In this paper, we purpose the integrated TMS to solve the problem of current systems. The current system resulted in inconvenience because customers and users must contact to each system, when they want to know the information about orders. In this research, we develope a system with which customers and users can confirm all of order information from one system. To solve this problem, the information brought from two systems is integrated by constructing integrated database.

In this paper, we purpose the integrated TMS to solve the problem of current systems. Current system resulted in the inconvenience because customer and user must contact to each systems when they want to know the information about the order. In this time, we make the system customer and user can confirm all of order information from one system to solve this problem by integrating the information brought from two systems on constructing integrated DataBase.

Statistical process control(SPC) and engineering process control(EPC) are two strategies for quality improvement that have developed independently. In general, both techniques have reduction of variability as their objective, although they seek to accomplish these objective in different ways. Integration of SPC and EPC is finding wide recognition and is successfully used in continuous process industries. A simple case of an integral controller is presented here to show the application of MMSE controller to stochastic process. In order to keep the system on target, the actual adjustment in terms of MMSE using integral control can be implemented. This paper demonstrates that SPC, already used for process monitoring in the parts industries, and EPC, now used in process industries, may be integrated in various type industry for more effective control of processes.

ICZM(integrated coastal zone management) is recognized globally as an optimal solution on coastal issues and problems because it aims integration of all the different programs and stakeholders on coastal interests. Evaluation of ICZM program is also recognized globally for the success of ICZM because we can get many useful experiences and learning through evaluation. There are many issues and problems in coastal zone in Korea such as coastal development, wetland loss, deterioration of water quality, decreasing of fisheries stocks, limit of public access, etc. Recently highly centralized ICfM has been introduced in Korea but there are so high barrier between ICZM program and other relevant sectors. This paper tries to fond factors to evaluate and further evolution of ICZM in Korea which is very centralized system.

통합신뢰성(Denpendability)은 시스템이나 제품의 가용성 성능(availability performance)을 나타내는 종합적인 용어이고, 가용성 성능은 신뢰성, 보전성, 보전지원(maintenance support) 성능에 의해 영향을 받는다. 통합신뢰성관리는 IEC 60300-1［1］에 정의되어 있고, 통합신뢰성 프로그램 요소와 업무는 IEC 60300-2［2］에 규정되어 있다. 또한 IEC 60300-3-6［3］은 소프트웨어를 포함하는 시스템이나 제품의 총합신뢰성 프로그램에 관하여 설명하고 있다. 이 연구에서는 많은 소프트웨어 표준의 기본을 이루는 소프트웨어 수명주기공정에 관하여 소프트웨어 통합신뢰성을 달성하기 위한 지침을 제공하고자 한다.

미국은 연방국가이기 때문에 미국의 주요정책을 이해하기 위해서는 연방정격의 정책과 주정부의 정책 을 살펴봐야함. 연안통합관리정책도 마찬가지이며, 여기서는 우선 연방정부의 정책을 소개하며, 주정부의 정책은 다음 기회에 소개하고자 함 본고는 필자가 1년 6개익간 미국 로드아일랜드대학교의 연안자원센타 에서 연안통합관리에 관한 연수할 기회를 가졌는데 동 기간동안 수집한 자료들을 정리한 것임.

The objectives of this research are to suggest the basic plans for earthquake data construction using data sharing platform, and to design the earthquake information contents based on stakeholder's needs. To strengthen the earthquake disaster response capacity, customized contents for public and local/central government use and specific sharing platform are developed. Finally, the step-by-step data sharing roadmap is suggested.

This study is aimed at developing a wireless unified-maintenance system (WUMS) that would satisfy all the requirements for a disaster preventive SHM system of civil structures. The WUMS is designed to measure diverse types of structural responses in realtime based on wireless communication, allowing users to selectively use WiFi RF band and finally working in standalone mode by means of the field-programmable gate array (FPGA) technology. To verify its performance, the following tests were performed: (i) A test to see how far communication is possible in open field, (ii) a modal test on a bridge to see how exactly characteristic real-time dynamic responses are of structures. Finally, the WUMS is proved valid as a SHM, and its outstanding performance is also proven.

The Integrated Water Infrastructures Safety Management Platform(WINS+) provides safety information of water infrastructures such as dams, weirs, bridges, cut slopes, retaining walls and levees designated as the first class infrastructures to be maintained according to the nations’s safety law. The WINS+ is incorporated with a computerized Standard Operating Procedure (SOP) system that provides crisis warning level (green/blue/yellow/orange/red) to central and individual disaster response managers of waterside structures. Thus it is expected that by using the WINS+ we may strengthen disaster responsiveness and reduce the time for recovery and response at emergency.

A series of disaster response drill was conducted using a robust and integrated safety management platform (WINS+) which can provide multi-functions of safety evaluation in realtime, disaster information provision and recovery actions for major water infrastructures, which are designated as nation’s first class infrastructures, under natural disasters such as floods or earthquakes. It is believed that the experience of disaster response drills using the new integrated safety management system (WINS+) enhances our capability of preparedness and response against disasters, and that the validity of WINS+ can be clearly confirmed.

This research and development analysis provides numerical analysis techniques that can be used conveniently to determining the safety of the current state and to predict the stability in the future. It also seeks to present algorithms of back analysis to develop unified management system for control, prediction, coordination, and information modeling that can reasonably handle appropriate responses to structural behavior at project sites and design changes.

환경오염시설 통합관리에 관한 법률(이하:통합법)이 입법화되고 이에 따른 통합환경관리제도가 2017년부터 단계적으로 시행됨에 따라, 전통적으로 대기, 수질, 등 매체 별로 관리하던 기존 인허가 체계가 통합 허가 체계로 변경되었다. 이러한 통합환경관리제도의 핵심인 BAT(최적가용기법)이란 배출시설 및 방지시설의 설계･설치･운영 및 관리에 관한 환경관리기법으로 오염물질 등의 배출을 가정 효과적으로 줄일 수 있고 기술적･경제적으로 적용가능한 관리기법을 말하고 있다. 하지만, 이를 적용하기 위해서는 해당 산업체의 관련기술 개발과 경제성 확보를 위한 공정기술 개발이 관건이나 이에 대한 준비가 현실적으로 미흡한 실정이다. 따라서, 최적가용기법(BAT)의 산업체 보급을 위해 관련된 기술의 연구개발이 정부적 차원에서 시급하게 필요한 실정이다. 본 연구에서는 BAT 적용의 첫 단계로써 국내외 소각시설을 중심으로 기술개발 현황을 파악하고 최적가용기법(BAT) 개발 및 적용을 위한 R&D 필요성을 논의하고자 하였다.

This study developed the prototype of the system and implemented its main functions, which is the intelligent integrated agricultural water management information system and service (IaWAMISS). The developed system was designed to be able to collect, process and analyze the agricultural water information of spatially dispersed reservoirs in whole country and spatial geographic information distributed in various systems of other organizations. The system, IaWAMISS, is also possible to provide the reproduced information services in each reservoir and space units, such as agricultural water demand and supply analysis and drought prediction, to the people, experts, and policy makers. This study defined the 6 step modules to develop the system, which are to design the components of intelligent integrated information system, to derive the utilization contents of existing systems, to design the new development elements for IaWAMISS, to design the reservoir information system can be used by managers of city and county, to designate the monitoring reservoirs managed by city and county, and finally to prepare the sharing system between organizations with the existing information systems. In order to implement the prototype of the system, this study shows the results for three important functions of the system: spatial integration of reservoirs' information, data link integration between the existing systems, and intelligent analysis program development to assist decision support for agricultural water management. For the spatial integration with the reservoir water information of the Korea Rural Community Corporation, this study get IaWAMISS to receive the real-time reservoir storage information from the measurement facility installed in the municipal management reservoir. The data link integration connecting databases of the existing systems, was implemented by integrating the meteorological information of the Korea Meteorological Administration with IaWAMISS, so that the rainfall forecast data could be derived and used. For the implementation of the intelligent analysis program, this study also showed the results of analysis and prediction of agricultural water demand and supply amount, estimation of Palmer drought index, analysis of flood risk area in typhoon course region, and analysis of the storage status of reservoirs related to each storm. This study confirmed the possibility and efficiency of an useful system development through the prototype design and implementation of IaWAMISS. By solving the preliminary 6 step modules presented in this study, it is possible not only to efficiently manage water by spatial unit, but also to provide the service of information and to enhance the relevant policy and national understanding to the people.

In this study, the integrated management code of damage information in bridges using the data from unmanned inspection equipment (i.e., drone with hybrid imaging equipment) was proposed. It was found that the integrated management code could be used in developing bridge management system based on 3-dimensional information model of bridge.

This paper aims to develop a wireless unified-maintenance system(WUMS) to obtain real-time structural response of civil structures. The WUMS integrates the GPS module, the strain module and the acceleration module based on the standalone controller, and includes the RF module for remote measurement and the battery for long term operation. In order to evaluate the performance of the WUMS, a response test using a modal shaker and a modal test using a model bridge were performed. The test results using USMS were compared with those measured by wired system. Finally, the developed WUMS was appropriate to obtain the structural response of the civil structure in real-time, unified, and wirelessly.

In this study, the integrated management code of damage information in bridges using the data from unmanned inspection equipment (i.e., drone with hybrid imaging equipment) was proposed. It was found that the integrated management code could be used in developing bridge management system based on 3-dimensional information model of bridge.