CN115617529A - Process management method and device in mobile application compatible running environment - Google Patents
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Abstract
The invention provides a process management method and a device in a mobile application compatible running environment, which can effectively manage a system native process and an android compatible process, reduce potential risks caused by uncontrolled resource competition of the compatible android process, improve the overall performance and reduce the jamming risk of the system, and the method comprises the following steps: packaging a system native process and an android compatible process in a mobile application compatible running environment, comprehensively studying and judging the multidimensional characteristic information of the packaged processes to obtain priorities, and distributing available resources of the processes according to the priorities of the processes; dynamically monitoring memory risk, triggering garbage recovery and low memory searching and killing processes according to the priority real-time distribution result of the processes and the memory tension degree, and keeping the important processes alive.
Description
Technical Field
The invention relates to the technical field of mobile application compatible running environments, in particular to a process management method and device in a mobile application compatible running environment.
Background
The compatible operation environment of the mobile application can realize that the heterogeneous application runs in one system, for example, an kylin mobile operation system is constructed based on Web technology, and can be compatible with a mobile terminal operation system running an android application program on the Web operation system, and the compatible operation environment of the android application and some background service processes for guaranteeing the normal running of the android application are adapted on the basis that the original operation system supports the running of the Web application. The operation modes of the application programs under the heterogeneous compatible operation environment,
for an operating system, a web has a process management mode, an android also has a process management mode, the two processes operate together to seize resources, the situation that an original operating system cannot sense and control heterogeneous android processes to consume CPUs, memories and the like is caused, the phenomenon of fierce competition of system resources is caused, and abuse of the resources such as the CPUs, the memories and the like inevitably causes increased system jamming risks.
Taking the kylin mobile operating system as an example, in a native Web framework of the kylin mobile operating system, the priority of a control process can be utilized according to application types, foreground and background switching conditions and the like, so that the resource proportion of a CPU (Central processing Unit), a memory and the like used by the control process is adjusted, but the whole framework does not cover a complicated and changeable use scene, and the unified management of android processes is lacked.
In an android operating system, AMS (active management service) is used for realizing application process management and unified scheduling of four large components, the scheduling priority and scheduling strategy of a process are adjusted, and Low-Memory condition processing is realized by combining a kernel Memory pressure event and LMKD (Low Memory Killer Daemon), but a mobile application compatible operating environment framework such as a unicon mobile operating system cannot be directly compatible.
Therefore, a new process management method in a mobile application compatible running environment needs to be designed to improve the performance of native applications and compatible android applications.
Disclosure of Invention
In order to solve the problems, the invention provides a process management method and a process management device in a mobile application compatible running environment, which can effectively manage a system native process and an android compatible process, reduce potential risks caused by uncontrolled resource competition of the compatible android process, improve the overall performance and reduce the system jamming risk.
The technical scheme is as follows: the process management method in the compatible operating environment of the mobile application comprises the following steps:
packaging a system native process and an android compatible process in a mobile application compatible running environment, comprehensively studying and judging the multidimensional characteristic information of the packaged processes to obtain a priority, and distributing available resources of the processes according to the priority of the processes, wherein the mobile application compatible running environment is an kylin mobile operating system, and the system native process is a web process;
dynamically monitoring memory risk, triggering garbage recovery and low memory searching and killing processes according to the priority real-time distribution result of the processes and the memory tension degree, and keeping alive important processes.
Furthermore, when the system native process and the android compatible process are packaged, the system native process and the android compatible process are packaged into a process template object, the process characteristics are cut, and the process characteristics migrated to the process template object include held resource locks, application types and running states.
Further, the comprehensive study and judgment of the multidimensional characteristic information of the process after the encapsulation is adopted to obtain the priority, specifically comprising the following steps:
obtaining an initial priority according to the application type of the process;
obtaining a standard priority according to the process active notification and the initial priority, wherein the process active notification can reflect the running state of the process;
the standard priority is adjusted depending on whether the process holds a resource lock, whether a perceptible resource is used.
Further, when the application process is set to the top and becomes the foreground process, the priorities of the foreground process and the previous affected process at the moment are updated.
Further, the initial priority level from high to low comprises a management process, a user customized keep-alive process, a foreground input method, a foreground process, a background perceptible process and a pre-allocation process.
Further, when the WEB process and the android compatible process behavior change or the system behavior change, the process activity notification is updated, the activity notification message is sent to the corresponding process template object, the initial priority is updated according to the process activity notification to obtain the standard priority, the process behavior comprises process creation, starting, backing to the background, destruction, resource lock application and resource lock release, the system behavior comprises screen lightening, screen extinguishing, screen locking, unlocking and memory clearing, and the perceivable resource comprises audio, video playing, recording and video recording.
Further, the allocation of the available resources of the process according to the priority of the process is specifically implemented as follows:
establishing a priority mapping table, mapping the standard priority adjusted by the process to a CGROUP control node in a CGROUP grouping module of the system through the priority mapping table, and distributing available resources of the process by the CGROUP control node according to the written standard priority, wherein the available resources comprise CPU resources, memory resources and boost acceleration performance.
Further, a process manager is arranged, after the android process is created, a binder service interface of the process manager is called to package and map the android process into a process template object, when the management process of the system derives the system native process, the process manager packages the system native process into the process template object, and the process template object is embedded into the management process to run;
when the behaviors of the WEB process and the android compatible process are changed or the system behavior is changed, the original process of the system sends an active notification message to a corresponding process template object through an IPDL communication mode and the android compatible process through a binder interface, and the initial priority is updated according to the active notification of the process to obtain a standard priority;
and setting a CGROUP grouping module, setting an impl interface by the CGROUP grouping module, mapping the priority in the priority mapping table into the attribute value of the CGROUP grouping, and distributing the system available resources by the CGROUP control node according to the priority.
Further, memory resources are uniformly distributed by a system kernel, a result is distributed in real time according to the priority of a system native process and an android compatible process, the memory tension degree is monitored, garbage recycling operation is triggered regularly, when the memory tension degree is not relieved, a process which is low in priority and occupies a large memory is searched, and the process is killed by sending a killing process signal until the memory pressure threat is relieved.
A system for process management in a mobile application compatible runtime environment, comprising:
the process template object is used for packaging a system WEB process and an android compatible process in a mobile application compatible running environment;
the process manager is used for comprehensively studying and judging the multi-dimensional characteristic information of the packaged process to obtain the priority;
the CGROUP grouping module is used for distributing available resources of the process according to the priority of the process;
and the memory management module dynamically monitors the memory risk, triggers the garbage recovery and low memory searching and killing process according to the priority real-time distribution result of the process and the memory tension degree, and keeps the important process alive.
A computer device, comprising: comprising a processor, a memory, and a program;
the program is stored in the memory, and the processor calls the program stored in the memory to execute the process management method in the mobile application compatible running environment.
A computer-readable storage medium for storing a program for executing the process management method in the above-described mobile application-compatible execution environment.
The invention has the following advantages:
1. according to the invention, the native process of the system and the android compatible process are encapsulated, and a heterogeneous application normalization processing mode is adopted, so that the behavior of the heterogeneous process can be conveniently and uniformly evaluated.
2. According to the method, the native process and the android compatible process of the system are brought into management by packaging the native process and the android compatible process of the system, the standard priority is uniformly distributed, the proportion of CPU and memory resources occupied by the process and the boost acceleration performance are adjusted according to the priority, the potential risk caused by uncontrolled resource competition of the android process is reduced, and the overall performance is improved.
3. The method comprises the steps of firstly obtaining an initial priority according to the application type of a process; however, the running state of the feedback application is informed actively through the process, the initial priority is fused to obtain the standard priority, and the priority evaluation is carried out on the heterogeneous process through fusing the multidimensional information according to whether the process holds the resource lock or not and whether the sensible resource is used for adjusting the standard priority, so that the resource distribution is matched with the user operation in a finer granularity, and the use experience is better.
4. The memory is managed based on the shared kernel, and the memory condition is regularly checked in the using process of the terminal, so that the memory recovery and low memory searching and killing are more efficient, important processes are protected, and the user experience is ensured.
Drawings
FIG. 1 is a diagram illustrating steps of a process management method in a mobile application compatible runtime environment according to an embodiment;
FIG. 2 is a schematic diagram illustrating a module configuration implemented by the kylin mobile OS according to the process management method in the embodiment in the compatible runtime environment of the mobile application;
FIG. 3 is a block diagram that illustrates components of a process management system in an embodiment of a mobile application compatible runtime environment;
FIG. 4 is a diagram illustrating an internal structure of a computer device according to an embodiment.
Detailed Description
The following description will explain the process management method in the mobile application compatible running environment according to the present invention, which implements unified scheduling and control of the native system Web process and the android process on the resource usage of CPU, memory, etc. in the kylin mobile operating system, so as to improve the system performance in the heterogeneous mobile application compatible running environment.
Referring to fig. 1, a method for managing a process in a mobile application compatible execution environment in an embodiment at least includes the following steps:
step 1: packaging a system WEB process and an android compatible process in a mobile application compatible running environment, comprehensively studying and judging by adopting multi-dimensional characteristic information of the packaged processes to obtain priorities, distributing available resources of the processes according to the priorities of the processes, including distributing CPU (central processing unit) and memory resources, adjusting boost acceleration performance, reducing potential risks caused by uncontrolled resource competition, improving overall performance of the system, and providing evaluation basis for memory recovery;
step 2: and dynamically monitoring the memory risk by using a memory management mechanism based on a shared kernel, triggering a garbage recovery and low memory searching and killing process according to a priority real-time distribution result of the process and the memory tension degree, and keeping the important process alive.
Referring to fig. 2, in the kylin mobile operating system, specifically in step 1, the system packages a Web process and an android compatible process as process template objects and stores the process template objects by setting a Process Manager (PM), and determines and decides a standard priority according to process multidimensional characteristic data. In the kylin mobile operating system, the operation of a management process runs through the service cycle of equipment, other processes are derived, and a process manager is embedded into the management process to operate in order to guarantee the continuity of priority updating and the easiness in process management. When the management process of the system derives the process, the system native process is packaged into a Process Template Object (PTO), the process characteristics are cut, and partial characteristics are migrated into the process template object, wherein the migrated characteristics include but are not limited to held resource locks, application types and running states. And simultaneously, the process manager is designed into a binder server-side form, after the android process is established, a binder service interface of the process manager is called to package and map the android process into a process template object, and the process template object is stored in the process manager in an array form. And the process manager monitors the life cycle event of the process and updates the process template object array according to the process creating and destroying conditions. In the step 1, unified evaluation of the process behaviors is facilitated through a normalization processing mode of heterogeneous system WEB process and android compatible process packaging.
After the WEB process and the android compatible process are packaged, comprehensive research and judgment are carried out on the multidimensional characteristic information of the packaged process to obtain the priority, and the method specifically comprises the following steps:
1-1: obtaining an initial priority according to the application type of the process;
1-2: the method comprises the steps that a standard priority is obtained according to a process active notification fusion initial priority, and the process active notification can reflect the running state of a process;
1-3: adjusting the standard priority according to whether the process holds a resource lock or not and whether a perceptible resource is used or not;
1-4: the priorities of the foreground process and the previous affected process are updated.
The embodiment provides a judging strategy: firstly, considering the application type, the process priority can be divided into a management process, a user customized keep-alive process, an input method process, a WEB application process, an android application process and a pre-allocation process from high to low, and an initial priority is given according to the application type.
In the kylin mobile operating system, the management process has the highest access resource authority, is a root process derived from the original system process, and can manage all other processes only if the management process is guaranteed to have extremely high priority. The user customizes the keep-alive process, the process which is set for the user and is not killed by mistake as far as possible when the resources are in tension is determined by whether the special field 'persistence' is identified when the application is written. The foreground input method has higher priority than the common foreground because the interaction experience of the user is determined to a great extent. The foreground process is the topmost application process visible to the user, can be an original operating system application process, and can also be an android compatible process, and whether the process is consistent with the visibility of the process at the topmost end or not is judged. When the ACTIVITY of the client process is visible and the bindService () method is called, the flags carry a BIND _ ADJUST _ WITH _ ACTIVITY parameter, and then the current android service process belongs to the foreground process. The background is an application process which does not occupy the most front end window or an inactive service process. The background perceptible process is a background process which is using video and audio services. Because the kylin mobile operating system ensures the speed of opening the application for the first time by the user, the pre-installed template process allocates resources, the priority of the process can be not high, and the process is switched to the foreground priority after the process is really operated.
According to whether the active notification is located in the foreground or not, namely whether the application can be displayed or not, the standard priority is obtained according to the process active notification fusion initial priority, wherein both WEB applications and android applications are possibly located in the foreground or the background, but the management process, the user customized keep-alive process and the input method have higher priority than the foreground, the pre-allocation has lower priority than the background, and the standard priority is not influenced by the foreground and the background. The method comprises the steps that process behaviors include but are not limited to process creation, starting, backing to a background, destroying, resource lock application, resource lock release and the like, system behaviors include but are not limited to screen lightening, screen blanking, screen locking, unlocking, memory cleaning and the like, when a process running state changes, a system native process sends an active notification message to a corresponding process template object through an IPDL communication mode and an android compatible process through a binder interface, and a process manager obtains a standard priority according to characteristic data stored in the process template object mapped by the system native process and the android compatible process.
And finally, fine-tuning the standard priority according to the condition that each resource lock is held in the process and whether the sensible resource condition is used. Including but not limited to audio, video playback, recording video. Such as WEB applications or android applications, enter the background but have the property of playing audio, so that the priority level is changed from the background to the background. And the priority evaluation is carried out on the compatible system process through the multidimensional information, so that the resource allocation is matched with the user operation with finer granularity, and the use experience is better.
Particularly, when the application process is set to the frontmost end to become a foreground process, if rendering of the Web application or the android application is finished, a process active notification is issued, the process manager indexes a process template object, the priority of the process and the previous affected process is calculated, and the process manager calls a CGROUP grouping module (CGROUPManager, CM) to update the process and the previous affected process. In this embodiment, a user opens an application on an original system desktop, the application has a foreground priority, and the original system desktop is a background priority; when the application exits, the application is in background priority, and the original system desktop is in foreground priority.
In the embodiment, an initial priority is obtained according to the application type of a process; however, the running state of the feedback application is informed through the process activity, the standard priority is obtained by fusing the initial priority, and the priority evaluation is carried out on the heterogeneous process through fusing the multidimensional information according to whether the process holds the resource lock and whether the standard priority is adjusted by using the sensible resource, so that the resource allocation is matched with the user operation in a finer granularity, and the use experience is better.
In the present invention, the allocation of available resources of a process according to its priority is implemented as follows:
establishing a priority mapping table, mapping the standard priority adjusted by the process to a CGROUP control node in a CGROUP grouping module of the system through the priority mapping table, and distributing available resources of the process by the CGROUP control node according to the written standard priority, wherein the available resources comprise CPU resources, memory resources and boost speed-up performance.
In the embodiment, a CGROUP grouping module is designed at a hardware abstraction layer of the kylin mobile operating system, a priority mapping table is established, the priorities of the processes are determined and then mapped into an actual CGROUP control node through the priority mapping table, the operations among different levels are isolated, and the input is provided for a memory management module. Because the process priority operation is calculated and set in the management process, the CGROUP grouping module does not need to design a sandbox interface, and only needs to design an impl interface. And the process manager decides the standard priority of the process, calls a CGROUP grouping module to map the priority into the attribute value of the CGROUP grouping through a priority mapping table, and realizes the dynamic writing of the priority into the CGROUP control node. The higher the process priority decided by the process manager is, the more the number of cores which can run corresponding to the CGROUP is, the larger the share of the CPU is occupied, and the larger the boost value is, the more obvious the boost performance is improved. If the fg directory under the schedule root directory of the foreground priority group corresponding to CGROUP, the schedule.
In this embodiment, a priority mapping table, which is a mapping table for dynamically adjusting the correspondence between the process priority and the CGROUP grouping module and the key attribute values thereof in the kylin mobile operating system, is provided, so as to dynamically adjust the CPU proportion used by the process, the process speed increase size, the number of CPU cores occupied by the process, and the like according to the process priority obtained by the process manager, and table 1 provides a reference scheme for the priority mapping table, which can be specifically changed according to requirements.
The CPU in the table represents the name of the CPU group in the CGROUP corresponding to each process priority, the patent allocates fg-default, fg-persistent, fg-keyboard, top, bg-persistent and bg-prealloc groups, the CPU (CPU _ shares) represents the CPU time proportion occupied by each group, the larger the value is, the more the CPU time proportion is occupied, and the more the operation chance is. The schedule represents the name of a schedule group in CGROUP corresponding to the priority of each process, fg-default, fg-persistence, fg-keyboard, top, bg-persistence and bg-prealloc groups are allocated in the patent, schedule (schedule. Schedule) represents the boost speed obtained by each group, and the larger the value is, the larger the boost speed is; schedule _ idle represents each of the above sets of power consumption and performance adjustment parameters, with larger values representing higher performance and larger power consumption, and lower values representing lower performance and smaller power consumption. The memory represents the name of a memory group in CGROUP corresponding to the priority of each process, and the memory parameters can be set according to the priority of the process. The cpuiset represents the name of a cpuiset group in CGROUP corresponding to the priority of each process, the patent is assigned with fg-default, fg-persistence, fg-keyboard, top, bg-persistence and bg-prealloc groups, the cpuiset (cpuss) represents the number of the cpus cores which can be operated in each group, 0-7 represents the number of the cpus cores which can be operated in 8 cores, 0-5 represents the number of the cores which can be operated in 6 cores, 0-3 represents the number of the cores which can be operated in 4 cores, the more the cores which can be operated in, the more the tasks which can be migrated have more opportunities, and more execution opportunities can be obtained.
In this embodiment, the final priority levels of the processes obtained by the policy evaluation are described as an example of using the present invention.
In the invention, in step 2, a memory management mechanism based on a shared kernel is utilized to uniformly distribute memory resources from a system kernel, dynamically monitor memory risks, periodically trigger garbage collection operation according to the priority real-time distribution result of a system native process and an android compatible process and the monitored memory tension degree, search a process with low priority and large memory occupation when the memory tension degree is not relieved, and kill the process by sending a program killing signal until the memory pressure threat is relieved.
In the embodiment of the kylin mobile operating system, in step 2, in order to ensure the consistency of the native process and the android compatible process of the system to the memory operation, a shared same kernel mechanism is adopted, the device memory resources are uniformly distributed by the kernel and can be uniformly grouped and configured by/dev/memcg. In this embodiment, a service process is designed to monitor memory _ pressure _ level of CGROUP, write the monitored memory _ pressure _ level into CGROUP _ event _ control, and trigger garbage collection and a low-memory searching and killing process in due time by using a result and a memory tension degree of real-time allocation of priorities of a system native process and an android compatible process in step 1. Since monitoring the memory _ level event trigger may affect the user experience when the memory is in tension, the memory pressure condition needs to be checked every second, and the sending system notifies the triggering of the original system Garbage Collection (GC) operation, so that memory recovery and process killing are achieved in advance. And searching the low priority and large-occupied process in the previous priority group when the memory is seriously insufficient, and continuously killing the process by sending a process killing signal until the threat of the memory pressure is relieved.
In the embodiment of the kylin mobile operating system, a killard service process is designed to monitor memory. And (3) creating a thread in the management process, reading the process number in the socket message to be the same as that of the management process, then issuing a memory pressure notice to processes such as a JS runtime, a Canvas, a database, a GPU and the like, and recovering unnecessary memories by each module. And the killerd service process also collects the process into fg, bg, try _ to _ keep and default groups according to parameters under the CGROUP grouping module, respectively kills the bg group and the try keep-alive processes in the bg group according to the amount of the memory occupied by the process when the memory is seriously insufficient, and stops killing after the threat of the memory pressure is relieved.
In the above embodiments, the execution steps of the process management method in the compatible running environment of the mobile application in the kylin mobile operating system based on the Web technology compatible with the android application are described in detail. Correspondingly, the process management method in the compatible operation environment of the mobile application is also suitable for other compatible heterogeneous mobile application compatible operation environments compatible with android.
Fig. 3, in an embodiment of the present invention, further provides a process management system in a mobile application compatible execution environment, including:
the process template object 100 is used for encapsulating a system WEB process and an android compatible process in a mobile application compatible running environment;
the process manager 200 is configured to comprehensively study and judge the multidimensional characteristic information of the packaged process to obtain a priority;
a CGROUP grouping module 300 for allocating available resources of a process according to a priority of the process;
the memory management module 400 dynamically monitors the memory risk, triggers the garbage collection and low memory searching and killing process according to the real-time allocation result of the priority of the process and the memory tension degree, and keeps the important process alive.
In an embodiment of the present invention, there is also provided a computer apparatus including: comprising a processor, a memory, and a program;
a program is stored in the memory, and the processor calls the program stored in the memory to execute the process management method in the mobile application compatible execution environment described above.
The computer device may be a terminal, and its internal structure diagram may be as shown in fig. 4. The computer device comprises a processor, a memory, a network interface, a display screen and an input device which are connected through a bus. Wherein the processor of the computer device is configured to provide computing and control capabilities. The memory of the computer device comprises a nonvolatile storage medium and an internal memory. The non-volatile storage medium stores an operating system and a computer program. The internal memory provides an environment for the operation of an operating system and computer programs in the non-volatile storage medium. The network interface of the computer device is used for connecting and communicating with an external terminal through a network. The computer program is executed by a processor to implement a method of process management in a mobile application compatible runtime environment. The display screen of the computer device can be a liquid crystal display screen or an electronic ink display screen, and the input device of the computer device can be a touch layer covered on the display screen, a key, a track ball or a touch pad arranged on a shell of the computer device, an external keyboard, a touch pad or a mouse and the like.
The Memory may be, but is not limited to, a Random Access Memory (RAM), a Read Only Memory (ROM), a Programmable Read-Only Memory (PROM), an Erasable Read-Only Memory (EPROM), an electrically Erasable Read-Only Memory (EEPROM), and the like. The memory is used for storing programs, and the processor executes the programs after receiving the execution instructions.
The processor may be an integrated circuit chip having signal processing capabilities. The Processor may be a general-purpose Processor, and includes a Central Processing Unit (CPU), a Network Processor (NP), and the like. The Processor may also be other general purpose processors, digital Signal Processors (DSPs), application Specific Integrated Circuits (ASICs), field Programmable Gate Arrays (FPGAs) or other Programmable logic devices, discrete Gate or transistor logic devices, discrete hardware components, etc. A general purpose processor may be a microprocessor or the processor may be any conventional processor or the like. The various methods, steps, and logic blocks disclosed in the embodiments of the present application may be implemented or performed. A general purpose processor may be a microprocessor or the processor may be any conventional processor or the like.
It will be appreciated by those skilled in the art that the configuration shown in fig. 4 is a block diagram of only a portion of the configuration associated with the present application, and is not intended to limit the computing device to which the present application may be applied, and that a particular computing device may include more or fewer components than shown, or may combine certain components, or have a different arrangement of components.
In an embodiment of the present invention, there is also provided a computer-readable storage medium configured to store a program configured to execute the process management method in the mobile application compatible execution environment described above.
As will be appreciated by one of skill in the art, embodiments of the present invention may be provided as a method, computer apparatus, or computer program product. Accordingly, embodiments of the present invention may take the form of an entirely hardware embodiment, an entirely software embodiment or an embodiment combining software and hardware aspects. Furthermore, embodiments of the present invention may take the form of a computer program product embodied on one or more computer-usable storage media (including, but not limited to, disk storage, CD-ROM, optical storage, and the like) having computer-usable program code embodied therein.
Embodiments of the present invention are described with reference to flowchart illustrations and/or block diagrams of methods, computer apparatus, or computer program products according to embodiments of the invention. These computer program instructions may be provided to a processor of a general purpose computer, special purpose computer, embedded processor, or other programmable data processing terminal to produce a machine, such that the instructions, which execute via the processor of the computer or other programmable data processing terminal, create means for implementing the functions specified in the flowchart and/or flowchart block or blocks.
These computer program instructions may also be stored in a computer-readable memory that can direct a computer or other programmable data processing terminal to function in a particular manner, such that the instructions stored in the computer-readable memory produce an article of manufacture including instruction means which implement the function specified in the flowchart.
The above detailed description is provided for the application of the process management method, system, computer device, and computer readable storage medium in a mobile application compatible running environment, and specific examples are applied herein to explain the principles and embodiments of the present invention, and the descriptions of the above embodiments are only used to help understand the method and its core idea of the present invention; meanwhile, for a person skilled in the art, according to the idea of the present invention, there may be variations in the specific embodiments and the application scope, and in summary, the content of the present specification should not be construed as a limitation to the present invention.
Claims (12)
1. The process management method in the compatible operation environment of the mobile application is characterized by comprising the following steps:
packaging a system native process and an android compatible process in a mobile application compatible running environment, comprehensively studying and judging the multidimensional characteristic information of the packaged processes to obtain a priority, and distributing available resources of the processes according to the priorities of the processes, wherein the mobile application compatible running environment is an kylin mobile operating system, and the system native process is a web process;
dynamically monitoring memory risk, triggering garbage recovery and low memory searching and killing processes according to the priority real-time distribution result of the processes and the memory tension degree, and keeping alive important processes.
2. The method for process management in a mobile application compatible runtime environment of claim 1, wherein: when the system native process and the android compatible process are packaged, the system native process and the android compatible process are packaged into a process template object, the process characteristics are cut, and the process characteristics migrated to the process template object comprise held resource locks, application types and running states.
3. The method for process management in a mobile application compatible execution environment according to claim 2, wherein: the method for comprehensively studying and judging the multidimensional characteristic information of the process after the packaging to obtain the priority specifically comprises the following steps of:
obtaining an initial priority according to the application type of the process;
obtaining a standard priority according to the process active notification and the initial priority, wherein the process active notification can reflect the running state of the process;
the standard priority is adjusted depending on whether the process holds a resource lock, whether a perceptible resource is used.
4. The method of process management in a mobile application compatible runtime environment of claim 3, wherein: when the application process is set to the top and becomes the foreground process, the priorities of the foreground process and the previous affected process at the moment are updated.
5. The method of process management in a mobile application compatible runtime environment of claim 3, wherein: the initial priority comprises a management process, a user customized keep-alive process, a foreground input method, a foreground process, a background sensible process and a pre-allocation process from high to low.
6. The method of process management in a mobile application compatible runtime environment of claim 3, wherein: when the WEB process and the android compatible process behavior change or the system behavior change, updating the process activity notification, sending the activity notification message to a corresponding process template object, updating the initial priority according to the process activity notification to obtain the standard priority, wherein the process behavior comprises process creation, starting, backing to the background, destroying, applying for a resource lock and releasing the resource lock, the system behavior comprises screen lightening, screen extinguishing, screen locking, unlocking and memory cleaning, and the sensible resources comprise audio, video playing, recording and video recording.
7. The method of process management in a mobile application compatible runtime environment of claim 6, wherein: the allocation of the available resources of the process according to the priority of the process is specifically realized as follows:
establishing a priority mapping table, mapping the standard priority adjusted by the process to a CGROUP control node in a CGROUP grouping module of the system through the priority mapping table, and distributing available resources of the process by the CGROUP control node according to the written standard priority, wherein the available resources comprise CPU resources, memory resources and boost acceleration performance.
8. The method for process management in a mobile application compatible execution environment according to claim 7, wherein:
setting a process manager, calling a binder service interface of the process manager to package and map the android process into a process template object after the android process is created, and when a management process of the system derives a system native process, packaging the system native process into the process template object by the process manager, wherein the process template object is embedded into the management process to run;
when the behavior of the WEB process and the android compatible process is changed or the system behavior is changed, the native process of the system sends an active notification message to a corresponding process template object through an IPDL communication mode and the android compatible process through a binder interface, and the initial priority is updated according to the active notification of the process to obtain a standard priority;
and setting a CGROUP grouping module, setting an impl interface by the CGROUP grouping module, mapping the priority in the priority mapping table into the attribute value of the CGROUP grouping, and distributing the system available resources by the CGROUP control node according to the priority.
9. The method for process management in a mobile application compatible runtime environment of claim 1, wherein: uniformly distributing memory resources by a system kernel, distributing results in real time according to priorities of a system native process and an android compatible process and monitoring the memory tension degree, triggering garbage recycling operation regularly, searching a process with low priority and large memory occupation when the memory tension degree is not relieved, and killing the process by sending a program killing signal until the memory pressure threat is relieved.
10. A system for process management in a mobile application compatible runtime environment, comprising:
the process template object is used for packaging a system WEB process and an android compatible process in a mobile application compatible running environment;
the process manager is used for comprehensively studying and judging the multidimensional characteristic information of the packaged process to obtain the priority;
the CGROUP grouping module is used for distributing available resources of the process according to the priority of the process;
and the memory management module dynamically monitors the memory risk, triggers the garbage recovery and low memory searching and killing process according to the priority real-time distribution result of the process and the memory tension degree, and keeps the important process alive.
11. A computer device, comprising: comprising a processor, a memory, and a program;
the program is stored in the memory, and the processor calls the memory-stored program to execute the process management method in the mobile application compatible execution environment of claim 1.
12. A computer-readable storage medium characterized by: the computer-readable storage medium stores a program for executing the process management method in the mobile application-compatible execution environment of claim 1.
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