Intelligent Xorg and Xwayland switching scheme based on compatibility adaptation technology

Abstract

The invention provides an intelligent Xorg and Xwayland switching scheme based on a compatibility adaptation technology, and belongs to the technical field of Linux graphical interface display. The scheme comprises a hardware detection module, a performance monitoring module, a display server switching module and a configuration management module. The hardware detection module automatically detects system hardware configuration and judges compatibility; the performance monitoring module monitors the utilization rates of the GPU, the CPU and the memory in real time; the display server switching module is responsible for executing a switching operation between the Xorg and the Wayland; and the configuration management module manages a switching strategy and system configuration. The system achieves intelligent switching of the display server by automatically detecting hardware configuration and monitoring system performance, and improves user experience and system performance. The scheme has the characteristics of intelligent detection, performance optimization, smooth switching, configurability, reliability and the like, and is suitable for various Linux system environments. The problem that in the prior art, a user needs to manually select the display server is solved, automatic intelligent switching of the display server is achieved, and usability and performance of the system are improved.

Description

Technical Field

[0001] The present invention relates to the technical field of Linux graphical interface display, and in particular to an Xorg and Xwayland intelligent switching solution based on compatibility adaptation technology. Background Art

[0002] In Linux systems, there are two main graphical interface display servers: Xorg and Wayland. Xorg, as a traditional display server, offers wide compatibility and stability, but may experience performance bottlenecks on modern hardware. Wayland, as a newer generation display server, offers better performance and security, but has relatively poor compatibility.

[0003] In the existing technology, users need to manually select a display server based on the hardware configuration. This approach has the following problems:

[0004] 1. Users need to have professional knowledge and understand hardware configuration and display server characteristics

[0005] 2. The manual switching process is cumbersome and prone to errors

[0006] 3. Unable to dynamically adjust according to system operating status

[0007] 4. The switching process may affect the user experience. Summary of the Invention

[0008] Purpose of the Invention

[0009] This invention provides an intelligent switching solution between Xorg and Xwayland based on compatibility adaptation technology. By automatically detecting hardware configuration and monitoring system performance, it enables intelligent switching of display servers, improving user experience and system performance. This solution features intelligent detection, performance optimization, smooth switching, configurability, and reliability, and is applicable to various Linux system environments.

[0010] Technical Solution

[0011] The present invention provides an Xorg and Xwayland intelligent switching solution based on compatibility adaptation technology, including:

[0012] 1. System Architecture

[0013] Hardware detection module:

[0014] oAutomatically detect system CPU, memory, GPU type and driver version configuration

[0015] oDetermine hardware compatibility with Wayland and generate a hardware compatibility report.

[0016] Performance monitoring module:

[0017] o Real-time monitoring of GPU usage, CPU usage and memory usage

[0018] oEvaluate system performance status.

[0019] Display server switching module:

[0020] o Perform switching between Xorg and Wayland

[0021] oManage display server configuration

[0022] oIntelligent switching to ensure smooth process and complete switching results

[0023] Configuration management module:

[0024] oManage switching strategies and configurations, save and load configuration information

[0025] o Provide configuration interface and maintain application compatibility list

[0026] 2. Workflow

[0027] During the terminal device initialization phase, the system loads the configuration when it starts, then detects the hardware configuration and selects the display server to be initially loaded based on the configuration.

[0028] After the terminal device starts running, the performance monitoring module monitors GPU usage, CPU usage, and memory usage in real time, collects system performance indicators, and evaluates system performance status.

[0029] During the operation of the terminal device, when the performance detection module evaluates that the system performance status has changed, it determines whether switching is required. If switching is required, it selects an appropriate target display server.

[0030] After receiving the switching signal, the display server switching module executes the display server switching according to the selected target display server, and verifies the switching result after the switching is completed.

[0031] After the switch is successful, the configuration management module will update the system configuration.

[0032] 3. Key technical features

[0033] Intelligent Detection: Automatically detect hardware configuration without manual specification and update hardware information in real time.

[0034] Online performance optimization: Decision-making based on performance indicators, dynamic adjustment of display servers, and optimization of system resource usage

[0035] Configurability: Supports custom switching policies, configurable performance thresholds, and maintenance of application compatibility lists.

[0036] Beneficial effects

[0037] 1. Select the best display server through the intelligent system, smooth switching process without user intervention

[0038] 2. Dynamically adjust the display server, optimize resource usage, and improve system response speed

[0039] 3. Automatically detect hardware compatibility, maintain application compatibility list, and ensure system stability BRIEF DESCRIPTION OF THE DRAWINGS

[0040] The present invention includes the following drawings:

[0041] Attachment Figure 1

[0042] Attachment Figure 1 Schematic diagram of the system architecture of the present invention.

[0043] 101: Hardware detection module, responsible for detecting system hardware configuration and compatibility judgment;

[0044] 102: Performance monitoring module, responsible for monitoring system performance and resource usage;

[0045] 103: Display server switching module, responsible for executing the display server switching operation;

[0046] 104: Configuration management module, responsible for managing configuration and coordinating the work of various modules;

[0047] 201: System hardware layer, providing hardware interface;

[0048] 202: Performance data layer, storing performance data;

[0049] 203: Display service layer, providing display service interface;

[0050] Attachment Figure 2

[0051] Attachment Figure 2 It is the workflow diagram of the present invention.

[0052] 301: Initialization phase, responsible for loading configuration and detecting hardware;

[0053] 302: Monitoring phase, responsible for collecting performance data;

[0054] 303: Decision-making stage, responsible for analyzing data and making judgments;

[0055] 304: Handover phase, responsible for executing the handover operation;

[0056] 305: Update configuration and record switching results

[0057] 306: Error handling, recording error information

[0058] Attachment Figure 3

[0059] Attachment Figure 3 The present invention Figure 3 : Switching process timing diagram. Among them:

[0060] 401: System startup;

[0061] 402: Hardware detection completed

[0062] 403: Loading configuration

[0063] 404: Configuration loading completed

[0064] 405: Start monitoring

[0065] 406: Performance data collection

[0066] 407: Evaluating system status

[0067] 408: Status evaluation result

[0068] 409: Executing Switch

[0069] 410: Handover Completed

[0070] 411: Update Configuration

[0071] 412: Configuration update completed

[0072] Attachment Figure 4

[0073] Attachment Figure 4 This is a performance monitoring flow chart of the present invention.

[0074] 501: Performance monitoring started

[0075] 502: Collect GPU usage

[0076] 503: Collecting CPU usage

[0077] 504: Collecting memory usage

[0078] 505: Merge performance data

[0079] 506: Computational performance score

[0080] 507: Triggering a handover decision

[0081] 508: Update performance report

[0082] Attachment Figure 5

[0083] Attachment Figure 5 This invention Figure 5 :Configuration management flow chart. Among them:

[0084] 601: Loading configuration file;

[0085] 602: Update runtime configuration;

[0086] 603: Use default configuration;

[0087] 604: Save configuration changes;

[0088] 605: Restart related services;

[0089] 606: Apply new configuration;

[0090] 607: Record configuration changes; DETAILED DESCRIPTION

[0091] The present invention will be further described in detail below with reference to the accompanying drawings.

[0092] System architecture implementation Figure 1 As shown, the system architecture of the present invention is divided into three layers: system hardware layer, performance data layer and display server. It also includes four core modules to form a complete intelligent display server switching solution:

[0093] 1. Hardware detection module

[0094] Automatically detect system hardware configuration, including CPU, memory, GPU type and driver version.

[0095] Evaluate hardware compatibility with Wayland

[0096] Generate hardware compatibility report

[0097] ·No need for manual user specification, hardware information can be updated in real time

[0098] 2. Performance monitoring module

[0099] Real-time monitoring of key system performance indicators, such as GPU usage, CPU usage, and memory usage

[0100] Evaluate the overall system performance status

[0101] ·Continuous monitoring to provide data support for switching decisions

[0102] 3. Display server switching module

[0103] Perform switching between Xorg and Wayland

[0104] Manage display server configuration

[0105] Ensure smooth switching process, reliability and user experience

[0106] 4. Configuration Management Module

[0107] Manage switching strategies and system configurations

[0108] Save and load configuration information

[0109] Maintain application compatibility list

[0110] Support custom configuration to ensure system flexibility

[0111] Workflow Implementation

[0112] like Figure 2 As shown, the workflow of the present invention includes the following steps:

[0113] 1. Initialization phase

[0114] During the terminal device initialization phase, the system loads the configuration when it starts, then performs a hardware configuration test. Based on the test results and configuration, the initial display server is selected to complete the system initialization setup.

[0115] 2. Monitoring stage

[0116] After the terminal device starts running, the performance monitoring module monitors GPU usage, CPU usage, and memory usage in real time, collects system performance indicators, and evaluates system performance status in real time.

[0117] 3. Decision-making stage

[0118] During the operation of the terminal equipment, when the performance detection module evaluates changes in the system performance status, it analyzes the current performance data.

[0119] Determine whether to switch the display server.

[0120] If switching is required, select the appropriate target display server and generate a switching decision

[0121] 4. Switching phase

[0122] After receiving the switching signal, the display server switching module executes display server switching according to the selected target display server.

[0123] During the switching process, ensure that the switching process is smooth and does not affect the user experience

[0124] After the switch is completed, verify the switch result and update the system configuration in the configuration management module

[0125] Updated app compatibility list

[0126] The above embodiments are only preferred embodiments of the present invention, and the scope of protection of the present invention is not limited thereto. Those skilled in the art may make various modifications and variations to the technical solutions of the present invention without departing from the spirit and scope of the present invention, and such modifications and variations shall all be included in the scope of protection of the present invention.

Claims

1. An intelligent switching solution between Xorg and Xwayland based on compatibility adaptation technology, characterized in that: include: Hardware detection module, used to automatically detect system hardware configuration and determine hardware compatibility; Performance monitoring module, used to monitor system performance indicators in real time; A display server switching module, used to perform display server switching operations; Configuration management module, used to manage switching strategies and system configurations.

2. The intelligent switching solution according to claim 1, characterized in that: The hardware detection module includes: Automatically detect the system's CPU, memory, GPU type, and driver version configuration; Function to determine hardware compatibility with Wayland; Ability to generate hardware compatibility reports.

3. The intelligent switching solution according to claim 1, characterized in that: The performance monitoring module includes: Real-time monitoring of GPU usage, CPU usage, and memory usage; Functions for evaluating system performance status.

4. The intelligent switching solution according to claim 1, characterized in that: The display server switching module includes: Perform the function of switching between Xorg and Wayland; Functions for managing display server configuration; Function to verify the switching result.

5. The intelligent switching solution according to claim 1, characterized in that: The configuration management module includes: Functionality for managing switching policies and configurations; Functions for saving and loading configuration information; Ability to maintain app compatibility lists.

6. The intelligent switching solution according to claim 1, characterized in that: The workflow includes: During the system initialization phase, the configuration is loaded and the hardware is tested; In the performance monitoring phase, system performance data is collected; In the decision-making phase, the data is analyzed and it is determined whether a switch is necessary; In the switching phase, the switching operation is performed and the results are verified.

7. The intelligent switching solution according to claim 6, characterized in that: The decision-making stage includes: analyzing current performance data; Determine whether the display server needs to be switched; Select the appropriate target display server.

8. The intelligent switching solution according to claim 1, characterized in that: The system architecture is divided into: System hardware layer, providing hardware interface; Performance data layer, which stores performance data; Display service layer, providing display service interface.

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