2011
DOI: 10.1016/j.eswa.2011.04.187
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Subjective operational reliability assessment of maritime transportation system

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Cited by 12 publications
(7 citation statements)
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“…The uncertainty factor could delay the operation and cause the deviation of the pre-determined plan. Therefore, the decision-maker often adjust the operation plan according to the uncertainty factors [47]. For floating production storage and offloading (FPSO), the unpredictable weather condition and vessel availability are the main reason for operation delay, and the decision-maker often leave some storage capability as the buffer for the unexpected delay [48].…”
Section: Literature Reviewmentioning
confidence: 99%
“…The uncertainty factor could delay the operation and cause the deviation of the pre-determined plan. Therefore, the decision-maker often adjust the operation plan according to the uncertainty factors [47]. For floating production storage and offloading (FPSO), the unpredictable weather condition and vessel availability are the main reason for operation delay, and the decision-maker often leave some storage capability as the buffer for the unexpected delay [48].…”
Section: Literature Reviewmentioning
confidence: 99%
“…According to the ship accident data investigated by Tzannatos and Kokotos, the number of accidents is significantly reduced after the International Safety Management (ISM) Code was implemented in 1998 [13,14]. Although the maritime authorities have adopted a set of regulations and rules to regulate safety standards, these regulations or rules are not fully effective, and consequently, maritime accidents caused by human errors continue to happen and have not yet fallen to an acceptable level [15,16]. In order to reduce maritime accidents as far as possible, it is necessary to pay attention to the types of human errors [17].…”
Section: Introductionmentioning
confidence: 99%
“…Ma 3 used more accurate simulation methods to investigate the properties Nomenclature: a b b ' M 0 U, material coefficients; C, copula function; D, cumulative damage; F (t), failure probability; g(t), time-varying reliability function; N f , fatigue life; n, load cycle; R(t), degree of reliability; r(n), residual strength; S max , peak load; S P1 , first-stage loading; S P2 , second-stage loading; μ g , mean of g(t); υ, critical cycle ratio; σ max , maximum stress; σ −1 , fatigue limit; σ −1 (σ m ), fatigue limit of mean stress; σ b , initial static fatigue strength; σ g , standard deviation of g(t); 1/θ, estimated correlation parameter; d 2 Gum , squared Euclidean distance of accelerated life tests with small sample sizes where large-sample approximations may be expected to be inadequate. Gaonkar 4 established a reliability calculation model according to aggregation, the mapping of fuzzy sets using a distance measure, and a fuzzy logic rule base.…”
Section: Introductionmentioning
confidence: 99%
“…Ma used more accurate simulation methods to investigate the properties of accelerated life tests with small sample sizes where large‐sample approximations may be expected to be inadequate. Gaonkar established a reliability calculation model according to aggregation, the mapping of fuzzy sets using a distance measure, and a fuzzy logic rule base.…”
Section: Introductionmentioning
confidence: 99%