CN117931317B - Virtual plug-in system and method based on computer simulation platform - Google Patents
Virtual plug-in system and method based on computer simulation platform Download PDFInfo
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Abstract
The invention relates to the technical field of computer plug-ins, and aims to provide a virtual plug-in system and a method based on a computer simulation platform, wherein a plug-in calling system comprises a resource library, a Shadow end, a plug-in container and a configuration end, wherein the resource library is used for storing codes and providing corresponding code groups for new plug-ins; the Shadow end is used for acquiring the plug-in updating prompt, sending an authentication signal to the resource library and compiling the code group; the plug-in container comprises a multistage environment for training a new plug-in, a loading environment is used for testing the efficiency of running a compiling product of the new plug-in, an interface environment is used for testing the communication efficiency between a new plug-in main process and an interface, a starting environment is used for testing the compiling efficiency of a host platform and the new plug-in, compared with the authority of a user when the traditional computer plug-in is updated, when the plug-in is installed in the previous round, a new movable module, namely a plug-in blank, provides addresses and registration authorities for the next round of plug-in updating, and for a simulation platform with a large number of plug-ins, the technology can save a large amount of updating time.
Description
Technical Field
The invention relates to the technical field of computer plug-ins, in particular to a virtual plug-in system and a virtual plug-in method based on a computer simulation platform.
Background
The plug-in is a specific technical means for realizing the dynamic state, and has a common problem for both Android and IOS of the mobile terminal, namely, a longer update period. When we want to update the function for App quickly, we have to go through a series of processes of development, testing, publishing, auditing, online, etc. Thereafter, the user is required to actively upgrade the app to be effective.
For a non-mobile computer, multiple data loads are needed when the plug-in is updated, and the computer data codes and the source codes of the plug-in are involved, so that once the plug-in is too many, the loading of a computer platform is not smooth and the interface is blocked. The simulation platform is often constructed and applied by a plurality of plug-ins, so as to assist testers in obtaining various test data in the virtual environment, and if the plug-ins are updated fussy, the working efficiency of the simulation platform is affected.
Therefore, a system capable of adapting to the virtual plug-ins of the computer of the multi-plug-in simulation platform is needed, and the multi-plug-in information is quickly sleeved and loaded into the platform.
Disclosure of Invention
The invention aims to overcome the defects of the prior art, provides a virtual plug-in system and a method based on a computer simulation platform, can overcome the trouble that the prior computer platform also needs to be given with permission by a user when the plug-in is updated, can directly update the plug-in after being separated from a host platform, and is installed to the host platform after the update is completed.
The method is realized by the following technical scheme: on the one hand, the virtual plug-in system based on the computer simulation platform is provided with a plug-in calling system by arranging plug-in calling systems on the computer simulation platform, the host platform of the simulation platform as a plug-in is provided with a plurality of callable plug-ins, the plug-in calling system comprises a resource library, a Shadow end, a plug-in container and a configuration end,
The resource library is used for storing codes and providing corresponding code groups for the new plug-in; the Shadow end is used for acquiring the plug-in updating prompt, sending an authentication signal to the resource library and compiling the code group;
The plug-in container comprises a multistage environment for training a new plug-in, wherein the multistage environment comprises a loading environment, an interface environment and a starting environment, the loading environment is used for testing the efficiency of running a compiling product of the new plug-in, the interface environment is used for testing the communication efficiency between a main process of the new plug-in and an interface, and the starting environment is used for testing the compiling efficiency of a host platform and the new plug-in;
The configuration end is used for bridging the new plug-in with the host platform and covering at least one old plug-in by packaging the new plug-in.
Through the technical means, after the plug-in source sends out the update prompt, the code group in the resource library can be directly called, the update and the compiling can be carried out without confirmation of a user, and the update and the replacement of the new plug-in and the old plug-in are realized through the mutual cooperation of the resource library, the Shadow end, the plug-in container and the configuration end which are arranged on the simulation platform.
Further, a plurality of activity modules are arranged in the resource library, and the working principle of the activity modules is as follows:
S1: after the old plug-in is covered by the new plug-in on the host platform, the resource library automatically generates an activity module with the same name as the new plug-in;
S2: the activity modules with the same name have registration authorities, and when the Shadow end obtains the plug-in updating prompt, the activity modules with the same name obtain code groups and authentication signals according to the registration authorities to start compiling work;
S3: the activity modules with the same names send the compiled codes to the plug-in container for training.
Through the technical means, the resource library can store a large number of code values in advance, the compiling of a plurality of subsequent new plugins is facilitated, the new plugins are registered in advance, the user does not need to agree to update the authority, the new plugin codes can be compiled in the shell automatically, the resource library and the Shadow end are mutually independent, the resource library stores the codes, the Shadow end is used for communicating with the cloud to acquire update messages and interacts with the outside, and the condition that the resource library interacts with the outside directly to cause disorder of a large number of internal code groups is avoided.
Further, the Shadow end is provided with a communication receiving port, a plug-in update prompt is obtained through the communication receiving port, the plug-in update prompt comprises a plug-in name and a plug-in process, and the plug-in process is used for assisting compiling work.
By the technical means, the Shadow end analyzes the instruction in the update prompt, and executes subsequent work through the plug-in name and the plug-in process, so that the simulation platform can independently complete the update work of the subsequent plug-in without the continuous intervention of an external platform.
Further, the compiling work includes the steps of:
s21: dividing code groups according to the number of plug-in processes, and simultaneously performing multi-process compiling;
s22: the process where the code operates executes corresponding responsibilities, wherein the responsibilities comprise one of business logic, operation agents, out-of-pair release and installation management, and the types of the processes comprise one or more of a main process and a plug-in process;
s23: and dynamically linking the compiled products of each process to obtain a new plug-in.
By the technical means, multi-process compiling work of the code groups in the resource library is realized, and the corresponding matched code groups are started according to the processes to obtain corresponding compiling products.
Further, the compiled product comprises compression packages in mysql format which are independently operated, a plurality of compression packages are loaded simultaneously and dynamically linked to realize the operation of a new plug-in, and the plurality of compression packages are files for recording the operation of a plurality of lines of codes.
By the technical means, the new plug-in realizing multiple functions is stored through the bottom logic by the compressed package in the file form, and the new plug-in can be obtained only by dynamic link when the compressed packages are distributed.
On the other hand, the virtual plug-in method based on the computer simulation platform is applied to the virtual plug-in system based on the computer simulation platform, and the working process of the plug-in container further comprises the following steps:
s61: running the loading environment, and calculating the time of finishing all compiling products by the plug-in container after the new plug-in is run;
S62: the operation interface environment, the plug-in container calculates the time of the link between the new plug-in main process and the communication receiving port of the Shadow end;
s63: when the new plug-in can normally load and communicate, running a starting environment, and when the new plug-in interacts with the original plug-in of the host platform after the host platform runs, calculating the linking time before the interaction of the new plug-in;
S64: when the time in S61, S62, S63 does not meet the time threshold in the plug-in update prompt, S21 is repeated until the time threshold is met.
According to the technical means, the new plug-in is formed by combining the code groups in the resource library, so that in order to avoid that the application of the new plug-in does not accord with a host platform, whether the new plug-in can be smoothly installed on the host platform or not is calculated by training the new plug-in a plug-in container, and the defect that the new plug-in is directly installed on the host platform is avoided, and the work of other plug-ins is influenced or the application of the new plug-in function is delayed.
Further, the configuration end integrally deletes at least one old plug-in and a compiling product thereof by identifying and matching the new plug-in name with the old plug-in name on the host platform, and covers the new plug-in and the compiling product thereof, and the configuration end configures the activity module to the resource library.
Through the technical means, the new and old plug-ins are replaced on the host platform, and the new plug-ins can conveniently realize new functions on the host platform.
Further, in step S62, when the main process does not exist in the new plug-in, the time of the plug-in process linked to the time resource library receiving port link is calculated.
By the technical means, the method can adapt to new plug-ins of different process types.
The beneficial effects of the invention are as follows:
(1) Compared with the authority of a user when the traditional computer plug-in is updated, the application can newly build an active module, namely a plug-in blank, when the plug-in is installed in the previous round, provide address and registration authority for the next round of plug-in updating, and save a large amount of updating time for a simulation platform with a large number of plug-ins.
(2) The application does not need to acquire the updated resource package of the new plug-in from the third party platform through networking, but the platform is provided with the resource package, and the new plug-in is compiled by self-distributing the code group by acquiring the plug-in update prompt, so as to replace the old plug-in to execute the new function.
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Fig. 1 is a schematic diagram of the working principle of the present invention.
Detailed Description
The following description of the embodiments of the present invention will be made clearly and fully with reference to fig. 1 of the drawings, it being apparent that the embodiments described are only some, but not all, embodiments of the present invention. Based on the embodiments of the present invention, one of ordinary skill in the art would obtain all other implementations that may be obtained without undue burden.
Examples
On the one hand, the virtual plug-in system based on the computer simulation platform is provided with a plug-in calling system by arranging plug-in calling systems on the computer simulation platform, the host platform of the simulation platform as a plug-in is provided with a plurality of callable plug-ins, the plug-in calling system comprises a resource library, a Shadow end, a plug-in container and a configuration end,
The resource library is used for storing codes and providing corresponding code groups for the new plug-in; the Shadow end is used for acquiring the plug-in updating prompt, sending an authentication signal to the resource library and compiling the code group;
The plug-in container comprises a multistage environment for training a new plug-in, wherein the multistage environment comprises a loading environment, an interface environment and a starting environment, the loading environment is used for testing the efficiency of running a compiling product of the new plug-in, the interface environment is used for testing the communication efficiency between a main process of the new plug-in and an interface, and the starting environment is used for testing the compiling efficiency of a host platform and the new plug-in;
The configuration end is used for bridging the new plug-in with the host platform and covering at least one old plug-in by packaging the new plug-in.
Through the technical means, after the plug-in source sends out the update prompt, the code group in the resource library can be directly called, the update and the compiling can be carried out without confirmation of a user, and the update and the replacement of the new plug-in and the old plug-in are realized through the mutual cooperation of the resource library, the Shadow end, the plug-in container and the configuration end which are arranged on the simulation platform.
In this embodiment, the simulation platform provides the construction of virtual scenes for operation types such as machine manufacturing, equipment application, tool use, software application and the like, including the construction of each virtual scene in the fields such as automobile data acquisition, aviation data acquisition, garden data acquisition and the like, in the virtual scenes, multiple experimental data are obtained by switching, using and calling each plug-in unit to cooperate with each other, and reference is provided for actual research and development and production through the experimental data, so that the simulation platform is applied and comprises a large number of plug-in units.
Thus, the present embodiment invokes the system by setting up a plug-in on the simulation platform or computer.
Further, a plurality of activity modules are arranged in the resource library, and the working principle of the activity modules is as follows:
S1: after the old plug-in is covered by the new plug-in on the host platform, the resource library automatically generates an activity module with the same name as the new plug-in;
S2: the activity modules with the same name have registration authorities, and when the Shadow end obtains the plug-in updating prompt, the activity modules with the same name obtain code groups and authentication signals according to the registration authorities to start compiling work;
S3: the activity modules with the same names send the compiled codes to the plug-in container for training.
Through the technical means, the resource library can store a large number of code values in advance, the compiling of a plurality of subsequent new plugins is facilitated, the new plugins are registered in advance, the user does not need to agree to update the authority, the new plugin codes can be compiled in the shell automatically, the resource library and the Shadow end are mutually independent, the resource library stores the codes, the Shadow end is used for communicating with the cloud to acquire update messages and interacts with the outside, and the condition that the resource library interacts with the outside directly to cause disorder of a large number of internal code groups is avoided.
It should be noted that, the above active module provides an address for next round of plug-in update for the empty shell that is synchronously produced when the previous round of plug-in registration is performed, and the user does not need to agree.
Further, the Shadow end is provided with a communication receiving port, a plug-in update prompt is obtained through the communication receiving port, the plug-in update prompt comprises a plug-in name and a plug-in process, and the plug-in process is used for assisting compiling work.
By the technical means, the Shadow end analyzes the instruction in the update prompt, and executes subsequent work through the plug-in name and the plug-in process, so that the simulation platform can independently complete the update work of the subsequent plug-in without the continuous intervention of an external platform.
Further, the compiling work includes the steps of:
s21: dividing code groups according to the number of plug-in processes, and simultaneously performing multi-process compiling;
s22: the process where the code operates executes corresponding responsibilities, wherein the responsibilities comprise one of business logic, operation agents, out-of-pair release and installation management, and the types of the processes comprise one or more of a main process and a plug-in process;
s23: and dynamically linking the compiled products of each process to obtain a new plug-in.
By the technical means, multi-process compiling work of the code groups in the resource library is realized, the corresponding matched code groups are started according to the process to obtain corresponding compiling products, the compiling products are compression packages for realizing different functions, and in order to ensure that the compression packages can be started simultaneously, self-starting modules are arranged in the resource library, the Shadow end, the plug-in container and the configuration end, and the self-starting modules can start codes in a plurality of compression packages.
Further, the compiled product comprises compression packages in mysql format which are independently operated, a plurality of compression packages are loaded simultaneously and dynamically linked to realize the operation of a new plug-in, and the plurality of compression packages are files for recording the operation of a plurality of lines of codes.
Through the technical means, the compression package in the file form is used for storing new plug-ins realizing multiple functions through the bottom logic, the new plug-ins are stored when the multiple compression packages are distributed, the complete new plug-ins can be obtained only through dynamic linking, and the compression package in the mysql format is a compression package format commonly used by a computer and is used for storing compression codes, so that operation faults caused by crossing between code files are avoided.
On the other hand, the virtual plug-in method based on the computer simulation platform is applied to the virtual plug-in system based on the computer simulation platform, and the working process of the plug-in container further comprises the following steps:
s61: running the loading environment, and calculating the time of finishing all compiling products by the plug-in container after the new plug-in is run;
S62: the operation interface environment, the plug-in container calculates the time of the link between the new plug-in main process and the communication receiving port of the Shadow end;
s63: when the new plug-in can normally load and communicate, running a starting environment, and when the new plug-in interacts with the original plug-in of the host platform after the host platform runs, calculating the linking time before the interaction of the new plug-in;
S64: when the time in S61, S62, S63 does not meet the time threshold in the plug-in update prompt, S21 is repeated until the time threshold is met.
According to the technical means, the new plug-in is formed by combining the code groups in the resource library, so that in order to avoid that the application of the new plug-in does not accord with a host platform, whether the new plug-in can be smoothly installed on the host platform or not is calculated by training the new plug-in a plug-in container, and the defect that the new plug-in is directly installed on the host platform is avoided, and the work of other plug-ins is influenced or the application of the new plug-in function is delayed.
Further, the configuration end integrally deletes at least one old plug-in and a compiling product thereof by identifying and matching the new plug-in name with the old plug-in name on the host platform, and covers the new plug-in and the compiling product thereof, and the configuration end configures the active module to the resource library.
Through the technical means, the new and old plug-ins are replaced on the host platform, and the new plug-ins can conveniently realize new functions on the host platform.
Further, in S62, when the main process does not exist in the new plug-in, the time of the plug-in process linked to the time resource library receiving port link is calculated.
By the technical means, the method can adapt to new plug-ins of different process types.
It should be noted that, the code linking the resource library is set in the plug-in process, so that when the new plug-in does not meet the time threshold in the plug-in container work, that is, in the S61 and S64 works, the code group in the resource library can be called again by the plug-in process, and recompilation is performed, so as to obtain the new plug-in until the time threshold condition is met.
In summary, the plug-in calling system only needs to acquire external plug-in updating information, the simulation platform independently calls codes in the resource library to compile, test and install the codes to the platform, and the simulation platform is put into application, does not need user confirmation and operation, and is automatic and convenient.
Those skilled in the art will appreciate that in one or more of the examples described above, the functions described in the present invention may be implemented in a combination of hardware and software. When the software is applied, the corresponding functions may be stored in a computer-readable medium or transmitted as one or more instructions or code on the computer-readable medium. Computer-readable media includes both computer storage media and communication media including any medium that facilitates transfer of a computer program from one place to another. A storage media may be any available media that can be accessed by a general purpose or special purpose computer.
Claims (5)
1. The virtual plug-in system based on the computer simulation platform is characterized in that a plug-in calling system is arranged on the computer simulation platform, a host platform of the simulation platform as a plug-in is provided with a plurality of callable plug-ins, the plug-in calling system comprises a resource library, a Shadow end, a plug-in container and a configuration end,
The resource library is used for storing codes and providing corresponding code groups for the new plug-in; a plurality of activity modules are arranged in the resource library, and the working principle of the activity modules is as follows:
S1: after the old plug-in is covered by the new plug-in on the host platform, the resource library automatically generates an activity module with the same name as the new plug-in;
S2: the activity modules with the same name have registration authorities, and when the Shadow end obtains the plug-in updating prompt, the activity modules with the same name obtain code groups and authentication signals according to the registration authorities to start compiling work;
s3: the activity modules with the same name send the compiled codes to the plug-in container for training;
The Shadow end is used for acquiring the plug-in updating prompt, sending an authentication signal to the resource library and compiling the code group; the Shadow end is provided with a communication receiving port, a plug-in update prompt is obtained through the communication receiving port, the plug-in update prompt comprises a plug-in name and a plug-in process, the plug-in process is used for assisting compiling work, and the compiling work comprises the following steps:
s21: dividing code groups according to the number of plug-in processes, and simultaneously performing multi-process compiling;
s22: the process where the code operates executes corresponding responsibilities, wherein the responsibilities comprise one of business logic, operation agents, out-of-pair release and installation management, and the types of the processes comprise one or more of a main process and a plug-in process;
S23: dynamically linking the compiled products of each process to obtain a new plug-in;
The plug-in container comprises a multistage environment for training a new plug-in, wherein the multistage environment comprises a loading environment, an interface environment and a starting environment, the loading environment is used for testing the efficiency of running a compiling product of the new plug-in, the interface environment is used for testing the communication efficiency between a main process of the new plug-in and an interface, and the starting environment is used for testing the compiling efficiency of a host platform and the new plug-in;
The configuration end is used for bridging the new plug-in with the host platform and covering at least one old plug-in by packaging the new plug-in.
2. The virtual plug-in system based on the computer simulation platform according to claim 1, wherein the compiled product comprises compression packages in mysql format which are independently operated, a plurality of compression packages are loaded simultaneously and dynamically linked to realize the operation of a new plug-in, and the plurality of compression packages are files for recording the operation of a plurality of lines of codes.
3. The virtual plug-in method based on the computer simulation platform is applied to the virtual plug-in system based on the computer simulation platform as claimed in claim 2, and is characterized in that the working process of the plug-in container further comprises the following steps:
s61: running the loading environment, and calculating the time of finishing all compiling products by the plug-in container after the new plug-in is run;
S62: running an interface environment, and calculating the link time of a new plug-in main process and a communication receiving port of a Shadow end by a plug-in container;
s63: when the new plug-in can normally load and communicate, running a starting environment, and when the new plug-in interacts with the original plug-in of the host platform after the host platform runs, calculating the linking time before the interaction of the new plug-in;
S64: when the time in S61, S62, S63 does not meet the time threshold in the plug-in update prompt, S21 is repeated until the time threshold is met.
4. A virtual plug-in method based on a computer simulation platform according to claim 3, wherein the configuration end configures the active module to the resource library by identifying and pairing the new plug-in name with the old plug-in name on the host platform, deleting at least one old plug-in and its compiled product as a whole, and overlaying the new plug-in and its compiled product.
5. The virtual plug-in method based on a computer simulation platform according to claim 4, wherein in step S62, when the main process does not exist in the new plug-in, the time of the plug-in process link to the time resource library receiving port link is calculated.
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