Abstract: This application provides example mobile service upgrade methods. In one example method, a target service invocation request sent by an application is received, where a target service is one of a plurality of services comprised in a mobile service, and the target service is an application which is installation-free in a terminal device. A new version of the target service is downloaded from a remote computer in response to determining, based on the service invocation request, that the target service needs to be upgraded, where the new version is a version that meets a requirement of the invocation request. The new version of the target service is then loaded and run.

Abstract: This application provides example mobile service upgrade methods, media, and devices. One example method includes receiving a target service invocation request sent by an application, where a target service is one of a plurality of services comprised in a mobile service. A new version of the target service is downloaded from a remote computer in response to determining, based on the target service invocation request, that the target service needs to be upgraded, where the new version is a version that meets a requirement of the target service invocation request. The new version of the target service is loaded and run.

Abstract: This application provides a mobile service upgrade method. In the method, each service kit in a mobile service is independently packaged into an APK based on a plugin-based idea, and then the kit is upgraded in real time when a user uses an application and the application invokes the kit. Compared with a full silent upgrade of the mobile service, this method shortens upgrade time and improves upgrade flexibility. Further, the APK of the kit includes a dependency relationship between the kit and a dependent kit, and the kit and the dependent kit may be upgraded together during upgrading. This avoids an invocation failure caused because a version cannot meet a requirement.

Abstract: An image processing method performed by image processing device having an operating system includes receiving, by an image processing module of the operating system, an instruction of a first application program to call the image processing module of the operating system, where the instruction carries a to-be-displayed image and a resolution of the to-be-displayed image. The image processing method further includes when the resolution of the to-be-displayed image is less than a first threshold, performing, by the image processing module, super-resolution processing on the to-be-displayed image, and displaying an image obtained after the super-resolution processing.

Abstract: A method includes: obtaining a refresh request of an application, where the refresh request is used to instruct to refresh display data of the application; transferring the refresh request to a display daemon by using a render thread of the application; when communication duration between the render thread and the display daemon is greater than a first time threshold, determining that an exception occurs in the render thread; and when duration in which the display daemon processes the refresh request is greater than a second time threshold, determining that an exception occurs in the display daemon.

Abstract: An image processing method and device are disclosed. The method is applicable to an image processing device having an operating system, and the method includes: receiving, by an image processing module of the operating system, an instruction of a first application program to call the image processing module of the operating system, where the instruction carries a to-be-displayed image and a resolution of the to-be-displayed image; and when the resolution of the to-be-displayed image is less than a first threshold, performing, by the image processing module, super-resolution processing on the to-be-displayed image, and displaying an image obtained after the super-resolution processing, to resolve a problem of a low image definition in a conventional display method.

Abstract: A scene sharing-based navigation assistance method and terminal is disclosed. A first terminal shares a scene image screen of a current scene of the first terminal with a second terminal, the first terminal receives prompt information sent by the second terminal, and the first terminal displays, on the scene image screen, the prompt information used to indicate a position of a target point. In this way, a user of the first terminal can more accurately describe, by using the scene image screen, a scene in which the user is located, so that the second terminal can more accurately determine the prompt information.

Abstract: An image processing method and device are disclosed. The method is applicable to an image processing device having an operating system, and the method includes: receiving, by an image processing module of the operating system, an instruction of a first application program to call the image processing module of the operating system, where the instruction carries a to-be-displayed image and a resolution of the to-be-displayed image; and when the resolution of the to-be-displayed image is less than a first threshold, performing, by the image processing module, super-resolution processing on the to-be-displayed image, and displaying an image obtained after the super-resolution processing, to resolve a problem of a low image definition in a conventional display method.

Abstract: A method includes: obtaining a refresh request of an application, where the refresh request is used to instruct to refresh display data of the application; transferring the refresh request to a display daemon by using a render thread of the application; when communication duration between the render thread and the display daemon is greater than a first time threshold, determining that an exception occurs in the render thread; and when duration in which the display daemon processes the refresh request is greater than a second time threshold, determining that an exception occurs in the display daemon.

Abstract: A method for controlling media resource loading including: listening to a touchscreen sliding event; when the touchscreen sliding event is obtained through the listening, detecting whether a user interface (UI) inertially scrolls; measuring a speed of the inertial scrolling when it is detected that the UI inertially scrolls; determining whether an initial speed of the inertial scrolling is greater than a first speed threshold; stopping loading a to-be-loaded media resource on the UI when the initial speed is greater than the first speed threshold. In technical solutions of the present invention, media resource loading can be dynamically controlled depending on whether a UI inertial scrolling speed is greater than a preset speed threshold, so that on the premise of ensuring low energy consumption and UI smoothness, a white block problem is avoided and a UI scrolling speed is prevented from being limited, thereby improving user experience.

Abstract: A scene sharing-based navigation assistance method and terminal is disclosed. A first terminal shares a scene image screen of a current scene of the first terminal with a second terminal, the first terminal receives prompt information sent by the second terminal, and the first terminal displays, on the scene image screen, the prompt information used to indicate a position of a target point. In this way, a user of the first terminal can more accurately describe, by using the scene image screen, a scene in which the user is located, so that the second terminal can more accurately determine the prompt information.