-محمدی، یعقوب و فتحی جلفا، ایرج (1395). بررسی عملکرد بتن انعطافی روسازی باند فرودگاه حاوی پودر لاستیک و خرده لاستیک در مقابل ضربه، اولین کنفرانس ملی پژوهشهای کاربردی در مهندسی.
-فخری و طاهری (1401). ارزیابی عملکرد و مدل سازی سه بعدی روسازیهای بتنی بلوکی فرودگاهی، مهندسی
زیرساختهای حمل و نقل، 8، 32، 115-99.
-صدرایی و همکاران، (2018). بررسی عملکرد دینامیکی دالهای بتنی مسلح شده با میلگرد اف آر پی و دالهای پیش تنیده در برابر ضربه. رساله دکتری دانشگاه شریف.
- سلطانی و همکاران، (1401). عملکرد دالهای بتنی مسلح تقویت شده با الیاف فولادی و ورقهایFRP ، در برابر بارگذاری دینامیکی ناشی از ضربه، رساله دکتری دانشگاه شریف.
-A. Moropoulou, N.P. Avdelidis, M. Kouri, and K. Kakaras, (2001). An Application of
Thermography for Detection of Delamination in Airport Pavements, Journal of NDT and
E International, 34, Elsevier Science Limited.
329-335,
-Amir modaress and Hamed shabani (2015).
Investigating the effect of aircraft impact loading on the longitudinal top-down crack propagation parameters in asphalt runway pavement using fracture mechanics. Engineering Fracture Mechanics.
-Chen, Y. and May, I.M. (2009). Reinforced Concrete Members under Drop Weight Impact. Proceeding of the Institution of Civil Engineers, Structures and Buildings, 162, 45-56.
-D. Rufino and J. Roesler, (2006). Effect of Slab-Base Interaction on Measured Concrete Pavement Responses, ASCE Journal of
Transportation Engineering, 132, 425-435.
-G.T. Houlsby, (1991). How the Dilatancy of Soils Affects their Behavior, Tenth European Conference on Soil Mechanics and Foundation Engineering, Florence, Italy. (37)
-H. Kim, and W.G. Buttler, (2009). Finite
Element Cohesive Fracture Modelling of Airport Pavements at Low Temperatures, Journal of Cold Regions Science and Technology, 57, Elsevier Science Limited.
123-131.
-Hayder Abbas Ashour AlAraza, Kharun Mahmud (2022). A parametric study of concrete runway pavement layers depression under impact load. Monthly Journal on Construction and Architecture, С. 1206–1217.
-Hughes, T.J.R.; Reali, A.; Sangalli, G. (2010). Efficient quadrature for NURBS-based isogeometric analysis. Comput. Methods Appl. Mech. Engrg. 199 (5–8), 301–313.
-Hummeltenberg, A., Beckmann, B., Weber, T., and Curbach, M., (2011). Investigation of Concrete Slabs under Impact Load. Applied
Mechanics and Materials, 82, 398-403.
-I. Mijangos, and K.U. Kelly, (2009).
Drucker-Prager Finite Element Constitutive Model of Microindentation in Polycrystalline Alumina, Proc. of the SEM Annual Conference, June 1-4, Albuquerque New Mexico, USA, (36).
-I. L. Al-Qadi, S. Portas, M. Coni, and S. Lahouar, (2010). Runway Instrumentation and Response Measurements, Journal of the
Transportation Research Board, No. 2153, 162-169.
-Iqbal, M.A., Kumar V., Mittal, A.K. (2018). Experimental investigation of prestressed and reinforced concrete plates under falling weight impactor. Thin-Walled Struct. 126, 106-116.
-J. Ozbolt, A. Sharma, B. Irhan, and E. Sola, (2014). Tensile Behaviour of Concrete under High Loading Rates, International Journal
of Impact Engineering, 69, Elsevier Science Limited. 55-68.
-Jifeng Yuan, Jin Wu, Tian Su and Dadi Lin (2022). Dynamic Response of Reinforced
Recycled Aggregate Concrete Pavement under Impact Loading. Sci. 12, 8804.
-K. Gopalakrishnan and M.R. Thompson, (2007). Behaviour of Airfield Pavement
Subgrades Under Blast Load Test. Proceedings of the institution of Civil Engineers, Transport 160, TR2, 79-87.
-K. Hoegh, L. Khazanovich, K. Maser, and N. Tran, (2012). Evaluation of Ultrasonic Technique for Detecting Delamination in Asphalt Pavements, Journal of the Transportation
Research Board, 2316, 105-110.
-K. Su, Y. Hachiya, and R. Maekawa, (2009). Study on Recycled Asphalt Concrete for Use in Surface Course in Airport Pavement, Journal of Resources, Conservation and Recycling,
Elsevier Science Limited. 54, 37-44,
-K.R. Maser, and I. Sande, (1996). Condition Assessment of Transportation Infrastructure Using Ground-Penetrating Radar, Journal of
Infrastructure Systems, 2(2), 94-101.
-Kennedy, R.P. (1976). A Review of Procedures for the Analysis and Design of Concrete Structures to Resist Missile Impact Effects.
Nuclear Engineering and Design, 37, 183-203.
-Kishi, N., Kurihashi, Y., GhadimiKhasraghy, S., and Mikami, H. (2011). Numerical Simulation of Impact Response Behavior of
Rectangular Reinforced Concrete Slabs under Falling-weight Impact loading. Applied
Mechanics and Materials, 82, 266-271.
-Kumar, V, Iqbal, M.A, Mittal, A.K. (2018). Study of induced prestress on deformation and energy absorption characteristics of concrete slabs under drop impact loading. Constr. Build. Mater. 188, 656-675
-Kurihashi, Y., Taguchi, F., Kishi, N., and Mikami, H. (2006). Experimental Study on Static and Dynamic Response of PVA Short-fiber Mixed R.C. Slab. fib Proceeding of the 2nd International Congress, ID 13-20, Naples, Italy, June 5-8, 1-10.
-M. Bounsanti, and G. Leonardi (2011).
A Finite Element Model to Evaluate Airport Flexible Pavements Response under Impact, Journal of Applied Mechanics and Materials, 138, 257-262.
-M. Kim, and E. Tutumluer, (2008). Multiple Wheel Load Interaction in Flexible Pavements, Journal of the Transportation Research Board, No. 2068, 9-60.
-M.R. Taheri, M.M Zaman, and A. Alvappillai, (1990). Dynamic Response of Concrete
Pavement to Moving Aircrafts, Journal of
Applied Math Modelling, 14, 562-575.
-Mutalib, A.A. (2011). Experimental and Numerical Studies of FRP Strengthened RC Slabs under Impact Loads. International Journal of Impact Engineering, 100(3),
256- 263.
-Othman, H., Marzouk, H. (2016).
An experimental investigation on the effect of steel reinforcement on impact response of
reinforced concrete plates. Int. J. Impact Eng. 88, 12-21.
-Piegl, L.; Tiller, W. (1997). The NURBS Book. 2nd ed., Springer-Verlag, New York
-Rogers D.F., (2001). An Introduction to NURBS, Morgan Kaufmann Publishers.
-S. Kuo, H.S. Mahgoub, R.D. (1896). Holliday, Pavement Responses Due to Hard Landing of Heavy Aircraft, Journal of the Transportation Research Board, 88-95.
-Saima Ali, Sabrina Fawz, (2020). Performance of protective concrete runway pavement under aircraft impact loadin.
-V. Carvelli, C. Corazza, and C. Poggi, (2007). Mechanical Modelling of Monofilament
Technical Textiles. Journal of Computational Materials Science, 42, Elsevier, 671-691.
-Wu J., Wu H., Tan H.W.A., Chew S.H. (2018). Multilayer pavement system under blast load. Springer Tracts in Civil Engineering.
doi: 10.1007/978-981-10-5001-5
-V. Khanna, M.A. Mooney, and G.A. Miller, (2012). Impulse Response Dynamic Stiffness Decay in Aging General Aviation Airfield Pavements, Journal of the Transportation
Research Board, No. 2153, 162-169.
-W. Jun, (2012). Development of Advanced Pavement Materials System for Blast Laod, Thesis of Doctor of Philosophy, National University of Singapore.
-X. Yan, X. Weng, and Y. Kou, (2014).
Influence of Fiber Grid on Interlayer Bond Property of Airport Double-Layer Pavement, Journal of Reinforced Plastics and Composites, 33(1), 101-111.
-Y. Fujita, and R. Ishimaru, (1998). Study on Internal Friction Angle and Tensile Strength of Plain Concrete, Proc. on Fracture Mechanics