CN109614339B - Automatic expansion method based on multiple sets of test environments - Google Patents
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Abstract
The invention relates to the field of computer software, and provides an automatic expansion method based on multiple sets of test environments. The method mainly aims at solving the problem of feasibility of execution of a large number of time-sequence test tasks and the problem of efficiency, and the main scheme comprises the following steps: step 1: extracting the same time sequence related system from each product line test environment, determining a parent time sequence related system and a child time sequence related system, and configuring a related configuration template M-C according to a private configuration variable PV of the parent time sequence related system; step 2: generating a new environment self-configuration list of each sub time sequence related system, completing the association configuration of the new environment of each sub time sequence related system, and realizing the association of upstream and downstream systems of each primary and secondary time sequence related system; and step 3: and each sub-timing related system carries out data synchronization from the parent timing related system, randomly distributes execution tasks to each sub-timing related system according to different date field data in the timing task execution plan, and executes the data of the corresponding date field in a matching manner.
Description
Technical Field
The invention relates to the field of computer software, in particular to the field of testing, and provides an automatic expansion method based on multiple sets of testing environments.
Background
The service function test in the software test needs to be carried out based on the test environment, and the uncertainty of the service test task amount puts higher requirements on the test environment, particularly under the condition that a large number of tasks are concurrent.
The time sequence task comprises the following steps: the test point has strong time dependence, for example, a certain test task can only be executed at number 10, and the next task can only be executed at number 20. Such as daily cut batch tests in bank tests. The time sequence task has high requirements on the test environment, and only one environment can be supported at the same time. Often, a test environment includes multiple interrelated business systems. The testing systems corresponding to different product lines have certain differences, but all the testing systems comprise core systems related to processing time sequence tasks, and the differences of the testing systems of different product lines are mainly concentrated in an upstream system of the core systems.
The method aims to solve the problems of feasibility and timeliness of a large number of time sequence task tests. There are two main existing solutions to solve the problem of testing a large number of sequential tasks in the prior art.
The first scheme is as follows: each time sequence test task is queued in sequence according to the time requirement and executed in a serial mode, and the next test task can be executed only after the execution of the previous task is finished and the corresponding verification is carried out. If the former test task finds that the later task needs to wait for the defect to be solved, the verification can be carried out. Thus, the problem of execution feasibility is solved, but the test tasks are bound to wait for each other and waste a lot of time, if more tasks are needed, data among the test tasks are interfered with each other, the test verification difficulty is increased, and the test time consumption is further increased.
Scheme II: according to the number of the time sequence testing tasks, testing environments corresponding to the number of sets are established, and each task corresponds to one set of environment under an ideal condition, so that the problem of feasibility of multi-time sequence task execution and the problem of timeliness of testing task execution can be solved. However, a set of test environment is often composed of dozens of service systems, and a lot of environmental resources and human resources are consumed for establishing excessive test environments. And because of the uncertainty of the time sequence testing task quantity, environmental resource waste is caused to a certain extent, and meanwhile, higher challenge is provided for the dynamic management of the testing environment.
Although the two schemes can solve the problem of feasibility of executing a large number of time sequence test tasks, the two schemes have more serious additional problems.
Compared with the two schemes, the scheme optimizes the execution time consumption and the environmental resource waste problem on the basis of solving the feasibility. Aiming at the problem that when a large number of time sequence test task environments are insufficient, the time sequence related systems can be combed out from a plurality of related systems, the time sequence related systems are firstly borrowed from other product line test environments, if the time sequence related systems are not enough, the time sequence related systems can be independently expanded, the expanded systems and the rest of upstream and downstream systems can be associated in an automatic configuration mode to form a plurality of sets of virtual environments, data are synchronous between the original environments and the virtual environments, and the effect same as that of building a plurality of sets of entity environments can be achieved in use.
Disclosure of Invention
The invention aims to solve the problems of feasibility and efficiency of executing a large number of time sequence test tasks and provides a method for realizing test expansion without building a plurality of environments.
The invention adopts the following technical scheme for realizing the purpose:
an automatic expansion method based on a plurality of sets of test environments is characterized by comprising the following steps:
step 1: extracting the same time sequence related system from each product line test environment, respectively naming the time sequence related system of the product line needing to be expanded to the time sequence related system as a master time sequence related system according to different product lines as A, A1 and A2 …, regarding the time sequence related systems of other product lines as slave time sequence related systems, and configuring a related configuration template M-C according to a private configuration variable PV of the master time sequence related system;
step 2: generating a new environment self-configuration list of each sub time sequence related system, and automatically adding the association configuration of the new environment of each sub time sequence related system through the new environment self-configuration list to complete the association between each sub time sequence related system and the upstream and downstream systems of the parent time sequence related system;
and step 3: and (3) each sub-timing related system performs data synchronization from the parent timing related system in the step (1), randomly distributes execution tasks to each sub-timing related system according to different date field data in the timing task execution plan, and performs matching execution on the data of the corresponding date field according to the execution tasks.
And 4, step 4: and after the task is executed, restoring the original configuration of each product line system.
In the above technical solution, step 1 includes the following steps:
step 1.1: extracting the same time sequence related system from each product line test environment, respectively naming the time sequence related system of the product line needing to be expanded to the time sequence related system as a master time sequence related system and the time sequence related systems of other product lines as sub time sequence related systems according to the difference of the product lines as A, A1 and A2 …;
step 1.2: combing the correlation configuration between the mother time sequence related system and the upstream and downstream systems, and storing the correlation configuration in a key value pair mode, wherein the correlation configuration comprises public configuration and private configuration; extracting the changed content in the private configuration to form a private configuration variable PV, and storing the public configuration name, the public configuration value, the private configuration name and the private configuration variable PV one by one to form an associated configuration template M-C;
step 1.3: and extracting the actual values of the configuration items from the sub-time sequence related system according to the configuration items related in the associated configuration template M-C to form original configuration templates M-A1 and M-A2 … of each product line environment before environment expansion, wherein the templates are used for recovering the subsequent environment.
In the above technical solution, step 2 includes the following steps:
step 2.1: when a user needs a plurality of environments, firstly borrowing the time sequence related systems A1 and A2. in an idle product line, and acquiring actual values corresponding to the private variables PV 'of the time sequence related systems A1 and A2. by taking the private variables PV of the associated configuration template M-C as a basis, wherein the actual values of the private variables PV' of the sub time sequence related systems replace the private variables PV in the associated configuration template M-C to form a new environment owned configuration list of each sub time sequence related system;
and 2.2, finding the configuration clusters corresponding to the sub-time sequence related systems in the global configuration center system, and replacing the configuration clusters one by one with values in the new environment self-owned configuration list to complete the association of the sub-time sequence related systems and the upstream and downstream systems.
In the above technical solution, step 3 includes the following steps:
step 3.1: the data of the sub-time sequence related system are obtained from the parent time sequence related system through data synchronization, the size D1 of the data volume of the database and the number of the libraries needing synchronization are firstly obtained, and a data volume threshold D2 is set according to actual needs;
step 3.2: if the data volume D1 is larger than the data volume threshold D2, multi-thread synchronization is adopted to improve the synchronization efficiency, otherwise, single-thread synchronization is adopted, and both the data volume judgment and the synchronization mode switching are automatically executed by codes;
step 3.3: and according to different date field data in the time sequence task execution plan, randomly distributing the data to the execution tasks of each new environment time sequence related system A', and according to the execution tasks, matching and executing the data of the corresponding date field.
In the above technical solution, step 4 includes the following steps: according to the original configuration templates M-A1 and M-A2 … of the product wire environments before expansion in the step 1.3, the configuration clusters corresponding to the sub-time sequence related systems are found in the global configuration center and replaced by the original configuration templates M-A1 and M-A2 …, and the borrowing environments A1 and A2.
Because the invention adopts the technical scheme, the invention has the following effects:
1. in the aspect of environment construction, compared with the construction of a whole set of environment, the method can save environment resources and save environment construction time by utilizing an idle system or only expanding and constructing a time sequence related system.
2. The environment is automatically built in the whole course, standardized template formation is achieved by building, building efficiency is higher, and dynamic environment maintenance is facilitated.
3. In the aspect of testing tasks, a large amount of daily cutting operations are executed in parallel instead of serial execution, so that mutual influence and mutual waiting among the testing tasks are reduced, the testing accuracy is improved, and data pollution is reduced.
Drawings
In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings needed to be used in the embodiments will be briefly described below, it should be understood that the following drawings only illustrate some embodiments of the present invention and therefore should not be considered as limiting the scope, and for those skilled in the art, other related drawings can be obtained according to the drawings without inventive efforts.
FIG. 1 is a schematic flow diagram of the process of the present invention;
FIG. 2 is a schematic diagram of the system of the present invention.
Detailed Description
In order to make the objects, technical solutions and advantages of the present invention more apparent, the present invention is described in further detail below with reference to the accompanying drawings and embodiments. It should be understood that the detailed description and specific examples, while indicating the preferred embodiment of the invention, are intended for purposes of illustration only and are not intended to limit the scope of the invention. The components of embodiments of the present invention generally described and illustrated in the figures herein may be arranged and designed in a wide variety of different configurations.
Thus, the following detailed description of the embodiments of the present invention, presented in the figures, is not intended to limit the scope of the invention, as claimed, but is merely representative of selected embodiments of the invention. All other embodiments, which can be derived by a person skilled in the art from the embodiments of the present invention without making any creative effort, shall fall within the protection scope of the present invention.
It is noted that relational terms such as "first" and "second," and the like, may be used solely to distinguish one entity or action from another entity or action without necessarily requiring or implying any actual such relationship or order between such entities or actions. Also, the terms "comprises," "comprising," or any other variation thereof, are intended to cover a non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements does not include only those elements but may include other elements not expressly listed or inherent to such process, method, article, or apparatus. Without further limitation, an element defined by the phrase "comprising an … …" does not exclude the presence of other identical elements in a process, method, article, or apparatus that comprises the element.
Example 1
An automatic expansion method based on a plurality of sets of test environments is characterized by comprising the following steps:
step 1: extracting the same time sequence related system from each product line testing environment, respectively naming the same as A, A1 and A2 … according to different product lines, wherein A is used as the time sequence related system of the original testing environment to be expanded, and configuring a related configuration template M-C according to a private configuration variable PV of the time sequence related system A; it should be understood by those skilled in the art in light of the present disclosure that a1 can also be used as the timing correlation system of the original test system, where the timing correlation system of the original test system is referred to as the parent timing correlation system, and for other systems, it is referred to as the child timing correlation system, and for the selection of the alphabet timing correlation system, those skilled in the art should understand that it can be determined according to the product line to be extended and the product line to be left unused.
Step 1.1: the time sequence related system related to the execution of the time sequence task is extracted from the test environment of each product line, and the time sequence related system is named as A, A1 and A2 … according to different product lines, wherein A is the time sequence related system of the original test environment to be expanded, namely the mother time sequence related system.
Step 1.2: combing the associated configuration between the original environment time sequence related system A and the upstream and downstream systems, and storing the associated configuration in a key value pair mode, wherein the associated configuration comprises public configuration and private configuration; extracting the changed content in the private configuration to form a private configuration variable PV, and storing the public configuration name, the public configuration value, the private configuration name and the private configuration variable PV one by one to form an associated configuration template M-C;
step 1.3: and extracting actual values of configuration items from other product line time sequence related systems such as A1, A2.
In order to address the situation that other product lines have no idle time sequence related systems to be deployed, the method further comprises the following step 2: establishing a rapid deployment standard, and dynamically and rapidly deploying the sub-time sequence related system according to the requirement;
the specific criteria are as follows:
unifying application directories of the system A: the application is placed in a unified file directory,
the system A has unified application name naming: all take the original application name plus the increasing natural number as the new application name,
The configuration of the system setting file is unified: and uniformly configuring the address of the configuration center and establishing the corresponding relation between the application and the configuration center by the new application name I.
The application deployment standard is formed into a configuration script, and when a user inputs the required environment quantity, the script can be repeatedly executed to deploy a plurality of sets.
The application of the parent time sequence related system and the deployment standard of the database are unified, and the child time sequence related system can be dynamically deployed according to the time sequence task requirement.
And step 3: generating a new environment self-configuration list of each sub time sequence related system, and automatically adding the association configuration of the new environment of each sub time sequence related system through the new environment self-configuration list to complete the association between each sub time sequence related system and the upstream and downstream systems of the parent time sequence related system;
step 3.1: when a user needs multiple environments, firstly borrowing the time sequence related systems A1 and A2. in an idle product line, and obtaining actual values corresponding to the private variables PV 'of the time sequence related systems A1 and A2. according to the private variables PV of the associated configuration template M-C, wherein the actual values of the private variables PV' of the sub time sequence related systems replace the private variables PV in the associated configuration template M-C to form to-be-configured lists L-A1 and L-A2.
Step 3.2: when the time sequence related system borrowed from an idle product line still cannot meet the requirement, the time sequence related system needs to be automatically newly built. And (3) deploying the sub-time sequence related system according to the deployment standard established in the step (2) and according to the requirement, automatically acquiring the related value of the private configuration variable pv in the related configuration template M-C through a code, splicing character strings to obtain the actual value pv ' of the private configuration variable of the sub-time sequence related system, and replacing the private configuration variable pv of the related configuration template M-C with the actual value pv ' of the private configuration variable to obtain a new self-owned configuration list L-A ' of the sub-time sequence related system.
Step 3.3: the association configuration is divided into two types according to different time sequence related system sources, the first type is time sequence related systems A1 and A2. borrowed from an idle product line, configuration clusters corresponding to A1 and A2. are found in a global configuration center system, and the configuration clusters are replaced by values in configuration lists L-A1 and L-A2. And for the newly deployed sub-timing-sequence related systems, automatically establishing clusters for configuration items in an own configuration template list L-A 'of the new sub-timing-sequence related systems in a global configuration center system in an API access mode, wherein each sub-timing-sequence related system corresponds to one cluster, and adding the configuration items in the L-A' one by one in the corresponding cluster to complete the association of the sub-timing-sequence related systems with an upstream system and a downstream system.
And 4, step 4: and (3) each sub-timing related system performs data synchronization from the parent timing related system in the step (1), randomly distributes execution tasks to each sub-timing related system according to different date field data in the timing task execution plan, and performs matching execution on the data of the corresponding date field according to the execution tasks.
Step 4.1: the data of the sub-time sequence related system are obtained from the parent time sequence related system through data synchronization, the size D1 of the data volume of the database and the number of the libraries needing synchronization are firstly obtained, and a data volume threshold D2 is set according to actual needs;
step 4.2: if the data volume D1 is larger than the data volume threshold D2, multi-thread synchronization is adopted to improve the synchronization efficiency, otherwise, single-thread synchronization is adopted, and both the data volume judgment and the synchronization mode switching are automatically executed by codes;
step 4.3: and according to different date field data in the time sequence task execution plan, randomly distributing the data to each execution task related to the sub-time sequence, and according to the execution tasks, matching and executing the data of the corresponding date field.
And 5: and after the task is executed, restoring the original configuration of each product line system.
In the above technical solution, step 5 includes the following steps: according to the original configuration templates M-A1 and M-A2 … of the product wire environments before expansion in the step 1.3, the configuration clusters corresponding to A1 and A2.
Claims (3)
1. An automatic expansion method based on a plurality of sets of test environments is characterized by comprising the following steps:
step 1: extracting the same time sequence related system from each product line test environment, respectively naming the time sequence related system of the product line needing to be expanded to the time sequence related system as a master time sequence related system according to different product lines as A, A1 and A2 …, regarding the time sequence related systems of other product lines as slave time sequence related systems, and configuring a related configuration template M-C according to a private configuration variable PV of the master time sequence related system;
step 2: generating a new environment self-configuration list of each sub time sequence related system, and automatically adding the association configuration of the new environment of each sub time sequence related system through the new environment self-configuration list to complete the association between each sub time sequence related system and the upstream and downstream systems of the parent time sequence related system;
and step 3: each sub-timing sequence related system carries out data synchronization from the parent timing sequence related system in the step 1, randomly distributes execution tasks to each sub-timing sequence related system according to different date field data in a timing sequence task execution plan, and matches and executes data of corresponding date fields according to the execution tasks;
and 4, step 4: after the task is executed, recovering the original configuration of each product line system;
the step 1 comprises the following steps:
step 1.1: extracting the same time sequence related system from each product line test environment, respectively naming the time sequence related system of the product line needing to be expanded to the time sequence related system as a master time sequence related system and the time sequence related systems of other product lines as sub time sequence related systems according to the difference of the product lines as A, A1 and A2 …;
step 1.2: combing the correlation configuration between the mother time sequence related system and the upstream and downstream systems, and storing the correlation configuration in a key value pair mode, wherein the correlation configuration comprises public configuration and private configuration; extracting the changed content in the private configuration to form a private configuration variable PV, and storing the public configuration name, the public configuration value, the private configuration name and the private configuration variable PV one by one to form an associated configuration template M-C;
step 1.3: extracting actual values of configuration items from the sub-time sequence related system according to the configuration items related in the associated configuration template M-C to form original configuration templates M-A1 and M-A2 … of each product line environment before environment expansion, wherein the templates are used for recovering a subsequent environment;
the step 2 comprises the following steps:
step 2.1: when a user needs a plurality of environments, firstly borrowing the time sequence related systems A1 and A2. in an idle product line, and acquiring actual values corresponding to the private variables PV 'of the time sequence related systems A1 and A2. by taking the private variables PV of the associated configuration template M-C as a basis, wherein the actual values of the private variables PV' of the sub time sequence related systems replace the private variables PV in the associated configuration template M-C to form a new environment owned configuration list of each sub time sequence related system;
step 2.2: and finding the configuration clusters corresponding to the sub time sequence related systems in the global configuration center system, and replacing the configuration clusters one by one with values in the new environment self-owned configuration list to complete the association of the sub time sequence related systems and the upstream and downstream systems.
2. The method of claim 1, wherein step 3 comprises the steps of:
step 3.1: the data of the sub-time sequence related system are obtained from the parent time sequence related system through data synchronization, the size D1 of the data volume of the database and the number of the libraries needing synchronization are firstly obtained, and a data volume threshold D2 is set according to actual needs;
step 3.2: if the data volume D1 is larger than the data volume threshold D2, multi-thread synchronization is adopted to improve the synchronization efficiency, otherwise, single-thread synchronization is adopted, and both the data volume judgment and the synchronization mode switching are automatically executed by codes;
step 3.3: and according to different date field data in the time sequence task execution plan, randomly distributing the data to the execution tasks of each new environment time sequence related system A', and according to the execution tasks, matching and executing the data of the corresponding date field.
3. The method of claim 2, wherein step 4 comprises the steps of: according to the original configuration templates M-A1 and M-A2 … of the product wire environments before expansion in the step 1.3, the configuration clusters corresponding to the sub-time sequence related systems are found in the global configuration center and replaced by the original configuration templates M-A1 and M-A2 …, and the borrowing environments A1 and A2.
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