CN108491201B - Graphical programming interface of integrated test system and programming method thereof - Google Patents
Graphical programming interface of integrated test system and programming method thereof Download PDFInfo
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Abstract
The integrated test system manages all software and hardware resources participating in the test under a unified scheduling system, and provides a platform for controlling and interacting data for a plurality of discrete test resources. The invention relates to an integrated test system graphical programming interface and a programming method thereof. The initial column is an entrance for testing the running of the resource and can set the global attribute of the test resource; the end column is the end point of the test resource operation and is responsible for the release of the test resource recovery port and the like; the base line is a horizontal straight line connecting the starting column and the ending column, and represents a fixed value line or a virtual concept line of the specific characteristic quantity; the working line is a line segment combination with a starting point in a starting column and an end point in an ending column, and the line segment combination is continuous from head to tail, represents the behavior of the test resource in the test process, the test resource independently runs in parallel during test execution, needs to realize synchronous control or mutual coordination of the test resource, and is completed through a locking symbol group.
Description
Technical Field
The invention relates to an integrated test system graphical programming interface and a programming method thereof.
Background
With the development of science and technology, the functions of products are more and more, and the test requirements are more and more complex. When a single test device cannot meet the test requirements of the product, test devices with different functions need to be integrated to jointly complete the test of the product. An integrated test system needs to program all test resources under a uniform interface, but the traditional test program editing method is a text type programming mode with texts and characters as information carriers. The text programming has a typical step-by-step characteristic, control over a plurality of test resources is split into a series of steps, and each step can only operate a single test resource, so that a user cannot consider the behavior of the test resource from the perspective of the role of the test resource in testing during programming. The program is executed in sequence according to the front and back sequence of the working steps, and under the condition that a plurality of test resources are mixed, the test resources cannot run in parallel, so that errors in the test process are easily caused, and the complex test requirements cannot be met.
Disclosure of Invention
The present invention is made in view of the above problems, and an object of the present invention is to provide an intuitive, convenient, efficient, and safe programming interface and programming method.
The following technical scheme is adopted to achieve the purpose of the invention.
The invention of technical scheme 1 is a graphical programming interface of an integrated test system,
the system comprises a starting column, a baseline, a step line and an ending column, wherein the starting column is an entrance for running the test resources, the global attribute of the test resources is set, the ending column is an end point for running the test resources and is responsible for recovering the test resources and releasing ports, when a program runs to the ending column, the system ends the operation on the test resources, the baseline is a horizontal straight line connecting the starting column and the ending column and represents a fixed value line or a concept line of characteristic quantity, the step line is a combination of line segments with a starting point in the starting column, an end point in the ending column, a head and a tail which are consecutive and reflect the behavior of the resources in the test,
and defining the meaning represented by the base line according to the different functions of different test resources in the test, and defining the trend of the work step line corresponding to the resource according to the test requirement by taking the base line as a reference, thereby completing the programming of the test resources.
In addition, in the invention of claim 2, in the graphical programming interface of the integrated test system according to claim 1, the work step lines include a horizontal line, a vertical line, and/or an oblique line, the horizontal line represents a fixed value setting of the feature quantity, the vertical line represents a connection line between adjacent but non-connected work steps, and the oblique line represents a slope function of a change in the feature quantity.
In addition, the invention of claim 3 is that, in the graphical programming interface of the integrated test system of the invention of claim 2, the step line is provided with a jump symbol, a call symbol, an interrupt symbol and a terminator,
the jump symbol represents that when the set condition is satisfied in the program execution process, the execution of the original program is jumped out, the connected subprogram is executed instead, the original program is not returned after the execution, the call symbol represents that when the set condition is satisfied in the program execution process, the execution of the original program is jumped out, the external program is called instead, the original program is returned to be continuously executed after the execution of the call program is completed, the interrupt symbol represents that when the set condition is satisfied in the program execution process, the execution of the test process is interrupted, and the terminator represents that when the set condition is satisfied in the program execution process, the execution of the test process is terminated.
In addition, the invention of claim 4 is the graphical programming interface of the integrated test system according to the invention of claim 1, which includes a plurality of test resources, each of which is programmed separately and executes the associated program independently in parallel, that is, a plurality of programs run simultaneously.
In addition, the invention of claim 5, in the graphical programming interface of the integrated test system of the invention of claim 1 or 3, further comprises an assignment point, a synchronization lock and a loop,
the assigning point is arranged at a specific position of the work step line, and one or more operation symbols with characteristic quantity values are assigned to the program at a specific time point so as to realize the operation of the specific program, the synchronous lock is an operation symbol for setting the operation states of different test resources to carry out synchronization at a specific moment, and the circulation loop is to connect the two synchronous locks end to end and execute the operation symbol of the program between the two synchronous locks according to specific circulation times.
In addition, the invention of technical scheme 6 is a programming method, and the editing method of the test program using the graphical programming interface of the integrated test system as a carrier according to any one of technical schemes 1 to 5 controls the integrated test system to respectively control different test resources and cooperatively control different test resources by running the test program.
Compared with the prior art, the invention has the following beneficial effects.
According to the invention of the technical scheme 1, the graphical programming interface of the integrated test system comprises a starting column, a baseline, a step line and an ending column, wherein the starting column is an entrance for running the test resources, global attributes of the test resources are set, the ending column is an end point for running the test resources and is responsible for releasing a recovery port of the test resources, when a program runs to the ending column, the system ends the operation on the test resources, the baseline is a horizontal straight line which is connected with the starting column and the ending column in the form of a characteristic quantity fixed value line or a concept line, the step line is a combination of line segments which have starting points at the starting column and end points at the ending column and are consecutive from head to tail, and the baseline is used as a reference and reflects the running state of the program.
And defining the meaning represented by the baseline according to the different functions of different test resources in the test, and defining the trend of the worker step line according to the test requirements by taking the baseline as the reference, thereby completing the programming of the test resources. Therefore, programming of the test program is simpler and more efficient, and because a user does not contact programming characters and operates in a line drawing mode, operation errors in the operation process can be effectively prevented; and a plurality of test resources can be simultaneously controlled, so that cooperative control among programs is realized, and the test resources controlled by the programs can run more intuitively, efficiently and safely.
The programming method according to claim 6 is a method for editing a test program using the graphical programming interface of the integrated test system as a carrier according to any one of claims 1 to 5, and the integrated test system is controlled by the operation of the test program to realize respective control of different test resources and cooperative control among different test resources. Therefore, the whole integrated test system and all test resources can run more efficiently and safely, the types and the number of the test resources are not limited, and the application range of the test integrated system is widened.
Drawings
In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments or the prior art will be briefly described below, and it is obvious that the drawings in the following description are some embodiments of the present invention, and other drawings can be obtained by those skilled in the art without creative efforts.
FIG. 1 is a diagram illustrating an example of a programming interface according to the present invention
Icon: 1-initial column; 2-baseline; 3-step line working; 4-end column; 5-an assigned value point; 6-a terminator; 7-an interrupt symbol; 8-jump character; 9-call character; 10-a synchronous lock; 11-circulation loop.
Detailed Description
The technical solutions of the present invention will be described clearly and completely with reference to the accompanying drawings, and it should be understood that the described embodiments are some, but not all embodiments of the present invention. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.
In the description of the present invention, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc., indicate orientations or positional relationships based on the orientations or positional relationships shown in the drawings, and are only for convenience of description and simplicity of description, but do not indicate or imply that the device or element being referred to must have a particular orientation, be constructed and operated in a particular orientation, and thus, should not be construed as limiting the invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance.
In the description of the present invention, it should be noted that, unless otherwise explicitly specified or limited, the terms "mounted," "connected," and "connected" are to be construed broadly, e.g., as meaning either a fixed connection, a removable connection, or an integral connection; can be mechanically or electrically connected; they may be connected directly or indirectly through intervening media, or they may be interconnected between two elements. The specific meanings of the above terms in the present invention can be understood in specific cases to those skilled in the art.
FIG. 1 is a diagram illustrating an example of a programming interface according to the present invention
As shown in fig. 1, a plurality of test resources are provided, including a charging and discharging device, an environmental chamber, a data acquisition device, a cooling circulation pump and a power battery pack, an integrated test system graphical programming interface includes a starting column 1, a baseline 2, a step line 3 and an ending column 4, the operation of the test resources is started with the starting column 1 as a starting point, the operation of different test resources is started, the baseline 2 represents different meanings, the baseline 2 in the charging and discharging device represents the charging and discharging function limit of the charging and discharging device, and the lateral extension thereof also represents a time axis; the environmental chamber is a device for providing a temperature and humidity environment for the battery pack, and the baseline 2 represents a certain amount of fixed value line, for example, representing a temperature of 0 ℃ and a humidity of 0% RH; the data acquisition device is a recording device of the test process, and the base line 2 represents a fixed value line of the characteristic quantity and represents a sampling rate, such as 0 Hz; the circulation pump device is a battery pack coolant circulation device, and the base line 2 represents the flow rate or the rotation speed, such as the rotation speed of 0 RPM; the power battery pack is a tested object in the testing process, and the base line 2 is a concept line and represents the working state of the battery pack, such as the state of charge of the battery is 0%. The work step line 3 includes a horizontal line indicating a constant value operation, a vertical line indicating a connection line between adjacent but non-contiguous work steps, and a slant line indicating a slope function. For example, the horizontal work line of the charging and discharging device may represent a characteristic amount of a current value above the baseline, and the charging current 100A is set, and represents that the device is not charged or discharged on the baseline. As another example, the environmental chamber equipment has a horizontal process step line that represents a temperature set above a baseline to an above-zero temperature value and is held at a constant temperature for a period of time, and a temperature set below the baseline to a below-zero temperature value and is held at a constant temperature for a period of time.
The step line 3 is provided with a jump symbol 8, a call symbol 9, an interrupt symbol 7, and a terminator 6. Jump symbol 8 represents that when the set condition is satisfied in the program execution process, the execution of the original program is jumped out, the connected subprogram is executed instead, the original program is not returned after the execution, call symbol 9 represents that when the set condition is satisfied in the program execution process, the execution of the original program is jumped out, the external program is called instead, the original program is returned to be continuously executed after the execution of the call program is completed, interrupt symbol 7 represents that when the set condition is satisfied in the program execution process, the execution of the test process is interrupted, and termination symbol 6 represents that when the set condition is satisfied in the program execution process, the execution of the test process is terminated.
In addition, the process step line 3 also comprises an assignment point 5, a synchronous lock 10 and a circulation loop 11, wherein the assignment point 5 is arranged at a specific position of the process step line 3 and represents that one or more characteristic quantities of the program block are assigned at a specific time point, the synchronous lock 10 is an operation symbol for setting the running states of different test resources to be synchronized at a specific time, for example, the synchronous lock 10 is arranged between the charging and discharging equipment and the environmental chamber, the data acquisition equipment and the circulating pump, taking the synchronous lock 10 shown on the left side in the figure as an example, the meaning of the test method is that the charging and discharging equipment, the data acquisition equipment, the circulating pump and the environment cabin are coupled, when the temperature of the environment cabin does not meet the test requirement, and the charging and discharging equipment, the data acquisition equipment and the circulating pump are all in a waiting state, and the charging and discharging equipment, the data acquisition equipment and the circulating pump are not triggered to continue to perform the subsequent steps until the temperature of the environmental chamber reaches the set temperature.
The loop 11 is an operation symbol for connecting the two synchronous locks 10 end to end and executing a program between the two synchronous locks 10 at a predetermined number of cycles.
The structure of one embodiment of the present invention is explained above, and the operation thereof is explained below.
Firstly, a tested object in the testing process, such as a battery pack, is determined, and global attributes of the tested resource, such as communication parameter configuration, initial assignment of variables, and the like, are set in an initial column 1, that is, a starting point of running of the tested resource. A baseline 2 is connected between the starting column 1 and the ending column 4 of the testing resource, and the baseline 2 is a characteristic quantity fixed value line or a concept line, and can represent the working state of a battery pack, the flow or the rotating speed of the testing resource of the circulating pump device, the sampling rate of the data acquisition device and the like. The step line 3 is a horizontal line segment which is connected between the start column 1 and the end column 4, is continuous from head to tail with the base line 2 as a reference, and reflects the running behavior of the program. The work step line 3 comprises a horizontal line, a vertical line and/or a slope line, wherein the horizontal line represents a fixed value operation, such as fixed value of sampling rate, the vertical line represents a connecting line between adjacent but not connected work steps, no practical significance is achieved, the slope line represents a slope function of characteristic quantity change, and if the equipment does not have the slope function, the equipment needs to be supported by a Ramp algorithm at a control end of the integrated test system.
The step line 3 is provided with a jump symbol 8, a call symbol 9, an interrupt symbol 7, and a terminator 6. The jump symbol 8 indicates that when the set condition is satisfied during the program execution, the execution of the original program is jumped out, the connected subprogram is executed, and the original program is not returned after the execution. The calling symbol 9 indicates that when the program satisfies the set condition during execution, the program jumps out of the execution of the original program, and then calls an external program, and after the execution of the calling program is completed, the program returns to continue executing the original program. The interrupt symbol 7 indicates that the execution of the test process is interrupted when the program satisfies the set conditions during the execution. The terminator 6 indicates that the execution of the test process is terminated when the program satisfies the set conditions during the execution.
In addition, the synchronous operation of a plurality of test resources is uniformly controlled by the integrated test system. After the test resources run, one or more characteristic quantity values of the resources are assigned at a specific time point and a specific process step, an assignment point 5 is on a process step line 3 and is called an assignment point 5, when a plurality of test resources run simultaneously, if cooperation is needed among different test resources, a synchronous lock 10 needs to be arranged among the test resources, and therefore the different test resources run a subsequent program synchronously at a certain moment or when a certain condition is met. If a program needs to be executed circularly, a circulation loop 11 symbol is also needed to be arranged between the synchronous locks 10 to realize the circulation operation.
In addition, various test resources have the characteristic colors of the test resources, the allowable line types of the test resources are related to the functions of the test resources, and the base line and the process step line in each test resource are also respectively represented by lines with different colors.
In the above embodiment, an integrated test system graphical programming interface includes a start column, a baseline, a step line and an end column, where the start column is an entry for running a test resource, the start column sets a global property of the test resource, the end column is an end point of running the test resource, when a program runs to the end column, the system ends operation on the test resource, the baseline is a horizontal straight line connecting the start column and the end column in the form of a feature quantity fixed value line or a concept line, and the step line is a combination of line segments with a start point at the start column, an end point at the end column, and consecutive beginning and end points, and reflecting a running state of the program with the baseline as a reference.
And defining the meaning represented by the baseline according to the different functions of different testing resources in the testing, and defining the trend of the worker step line according to the testing requirements by taking the baseline as the reference, thereby completing the testing experiment of the testing resources. Therefore, the programming of the test program is simpler and more efficient, and because the user does not contact with the programming characters and operates in a line drawing mode, the operation error in the operation process can be effectively prevented; and a plurality of test resources can be simultaneously controlled, so that cooperative control among programs is realized, and the test resources controlled by the programs can run more intuitively, efficiently and safely.
In addition, in the above-described embodiment, the process step lines include a horizontal line, a vertical line, and/or a slant line, the horizontal line indicating a constant value operation, the vertical line indicating a connection line between adjacent but non-contiguous process steps, and the slant line indicating a slope function. Therefore, the program can operate the controlled test resources more intuitively and more visually, and errors can be effectively avoided in the operation process.
In the above embodiment, the step line is provided with a jump character, a call character, an interrupt character, and a terminator. The jump symbol represents that when the set condition is satisfied in the program execution process, the execution of the original program is jumped out, the connected subprogram is executed instead, the original program is not returned after the execution, the call symbol represents that when the set condition is satisfied in the program execution process, the execution of the original program is jumped out, the external program is called instead, the original program is returned to be continuously executed after the execution of the call program is completed, the interrupt symbol represents that when the set condition is satisfied in the program execution process, the execution of the test process is interrupted, and the terminator represents that when the set condition is satisfied in the program execution process, the execution of the test process is terminated. Therefore, the test process is safer, more reliable and more efficient.
In addition, in the above embodiment, the system further includes an assignment point, a synchronization lock, and a loop, where the assignment point is set at a specific position of the work step line, and assigns an operation symbol of one or more characteristic quantities to the program at a specific time point, so as to implement the operation of the specific program, the synchronization lock is an operation symbol that sets the operation states of different test resources to be synchronized at a specific time, and the loop is an operation symbol that connects two synchronization locks end to end, and executes the program between the two synchronization locks according to a specific number of cycles. Therefore, the effect of integrated control is achieved, a plurality of test experiments can be completed together in parallel, the test efficiency is higher, the synergistic effect among different test experiments is also effectively realized, and the experiment cost is reduced.
In addition, the programming method using the graph as the carrier enables a user not to make mistakes on the program grammar, the user does not need to learn the operation, command format, parameters and the like of specific test resources any more, and only needs to draw lines according to the function of the test resources in the test, so that the user operation is simpler, the safety is better, and the programming efficiency is obviously improved.
In the above-described embodiments, the specific configuration of the present invention has been described, but the present invention is not limited thereto.
For example, the process steps include horizontal lines, vertical lines and/or oblique lines, but are not limited thereto, and may include dotted lines or curved lines as long as the operation state and operation condition of the program can be effectively reflected.
In addition, the process line is provided with symbols such as jump symbols, call symbols, break symbols, termination symbols, value points, synchronous locks, circulation loops and the like, but the symbols are not limited to these symbols, and other types of symbols can be provided according to different tests in different fields, so long as the symbols can be operated conveniently by a user and can also meet the safety requirements.
In addition, the graphical programming interface of the integrated test system of the invention can be combined by various structures, and can also exert the effects.
Finally, it should be noted that: the above embodiments are only used to illustrate the technical solution of the present invention, and not to limit the same; while the invention has been described in detail and with reference to the foregoing embodiments, it will be understood by those skilled in the art that: the technical solutions described in the foregoing embodiments may still be modified, or some or all of the technical features may be equivalently replaced; and the modifications or the substitutions do not make the essence of the corresponding technical solutions depart from the scope of the technical solutions of the embodiments of the present invention.
Claims (5)
1. An integrated test system graphical programming interface is characterized in that program blocks owned by a single test resource comprise a starting column, a baseline, a step line and an ending column, wherein the starting column is an entrance for the program block of the test resource to set global attributes of the test resource, the ending column is an end point of the program block of the test resource and is responsible for recovering the test resource and releasing ports, when the program runs to the ending column, the system ends the operation on the test resource, the baseline is a horizontal straight line which connects the starting column and the ending column in the form of a characteristic quantity fixed value line or a concept line, the step line is a combination of line segments which has a starting point at the starting column, an end point at the ending column and is consecutive from beginning to end, and the baseline is used as a reference and reflects the running state of the program,
defining the meaning represented by the base line according to the difference of functions borne by different test resources in the test, and defining the trend of the step line according to the test requirement by taking the base line as a reference, thereby completing the behavior constraint and function setting of the test resources in the test process;
the work step lines comprise horizontal lines, vertical lines and/or oblique lines, the horizontal lines represent fixed value operation, the vertical lines represent connecting lines between adjacent but non-connected work steps, and the oblique lines represent slope functions of characteristic quantity change.
2. The graphical programming interface of an integrated test system as claimed in claim 1, wherein said step lines are provided with jumpers, callers, interrupters and terminators,
the jump symbol represents that when the program execution process meets the set condition, the execution of the original program jumps out, the connected subprogram is executed instead, the original program is not returned after the execution, the call symbol represents that when the program execution process meets the set condition, the execution of the original program jumps out, the external program is called instead, the original program is returned to be continuously executed after the execution of the call program is finished, the interrupt symbol represents that when the program execution process meets the set condition, the execution of the test process is interrupted, and the terminator represents that when the program execution process meets the set condition, the execution of the test process is terminated.
3. The graphical programming interface of an integrated test system as claimed in claim 1, wherein the fully functional test program includes at least one of the test resources, each test resource is individually graphically programmed and independently executes the blocks of the resource in parallel, i.e. a plurality of blocks run synchronously.
4. The graphical programming interface of integrated test system as claimed in claim 1 or 2, further comprising an assigning point, a synchronization lock and a loop,
the assignment points are arranged at specific positions of the work step line and represent that one or more characteristic quantities of the program block are assigned at specific time points, the synchronous locks are operation symbols for setting running states of different test resources to be synchronized at specific moments, and the circulation loop is an operation symbol for connecting the two synchronous locks end to end and circularly executing the program between the two synchronous locks according to specific times.
5. A programming method, characterized in that, the method for editing a test program using the graphical programming interface of an integrated test system as a carrier according to any one of claims 1 to 4 controls the integrated test system to implement separate control of different test resources and cooperative control between different test resources by the operation of the test program.
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Address after: 211800 Room 372, Building 12, Buyue Road, 29 Qiaolin Street, Pukou District, Nanjing City, Jiangsu Province Applicant after: Nanjing Oka Measurement and Control Technology Co., Ltd. Address before: 300399 room 209, 2 floor, 2 East Valley Center, 24 weft Road, Dongli Development Zone, Dongli, Tianjin. Applicant before: Tianjin Ai Rui Shi Fu Card Control Technology Co. |
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