• Title/Summary/Keyword: Naval Gun Fire Control System

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Study on Analyzing and Correction of Dynamic Battery Alignment Error in Naval Gun Fire Control System by using Image of Boresight Telescope (포배열카메라 영상을 활용한 함포 사격통제시스템의 동적배열오차 분석 및 보정방법)

  • Kim, Eui-Jin;Suh, Tae Il
    • Journal of the Korea Institute of Military Science and Technology
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    • v.16 no.6
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    • pp.745-751
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    • 2013
  • In naval gun firing, firing accuracy comes from the combination of each component's accuracy in CFCS (Command and Fire Control System) like tracking sensors and gun. Generally, battery alignment is done to correct the error between gun and tracking sensor by using boresight telescope on harbor and sea. But normally, the battery alignment can compensate only the static alignment error and ignore dynamic alignment error which is caused by own ship movement. There was no research on this dynamic alignment error until now. We propose a new way to analyze dynamic arrangement error by using image of boresight telescope. In case of the dynamic alignment error was due to time delay of own ship attitude information, we propose the way to compensate it.

Development of Gun Fire Control System for the FFX-I Program (차기호위함 전투체계용 함포 사격제원계산장치 개발)

  • Suh, Tae-Il;Kim, Eui-Jin
    • Journal of the Korea Institute of Military Science and Technology
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    • v.16 no.6
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    • pp.752-761
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    • 2013
  • A new gun fire control system has been developed for the Korean next generation frigate class. The engineering requirement was far more tightened than the PKG-A class for the firing range availability and gun control function since 5 inch gun is adopted for the new ship. We mention about the principal technologies required to build a generic gun fire control system and proposed methods for the new gun fire control system. The new system has been designed based on the proposed methods in order to satisfy the requirement and functionality has been proved to be acceptable through the sea trial by Korean navy.

Naval Gun Fire Control System Simulation for Verification Depending on Development Phase (함포 사격통제시스템 검증을 위한 시뮬레이션 환경 구축 및 개발진행단계에 따른 적용 방안 연구)

  • Kim, Eui-Jin
    • Journal of the Korea Society for Simulation
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    • v.20 no.2
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    • pp.41-48
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    • 2011
  • Naval Gun FCS(Fire Control System) is the most fundamental weapon system in Naval Combat System. Simulationbased verification of FCS is mandatory before sea trial since ballistic solution needs complicated process and uses almost all information produced by own ship sensors. The FCS simulation method is proposed for verification of naval gun FCS and applicable to the FCS design depending on combat system development phase based on available data in each design phase. Verified FCS through proposed simulation method is adapted in real naval combat system and the performance has been proven by sea trial.

A Study on the application method of UPS's Battery Safety for battleship Command and Fire Control System (지휘무장통제체계용 UPS 배터리의 안전성 확보방안 연구)

  • Park, Gun-Sang;Kim, Jae-Yun;Kim, Dong-Gyu
    • Journal of the Korea Academia-Industrial cooperation Society
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    • v.22 no.3
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    • pp.587-596
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    • 2021
  • Naval battleships have systems to perform special purposes, such as the Command and Fire Control System (CFCS). Some of the this equipment should be equipped with an Uninterruptible Power System (UPS ) to ensure operational continuity and the backup of important data, even during unexpected power outages caused by problems with the ship's power generator. Heavy combat losses can occur if the equipment cannot satisfy the function. Therefore, it is important to design a stable UPS. The battery and Battery Management System (BMS) are two of the most important factors for designing a stable UPS. A power outage will be encountered if the battery and BMS are not stable. The customer will be exposed to abnormal situations, loss of important tactical data, and inability to operate some of the CFCS. As a result, an enhanced safety system should be designed. Thus, this study implemented and verified the improved system in terms of three methods, such as comparative analysis of the batteries, improvement about leakage current of the circuit, and tests of the aggressive environmental resistance to improve the UPS for CFCS.