Li 2021a - Revision history

Liqiaoyang at 09:20, 29 September 2021

2021-09-29T09:20:13Z

Rimni: /* References */

2021-09-29T08:57:24Z

‎References

Rimni at 08:21, 29 September 2021

2021-09-29T08:21:51Z

Rimni at 08:21, 29 September 2021

2021-09-29T08:21:16Z

Rimni at 08:20, 29 September 2021

2021-09-29T08:20:49Z

Rimni at 08:20, 29 September 2021

2021-09-29T08:20:13Z

Rimni at 08:17, 29 September 2021

2021-09-29T08:17:13Z

Rimni: /* 2.1.2 Improved simulation model */

2021-09-29T08:16:49Z

‎2.1.2 Improved simulation model

Rimni at 08:11, 29 September 2021

2021-09-29T08:11:34Z

Rimni at 08:10, 29 September 2021

2021-09-29T08:10:51Z

@@ Line 1,147: / Line 1,147: @@
 [1] Sennaroglu B., Celebi G.V. A military airport location selection by ahp integrated promethee and vikor methods. Transportation Research Part D: Transport and Environment, 59:160-173, 2018.
-[2] Li X., Luo M., Wang M.  Composite strike method of conventional missile. Tactical Missile Technology, 2008.
+[2] Li X., Luo M., Wang M. Composite strike method of conventional missile. Tactical Missile Technology, 02:46-48+74, 2008.
-[3] Zhen Z., Feng J.  A study on aim points selection method for attacking airport runway. Informatization Research, 43(01),19-21+28, 2017.
+[3] Zhen Z., Feng J. A study on aim points selection method for attacking airport runway. Informatization Research, 43(01),19-21+28, 2017.
-[4] Gao X.  Application of computer-simulation in the study of bomblet dispersion. Acta Armamentarii, 1989.
+[4] Gao X. Application of computer-simulation in the study of bomblet dispersion. Acta Armamentarii, 02:12-18, 1989.
-[5] Wang T., Yang P., Ouyang H.  Investigation into multi-time missile warfare based on markov chain. Tactical Missile Technology, 4:20-22, 2011.
+[5] Wang T., Yang P., Ouyang H. Investigation into multi-time missile warfare based on markov chain. Tactical Missile Technology, 4:20-22, 2011.
-[6] Guangzhi B., Bin Z., Shuai S. (2014). Aimpoints Selection Method Multiwave Attack Runway with Ballistic Missiles. Fire Control & Command Control, 39(11):66-64+71, 2014.
+[6] Guangzhi B., Bin Z., Shuai S. Aimpoints Selection Method Multiwave Attack Runway with Ballistic Missiles. Fire Control & Command Control, 39(11):66-64+71, 2014.
-[7] Zhang K.,  Liu Y.C., Guan S.Y.  Investigation into the problem of evaluating combat effectiveness for missile weapon systems. Journal of Astronautics, 2002.
+[7] Zhang K.,  Liu Y.C., Guan S.Y. Investigation into the problem of evaluating combat effectiveness for missile weapon systems. Journal of Astronautics, 02:58-66, 2002.
-[8] Kim J., Kim W.  Simulation analysis on the effectiveness of missile defense. Journal of Peace Research, (4), 2020.
+[8] Kim J., Kim W. Simulation analysis on the effectiveness of missile defense. Journal of Peace Research, 58(03):510-522, 2020.
-[9] Ma B., Zhou C., Lou L., Zhang T.  Automatic assessment of the attacked airports based on image analysis. Journal of Huazhong University of ence and Technology, 07:13-15, 2004.
+[9] Ma B., Zhou C., Lou L., Zhang T. Automatic assessment of the attacked airports based on image analysis. Journal of Huazhong University of ence and Technology, 07:13-15, 2004.
-[10] Miao Q.G., Liu J., Ning S.T.  Battle damage assessment of airport based on fuzzy comprehensive evaluation. Systems Engineering and Electronics, 34(7):1395-1399, 2012.
+[10] Miao Q.G., Liu J., Ning S.T. Battle damage assessment of airport based on fuzzy comprehensive evaluation. Systems Engineering and Electronics, 34(7):1395-1399, 2012.
-[11] Zou H.  Application of iterative learning algorithm based on data driving to the evaluation of missile penetration capability. Shipboard Electronic Countermeasure, 2019.
+[11] Zou H.  Application of iterative learning algorithm based on data driving to the evaluation of missile penetration capability. Shipboard Electronic Countermeasure, 42(01):42-45+51, 2019.
-[12] Feng L.P.,  Fan Z.E., Nie Y.F.  Simulation on terminal penetration trajectory of anti-ship missile under interception conditions. DEStech Transactions on Engineering and Technology Research, 2020.
+[12] Feng L.P.,  Fan Z.E., Nie Y.F. Simulation on terminal penetration trajectory of anti-ship missile under interception conditions. DEStech Transactions on Engineering and Technology Research, 1:1-7, 2019.
-[13] Zhang X.Y., Song G.B. (2006). Design and realization of anti-ship missile penetration simulation system based on HLA. Journal of System Simulation, 08:2350+2354. 2006.
+[13] Zhang X.Y., Song G.B. Design and realization of anti-ship missile penetration simulation system based on HLA. Journal of System Simulation, 08:2350+2354. 2006.
-[14] Xia J., Xie L.Y., Wang X.Q. (2008). Research on optimal penetration strategies of ballistic missile. Journal of Ballistics, 20(08):65-68, 2008.
+[14] Xia J., Xie L.Y., Wang X.Q. Research on optimal penetration strategies of ballistic missile. Journal of Ballistics, 20(08):65-68, 2008.
-[15] Feng D.J., Wang X.S., Liu J.Q. (2010). Jamming effect analysis of chaff cloud on ground-based radar and its application. Modern Radar, 32(06):22-26, 2010.
+[15] Feng D.J., Wang X.S., Liu J.Q. Jamming effect analysis of chaff cloud on ground-based radar and its application. Modern Radar, 32(06):22-26, 2010.
 [16] Zhou Y., Wang X.S., Wang G.Y., Wang L.D.,  Liu Y.H.  Fuzzy evaluation on radar jamming effect based on ballistic missile penetration. Systems Engineering and Electronics, 07:807-809, 2003.
-[17] Zhao F., Li D., Wang X.S., Xiao S.P.  Missile defense radar simulation system. Journal of System Simulation, 05:1190-1194, 2006.
+[17] Zhao F., Li D., Wang X.S., Xiao S.P. Missile defense radar simulation system. Journal of System Simulation, 05:1190-1194, 2006.
-[18] Yin L., Liu H., Zhao X., Shufang L.I.  Research on AN/TPY-2 radar range and jamming based on radar equation. Systems Engineering and Electronics, 40(01):50-57, 2018.
+[18] Yin L., Liu H., Zhao X., Shufang L.I. Research on AN/TPY-2 radar range and jamming based on radar equation. Systems Engineering and Electronics, 40(01):50-57, 2018.
-[19] Lee J.S.  Optimal sam defense system: an application of optimal control concept to operations research. IEEE Transactions on Automatic Control, 18(5):485-489, 1973.
+[19] Lee J.S. Optimal sam defense system: an application of optimal control concept to operations research. IEEE Transactions on Automatic Control, 18(5):485-489, 1973.
-[20] Hecht Jeff.  Is there any way to defend against a ballistic missile?. New Scientist, 206(2762):12-12, 2010.
+[20] Hecht Jeff. Is there any way to defend against a ballistic missile?. New Scientist, 206(2762):12-12, 2010.
-[21] Dutta D.  Probabilistic analysis of anti-ship missile defence effectiveness. Defence Science Journal, 64(2):123-129, 2014.
+[21] Dutta D. Probabilistic analysis of anti-ship missile defence effectiveness. Defence Science Journal, 64(2):123-129, 2014.
-[22] Bethe H.A., Garwin R.L., Gottfried K., Kendall H.W.  Space-based ballistic-missile defense. Scientific American, 4(4):39-49, 1984.
+[22] Bethe H.A., Garwin R.L., Gottfried K., Kendall H.W. Space-based ballistic-missile defense. Scientific American, 4(4):39-49, 1984.
-[23] Ron N.  How organizations learn: post-flight reviews in an F-16 fighter squadron. Organization Studies, 27(8):1069-1089, 2006.
+[23] Ron N. How organizations learn: post-flight reviews in an F-16 fighter squadron. Organization Studies, 27(8):1069-1089, 2006.
-[24] Jones D.  This systems architect builds the most advanced F-16 combat simulators. IEEE Spectrum, 51(6):24-24, 2014.
+[24] Jones D. This systems architect builds the most advanced F-16 combat simulators. IEEE Spectrum, 51(6):24-24, 2014.
-[25] Farhat C., Geuzaine P., Brown G. (2003). Application of a three-field nonlinear fluid–structure formulation to the prediction of the aeroelastic parameters of an F-16 fighter. Computers & Fluids, 32(1):3-29, 2003.
+[25] Farhat C., Geuzaine P., Brown G. Application of a three-field nonlinear fluid–structure formulation to the prediction of the aeroelastic parameters of an F-16 fighter. Computers & Fluids, 32(1):3-29, 2003.
 [26] Holland O.T., Wallace S.E. Using agents to model the kill chain of the ballistic missile defense system. Naval Engineers Journal, 123(3):141-151, 2012.
-[27] Marshall E.  Patriot's effectiveness challenged. Science, 254(5033):791-791, 1991.
+[27] Marshall E. Patriot's effectiveness challenged. Science, 254(5033):791-791, 1991.

@@ Line 1,143: / Line 1,143: @@
 ==References==
-. Sennaroglu, Bahar, Celebi, Gulsay, Varlik. (2018). A military airport location selection by ahp integrated promethee and vikor methods. ''Transportation research, Part D. Transport and environment''.
+[1] Sennaroglu B., Celebi G.V. A military airport location selection by ahp integrated promethee and vikor methods. Transportation Research Part D: Transport and Environment, 59:160-173, 2018.
-. Li, X., Luo, M., Wang, M. (2008). Composite strike method of conventional missile. ''Tactical Missile Technology''.
+[2] Li X., Luo M., Wang M.  Composite strike method of conventional missile. Tactical Missile Technology, 2008.
-. Zhen, Z., Feng, jiang. (2017). A Study on Aim Points Selection Method for Attacking Airport Runway. ''Informatization Research, 43(01), ''19-21+28.
+[3] Zhen Z., Feng J.  A study on aim points selection method for attacking airport runway. Informatization Research, 43(01),19-21+28, 2017.
-. Gao, X. (1989). Application of computer-simulation in the study of bomblet dispersion. ''Acta Armamentarii''.
+[4] Gao X.  Application of computer-simulation in the study of bomblet dispersion. Acta Armamentarii, 1989.
-. Wang, T., Yang, P., Ouyang, H. (2011). Investigation into multi-time missile warfare based on markov chain. ''Tactical Missile Technology, 4,'' 20-22.
+[5] Wang T., Yang P., Ouyang H.  Investigation into multi-time missile warfare based on markov chain. Tactical Missile Technology, 4:20-22, 2011.
-. Guangzhi, B., Bin, Z., Shuai, S. (2014). Aimpoints Selection Method Multiwave Attack Runway with Ballistic Missiles. ''Fire Control & Command Control, 39(11),'' 66-64+71.
+[6] Guangzhi B., Bin Z., Shuai S. (2014). Aimpoints Selection Method Multiwave Attack Runway with Ballistic Missiles. Fire Control & Command Control, 39(11):66-64+71, 2014.
-. Zhang, K.,  Liu, Y. C., Guan, S. Y. (2002). Investigation into the problem of evaluating combat effectiveness for missile weapon systems. ''Journal of Astronautics.''
+[7] Zhang K.,  Liu Y.C., Guan S.Y.  Investigation into the problem of evaluating combat effectiveness for missile weapon systems. Journal of Astronautics, 2002.
-''8. ''Kim, J., Kim, W. (2020). Simulation analysis on the effectiveness of missile defense. ''Journal of Peace Research, (4).''
+[8] Kim J., Kim W.  Simulation analysis on the effectiveness of missile defense. Journal of Peace Research, (4), 2020.
-. Ma, B., Zhou, C. Lou, L., Zhang, T. (2004). Automatic assessment of the attacked airports based on image analysis. ''Journal of Huazhong University of ence and Technology, 07, ''13-15.
+[9] Ma B., Zhou C., Lou L., Zhang T.  Automatic assessment of the attacked airports based on image analysis. Journal of Huazhong University of ence and Technology, 07:13-15, 2004.
-. Miao, Q. G., Liu, J., Ning, S. T. (2012). Battle damage assessment of airport based on fuzzy comprehensive evaluation. ''Systems Engineering and Electronics, 34(7),'' 1395-1399.
+[10] Miao Q.G., Liu J., Ning S.T.  Battle damage assessment of airport based on fuzzy comprehensive evaluation. Systems Engineering and Electronics, 34(7):1395-1399, 2012.
-. Zou, H. (2019). Application of iterative learning algorithm based on data driving to the evaluation of missile penetration capability. ''Shipboard Electronic Countermeasure''.
+[11] Zou H.  Application of iterative learning algorithm based on data driving to the evaluation of missile penetration capability. Shipboard Electronic Countermeasure, 2019.
-. Feng, L. P.,  Fan, Z. E., Nie, Y. F. (2020). Simulation on terminal penetration trajectory of anti-ship missile under interception conditions. ''DEStech Transactions on Engineering and Technology Research''.
+[12] Feng L.P.,  Fan Z.E., Nie Y.F.  Simulation on terminal penetration trajectory of anti-ship missile under interception conditions. DEStech Transactions on Engineering and Technology Research, 2020.
-. Zhang, X. Y., Song, G. B. (2006). Design and realization of anti-ship missile penetration simulation system based on HLA. ''Journal of System Simulation, 08, ''2350+2354.
+[13] Zhang X.Y., Song G.B. (2006). Design and realization of anti-ship missile penetration simulation system based on HLA. Journal of System Simulation, 08:2350+2354. 2006.
-. Xia, J., Xie, L. Y., Wang, X. Q. (2008). Research on optimal penetration strategies of ballistic missile. ''Journal of Ballistics, 20(08),'' 65-68.
+[14] Xia J., Xie L.Y., Wang X.Q. (2008). Research on optimal penetration strategies of ballistic missile. Journal of Ballistics, 20(08):65-68, 2008.
-. Feng, D. J., Wang, X. S., Liu, J. Q. (2010). Jamming effect analysis of chaff cloud on ground-based radar and its application. ''Modern Radar, 32(06),'' 22-26.
+[15] Feng D.J., Wang X.S., Liu J.Q. (2010). Jamming effect analysis of chaff cloud on ground-based radar and its application. Modern Radar, 32(06):22-26, 2010.
-. Zhou, Y., Wang, X. S., Wang, G. Y., Wang, L. D.,  Liu, Y. H. (2003). Fuzzy evaluation on radar jamming effect based on ballistic missile penetration. ''Systems Engineering and Electronics, 07,'' 807-809.
+[16] Zhou Y., Wang X.S., Wang G.Y., Wang L.D.,  Liu Y.H.  Fuzzy evaluation on radar jamming effect based on ballistic missile penetration. Systems Engineering and Electronics, 07:807-809, 2003.
-. Zhao, F., Li, D., Wang, X. S., Xiao, S. P. (2006). Missile defense radar simulation system. ''Journal of System Simulation, 05,'' 1190-1194.
+[17] Zhao F., Li D., Wang X.S., Xiao S.P.  Missile defense radar simulation system. Journal of System Simulation, 05:1190-1194, 2006.
-. Yin, L., Liu, H., Zhao, X., Shufang, L. I. (2018). Research on AN/TPY-2 radar range and jamming based on radar equation. ''Systems Engineering and Electronics, 40(01),'' 50-57.
+[18] Yin L., Liu H., Zhao X., Shufang L.I.  Research on AN/TPY-2 radar range and jamming based on radar equation. Systems Engineering and Electronics, 40(01):50-57, 2018.
-. Lee, J. S. (1973). Optimal sam defense system: an application of optimal control concept to operations research. ''IEEE Transactions on Automatic Control, 18(5),'' 485-489.
+[19] Lee J.S.  Optimal sam defense system: an application of optimal control concept to operations research. IEEE Transactions on Automatic Control, 18(5):485-489, 1973.
-. Hecht, Jeff. (2010). Is there any way to defend against a ballistic missile?. ''New Scientist, 206(2762),'' 12-12.
+[20] Hecht Jeff.  Is there any way to defend against a ballistic missile?. New Scientist, 206(2762):12-12, 2010.
-. Dutta, D. (2014). Probabilistic analysis of anti-ship missile defence effectiveness. ''Defence Science Journal, 64(2),'' 123-129.
+[21] Dutta D.  Probabilistic analysis of anti-ship missile defence effectiveness. Defence Science Journal, 64(2):123-129, 2014.
-. Bethe, H. A., Garwin, R. L., Gottfried, K., Kendall, H. W. (1984). ''Space-based ballistic-missile defense. Scientific American, 4(4),'' 39-49.
+[22] Bethe H.A., Garwin R.L., Gottfried K., Kendall H.W.  Space-based ballistic-missile defense. Scientific American, 4(4):39-49, 1984.
-. Ron, N. (2006). How organizations learn: post-flight reviews in an F-16 fighter squadron. ''Organization Studies, 27(8),'' 1069-1089.
+[23] Ron N.  How organizations learn: post-flight reviews in an F-16 fighter squadron. Organization Studies, 27(8):1069-1089, 2006.
-. Jones, D. (2014). This systems architect builds the most advanced F-16 combat simulators. ''IEEE Spectrum, 51(6),'' 24-24.
+[24] Jones D.  This systems architect builds the most advanced F-16 combat simulators. IEEE Spectrum, 51(6):24-24, 2014.
-. Farhat, C., Geuzaine, P., Brown, G. (2003). Application of a three-field nonlinear fluid–structure formulation to the prediction of the aeroelastic parameters of an F-16 fighter. ''Computers & Fluids, 32(1),'' 3-29.
+[25] Farhat C., Geuzaine P., Brown G. (2003). Application of a three-field nonlinear fluid–structure formulation to the prediction of the aeroelastic parameters of an F-16 fighter. Computers & Fluids, 32(1):3-29, 2003.
-. Holland, O. T., Wallace, S. E. (2012). Using agents to model the kill chain of the ballistic missile defense system. ''Naval Engineers Journal, 123(3),'' 141-151.
+[26] Holland O.T., Wallace S.E. Using agents to model the kill chain of the ballistic missile defense system. Naval Engineers Journal, 123(3):141-151, 2012.
-. Marshall, E. (1991). Patriot's effectiveness challenged. ''Science, 254(5033),'' 791-791.
+[27] Marshall E.  Patriot's effectiveness challenged. Science, 254(5033):791-791, 1991.

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