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    홍수시 월류를 고려한 콘크리트 가물막이댐의 파괴확률 산정 = Failure Probability Analysis of Concrete Cofferdam Considering the Overflow in Flood Season

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    https://www.riss.kr/link?id=A107106186

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    In order to construct a dam, the diversion facility such as cofferdam and a diversion tunnel should be installed in advance. And size of a cofferdam depends on type of a main dam. According to the Korea Dam Design Standard, if the main dam is a concrete dam, design flood of the cofferdam is 1~2 years flood frequency. This means that overflow of the cofferdam occurs one time for 1 or 2 years, therefore, stability of the cofferdam should be secured against any overflow problem. In this study, failure probability analysis for the concrete cofferdam is performed considering the overflow.
    First of all, limit state function of the concrete cofferdam is defined for overturning, sliding and base pressure, and upstream water levels are set as El. 501 m, El. 503 m, El. 505 m, El. 507 m. Also, after literature investigation research, probabilistic characteristics of various random variables are determined, the failure probability of the concrete cofferdam is calculated using the Monte Carlo Simulation. As a result of the analysis, when the upstream water level rises, it means overflow, the failure probability increases rapidly. In particular, the failure probability is largest in case of flood loading condition. It is considered that the high upstream water level causes increase of the upstream water pressure and the uplift pressure on the foundation. In addition, among the overturning, the sliding and the base pressure, the overturing is the major cause for the cofferdam failure considering the overflow.
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    In order to construct a dam, the diversion facility such as cofferdam and a diversion tunnel should be installed in advance. And size of a cofferdam depends on type of a main dam. According to the Korea Dam Design Standard, if the main dam is a concre...

    In order to construct a dam, the diversion facility such as cofferdam and a diversion tunnel should be installed in advance. And size of a cofferdam depends on type of a main dam. According to the Korea Dam Design Standard, if the main dam is a concrete dam, design flood of the cofferdam is 1~2 years flood frequency. This means that overflow of the cofferdam occurs one time for 1 or 2 years, therefore, stability of the cofferdam should be secured against any overflow problem. In this study, failure probability analysis for the concrete cofferdam is performed considering the overflow.
    First of all, limit state function of the concrete cofferdam is defined for overturning, sliding and base pressure, and upstream water levels are set as El. 501 m, El. 503 m, El. 505 m, El. 507 m. Also, after literature investigation research, probabilistic characteristics of various random variables are determined, the failure probability of the concrete cofferdam is calculated using the Monte Carlo Simulation. As a result of the analysis, when the upstream water level rises, it means overflow, the failure probability increases rapidly. In particular, the failure probability is largest in case of flood loading condition. It is considered that the high upstream water level causes increase of the upstream water pressure and the uplift pressure on the foundation. In addition, among the overturning, the sliding and the base pressure, the overturing is the major cause for the cofferdam failure considering the overflow.

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    참고문헌 (Reference)

    1 조수진, "홍수 시 콘크리트 중력식댐의 위험도 분석을 위한 파괴확률 산정" 한국안전학회 31 (31): 58-66, 2016

    2 김승민, "수동형 댐퍼를 장착한 구조물의 동적응답기반 신뢰성 해석 - 제1편: 부재별 파괴확률 산정" 한국안전학회 31 (31): 90-96, 2016

    3 이종석, "댐의 안전성 평가를 위한 위험도 해석기법의 적용" 한국수자원학회 35 (35): 651-664, 2002

    4 하익수, "국내 중소규모 흙댐의 지진 시 파괴확률 산정 도표 제안" 한국지반환경공학회 18 (18): 31-38, 2017

    5 A. A. Alla, "The Role of Fusegates in Dam Safety" (6) : 1996

    6 C. Bernstone, "Structural Assessment of a Concrete Dam Based on Uplift Pressure Monitoring" 135 : 133-142, 2009

    7 K. H. Min, "Risk Analysis and Decision Making" Eretec 2018

    8 U. Merkel, "PC-River - Probabilistic Reliability Analysis for River Dikes" 110-116, 2008

    9 L. Altarejos-Garcia, "Methodology for Estimating the Probability of Failure by Sliding in Concrete Gravity Dams in the Context of Risk Analysis" 36-371 : 1-13, 2012

    10 R. Ranzi, "Levee Breaches and ‘Geotechnical Uncertainty’in Flood Risk Mapping" 2012

    1 조수진, "홍수 시 콘크리트 중력식댐의 위험도 분석을 위한 파괴확률 산정" 한국안전학회 31 (31): 58-66, 2016

    2 김승민, "수동형 댐퍼를 장착한 구조물의 동적응답기반 신뢰성 해석 - 제1편: 부재별 파괴확률 산정" 한국안전학회 31 (31): 90-96, 2016

    3 이종석, "댐의 안전성 평가를 위한 위험도 해석기법의 적용" 한국수자원학회 35 (35): 651-664, 2002

    4 하익수, "국내 중소규모 흙댐의 지진 시 파괴확률 산정 도표 제안" 한국지반환경공학회 18 (18): 31-38, 2017

    5 A. A. Alla, "The Role of Fusegates in Dam Safety" (6) : 1996

    6 C. Bernstone, "Structural Assessment of a Concrete Dam Based on Uplift Pressure Monitoring" 135 : 133-142, 2009

    7 K. H. Min, "Risk Analysis and Decision Making" Eretec 2018

    8 U. Merkel, "PC-River - Probabilistic Reliability Analysis for River Dikes" 110-116, 2008

    9 L. Altarejos-Garcia, "Methodology for Estimating the Probability of Failure by Sliding in Concrete Gravity Dams in the Context of Risk Analysis" 36-371 : 1-13, 2012

    10 R. Ranzi, "Levee Breaches and ‘Geotechnical Uncertainty’in Flood Risk Mapping" 2012

    11 "ICOLD Bulletin 99 : Dam failure - Statistical Analysis" International Commission on Large Dam 1995

    12 "ICOLD Bulletin 130 : Risk Assessment in Dam Safety Management" International Commission on Large Dam 2003

    13 L. Peyras, "French Recommendations for Limit-State Analytical Review of Gravity Dam Stability" 12 : 1137-1164, 2008

    14 M. Mazzoleni, "Flooding Hazard Mapping in Floodplain Areas Affected by Piping Breaches in the Po River, Italy" 19 (19): 2014

    15 Y. C. Hue, "Evaluation of Dam Overtopping Probability Induced by Flood and Wind" 25 (25): 35-45, 2012

    16 "EM 1110-2-2200 Gravity Dam Design" US Army Corps of Engineers 1995

    17 "Dam Design Standard"

    18 김진영, "Bayesian Network(BN)를 활용한 수문학적 댐 위험도 해석 기법 개발" 한국수자원학회 48 (48): 781-791, 2015

    19 "ANCOLD Guidelines on Dam Safety Management"

    20 "ACI 214R-02, Evaluation of Strength Test Results of Concrete"

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    2027 평가 재인증평가 신청대상 (재인증)
    2021-01-01 등재 등재학술지 유지 (재인증) KCI등재
    2018-01-01 등재 등재학술지 유지 (등재유지) KCI등재
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    2009-01-01 등재 등재학술지 유지 (등재유지) KCI등재
    2007-01-01 등재 등재학술지 유지 (등재유지) KCI등재
    2005-10-26 학술지명변경 한글명 : 산업안전학회지 -> 한국안전학회지 KCI등재
    2005-02-28 학회명변경 한글명 : 한국산업안전학회 -> 한국안전학회
    영문명 : The Korean Institute Of Industrial Safety -> The Korean Society of Safety
    KCI등재
    2004-01-01 등재 등재학술지 선정 (등재후보2차) KCI등재
    2003-01-01 등재 등재후보 1차 PASS (등재후보1차) KCI등재후보
    2001-07-01 등재 등재후보학술지 선정 (신규평가) KCI등재후보
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    기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
    2016 0.3 0.3 0.31
    KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
    0.28 0.27 0.519 0.12
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