• Title/Summary/Keyword: Design of Optimal Weapon System

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Study on ALDT Optimal Setting Considering Retention Level of Repair Items (수리품목 보유수준을 고려한 ALDT 최적화 설정방안 연구)

  • Jun, Joon-Hyung;Hwang, Kyoung-Hwan
    • Journal of the Korea Academia-Industrial cooperation Society
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    • v.21 no.3
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    • pp.269-275
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    • 2020
  • RAM of elements to support weapon systems is conducted at the initial development phase and standard is suggested to accomplish strategy requirement performance from a design spec. Operational availability is a key point of the military's ability to ensure combat readiness and to win the battle. In the weapon system development phase, operational availability is used as a development standard. The military provides ALDT, operation and standby time, which are elements of operational availability. ALDT is a key element of operational availability that must be maintained for combat readiness, as it depends on the aging of a weapon system, maintenance policies and geographical conditions. Operational Availability to be set at the development phase has many differences from the operational availability that is analyzed in the actual operational phase because ALDT is applied as a simple assumption. In the paper, we analyzed ALDT applying the decision tree method through failure data acquired from initial operation. Through this study, we have devised the optimal ALDT setting method to achieve operational availability about operation when the weapons system is unstable.

A Study on the Implementation Method of Artificial Intelligence Shipboard Combat System (인공지능 함정전투체계 구현 방안에 관한 연구)

  • Kwon, Pan Gum;Jang, Kyoung Sun;Kim, Seung Woo;Kim, Jun Young;Yun, Won Hyuk;Rhee, Kye Jin
    • Convergence Security Journal
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    • v.20 no.2
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    • pp.123-135
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    • 2020
  • Since AlphaGo's Match in 2016, there has been a growing calls for artificial intelligence applications in various industries, and research related to it has been actively conducted. The same is true in the military field, and since there has been no weapon system with artificial intelligence so far, effort to implement it are posing a challenge. Meanwhile, AlphaGo Zero, which beat AlphaGo, showed that artificial intelligence's self-training data-based approach can lead to better results than the knowledge-based approach by humans. Taking this point into consideration, this paper proposes to apply Reinforcement Learning, which is the basis of AlphaGo Zero, to the Shipboard Combat System or Combat Management System. This is how an artificial intelligence application to the Shipboard Combat System or Combat Management System that allows the optimal tactical assist with a constant win rate to be recommended to the user, that is, the commanding officer and operation personnel. To this end, the definition of the combat performance of the system, the design plan for the Shipboard Combat System, the mapping with the real system, and the training system are presented to smoothly apply the current operations.

A Method of Determination of the Number of Tests for Reliability Growth Management (신뢰성 성장관리 시험의 시험 시료 수 결정 방안)

  • Yangwoo Seo;Daeung Choi;Chunsup Um;Yonggeun Kim;Jungtae Kim
    • Journal of The Korean Institute of Defense Technology
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    • v.5 no.1
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    • pp.1-6
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    • 2023
  • The number of test samples was calculated by setting the reliability growth management test period considering the weapon system development period. The optimal reliability growth management test design condition was 80% reliability, 60% confidence level, and 6 months of test period. At this time, it was analyzed that 4 test samples were required if 0 failure occurred, and 9 test samples were required if 1 failure occurred. Using the method of determining the number of samples presented in this paper, it can be used as a basis for acquiring a budget for the number of samples for reliability growth management when switching from the exploratory development stage to the system development stage.

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