the anomaly type is selected according to the judgment results. Output device information, debugging strategies, and execution status information of debugging operation procedures.

[0040] In mobile terminal R&D and after-sales maintenance scenarios involving multiple chip platforms and system versions, debugging personnel commonly encounter problems when performing ADB debugging on terminal devices from different sources and with different configurations. These problems include the need for repeated manual verification of the chip platform and system environment after device access, manual matching of debugging command combinations, inconsistent debugging procedures, and reliance on experience for anomaly localization. This results in low debugging efficiency and a lack of traceability in debugging results. To address these issues, this invention provides a method for using a practical tool that simplifies the ADB debugging process. The process is as follows: Figure 2 As shown, the specific implementation process of this method in the above scenario is as follows:

[0041] When a terminal device is connected to the debugging interface, the basic operating attributes and device connection status information of the terminal device are first obtained. By automatically collecting the current operating status of the device, the debugging process can complete the basic environmental perception during the device connection stage, reducing the number of manual verification steps. Subsequently, device information is constructed based on the basic operating attributes, and the device information is matched according to the preset identification rules to determine the chip platform type and system environment type corresponding to the terminal device, so that the debugging object can be accurately classified and provide a reliable basis for subsequent debugging strategy selection. After completing the device type identification, based on the chip platform type and system environment type, the debugging capability set corresponding to the terminal device is determined from the pre-established debugging capability matrix, and the corresponding debugging strategy template is matched based on the debugging capability set, so that the debugging strategy can be adapted to the actual capabilities of the device and avoid executing unsupported debugging operations. Based on this, the predefined debugging operations are broken down into multiple debugging steps, and the execution order of the debugging steps is determined according to the debugging strategy template. The corresponding debugging steps are executed in sequence according to the execution order, thereby forming a standardized and reusable debugging process and reducing the reliance on personal experience in the debugging process. During the debugging process, the execution status of each debugging step is judged for anomalies, and the corresponding preset processing operation is executed based on the judgment result. At the same time, the appropriate processing path is selected according to the anomaly type, so that the debugging process can automatically perform branch control or rollback processing when an anomaly occurs, thereby improving the stability and success rate of the debugging process. Finally, the system outputs equipment information, debugging strategies, and execution status information of debugging operation procedures, enabling debugging personnel to intuitively understand equipment characteristics, debugging basis, and execution results of each step, providing support for post-debugging analysis and subsequent debugging optimization.

[0042] By applying this method to the aforementioned terminal debugging scenarios, unified debugging management of devices across multiple platforms and environments is achieved, demonstrating the technical effectiveness of this invention in simplifying the ADB debugging process, improving debugging efficiency, and enhancing the interpretability of the debugging process.

[0043] Finally, it should be noted that the above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A practical tool for simplifying the ADB debugging process, characterized in that, include: The device access module is used to obtain the basic operating attributes and device connection status information of the terminal device when the terminal device accesses the debugging interface; The device identification module is used to construct device information based on the basic operating attributes, and to perform matching processing on the device information according to preset identification rules to determine the chip platform type and system environment type corresponding to the terminal device. The debugging strategy matching module is used to determine the set of debugging capabilities corresponding to the terminal device from a pre-established debugging capability matrix based on the chip platform type and system environment type, and to match the corresponding debugging strategy template based on the set of debugging capabilities. The debugging process execution module is used to break down a predefined debugging operation into multiple debugging steps, determine the execution order of the debugging steps according to the debugging strategy template, and execute the corresponding debugging steps in sequence according to the execution order. An exception handling module is used to determine the execution status of the debugging steps, execute corresponding preset processing operations based on the determination results, and select the processing path corresponding to the exception type according to the determination results. The log output module is used to output the device information, the debugging strategy, and the execution status information of the debugging operation process.

2. The practical tool for simplifying the ADB debugging process according to claim 1, characterized in that, In the device access module, the step of obtaining the basic operating attributes and device connection status information of the terminal device includes: When the terminal device establishes a connection through the debugging interface, it sends a query command to obtain basic operating attributes; Receive basic operational attribute data returned by the terminal device; When at least one basic runtime attribute fails to return or returns an exception, an attribute status flag is generated for the corresponding basic runtime attribute. Receive the device connection status information returned by the terminal device, and output the attribute status flag together with the acquired basic operating attributes; The query command is sent through a standard interface and does not depend on a private interface; When the terminal device is not fully authorized, it only sends a query command to obtain the minimum set of information to complete the basic information detection.

3. The practical tool for simplifying the ADB debugging process according to claim 1, characterized in that, In the device identification module, the step of constructing device information based on the basic operating attributes includes: Extract fields from the aforementioned basic operational attributes; Append corresponding field status identifiers to fields that have not been retrieved or have been marked; The extracted fields and their status identifiers are combined according to the preset field combination rules; Generate device information that includes a status identifier field.

4. A practical tool for simplifying the ADB debugging process according to claim 1, characterized in that, In the device identification module, the step of matching the device information according to preset identification rules includes: First, the device information is judged based on the preset explicit recognition rules; If the rule match determination fails, a matching determination is performed based on multiple field features in the device information; Based on the judgment result, the chip platform type and system environment type are determined, and corresponding SOC identification information is generated.

5. A practical tool for simplifying the ADB debugging process according to claim 1, characterized in that, In the debugging strategy matching module, the step of determining the set of debugging capabilities corresponding to the terminal device from the pre-established debugging capability matrix includes: Based on the chip platform type, system environment type, and the identified SOC information, locate the corresponding matrix unit in the debugging capability matrix; Read the debugging capability information associated with the matrix unit; A set of debugging capabilities corresponding to the terminal device is formed.

6. A practical tool for simplifying the ADB debugging process according to claim 1, characterized in that, In the debugging strategy matching module, the step of matching the corresponding debugging strategy template based on the debugging capability set includes: Read a pre-established debugging strategy template, which contains version identification information to distinguish different debugging strategy templates; Match the set of debugging capabilities with the debugging strategy template; Based on the matching results and the version identification information, the corresponding debugging strategy template is determined.

7. A practical tool for simplifying the ADB debugging process according to claim 1, characterized in that, In the debugging process execution module, the step of breaking down a predefined debugging operation into multiple debugging steps includes: Read predefined debug operations; The debugging operation is split according to a preset splitting rule; During the splitting process, corresponding step identification information is generated for each debugging step; Multiple debugging steps containing step identification information are obtained.

8. A practical tool for simplifying the ADB debugging process according to claim 1, characterized in that, In the debugging process execution module, the step of executing the corresponding debugging steps sequentially according to the execution order includes: The execution order of the debugging steps is determined based on the debugging strategy template and the identified SOC information; During execution, the execution status information of each debugging step is obtained, and a step status identifier is generated for the corresponding debugging step; The continued execution of the debugging process is controlled based on the step status identifier. Debugging steps that have generated an abnormal status identifier will not be executed again, and the execution method of subsequent debugging steps will be determined based on the step status identifier.

9. A practical tool for simplifying the ADB debugging process according to claim 1, characterized in that, In the exception handling module, the step of selecting the processing path corresponding to the exception type based on the determination result includes: Obtain the execution status information of debugging commands during the debugging process; Based on the execution status information, the abnormal status is determined to generate a corresponding abnormal type identifier. The corresponding processing path is determined based on the exception type identifier, and the exception type identifier is used as the control basis for subsequent debugging processes to trigger at least one processing operation corresponding to the exception type.

10. A practical tool for simplifying the ADB debugging process according to claim 1, characterized in that, In the log output module, the step of outputting the device information, the debugging strategy, and the execution status information of the debugging operation process includes: Record the device information and its field status identifiers; Record the debugging strategy template, its version identifier, and the strategy number; Record the execution status information of each debugging step in the debugging operation process, the corresponding abnormal status identification information, and the explanation of success or failure. The above recorded information can be exported as a debug report with one click.

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