[1] 杨秉喜.雷达综合技术保障工程[M].北京:中国标准出版社,2001:17. YANG Bing-xi.Radar Integrated Technical Support Project[M].Beijing:China Standard Press,2001:17. [2] 杨江平.雷达装备保障学[M].北京:蓝天出版社,2014:36-58. YANG Jiang-ping.Radar Equipment Support Science[M].Beijing:Blue Sky Press,2014:36-58. [3] 程杨,胡冰,董伟.SPA-AHM的雷达装备保障性评估[J].现代防御技术,2018,46(6):115-121. CHENG Yang,HU Bing,DONG Wei.Supportability Evaluation of Radar Equipment Based on SPA-AHM[J].Modern Defence Technology,2018,46(6):115-121. [4] 卢雷,杨江平,常春贺.基于集对分析的雷达装备保障性评估[J].现代防御技术,2013,41(1):142-146. LU Lei,YANG Jiang-ping,CHANG Chun-he.Supportability Assessment of Radar Equipment Based on Set Pair Analysis[J].Modern Defence Technology,2013,41(1):142-146. [5] 赵耀,翟长生,闫世强.新型雷达装备战斗力的模糊综合评价[J].空军雷达学院学报,2009,23(5):324-326. ZHAO Yao,ZHAI Chang-sheng,YAN Shi-qiang.Fuzzy Comprehensive Evaluation of Battle Effectiveness of New-Type Radar Equipment[J].Journal of Air Force Radar Academy,2009,23(5):324-326. [6] 彭飞,杨江平,钱建刚,等.雷达装备保障性评估模型[J].火力与指挥控制,2009,34(7):69-72. PENG Fei,YANG Jiang-ping,QIAN Jian-gang,et al.Research on Evaluation Model of Radar Supportability[J].Fire Control & Command Control,2009,34(7):69-72. [7] 王永杰.基于模糊灰色理论的雷达装备保障性评估[J].现代防御技术,2015,43(2):159-164. WANG Yong-jie.Supportability Evaluation Method of Radar Based on Fuzzy Grey Theory[J].Modern Defence Technology,2015,43(2):159-164. [8] 马亚龙,邵秋峰,孙明,等.评估理论和方法及其军事应用[M].北京:国防工业出版社,2013:132. MA Ya-long,SHAO Qiu-feng,SUN Ming,et al.Theories and Methods of Evaluation and Their Military Applications[M].Beijing:National Defense Industry Press,2013:132. [9] 施端阳,胡冰,张长聪.基于粗糙集的雷达装备保障性评估指标约简方法[J].空军预警学院学报,2019,33(2):107-111. SHI Duan-yang,HU Bing,ZHANG Chang-cong.A Reduction Method for Index of Radar Equipment Supportability Evaluation Based on Rough Set[J].Journal of Air Force Early Warning Academy,2019,33(2):107-111. [10] 谢宗仁,吕建伟,林华.基于突变级数法的舰船作战能力综合评价[J].中国舰船研究,2016,11(3):5-10. XIE Zong-ren,LÜ Jian-wei,LIN Hua.The Comprehensive Evaluation of Naval Vessl′s Engagement Capability Based on the Catastrophe Progression Method[J].Chinese Journal of Ship Research,2016,11(3):5-10. [11] 许秀娟.突变级数法在城市基础设施水平空间差异评价中的应用[J].工程管理学报,2018,32(6):81-86. XU Xiu-juan.The Application of Catastrophe Progression Method in Assessing the Horizontal Spatial Difference of Urban Infrastructures[J].Journal of Engineering Management,2018,32(6):81-86. [12] 邓长涛,严超君,董菁.基于突变理论的工业园区环境风险评价[J].陕西水利,2018(6):98-101. DENG Chang-tao,YAN Chao-jun,DONG Jing.Environmental Risk Assessment of Industrial Park Area Based on Catastrophe Theory[J].Shaanxi Water Resources,2018(6):98-101. [13] 夏国清,栾添添,孙明晓,等.基于主成分约简和突变级数的舰载机出动能力综合评估方法[J].系统工程与电子技术,2018,40(2):330-337. XIA Guo-qing,LUAN Tian-tian,SUN Ming-xiao,et al.Reduction and Catastrophe Progression Evaluation Method for Sortie Generation of Carrier Aircraft[J].Systems Engineering and Electronics,2018,40(2):330-337. [14] 李绍飞,陈伏龙,余萍,等.平原区浅层地下水污染风险评价[J].武汉大学学报:工学版,2018,51(12):1035-1040. LI Shao-fei,CHEN Fu-long,YU Ping,et al.Shallow Groundwater Pollution Risk Evaluation in Plain Areas[J].Journal of Wuhan University:Engineering ed,2018,51(12):1035-1040. [15] 程杨,胡冰,董宇辉,等.基于Grey-AHM的雷达装备保障性评估[J].现代雷达,2019,41(1):9-13. CHENG Yang,HU Bing,DONG Yu-hui,et al.Supportability Evaluation of Radar Equipment Based on Grey-AHM[J].Modern Radar,2019,41(1):9-13. |