WO1996018944A1 - Assembly type software design processing apparatus - Google Patents

Abstract

An assembly type software design component, an assembly type software design processing apparatus and a software design processing method using the apparatus. Software design processing involves abstraction, disassembly, handling, transmission, conversion and other processings of assembly of standardized components, and development of software and their maintenance and inspection can be carried out easily.

Description

 Specification

 Prefabricated software: Pier design processing equipment S

Technical field

 SUMMARY OF THE INVENTION The present invention relates to a prefabricated software design component fi that handles assembly, abstraction, disassembly, handling, transmission, transformation, and the like of the prefabricated software design components, and software that is implemented using the fi device. I will discuss the method of design process.

Background art

 First software :! The design process of the flow chart (Floow chart), which was designed by Designer, is based on the number of characters in which graphics promised for each function, such as process and power, judgment, and initialization, are written. An automated software design using a design processing device can be performed by arbitrarily defining and drawing non-standards, and connecting the function shapes drawn in a non-standard manner with non-standardized arrowheads. It was difficult to recognize the control structure of the program to be embodied.

 In order to solve the problems of the flow chart type design processing equipment and method, the design processing equipment and method using conventional structured diagrams which were devised in order to solve the problem A sequence design, such as a sequence, a selection, or an eration, is performed by connecting or embodying the promised garden shapes for each control structure by bonding or wire. It can solve the problem of the recognition of the control structure of the program for the software I-design by S. Then, a number of structured field processing devices and methods appeared in various countries of the world, We were able to improve the productivity of wafer development.

However, with the rapid spread of computers, a worldwide information environment has been established, and general users have considerable knowledge of computers. The level of user satisfaction with the softwares developed therefrom became even higher, and the requirements for the developers became more complex.

 As a result, the specific gravity of the maintenance and maintenance of the software was rapidly increased from the specific gravity of the software: I: key development. The emphasis was placed on productivity improvement, and the maintenance and maintainability of the once drawn software design, such as the abstraction and concreteization of the structure and the partial modification and expansion and maintenance, was carried out. In addition, these conventional software I-design processing devices and methods are limited to fields and texts, and have global networking and multi- It was not possible to respond to software design for software development and maintenance in consideration of the design environment applicable to technological developments such as mediaization, multiple processing, parallel processing, and realization of holidays.

Detailed description of the invention

Therefore, the present invention, which was devised to solve the above-mentioned problems of the conventional technology, is based on the software flow in the software design processing work using the assembly-type software I design processing device. Rather than connecting the design garden shapes one by one as in the case of the design processing method of Structuralization II, three types of pattern parts, basic parts, block parts, and structural parts, are used before the design of the software I / F. The standardized and standardized assembling software pattern parts stored in the design parts storage section, which is a separate storage means inside the assembling software design processing equipment e, are completely separated from the factory. Hardware by industrial robots! : Software I-pattern parts that can be easily assembled at any time as needed in the same way as when assembling or disassembling a chip in an automated process. Can be easily disassembled and removed at any time, without damaging the existing design surface, and unnecessary portions can be easily disassembled and removed within the embodied design diagram. For example, to tie adjacent basic parts ゃ pattern parts such as block parts and structural parts to make them abstract according to the necessity of the division of processing functions, etc. Regardless of the design process on the network, the design process for supporting multimedia, the design process on the real environment, and the conversion between the design stage and the program code stage (forward The purpose of the present invention is to provide a prefabricated software design processing device 11 which supports the reverse engineering and reverse processing, and a processing method using this device.

In order to achieve the above object, the present invention is mainly divided into a central design control unit for controlling the overall design process of Soft Tu I and a design component storage unit for storing the assemblable Soft X X design components. And a design parts assembling section for assembling prefabricated software design parts, a design parts abstraction section to bind and abstract adjacent prefabricated software I design parts, and a A design parts disassembly section for disassembling and removing design parts, a design parts delivery management section that enables a large number of designers to cooperate on a network, and a multimedia software design processing section. Multimedia design processing unit to enable software design processing, and software design processing unit to enable software design processing in the real world environment, design stage and program code implementation stage. It is equipped with an assembly-type soft tuner design processing unit consisting of nine parts of a design implementation interconversion unit that supports forward and reverse engineering. The details of how to implement the present invention will be described with reference to the drawings. The first section shows the block diagram of the prefabricated software I design processing device, which is the core device S of the present invention, and the central design control unit (101) that supervises the prefabricated software design process. The design part storage unit (102), the design part assembly unit (103), the design part abstraction unit (104), the design part disassembly unit (105), the design part transmission management unit (106), Each part is connected to the media design processing part (107), the real design design processing part (108), and the design implementation mutual conversion part (109).

 When the power supply is applied to the prefabricated software I / F design processing device of the present invention, the central design control unit for controlling the prefabricated software design process comprehensively starts performing general design control work. And the second stage where the central design control unit loads the assembling software X design parts from the auxiliary storage device to the design parts storage unit. The assembling type software where the design parts assembly unit is standardized and standardized : The third stage of assembling work with tera design parts, and the abstraction work of design part abstraction part which binds and abstracts related software design parts among assembled software design parts The fourth stage, the fifth stage of disassembling and removing unnecessary parts from the software design parts assembled with the design parts disassembly unit, Cooperation with many designers on the network The sixth stage of the transmission management control work for processing, the seventh stage of the multimedia design processing part performing multimedia-like software design processing work, and the design processing part of the software design in the real world environment. The eighth stage, which is the control of the realization of the realization of the design process, and the ninth stage, which is the conversion that supports the forward and reverse engineering between the design stage and the program code implementation stage. I have it.

The core device of the present invention is the assembling software:! : Software by design equipment If the method of the hardware design process is explained by function, the first function is to automatically assemble the design parts of the assemblable software into the storage device for image display and to have the effect of drawing the design on the image display »surface. And if there is a soft-I part to be newly inserted in the newly created soft-to-designer design surface, the second function to automatically recognize and specify the insertion position g of this part, and the The third function, which automatically inserts new software parts into the insertion position fi recognized by the second function in the second function and accurately assembles them, and the software design that simultaneously inserts new soft-to-I parts The fourth function that automatically rearranges the entire design parts of the software and the software that attempts to abstract from the software design park are automatically recognized and specified by structure or function. Fifth function and fifth Recognition by function Sixth function that abstracts the specified model with a new structural component, Seventh function that automatically recognizes and specifies the range of the structural or functional component to be deleted, and seventh function The 8th function and the 8th function automatically disassemble and remove parts in the range specified and recognized from the design diagram by the software. At the same time, the software:! A ninth function that automatically rearranges all parts of the software, and a software interface design diagram that automatically recognizes the range up to the end of the line by specifying the front part of the detail part of the software design The tenth function that automatically edits, moves, duplicates, deletes, adds, changes, etc. the parts, and assembles block parts between software design parts and adds new basic parts The first feature that allows you to When the main routine is designed so that it has lower modules such as supplemental channels in the design park, the calling point of the upper level design module is automatically recognized. The twelfth function and the upper-level module automatically recognized by the twelfth function The thirteenth function that automatically recognizes the starting part of the destination point of the module, and from the module of the upper layer to the design part of the lower layer that is automatically recognized by the thirteen function, the starting part of the module The 14th function automatically searches the lower level design park module regardless of whether it is in the same file as the upper level module, and the 514th function allows the lower level module to move from the lower level module to the lower level module. When searching for a module, the upper module calling point is memorized, and after the processing of the upper module is completed, the upper layer design location of the upper module is called the lower module and the lower layer is called. Fifteenth function that can be traced back regardless of whether it is in the same file as the other module, and returns to the calling point of the upper module after the processing of the lower module is completed. Sometimes, do not take steps, At the point of calling the upper module called at the end, the design module of the upper layer can be traced back regardless of whether it is in the same file as the module of the lower layer. 16 functions and software of desired form and standard in assemblable soft-to-designer parts:!:

15 17 Recognize the functions and the names and shapes of the modules on the design park, and explain the functions and usage of the modules with multimedia such as video and audio, without having to go directly to the modules. The 18th function, which allows the user to easily learn the functions and usage of the module, and the operation of the control structure in the design diagram can be observed in an animation-like manner on a module-by-module basis. If you try to do so, through the power, unit test, etc.

The 19th function to enable the module to be tested in a multimedia manner, such as sound and visual notification of the conditions of errors and the like that occur, has been developed. Input and output of multimedia data such as audio and video so that it can be created in a multimedia format instead of being created by the text user as in the past. And the 20th function for parts registration and assembly, disassembly, processing, etc., the 21st function for automatically extracting and reconstructing only the abstracts abstracted on the design field, and the W The 22nd function that can be found out and the 23rd function that allows many people to design and process simultaneously on a communication network instead of creating one by one as in the case of following the design process. In various operations and tests including assembling and disassembly of the designed parts, the real real environment was formed, and in the three-dimensional vertical K environment of the real world, the designed parts were touched directly in a contemplative manner while looking at the B parts. The 24th function that allows the user to perform the design work while feeling it, and the program function (code generatioon) that implements the program code from the design stage (fonvardeng i neer irig) work and the program Reverse engineering work to realize design restoration from the code stage Comprising a first 25 functions like that can cormorants.

 The core function of the present invention is the assembling type software: the function of realizing each function held by the r design processing device e is performed by the central design control unit embedded in the assembling type software design processing device, The other parts of the internal organs are controlled as necessary. Fields 2-1 and 2-2 are the cores of the present invention, each of which is owned by the assembling type Softu Xa design processing equipment. This is an example of a design that shows how to implement a function using the method of the present invention.

Chapters 3-1 圆 and 3-2 show examples of basic parts for designing the assembling software I according to the present invention. In the meantime, each half-width basic part has been created and registered as a half-width basic part from Al_l part to Al_16, which means a space. Whenever possible, we have added a half-width basic part number and added a new half-width basic part in a rigorous manner, making it available for use. The blank half-width basic parts for Al-1 in Garden No. 3-1 are the half-width basic parts for filling in the white space and maintaining the overall balance of the design diagram when the software design garden is assembled by assembly. In other words, it is a part for filling the blank space of the design plot in the same way that concrete is used to fill the space between the rebar and the axillus in building a building. The half-width basic parts of Al_2 to Al_14 are used for building a kind of building. »The parts corresponding to the streaks are assembled with these line-shaped parts to create the frame of the overall design of the software I. The 3-1 solid Al_15 is an albet half-width basic part corresponding to the English capital letter 'T' and functions as a signboard when the road splits on the way along the highway. Then, when the flow of the design field is divided, what conditions are set and agree with those conditions (True) The branching display half-width basic parts that are used when assembling a branch when it is performed. The M_16 in Section 3-1 阑 is an 'n' meaning number 0 to 9 This half-width basic part indicates the stage of abort when the design flow is aborted when the corresponding abort occurs in a kind of program goto statement or break statement due to exception handling (exception handling). This is the basic part of the half-cut to be used for cutting.

The 3rd side means full-width basic parts corresponding to the size of one kanji on the S-plane. Each full-width basic part is used by the garden in the design area in order from the parts used for the abstraction of processing. Up to A2_14 parts, which are used to indicate the connection of the pages in case of overdraft, 14 full-width basic parts have been created and registered with the basic parts for assemblable software design. When a new full-width basic part is made in the same way as the Al_l to A to 16 half-width basic parts shown in Fig. 3-1, the full-width basic part number is always added and the new full-width basic part is registered continuously. Become usable For example, “Ding”, which means “True” in part Α1_15 of Garden 3-1, is “Shin”, which means that it is a corresponding entity, or the opposite. When trying to use characters such as 'false', which have the meaning of, these characters are full-width characters, so they are different from the A1 _15 parts in Fig. 3-1 registered in the half-width basic parts. It is only necessary to add 2 full-width basic parts, and if a new full-width basic part is needed due to the need to express a new concept, the full-size or half-size size is always used. Depending on whether or not there is, it is possible to register with basic parts that match each. If the size requires parts that are larger and smaller than full-width or half-size, A3, A4,. Expand the basic part number with. It is advisable to register new formalized and standardized prefabricated basic parts.

The reason for considering the extensibility so that the registration of such prefabricated basic parts is possible is that the formula for registering prefabricated basic parts only with any fixed and restricted pattern is limited. Starting from the concept, multimedia components such as audio, video, etc. can be added when necessary, and such multimedia components can be processed and assembled and abstracted through standardization and standardization processing. This means that it is applied so that it can be disassembled and implemented, and that is to say that the prefabricated basic parts are applied by applying the virtua l rea li technique. Assembling type software for assembling and disassembling while directly touching, seeing, and feeling in the spatial environment of the camp. meaning Then, what can be explained can be clearly understood from such a principle of componentization. Gardens 4-1 to 4-7 are similar to those mentioned in the above description of the second section, but are connected to the basic parts corresponding to sand and cement to form a block corresponding to the cement block. ock) to make a new block part (bl ock

components), and the 4th solid Bl-1 through B1-5 pack components are the software design to be created. Is BB the main module (ma in modul e)? The foundation block parts used to form the design foundation to be used in the foundation work of the building, which indicates whether it is a sub-module (sub-module). The block part of the B3 is a target block part that displays the type of each structural pattern specific to the software design and allows the purpose of the structure to be described on the right side. — Blocks 1 to B3_4 are processed according to certain conditions when the structural parts of Design II are used. If the structural parts have conditions such as then and for ~ do, the same conditions can be displayed. Bock parts for B4_l to B4-9 in the 4th and 4th circles are the software parts. Blocks before processing corresponding to the introduction part to indicate that the processing part of structural parts can be started according to the type of each structural pattern in the tweed design field. Blocks B5_l to B5_7 in Fig. 4-5. The parts are processing block parts that enable the description of the specific processing of each structural part of Soft Tu Ika Oka. Block parts B 6_1 through B6_12 in Figure 4-6 are the parts of the software design park. The post-processing block part to indicate the end of each structural part to indicate that the processing part of the structural part ends and the flow moves to another structural part or basic part, etc. Blocks B7_l to B7_6 require materials to be maintained when building or disassembling the building in a prefabricated manner. Or being abstracted Understood Block maintenance parts to complement and maintain parts that become loose depending on the type of structure in the process.

 Similar to the basic parts of the 4-1 fields to 3-2K, the block parts of the above-mentioned 4-1 garden to 4-7 solid blocks can be added with the part number whenever necessary, and new parts can be added. It is possible to add additional registrations and prepare for future expansion.

 Fig. 5-1 -A to Fig. 5-4-1 show the assembled parts of Fig. 4-1 to Fig. 4-7 on each other and they are abstracted with new structure. Examples of the structural components are shown below, and the 5-th Affl and 5-B surfaces indicate whether the software design to be created is a main module or a sub-module. The -ΐ of the fifth garden A means the software design to be created, which means the basic structural parts used to form the design foundation corresponding to the foundation work of the building. The 5-1 -BH Cl_2 forms the basis when the software design 作 to be made is a sub-module, meaning the main module substructure components used to form the basis when Means a sub-module substructure part used for. When a sub-module refers to another sub-module again, The foundation is formed by the sub-module basic structural parts of Section 5-1 -B 圔. The sub-module is written by writing the name of each module above the basic structure of each sub-module. -It is possible to separate individual rules.

5-2-Α through 5-2-Mffl mean single processing structural parts used to indicate single processing, one processing at a time, In other words, C2_l of 5-2-AK means a sequential structue part that abstracts the processing when the processing is processed sequentially and sequentially and sequentially. When the conditions are matched, the flow of C2_2 in Garden No. 5-2-B is divided and Taki selection structure showing a structure that will allow another processing

C2_3 of 5-2-C, which means a part, also refers to a part, so that the condition can be inspected in two, and the other processing can be performed according to the twin technique selection structure (if ~ therTelse structure). ) Meaning of parts, C2_4 of Garden No. 5-2-D inspects the condition with three or more conditions, and thereby performs other processing, so that a multi-skill selection structure (case) C2-5 of the 5-2-Effl means a part, which means that it is an iterative structure that iterates and processes at the front part of the structure. C2_6 in Fig. 5-2-F is a repetitive structure that is processed and processed in a middle part of the structure. Meaning the Knuth-Zahn-Haberman structure part shown in the figure, the C2--7 of the 5-2-G solid is a repetition-processed repetition structure that emerges from the structure. Means the kTuntilstructure part, which indicates the structure at the end of the structure, and C2_8 in Fig. 5-2-H controls the number of repetitions, and Means a limited for-do structure part that indicates a structure that can be entered into the structure when it is known. C2_9 in the 5-2-1 field is the part where the abnormality occurred when the system abnormality occurred. Is a sequential illness handling structure part that indicates the structure that automatically displays information, etc., and C2_10 of the 5-2-2 Jffl inspects the condition by one kind and inputs the keyboard incorrectly. 5-2-K 圆 C2_ll means an if-then exception handling structure, which indicates a structure for performing an emergency treatment such as a special condition treatment, etc. Inspects the condition in two parts, thereby showing a structure for performing other emergency processing. g structure) means a part, and C2_12 of the 5-5-2 L 圚 has three or more conditions C2_13 of the 5-2-M field refers to the function of the material, which means a case excaption handling structure, which indicates the structure for performing other emergency processing. Abstraction structure (data) that indicates a structure for performing processing such as binding and abstraction declaration such as

abstraction structure) part.

Fields 5-3-A through 5-3-R are multi-processing structures used to indicate multiple processing (uiu iprocessing) that simultaneously processes two or more tasks at a time. To explain the structural parts in detail, C3_l of the fifth garden abstracts the two sequential processings when they are processed at the same time and shows a double sequential structure ( C3_2 in 5-3-B garden means a part of a double sequential structure, and when three or more loose processings are processed at the same time, this is abstracted to show a multiple sequential structure (mujtipje sequential structure). C3_3 of 5-3-Cffl detects two conditions at the same time, so that the flow that is matched to the conditions is divided at the same time, and the special processing is performed in a complex way. C3_4 in 5-3-D 围 means three or more conditions, meaning a double if-then structure part showing the structure Sometimes it is a multiple i rthen structure part that shows a structure where the flow is divided at the same time as the processing that matches the conditions to make a special processing complex. The C3_5 of the 5-3-E 圆 is an iteratively processed iterative structure (iteration structure), which is a pre-decision iterative structure (while ~ do structure) that indicates the structure in which the inspection coming out of the structure is performed at the front part of the structure ) Means a double while ^ do structure part that indicates that two are processed simultaneously and simultaneously, and C3_6 in Fig. 5-3-F is a repeated processing Inspection from the structure with the structure (Knuth-Zahn-Haberman structure) showing the structure where two are processed in the middle part of the structure (double nuth-Zahn-Haberman structure) Meaning of parts, C3_7 in the 5-3-G garden is a repetitive structure that is processed and processed, and a post-judgment repetition structure (ckTuil structure) that indicates a structure in which a check out of the relevant structure is performed at the end of the structure. C3_8 in 5-3-H 圇 means a repetition-processed structure, which means a double do ^ until structure component indicating that two are processed simultaneously and simultaneously. (Eration structure) A pre-determination repetition structure (while ^ do structure) showing the structure that the inspection that comes out of the structure is performed at the front part of the structure. C3_9 in the 5-3-1 field is repeatedly processed to indicate a part of the judgment repeated structure (multiple while ~ do structure). Indicates a structure in which an inspection from the structure is performed in the middle part of the structure in the repeated structure to be performed. Medium-decision repetition structure (Knuth-Zahn-Haberman structure) C3-10 in Fig. 5-3-J is a repetitive structure that is processed by repetition, which means the part that has a repetitive structure (iple Knuth-Zahn-Haberman structure). KTuntil structure, which indicates the structure to be performed in (kTuntil structure), which means a multiple post-determination iterative structure <mu iple do ^ unti 1 structure) part that indicates that three or more are simultaneously processed in a complex manner. C3_l 1 in Fig. 5-3-K indicates the structure that can control the number of repetitions and enter the structure by knowing the point before exiting from the structure. A double for ~ do structure part that is processed in a complex manner. Therefore, C3-12 on the 5-3-L plane controls the number of repetitions and knows when to exit the structure before entering the structure. A limited for-do structure indicating a structure that can be processed is a multiple limited for-do structure part that indicates that three or more can be processed simultaneously and in a complex manner. C3_13 in the garden shows a structure that automatically displays information on the part where an abnormality has occurred when a system abnormality occurs. It shows that two sequential illness handling structures are processed simultaneously and simultaneously. In the meantime, C3_14 in Section 5-3-N 圆 has a structure that automatically displays information etc. on the part where an error occurred when the system error occurred. Illness handling structure (mu) indicates that more than one is simultaneously and simultaneously processed (mu) tip means a part of the sequential illness handling structure. 3-0 圔 C3_15 checks condition to one kind and keyboard input error A single structure indicating a structure for performing an emergency treatment such as a special condition treatment or a special condition treatment (if ~ then exception handling structure) C3-16 on page 5-3-P, which means a double if ^ then exception handling structure part, inspects the condition as one type and enters keyboard input errors or special conditions. A single-selection emergency structure that shows a structure for performing an emergency treatment such as a treatment, etc. (if ~ then exception handling structure) Meaning of the structure (mu iple i fthen exception handling structure) part. C3_17 of 5-3-Qffl is a processing such as binding and abstracting the data by function or type, etc. A data abstraction structure that indicates the structure to be performed. It refers to the abstract ί spoon structure (double data abstraction structure) parts C3_18 in Fig. 5-3-R is a data abstraction structure (data abstraction) that shows a structure for performing processing such as binding and abstracting the data according to function or type. structure) means multiple data abstraction structure parts that indicate that three or more are processed simultaneously and simultaneously. 5-1-A 圚 through 5-3 above -When a new structural part is made in the future, a new number will be added to the structural parts of the -R garden so that it can be registered as a structural part.

Sections 5-4-A 圚 to 5-4-1 圆 support the extension and maintenance when structural parts are expanded as described above in Sections 5-1-Affl to 5-3-R. In detail, this means the structural maintenance parts that have been created. C4-1 in field 5-4-A is more than C2-4 in field 5-2-D. C4_2 in field 5-4-B is the same as that in field 5-2-Lffl. C2—12 multi-skill selection emergency structure maintenance parts used when trying to expand the number of operations with multi-skill selection emergency structure (case exception handling structure) parts, C4_3 in Figure 5-4-C Is a multiple sequential structure component of C3_2 in 5-3-B® and a multiple sequential structure component of C3-14 in 5-3- \ 圚, mul tiple sequential illness handling structure And the 5-3-R specific C3_18 multiple data abstraction structure (multipl e data abstraction structure) A C4_4 in Fig. 5-4-D is a multiplex of C3_4 in Fig. 5-3-D, meaning a multiple sequential structure maintenance component used when trying to increase the number of parts sequentially. C4_5 in Fig. 5-4-E refers to the emergency maintenance part for multiple if-then structure, which is used when trying to expand the number of operations with multiple if-then structure parts. In the 5-3 -H C C3_8 multiple while ^ do structure part C4_6 of 5-4_Fffl refers to the repetition of the C3-9 multiplexing process shown in Fig. 5-3-1. Intermediate Judgment Repetition with Structure (Multiple Knuth-Zahn-Haberman Structure) Parts The C4_7 of 5-4-G 圔 means the maintenance part of multiple middle judgment repetition structure used when trying to expand the number of structures. The multi-post judgment repeated structure maintenance part that is used when trying to expand the number of post-judgment repeated structures with the multiple do-until structure parts of C3_10 in the 3-J field. C-4-8 of -4-H Garden is a multiple-limited repeated structure of C3_12 of 5-3-Lffl. Multiple-limited repeated structure used when trying to expand the number of limited repeated structures. In terms of parts, C4_9 in Section 5-4-1 圚 is a multiple-single-segment emergency structure of C3_16 in Section 5-3-P (multiple if ~ then exception ha (ndling structure) means a multi-unit selection emergency structural maintenance part used when trying to expand the selection number with parts. When a maintenance (structure maintenance) part is also required, a new structural maintenance part for the structure to be added can be newly added by adding a number.

Here, an example of assembling block parts from the 4-1 garden to the 4th to the 7th solid block parts will be described. The Bl_l of the 4-1 garden is one A-two part of the 3-1 garden and one A-two part. And one Al_2 part and one Al_l part and seven Al_l parts are assembled in a row, and are expressed as Α1_2 · Α1_8 · Al_2 · (Al_l) * 7, where the '·' The symbol means that the two parts were soldered together, and the symbol means that the symbol was repeated and joined by the number harmed by the symbol. Nos. 4-1 圊 through 4 -The other parts of the block 7 can be constructed by combining the basic parts of No. 3-1 in the same way as the Bl_l block of Fig. 4-1. 1-A solid to 5-4-1 圆 structure Related parts should be constructed by connecting the block parts shown in Figures 4-1 to 4-7ffl up and down.

 Easy explanation of side B

 Garden No. 1 is a block plot of a prefabricated software design processing device, which is the core device of the present invention.

 101: Central design control unit, 102: Design parts storage unit, 103: Design parts assembly unit, 104: Design parts abstraction unit, 105: Design parts disassembly unit, 106: Design parts transmission management unit , 107 …… Multimedia design processing section. 108 …… Korean current design processing section, 109 …… Design implementation mutual conversion section.

 Fig. 2-1 to Fig. 2-2 show how to implement each function possessed by the prefabricated software I-design processing equipment, which is the core device of the present invention, by drawing the prefabricated method using the method of the present invention. This is an example of the design aspect.

 Fig. 3-lffl to Fig. 3-2 show examples of basic components for the assembly type soft- ware design process according to the present invention.

 No. 3-1 field: Example of half-width basic parts, No. 3-2 garden: Example of full-width basic parts

 Figures 4-1 to 4-7 are examples of block components assembled from basic components for the assembly type software X-processor design processing according to the present invention. .

 No. 4-1 圆: Example of basic block parts, No. 4-2 field: Example of target block parts, No. 4-3 圔: Example of condition block parts, Fig. 4-4: Block parts before processing Example of No. 4-5 …… Processing block part, Example 4-6 Circle …… Example of post-processing block part, No.4-7 …… Example of block maintenance part.

Fig. 5-1 -A 圚 through Fig. 5-4-1 show assembled software according to the present invention; ： A design process This is an example of structural components constructed by assembling packing components for use.

 Fields 5-1-A through 5-1-B are examples of basic structure components, and 5-2-A 圆 through 5-2-Mffl are uniprocessing structure components. 5-3-Affl to 5-3-R circles are examples of multiprocessing structure components). Is an example of structure maintenance components.

 Sections 6-1-A 圔 through 6-3-A 圔 show examples of how to assemble, abstract, and disassemble at the time of S with the prefabricated software used in the present invention: Fields 6-1-A through 6-1-D 圆 are examples of assembling structural parts in design parts, and Section 6-2-A 圔 is a method of assembling structural parts in design parts. Figure 6-3-A is an example of a method of disassembling and removing structural components from design components.

The best motifs to carry out the invention

 Sections 6-1-A 圔 through 6-3-A describe how to actually assemble, abstract, and disassemble with the prefabricated software design components used in the present invention. It is.

Sections 6-1-Affl to 6-1-D show actual assembly examples of how to actually assemble and assemble with the prefabricated software I-designer used in the present invention. Fig. 6-1-A shows the Cl_l structural part of the 5-5-1A solid in the basic structure of the main module. -1-A shows an example of assembling C2_l sequential structural parts of the 5-2-A painting into the Oka. This is an example of assembling the single-segmentation structural parts of C2_2 in -B garden. The 6-1-D solid is in the 6-C garden before the C2--5 of 5-2-Effl. Judgment It represented an example of assembling return structural parts.

 The structure of software design W can be completed in a prefabricated manner by continuing assembly as described above.

 Section 6-2-A 圇 describes a method of assembling with a new structure and abstracting by associating those related to the actually assembled contents with the prefabricated software design parts used in the present invention. It actually expressed an example of assembly.

 Garden No. 6-2-A includes the structural components for selective selection of C2_2 in the solids of Nos. 6-1 -D 圆 to No. 5-2-B and the pre-judgment return structural components for C2_5 in No. 5-2-E 圔. An example of binding and combining with the block maintenance parts in the 4th to 7th fields and the half-width basic parts in the 3-1 圔 field and abstracting them with the new limited repeating structural parts of the C2_8 of the 5-2-Hoka It was expressed.

 As described above, the necessary structure can be tied to anything and abstracted with a new structure that we hope for, so that we can increase the readability of the software (readabi lity).

 Chapter 6-3-Affl is an actual disassembly example of a method of disassembling and removing unnecessary parts from the contents assembled especially when using the pre-assembled software I-design parts used in the present invention. It was shown.

 The 6-3-ABB is the C2_8 of the 5-2-H 閎, which was judged to be troublesome to abstract again from the example represented in the An example is shown in which the limited repetitive structural parts are disassembled and deleted to recover the condition as shown in Fig. 6-1-D.

As can be seen from the results of Section 6-3-Affl, in the disassembly and removal, unnecessary parts were deleted purely by software, and the remaining parts were deleted to fill the entire space. It can be easily realized. Industrial applicability

 The present invention is based on automated software and software. In order to perform software design processing, various software such as assembly, abstraction, disassembly, handling, delivery, and conversion of software to Xer design parts. The design process and maintenance can be easily performed, and the development productivity and maintenance and maintenance in the soft-to-I field can be improved. Can be used to reduce the general economic situation and strengthen the power of complications ·

Claims

Claim field

 1. Among the assembly-type software I-designed parts for performing the software-to-Ia design in a prefabricated manner, the standardized and standardized prefabricated software-Xa design basic parts and the basic parts Prefabricated parts and assembly parts, and structural parts made by assembling block parts.

 2. In Section 1, the above basic parts are the half-width basic parts for filling the space of the prefabricated software ゥ I-designer ffl, and the general parts of the prefabricated soft-to-π design diagram. A number of half-width basic parts in the form of line characters that create a frame with a simple structure, and a half-width basic part for branch display used to assemble when the branch of the design ffl is shown to occur. , An abbreviated half-width basic part and a number of full-width basic parts, which are indicated by n, which means numbers 0 to 9, and used to indicate the stage of the discontinuation.

3. In the first paragraph, the above-mentioned soft parts are the basic soft parts used to form the software ゥ: π-design base, and the soft parts t: t It can display the type of the structure pattern and at the same time describe the purpose of the structure on the right side. It can also show the conditions when the structural parts of the design park are structural parts with conditions. In order to inform the start of the processing part of the structure according to the type of structure in the design diagram, the block part before the processing, and the concrete parts of each structure in the design park A processing block element that makes it possible to describe the processing, a processing block element that shows the end of each structure to indicate that the processing part of each structure in the design has ended and the flow is transferred to another structure, and a design diagram. When the structures or blocks of Of decomposition Toka is of In the process of building, software parts are used to complement the parts that become white depending on the type of each structure.

 4. In Paragraph 1, the above structural components are the basic structural components used to form the design basis indicating whether the design park is a main module or a sub-module, and one at a time. There are a number of single processing components used to show single processing that performs each processing, and a number of multiple processing components used to show multiple processing that process two or more operations in a complex manner. Includes prefabricated software design parts.

 5. In Paragraph 4, the above basic structural components consist of the main module basic structural components used to form the foundation when design II is the main module, and the design II sub-module. Prefabricated software design components, including sub-module substructures used to form the foundation in some cases.

6. In paragraph 4, the above-mentioned single processing structural component is treated as a sequential structural component, which is abstracted when the processing is successively processed in a sequential manner, and the condition is satisfied. In the case, there is a single-pass selection structure component that separates the flow and performs a special treatment, and a twin-operation selection structure component that inspects the condition in two and thereby performs another treatment. Inspection of the condition by three or more conditions. In this way, the multi-skill selection structure parts to be able to perform other processing, and the inspection that comes out of the structure by the repetition structure that is repeatedly processed, are performed before the structure. Pre-judgment performed on the part where the repetitive structure part is to be inspected and the inspection that comes out of the structure in the repeated structure is performed in the middle part of the structure. Exiting the structure by controlling the repeated structural parts and the number of times returned Limited return structural parts that allow the user to know the moment before entering the structure and Anomalous structural parts that automatically display the part where an abnormality has occurred, a single-selection emergency structural part that inspects the conditions together and performs an emergency treatment, Double-sided selection for inspecting the condition in two parts and thereby performing an emergency treatment. Emergency structural parts and inspection for two or more conditions and performing a multi-stage selection for an emergency treatment. Assembled software design parts characterized by including structural parts and material abstraction structural parts for processing by abstracting the material.

7. In the fourth paragraph, the above-mentioned multi-processing structural component is a double-sequential structural component, which is an abstraction of the structure when two sequential processings are processed simultaneously, and three or more continuous processing parts. In the case where typical processes are processed at the same time, this is abstracted from this, and multiple sequential structural parts are shown by the structure, and two conditions are inspected at the same time, and the process is separated at the process that matches the conditions at the same time. A double-single-selection structure component that allows processing and three or more conditions are checked at the same time, and the flow is divided simultaneously in a process that does not match the conditions, and a special processing is performed in a complex manner. The multi-unit selection structure component to be processed and the pre-determination return structure in which the repetition process is performed at the front part of the structure in the repetition process are simultaneously processed simultaneously. Parts with a double front judgment repetition structure indicating A repetitive structure in which the inspection is performed at the middle part of the structure, and a repetitive structure in which the two parts are processed simultaneously. Inspection of the structure at the end of the structure is performed at the end of the structure. The post-determination repetition structure is a double post-judgment repetition structure part showing that two parts are simultaneously and simultaneously processed, and the repetition structure processed repeatedly. The pre-determination repetition structure in which the inspection from Multiple pre-decision repetition structural parts, which are to be processed jointly, and three or more intermediate judgment repetition structures, which are inspected at the intermediate part of the repetition structure to be processed and processed, are simultaneously combined. A multiplexed-medium repetition structural component that shows that it can be processed in a repeated manner, and three or more post-judgment repetition structures that perform inspections that come out of the repetition structure at the end of the structure at the same time are complex The multiplex post-determination repeat structure component that is processed at the same time and the limited repeat structure that can enter the structure by controlling the number of repetitions and knowing the point of exit from the structure at the same time And a limited-repetition structure that can be controlled by controlling the number of repetitions and knowing when to exit the structure in advance. Multiplexes that are processed in complex at the same time A double-sequence abnormal structure component that shows that two parts with a constant repetition structure and two sequential abnormal structures that automatically display the part where an error occurred when a system error occurred can be processed simultaneously and simultaneously. And a multi-sequential abnormal structure component showing that three or more sequential abnormal structures that automatically display, for example, a portion where an abnormality has occurred when a system abnormality has occurred are simultaneously and simultaneously processed; ] Shows that two single-selection emergency structures for performing emergency processing such as keyboard input error or special condition processing are processed simultaneously at the same time. Double unit emergency structural parts and conditions are checked into one type, and keyboard input error. Single unit emergency emergency such as special condition processing is performed. Structural Multi-segment emergency structure parts showing that three or more are processed simultaneously and simultaneously. The two material abstraction structures are complex at the same time to perform processing such as binding, abstraction, and declaring such as by function and type. And a material abstraction structure for performing processing such as binding and declaring data as abstracted by function or type, etc. The above is a prefabricated software design component that is specially equipped to include multiple data abstraction components that can be processed simultaneously.

 8. In paragraph 1, the vertical line pattern in the middle part of the parts used for the selection and multi-processing of the above assembly block parts is characterized by being located near the center of the width of the left and right side lines. Formula software:!: Key design parts.

9. Assembly type software:!: At the operation stage of the key design processing unit e, the central design control unit that performs overall control of the assembly type software-to-air design process starts the overall design control work, and the central design unit. The second stage, in which the control unit loads assembly-type software design parts from the auxiliary storage device to the design-part storage unit, and the design-unit assembly unit is standardized and standardized assemble-type software:!: The third stage of assembling work, the fourth stage of performing abstraction work to abstract related software design components out of the assembled software design components by the design component abstraction unit, and the design components The disassembly section performs the disassembly work to disassemble and remove unnecessary parts from the assembled software design parts, and the design parts delivery management section performs a large number of designs on the network. For cooperative design The sixth stage of the management control work, the seventh stage of the multimedia design processing unit performing multimedia-like software design processing work, and the seventh stage design process of the software design process in the current environment. Including the 8th stage of performing the control operation for the realization of the task, and the 9th stage of performing the conversion operation that supports the T0 transition between the design stage and the program code implementation stage (forward and reverse engineering). !: Software operation method

10. In Paragraph 9, the above-mentioned prefabricated software; : Design parts of the processing equipment After the third stage in which the assembling unit performs the assembling work, the assembling method specially includes a step of maintaining the software I / F design using maintenance parts when necessary. How to operate the soft tweer design processor.

 11. In paragraph 9, the third step in which the design parts assembly section of the above-mentioned assembling type software I processing equipment performs the assembling work is the step of automatically securing free space in the design diagram and the steps of. And / or a method of operating a prefabricated soft to I design processing device, which includes the step of selecting and inserting block components.

 12. In paragraph 9, the above-mentioned prefabricated software:! ： The design part of the key processing unit S The fourth step of the abstraction work, in which the abstraction unit binds and abstracts the related soft parts in the assembled software key, is the abstraction. It is characterized in that it includes a step of automatically recognizing the specified model, a step of abstracting the specified model with the desired structural components, and a step of automatically arranging the arrangement of the design components. How to operate the prefabricated software Ie design processing unit e.

 13. In Section 9, the software in which the disassembled parts of the design parts of the above-mentioned prefabricated software processing unit e were assembled:! The fifth stage of the disassembly work to disassemble and remove unnecessary parts from the design parts is as follows:

The stage of automatically recognizing the range of the block or structure to be disassembled and removed, the stage of automatically disassembling and removing blocks or structural components within the recognized range, and the parts that have been left open after disassembly are removed. A method of operating a prefabricated software design processor that includes the step of automatically filling and organizing.

14. In the ninth paragraph, the first stage in which the central design control section, which controls the whole of the prefabricated software design process of the prefabricated software; Assembly type software specially designed to enable automatic position recognition between upper module and lower module on design field. Method.

 1 5. In the ninth paragraph, the first stage in which the central design control unit, which controls the whole of the prefabricated software design process of the prefabricated software:!: Prefabricated software:! : Assembling design parts and

^ The method of operating the prefabricated software design process fi, which includes the steps of standardizing and standardizing the necessary parts in the process of solving and maintaining the necessary parts at all times.

 16. In the ninth paragraph, the first stage in which the central design control section, which controls the whole of the prefabricated software design process of the prefabricated software processing device, starts the overall design control work, is the prefabricated software.上位 Minimal information such as the name of the lower module directly from the upper module that calls the module without going to the module created in the process of assembling or disassembling the I-designed parts As a result, all information related to the lower-level module is automatically searched and explanatory power for the specified module is provided. How to operate the processing device e.

1 7. In Paragraph 9, in the process of processing by the above-mentioned prefabricated software:!: Key processing device, the module creation, cost, output, etc. are performed through multimedia media such as sound and video. And / or 3 The operation method of the prefabricated soft-to-I design processing device, characterized by observing the original screen image and feeling while figuring.

 18. In paragraph 9, the above-mentioned prefabricated software:! : It is a special feature that the design elements and / or creation instructions, such as details, functions, controls, materials, etc., written in the design process in the process of processing by the processing device e are performed in a multimedia system.組 立 How to operate the prefabricated software I design processing device.

 19. In paragraph 9, in the process of processing with the above-mentioned prefabricated soft to Ia processing equipment fi, the process of creating a design diagram is as follows. A special assembling software design process.

 20. Clause 9 is characterized in that it includes a step of automatically extracting and reconstructing only the abstracts abstracted on the design ffl in the process of processing with the prefabricated software I processing unit S described above. How to operate the assembling software I design processing device.

 21. In paragraph 10, the step of maintaining the soft-to-I design field using maintenance parts in the process of processing with the above-mentioned prefabricated software:!: A method for operating the assembly-type software design processor e, which includes a step of recognizing and a step of inserting a maintenance part into the recognized position e.

22. In paragraph 15, the above-mentioned assembling software; : Standardization and standardization of additional parts required for assembling basic parts, opening parts and structural parts, etc., in the process of processing by the processing equipment, and standardizing them so that new parts can be added. How to operate the prefabricated software I-designer.

23. In Section 15, the above-mentioned prefabricated software: a prefabricated software that specializes in releasing the registration of parts that have been found to be ineffective in the process of being processed by the n-processing apparatus. How to operate the design processing equipment.

 24. In Paragraph 22, in the process of processing with the above-mentioned assemblable software Ia processing device, the desired and / or size of the assemblable software Ia design parts are replaced by the I: key design parts. An operation method of the assembling type Xar design processing equipment that specializes in manufacturing and assembling new additions.

 25. In Paragraph 22, the above-mentioned prefabricated software; I: In the process of processing by the prefabricated processing equipment, in the process of newly producing and registering the design parts necessary for the prefabricated software design, the sound, video, etc. The operation method of the assembling software design processing equipment that specializes in manufacturing and registering and assembling such multimedia type parts.

 26. Item 17 is characterized in that, in the process of processing with the above-mentioned prefabricated software I-processing device, a predetermined portion of the design field is output in a multimedia form such as sound and video. How to operate the prefabricated software design processor.

 27. In paragraph 17, the above-mentioned prefabricated soft; : In the process of processing with the key processing device, if the test is necessary, the module test is performed by the multimedia method. How it works.

28. In paragraph 17, in the process of processing with the above-mentioned prefabricated software I-processing system S, when necessary, apply the Kangsang current technology to assemble, disassemble and disassemble the module while feeling with the five senses. Specializes in testing How to operate the prefabricated soft-to-air design processing equipment.

 29. The method of operating a prefabricated software I-design processing device according to paragraph 24, characterized in that necessary parts are abstracted by binding necessary parts from among the newly produced prefabricated software design parts. .

 30. In Section 9, the above-mentioned prefabricated software: a conversion operation that supports the forward and reverse engineering between the design stage and the program code implementation stage in the process of processing with the r-processor. The ninth stage of performing the preparatory operation is a prefabricated software characterized by additionally including a change operation that supports the forward and reverse engineering between the design stage and the analysis stage. : How to operate the device.