Study on Framework and Integrated Optimization of Standard View for Dynamic Management of Complex System Yang Ping 1,2 1 2 Institute of Standard and Specification Research, Naval Academy of Armament, Shanghai, China Institute of Finance and Economics Research, Shanghai University of Finance & Economics, Shanghai, China (ocean.py@163.com) Abstract - The core and essence of the architecture framework is based on a multi-view approach. View approach emphasizes simplify complex issues, from the perspective of different areas to look at a complex problem, a complex problem into a number of relatively independent and simple, the results of each of simple questions to form a view, the view of all the simple questions synthesis, and comprehensive understanding of approximation to the complex problems. With the help of the concept of the standard view, the management of complex systems engineering model to expand the system analysis, modeling based on the standard view of the multi-attribute decisionmaking in the conditions of the object-oriented theory, based on incomplete information, and on this basis, the integrated optimization for the building standards system. Keywords - complex system, dynamic management, incomplete information, integrated optimization, multiple attribute decision making, object-oriented, standard view I. INTRODUCTION Along with the high technology especially the information technology make a spurt of progress, a variety of complex systems have been more vast development in aspects of aviation equipment development, large ship design and construction. A complex system is a structure in which variables from different scale levels, or a dynamic system in which a large number of elements different from each other. In general, within the complex system there are many subsystems, between which have many synergy, can coevolution and interdependent. Subsystem will be divided into many levels in engineering practice, and their size varies. Meanwhile, we noted that a variety of subsystems interactive integration, which makes a variety of derivative technology with interface also produce new functional performance and materials technology requirements. These elements are the dynamic development with incomplete information and uncertain environment. So that project management is becoming increasingly difficult. The standard is a summary of the scientific, technical and practical experience, is the best order in a certain range, is a rule of common and repeated use developed by the actual or potential problems. Technical sense of the standard is a published document form as the unity agreement. Its purpose is to ensure that materials, products, processes and services could meet your needs. In engineering management through the timely formation of the standard, the rational use of standards, effective implementation of the standard, you can optimize resource allocation, active technology element, accelerate the accumulation of technology, ensure product quality, and improve management efficiency. Interaction and integration of various subsystems in the complex system, you need to completely change the situation between systems separated from each other. This requires that we work through the standardization, use systems engineering approach to expand the top-level design, and to form a relatively complete technical system. Thus ensure the completeness of the various elements within the system, the orderly management of the design and the consistency of interface criterion, provide effective support for dynamic management of the whole life cycle of complex systems [1]. This paper expands the system analysis to the management of complex systems engineering model with the help of the concept of the standard view, proposes standard view modeling based on object-oriented theory and multiple attribute decision making with incomplete information. On this basis, build a standard system through integrated optimization. II. CONCEPTS AND DIMENSION OF STANDARD VIEW Zachman (1987) first proposed the description of an information system architecture in “A framework for information systems architecture”, that is the “Zachman framework”. Since then, various areas of development architecture framework, the core and essence are based on a multi-view method. View approach emphasizes to simplify complex questions, to look at a complex problem from the perspective of different areas, make a complex problem into a number of relatively independent and simple questions. The results of each the simple question form a view. All the simple view synthesis, we will get the approximation and comprehensive understanding to the complex problems [2]. The standard view is essentially a standard system composed of a variety of standard elements for different objects at different stages, in the process of dynamic management of the entire complex system. It has the basic attributes of targeted, aggregative, layered, dynamic open and phased [3]. If we have the standard views of the different objects to be integrated, then we can get the standard system of a stage of complex systems at the same time or in the same phase. If for the same object, such as the planning side, the argument side, the designer, developer or contract supplier, etc., we have the standard view of the different stages to be integrated, then we can form standardized requirement or standardized constraint for different objects again, and this is a standard system too. If the final we bring all of the standard view to be integrated, merging overlap, coordinating contradiction, optimizing the redundant part, then we can form a standard system of the entire project management of complex systems. Based on the concept of system, we know that the standard view has a unique advantage. It could provide a description of the main line between the various elements throughout the various complex systems, facilitate a comprehensive grasp of the influencing factors on system performance. And it could provide macro guidance for demonstration, development, production and application of all aspects of project management. At the same time, support quantitative analysis and provide a basis for system modeling, simulation and evaluation, and have direct applications to the specific equipment system. With the other architectural views, standard view also needs to define its core elements. These core elements constitute the basic content described by the standard view. It reflects as a definition of a certain view products, which view product extracted from the practical application, to be verified in the application. View product build is based on the core elements in the architecture, is a description of the different angles of these core elements and their relationships, and is the performance combined the core elements with the external form [4]. These core elements include provisions of objective, scope, component, functional requirements, performance indicators and test identification in standard, as well as the internal structure of the standard and the standard life cycle. Based on the above analysis, standard view could be divided into different dimensions according to needs. We will first object the main setting for the first dimension for project management of complex systems, which may include planning, owners, designers, implementers, contractors, etc. Then the project management phase is objected for the second dimension, which may include demonstration, design, development, construction and testing etc. Finally, the elements of the standard within the system would be as a third dimension. The elements within standard system is core-based outreach, and is closely related to its purpose, scope and specific requirements, then it necessarily in close contact with each subsystem and the main components of complex systems. Therefore, this standard view make the main objects of complex systems, the different stages of the engineering and the various subsystems of organic connection within a unified framework and system through a dynamic three-dimensional space. III. DIMENSIONALITY REDUCTION AND INTEGRATED OPTIMIZATION METHOD OF STANDARD VIEW The standard system is a three-dimensional or a highdimensional space system, the standard view has dimensionality reduction to a relatively simple framework. For the standard view and even the framework of the standard system the most effective method is to minimize the dimensions. So, if the different dimensions have different properties, we can use the multi-attribute decision theory to carry out the model work. At present, the multi-attribute decision making problems under complete information is almost complete. However, in complex systems engineering management practice, most of the information has the property of inaccurate, incomplete and vague, coupled with the limitations of managers understanding of the problem or their own lack of knowledge of other reasons, program attribute values and attribute weighting coefficient information which managers are given or acquired is incomplete. Especially a lot of technical and management elements are uncertain, even subject to change at any time. Therefore, based on previous research results, multiattribute decision-making method is applied to the project management of complex systems with incomplete information [5]. According to the multi-attribute decision making, we can get a particular project phase, a series of standards for different objects of the main view sort. As mentioned earlier, if we view these standards are integrated into together, then due to the different objects at different stages of the assignment of different standard view properties, resulting in the presence of various standard view overlapping, conflicting uncoordinated. Therefore, we can, consistent iterative model, making and group decision-making matrix between acceptable similarity of individual decision-making matrix is constantly being adjusted until acceptable similarity between the group decision-making matrix, in order to amend the Multiple Attribute Decision Making matrix [6]. Then, the application of factor analysis based on multi-attribute decision-making information, various standard view regroup, to identify common factors affecting the variable, the simplification of data, abandoning the special factor, extract the factor of common standards, which define the standard division, clear standard classification, build standards system [7]. Make the main body of the ship impact design object as a reference, for ship impact design project management, assuming that there are six standard views, including that: common basis requirements, test and evaluation requirements, calculation and validation requirements, design criteria requirements, buffer isolation requirements, documents management requirements. Also have 12 kinds of attributes, respectively as ship universal standard impact test standards, test and environmental standards, analysis of standard, the standard of design criteria, structural design criteria, equipment design standards, piping design criteria, standards of fastening devices, materials, design standards, vibration isolation design standards, data management standard. Suppose there are six grades of evaluation, based on the previous theoretical analysis, and multi-attribute decision-making, in various stages of design, project management needs to select a different property assignment, the formation of a number of sort of the standard view. Use principal component analysis method to calculate the correlation coefficient of the ship impact indicators matrix eigenvalues. We can find that the cumulative contribution rate has reached 91.33% by analyzing the first three common factors, take the first three eigenvalues to establish the matrix of factor loadings for factor rotation. The extracted data is a subset of data that contains only numbers and rotated factor score, and sort according to the three common factors. So integrate multiple standard views, to get the ship impact standard system (see Fig. 1). Ship impact standard system Common basic standards Ship General Specification Design criteria standards Buffer isolation standards Structural design standards Equipment design standards Impact test standards Fastening device standards Test environmental standards Pipeline design standards Calculation and analysis standards Material design standards Data management standards Fig. 1. Ship impact standard system IV CONCLUSION In the management of complex systems engineering, between the specification of various standards are often interrelated and support each other, while a standard is usually covered by a number of technical indicators, according to the systems and related technologies involved in a technology-by-entry decomposed to establish the standard system, then the bound cannot resolve the correlation between the various subsystems and the technical standards as reflected in the technical requirements which makes the overlap phenomenon in which no line is not only difficult to clearly define the standard system of internal the level of division, an increase of the design and evaluation of the workload, but also seriously affect the standard system of internal coherence, and reduce the practical utility of the standard, and even lead to confusion and errors of the technical design and evaluation. The multi-view approach is to understand, a common way to describe complex things, reflecting the divide and conquer concept. Standardization issues in the management of complex systems engineering is attributed to incomplete information on multi-attribute decision making problems with interval trust structure, and be optimized by factor analysis to construct the standard system. Form of the model is simple and easy to understand, compared with the simple use of cluster analysis and principal component analysis combining model closer to the real, making it easier and more flexible for different objects. 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