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基于故障树解构与Copula建模的复杂系统可靠性分析

徐嘉 蔡宜伦 贺文博 张润芝 王兴坚

徐嘉,蔡宜伦,贺文博,等. 基于故障树解构与Copula建模的复杂系统可靠性分析[J]. 北京航空航天大学学报,2026,52(8):2963-2973
引用本文: 徐嘉,蔡宜伦,贺文博,等. 基于故障树解构与Copula建模的复杂系统可靠性分析[J]. 北京航空航天大学学报,2026,52(8):2963-2973
Xu J,Cai Y L,He W B,et al. Reliability analysis of complex systems based on fault tree decomposition and Copula modeling[J]. Journal of Beijing University of Aeronautics and Astronautics,2026,52(8):2963-2973 (in Chinese)
Citation: Xu J,Cai Y L,He W B,et al. Reliability analysis of complex systems based on fault tree decomposition and Copula modeling[J]. Journal of Beijing University of Aeronautics and Astronautics,2026,52(8):2963-2973 (in Chinese)

基于故障树解构与Copula建模的复杂系统可靠性分析

doi: 10.13700/j.bh.1001-5965.2025.0701
详细信息
    通讯作者:

    E-mail:wangxj@buaa.edu.cn

  • 中图分类号: V221+.3;TB553

Reliability analysis of complex systems based on fault tree decomposition and Copula modeling

More Information
  • 摘要:

    针对复杂控制系统在多个子系统之间的强耦合特性展开研究,发现传统基于独立性假设的可靠性建模方法易导致系统可靠性高估问题。针对该问题,提出一种基于故障树解构与Copula建模的可靠性分析方法:通过故障树对复杂控制系统进行结构解构,识别关键失效模式及最小割集;利用Copula函数刻画子系统间的非独立相关关系,推导系统整体可靠度表达式;以某型复杂控制系统为案例,对比独立假设与Copula建模下的可靠性结果。研究表明:考虑耦合效应后,该型复杂控制系统在任务执行期间,可靠度下降幅度较传统计算方法扩大得更大,证实传统基于独立性假设的建模方法存在显著高估风险。所提方法为复杂控制系统的可靠性评估与优化设计提供有效的理论支撑。

     

  • 图 1  系统递进式展开分析

    Figure 1.  Systematic progressive analysis

    图 2  通信组合子系统故障树

    Figure 2.  Communication combination integrated system fault tree

    图 3  通信组合子系统等价故障树

    Figure 3.  Equivalent fault tree for communication combined subsystem

    图 4  整体系统等价故障树

    Figure 4.  Equivalence fault tree of the overall system

    图 5  5种典型二维Copula函数概率密度特征

    Figure 5.  Five typical two-dimensional Copula function probability density characteristics

    图 6  典型情况下基于5种不同Copula函数下通信组合子系统可靠度曲线

    Figure 6.  Reliability curves of communication integrated subsystem under five typical Copula functions in typical cases

    图 7  典型情况下基于5种不同Copula函数下各子系统可靠度曲线

    Figure 7.  Reliability curves of each subsystem based on five different Copula functions in typical cases

    图 8  分层Copula的嵌套过程

    Figure 8.  The nested process of layered Copula

    图 9  可靠度对比

    Figure 9.  Reliability comparison

    表  1  系统解构

    Table  1.   System Deconstruction

    子系统编号功能
    通信组合子系统A负责数据传输与外部信息交互等
    综合控制子系统B实现指令生成、分配与反馈调控等
    集控装置子系统1C完成任务操作与物理动作输出等
    集控装置子系统2D包括传感、散热、冗余模块等,提升系统
    整体适应性与容错性等
    配电子系统E为各子系统提供持续稳定的能源支持
    下载: 导出CSV

    表  2  通信组合子系统组成结构

    Table  2.   The structure of the communication combinatorial subsystem

    部件 编号
    电源模块 AA
    $\vdots $ $\vdots $
    网络安全接入模块 AM
    下载: 导出CSV

    表  3  典型二维Copula函数

    Table  3.   Typical two-dimensional Copula function

    Copula函数类型 表达式 Kendall秩相关系数
    Clayton $ {C}_{\theta }(u,v)={\left({u}^{-\theta }+{v}^{-\theta }-1\right)}^{-1/\theta } $ τ=θ/(2+θ)
    Gumbel ${C_\theta }(u,v) = \exp \left\{ { - {{\left[ {{{( - \ln u)}^\theta } + {{( - \ln v)}^\theta }} \right]}^{1/\theta }}} \right\},\;\;\;{\mkern 1mu} {\mkern 1mu} \theta \geqslant 1$ τ=1−1/θ
    Frank $ {C}_{\theta }(u,v)=-\dfrac{1}{\theta }\ln \left(1+\dfrac{({\mathrm{e}}^{-\theta u}-1)({\mathrm{e}}^{-\theta v}-1)}{{\mathrm{e}}^{-\theta }-1}\right), \theta \neq 0 $ $ \tau =1-\dfrac{4}{\theta }\left(1-\dfrac{{D}_{1}(\theta )}{\theta }\right) $
    Gaussian $ {C}_{R}({u}_{1},{u}_{2})={\mathit{\Phi }}_{R}\left({\mathit{\Phi }}^{-1}({u}_{1}),{\mathit{\Phi }}^{-1}({u}_{2})\right) $ $ \tau =\dfrac{2}{{\text{π}} }\arcsin R $
    t $ {C}_{R,\nu }({u}_{1},{u}_{2})={t}_{R,\nu }\left(t_{\nu }^{-1}({u}_{1}),t_{\nu }^{-1}({u}_{2})\right) $ $ \tau =\dfrac{2}{{\text{π}} }\arcsin R $
    下载: 导出CSV

    表  4  第1次嵌套子系统间的Kendall秩相关系数

    Table  4.   The Kendall rank correlation coefficient between the first nested subsystems

    τABCDE
    A1.000 00.750 00.600 00.800 00.550 0
    B0.750 01.000 00.650 00.700 00.500 0
    C0.600 00.650 01.000 00.620 00.450 0
    D0.800 00.700 00.620 01.000 00.580 0
    E0.550 00.500 00.450 00.580 01.000 0
    下载: 导出CSV

    表  5  第2次嵌套子系统间的Kendall秩相关系数

    Table  5.   The Kendall rank correlation coefficient between the second nested subsystems

    τABCDE
    A1.000 00.720 00.580 00.650 0
    B0.720 01.000 00.630 00.520 0
    C0.580 00.630 01.000 00.450 0
    DE0.650 00.520 00.450 01.000 0
    下载: 导出CSV

    表  6  第3次嵌套子系统间的Kendall秩相关系数

    Table  6.   Kendall rank correlation coefficient between the third nested subsystems

    τABCDE
    A1.000 00.580 00.532 0
    B0.580 01.000 00.763 0
    CDE0.532 00.763 01.000 0
    下载: 导出CSV

    表  7  第4次嵌套子系统间的Kendall秩相关系数

    Table  7.   Kendall rank correlation coefficient between the forth nested subsystems

    τBACDE
    B1.000 00.363 0
    ACDE0.363 01.000 0
    下载: 导出CSV

    表  8  每次嵌套子系统间的Kendall秩相关系数

    Table  8.   The Kendall rank correlation coefficient between nested subsystems each time

    AIC(102)ClaytonGumbelFrankGaussiant
    D-E−2.84−3.31−3.30−3.18−2.85
    C-DE−3.54−4.10−4.25−3.52−3.75
    A-CDE−4.15−5.25−5.55−4.01−5.53
    B-ACDE−6.36−6.96−5.86−5.26−6.16
    下载: 导出CSV

    表  9  五维相关系统可靠度

    Table  9.   Reliability of 5-dimensional related systems

    分析方法 可靠度
    理论值 0.982 1
    嵌套Copula 0.9806
    Clayton Copula 0.973 8
    Frank Copula 0.979 1
    Gaussian Copula 0.977 5
    t Copula 0.971 8
    Gumbel Copula 0.979 5
    下载: 导出CSV
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出版历程
  • 收稿日期:  2025-09-29
  • 录用日期:  2025-11-14
  • 网络出版日期:  2026-01-04
  • 整期出版日期:  2026-08-31

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