9 Ashby MA, Evans AG, Fleck NA, et al. Metal Foams: A Design Guide. Oxford: Butterworth Heinemann, 2000
[10]
10 Banhart J. Manufacture, characterization and application of cellular metals and metal foams. Progress in Materials Science, 2001, 46 (6): 559-632
[11]
11 Gibson LJ, Ashby MF. Cellular Solids: Structures and Properties (2nd edn). Cambridge: Cambridge University Press, 1997
[12]
12 Lu TJ, Ong JM. Characterization of close-celled cellular aluminum alloys. J Mater Sci, 2001, 36 (11): 2773-2786
[13]
41 Papka SD, Kyriakides S. Experiments and full-scale numerical simulations of in-plane crushing of a honeycomb. Acta Materialia, 1998, 46 (4): 2765-2776
[14]
42 Triantafyllidis N, Schraad MW. Onset of failure in aluminum honeycombs under general in-plane loading. Journal of the Mechanics and Physics of Solids, 1998, 46 (6): 1089-1124
[15]
43 Chen C, Lu TJ, Fleck NA. Effect of imperfections on the yielding of two dimensional foams. Journal of the Mechanics and Physics of Solids, 1999, 47 (11): 2235-2272
[16]
44 Gu S, Lu TJ, Evans AG. On the design of two-dimensional cellular metals for combined heat dissipation and structural load capacity. International Journal of Heat and Mass Transfer, 2001, 44: 2163-2175
[17]
45 Warren WE, Kraynik AM. The nonlinear elastic behavior of open-cell foams. ASME Journal of Applied Mechanics, 1991, 58 (2): 376-381
[18]
46 Zhu HX, Mills NJ, Knott JF. Analysis of the high strain compression of open-cell foams. Journal of the Mechanics and Physics of Solids, 1997, 45 (11-12): 1875-1899, 1901-1904
[19]
47 Gong L, Kyriakides S, Jang WY. Compressive response of open-cell foams part I: morphology and elastic properties. International Journal of Solids and Structure, 2005, 42 (5-6): 1355-1379
[20]
48 Gong L, Kyriakides S, Jang WY. Compressive response of open cell foams part II: initiation and evolution of crushing. International Journal of Solids and Structures, 2005, 42 (5-6): 1381-1399
[21]
49 Warren WE, Kraynik AM. Foam mechanics: the linear elastic response of two-dimensional spatially periodic cellular materials. Mechanics of Materials, 1987, 6 (1): 27-37
[22]
50 Grenestedt JL. Influence of wavy imperfections in cell walls on elastic stiffness of cellular solids. Journal of the Mechanics and Physics of Solids, 1998, 46 (1): 29-50
[23]
51 Simone AE, Gibson LJ. The effects of cell face curvature and corrugations on the stiffness and strength of metallic foams. Acta Materialia, 1998, 46 (11): 3929-3935
[24]
52 Silva MJ, HayesWC, Gibson LJ. The effects of non-periodic microstructure on the elastic properties of two-dimensional cellular solids. International Journal of Mechanical Sciences, 1995, 37 (11): 1161-1177
[25]
53 Silva MJ, Gibson LJ. The effect of non-periodic microstructure and defects on the compressive strength of twodimensional cellular solids. International Journal of Mechanical Sciences, 1997, 39 (5): 549-563
[26]
54 Lu TJ, Chen C. Thermal transport and fire retardance properties of cellular aluminium alloys. Acta Materialia, 1999, 47 (5): 1469-1485
[27]
55 Li K, Gao XL, Subhashb G. Effects of cell shape and strut cross-sectional area variations on the elastic properties of three-dimensional open-cell foams. Journal of the Mechanics and Physics of Solids, 2006, 54 (4): 783-806
[28]
56 Gibson LJ, Ashby MF, Zhang J, et al. Failure surface for cellular material under multiaxial loads——I. Modelling. Int J Mech Sci, 1989, 31 (9): 635-663
58 Miller RE. Continuum plasticity model for the constitutive and indentation behavior of foamed metals. Int Mech Sci, 2000, 42 (4): 729-754.
[31]
59 Mohr D, Doyoyo M. A new method for the biaxial testing of cellular solids. Experimental Mechanics, 2003, 43(2): 173-182
[32]
60 Doyoyo M, Wierzbicki T. Experimental studies on the yield behavior of ductile and brittle aluminum foams. Int J Plasticity, 2003, 19 (8): 1195-1214
[33]
61 Doyoyo M, Mohr D. Microstructural response of aluminum honeycomb to combined out-of-plane loading. Mechanics of Materials, 2003, 35(9): 865-876
[34]
62 Arcan M, Hashion Z, Voloshin A. A method to produce uniform plane-stress states with applications to fiberreinforced materials. Experimental Mechanics, 1978, 18 (4): 141-146
[35]
63 Hong S T, Pan J, Tyan T, et al. Dynamic crush behaviours of aluminium honeycomb specimens under compression dominant inclined loads. International Journal of Plasticity, 2008, 24 (1): 89-117
[36]
64 Chen C, Lu TJ, Fleck NA. Effect of imperfections on the yielding of two-dimensional foams. Journal of the Mechanics and Physics of Solids, 1999, 47 (11): 2235-2272
[37]
65 Grenestedt JL. Effective elastic behavior of some models for perfect cellular solids. International Journal of Solids and Structures, 1999, 36 (10): 1471-1501
[38]
66 Grenestedt JL, Bassinet F. Influence of cell wall thickness variations on elastic stiffness of closed-cell cellular solids. Int J Mech Sci, 2000, 42 (7): 1327-1338
[39]
67 Ableidinger A. Some aspects of the fracture behavior of metal foams. [PhD Thesis]. Vienna: Vienna University of Technology, 2000
[40]
68 Daxner T, Bohm HJ, Rammerstorfer FG, et al. Simulation of elastic-plastic behavior of metal foam using 2D and 3D unit cell models. Mater Wiss Werkstofftechnik, 2000, 31 (6): 447-450
[41]
69 Reid SR, Reddy TY. Experimental investigation of inertia effects in one-dimensional metal ring systems subjected to end impact-I: fixed-ended systems. Int J Impact Engng, 1983, 1 (1): 85-106
[42]
70 Dannemann KA, Lankford JJ. High strain rate compression of closed-cell aluminum foams. Material Science and Engineering A, 2000, 293 (1-2): 157-164
[43]
71 Deshpande VS, Fleck NA. High strain rate compressive behavior of aluminum alloy foams. International Journal Impact Engineering, 2000, 24 (3): 277-298
[44]
72 Lee S, Barthelat F, Moldovan N, et al. Deformation rate effects on failure modes of open-cell Al foams and textile cellular materials. International Journal of Solids and Structures, 2006, 43 (1): 53-73
[45]
73 Montanini R. Measurement of strain rate sensitivity of aluminum foams for energy dissipation. International Journal of Mechanical Science, 2005, 47 (1): 26-42
[46]
74 Kanahashi H, Mukai T, Yamada Y, et al. Dynamic compression of an ultra-low density aluminum foam. Material Science and Engineering A, 2000, A280: 349-353
[47]
75 Wang ZH, Ma HW, Zhao LM, et al. Studies on the dynamic compressive properties of open-cell aluminum alloy foams. Scripta Materialia, 2006, 54 (1): 83-87
[48]
76 Han FS, Cheng HF, Li ZB, et al. The strain rate effect of an open cell aluminum foam. Metallurgical and Materials Transactions A, 2005, 36 (3): 645-650
[49]
77 Kenny LD. Mechanical properties of particle stabilized aluminum foam. Material Science Forum, 1996, 217-222: 1883-1890
96 Hilyard NC, Djiauw LK. Observations on the impact behaviour of polyurethane foams: I. The polymer matrix. Journal of Cellular Plastics January, 1971, 7 (1): 33-42
[61]
97 Gordon JE, Jeronimidis G. Work of fracture of natural cellulose . Nature, 1974, 252: 116
[62]
98 Rusch KC. Impact energy absorption by foamed polymers. Journal of Cellular Plastics, 1971, 7: 78-83
[63]
99 Miltz J, Gruenbaum G. Evaluation of cushion properties of plastic foams compressive measurements. Polymer Engineering and Science, 1981, 21 (15): 1010-1014
101 Meinecke EA, Schwaber DM. Energy absorption in polymeric foams. I. Prediction of impact behavior from instron data for foams with rate-independent modulus. J Appl Polym Sci, 1970, 14 (9): 2239-2248
[66]
102 Nagy A, Ko WL, Lindholm US, Mechanical behavior of foamed materials under dynamic compression. J Cell Plastics, 1974, 10 (3): 127-134
[67]
103 Sherwood JA, Frost CC. Constitutive modeling and simulation of energy absorbing polyurethane foam. Polymer Eng Sci, 1992, 32 (16): 1138-1146
[68]
104 Chou CC, Zhao Y, Chai L, et al. Development of foam models as applications to vehicle interior. In: Proceedings of the 39th Stapp Car Crash Conference, California, 1995
[69]
105 Faruque O, Liu N, Chou CC. Strain rate dependent foamconstitutive modeling and applications. SAE Technical Paper, 1997
[70]
106 Zhang J, Kikuchi N, Li V, et al. Constitutive modeling of polymeric foam material subjected to dynamic crash loading. International Journal of Impact Engineering, 1998, 21 (5): 369-386
[71]
107 Wang ZH, Jing L, Zhao LM. Elasto-plastic constitutive modeling of aluminum alloy foam subjected to impact loading. Transactions of Nonferrous Metals Society of China, 2011, 21 (3): 449-454
[72]
108 Boade RR. Compression of porous copper by shock waves. Journal of Applied Physics, 1968, 39 (12): 5693-5700
[73]
109 Boade RR. Dynamic compression of porous tungsten. Journal of Applied Physics, 1969, 40 (9): 3781-3785
[74]
110 Bonnan Stephane, Hereil Pierre Louis. Experimental characterization of quasi static and shock wave behavior. Journal of Applied Physics, 1998, 83 (11): 5741-5749
[75]
111 Hereil PL, Bonnan S, Collombet F. Experimental characterization of shock wave behavior of porous aluminum. Journal De Physique Ⅳ, 1997, 7: 535-540
[76]
112 Tsai L, Prakash V. Structure of weak shock waves in 2-D layered material systems. International Journal of Solids and Structures, 2005, 42 (2): 727-750
115 Reid SR, Peng C. Dynamic uniaxial crushing of wood. International Journal of Impact Engineering, 1997, 19 (5-6): 531-570
[80]
116 Cooper GJ, Townend DJ, Cater SR, et al. The role of stress waves in thoracic visceral injury from blast loading: modification of stress transmission by foams and high-density materials. J Biomech, 1991, 24 (5): 273-285
[81]
117 Shim VPW, Tay BY, Stronge WJ. Dynamic crushing of strain-softening cellular structures——a one-dimensional analysis. Trans ASME J Engng Mater Tech, 1990, 112 (4): 398-405
[82]
118 Pattofatto S, Elnasri I, Zhao H, et al. Shock enhancement of cellular structures under impact loading: Part II: analysis. Journal of the Mechanics and Physics of Solids, 2007, 55 (12): 2672-2686
[83]
119 Reid SR, Bell WW, Barr RA. Structural plastic shock model for onedimensional ring systems. Int J Impact Eng, 1983, 1(2): 175-191
[84]
120 Li QM, Meng H. Attenuation or enhancement —— a onedimensional analysis on shock transmission in the solid phase of a cellular material. International Journal of Impact Engineering, 2002, 27 (10): 1049-1065
[85]
121 Daxner T, Bohm HJ, Rammerstorfer FG. Mesoscopic simulation of inhomogeneous metallic foams with respect to energy absorption. Computational Materials Science, 1999, 16 (1-4): 61-69
123 Steeves CA, Fleck NA. Collapse mechanisms of sandwich beams with composite faces and a foam core, loaded in three-point bending. Part I: analytical models and minimum weight design. International Journal of Mechanical Sciences, 2004, 46 (4): 561-583
[88]
124 Steeves CA, Fleck NA. Collapse mechanisms of sandwich beams with composite faces and a foam core, loaded in three-point bending. Part II: experimental investigation and numerical modeling. International Journal of Mechanical Sciences, 2004, 46 (4): 585-608
[89]
125 Deshpande VS, Fleck NA. Collapse of truss core sandwich beams in 3-point bending. International Journal of Solids and Structures, 2001, 38 (36-37): 6275-6305
[90]
129 Jing L, Wang ZH, Zhao LM. Failure and deformation modes of sandwich beams under quasi-static loading. Applied Mechanics and Materials, 2010, 29-32: 84-88
[91]
130 McCormack TM, Miller R, Kesler O, et al. Failure of sandwich beams with metallic foam cores. International of Journal of Solid and Structures, 2001, 38 (28-29): 4901-4920
[92]
131 Tagarielli VL, Fleck NA, Deshpande VS. Collapse of clamped and simply supported composite sandwich beams in three-point bending. Composites: Part B, 2004, 35 (6-8): 523-534
[93]
132 Tagarielli VL, Fleck NA. A comparison of the structural response of clamped and simply supported sandwich beams with aluminum faces and a metal foam core. Journal of Applied Mechanics, 2005, 72 (3): 408-417
[94]
133 Chen C, Harte AM, Fleck NA. The plastic collapse of sandwich beams with a metallic foam core. International Journal of Mechanical Sciences, 2001, 43 (6): 1483-1506
[95]
134 Bart-Smith H, Hutchinson J, Evans A. Measurement and analysis of the structural performance of cellular metal sandwich construction. International Journal of Mechanical Sciences, 2001, 43 (8): 1945-1963
[96]
135 Wick N, Hutchinson JW. Optimal truss plate. International Journal of Solids and Structures, 2002, 38 (30-31): 5165-5183
[97]
136 Rubino V, Deshpande VS, Fleck NA. The collapse response of sandwich beams with a Y-frame core subjected to distributed and local loading. International Journal of Mechanical Sciences, 2008, 50 (2): 233-246
[98]
137 Rubino V, Deshpande VS, Fleck NA. The three-point bending of Y-frame and corrugated core sandwich beams. International Journal of Mechanical Sciences, 2010, 52 (3): 485-494
[99]
138 Koissin V, Shipsha A, Rizov V. The inelastic quasi-static response of sandwich structures to local loading. Composite Structures, 2004, 64 (2): 129-138
[100]
139 Styles M, Compston P, Kalyanasundaram S. Finite element modeling of core thickness effects in aluminum foam/composite sandwich structures under flexural loading. Composite Structures, 2008, 86 (1-3): 227-232
[101]
140 Kesler O, Gibson LJ. Size effects in metallic foam core sandwich beams. Materials Science and Engineering A, 2002, 326 (2): 228-234
[102]
141 Hazizan MA, Cantwell WJ. The low velocity impact response of foam-based sandwich structures. Composites: Part B, 2002, 33 (3): 193-204
[103]
142 Meo M, Morris AJ, Vignjevic R, et al. Numerical simulations of low-velocity impact on an aircraft sandwich panel. Composite Structures, 2003, 62 (3-4): 353-360
[104]
143 Besant T, Davies GAO, Hitchings D. Finite element modeling of low velocity impact of composite sandwich panels. Composites: Part A, 2001, 32 (9): 1189-1196
[105]
144 Radford DD, Deshpande VS, Fleck NA. The use of metal foam projectiles to simulate shock loading on a structure. International Journal of Impact Engineering, 2005, 31 (9): 1152-1171
[106]
145 Radford DD, Fleck NA, Deshpande VS. The response of clamped sandwich beams subjected to shock loading. International Journal of Impact Engineering, 2006, 32 (6): 968-987
[107]
146 Rubino V, Deshpande VS, Fleck NA. The dynamic response of end-clamped sandwich beams with a Y-frame or corrugated core. International Journal of Impact Engineering, 2008, 35 (8): 829-844
[108]
147 Abrate S. Impact on composite structures. Composite Structures, 2001, 51 (2): 129-138
[109]
148 Hoo Fatt MSH, Park KS. Dynamic models for low-velocity impact damage of composite sandwich panels. Composite Structure, 2001, 52 (3-4): 335-351
[110]
149 Makinen K. Underwater shock loaded sandwich structures. [PhD Thesis]. Sweden: Department of Aeronautics, Royal Institute of Technology, 1999
[111]
150 Yehia AB, George JD. Behaviour of sandwich plates reinforced with polyurethane/polyuria interlayers under blast loads. Journal of Sandwich and Materials, 2007, 9: 261-281
[112]
151 Fleck NA, Deshpande VS. The resistance of clamped sandwich beams to shock loading. Journal of Applied Mechanics, 2004, 71 (3): 386-401
[113]
152 Qiu X, Deshpande VS, Fleck NA. Impulsive loading of clamped monolithic and sandwich beams over a central patch. Journal of the Mechanics and Physics of solids, 2005, 53 (5): 1015-1046
[114]
153 Qin QH, Wang TJ. An analytical solution for the large de?ections of a slender sandwich beam with a metallic foam core under transverse loading by a flat punch. Composite Structures, 2009, 88 (4): 509-518
[115]
154 Qin QH, Wang TJ, Zhao SZ. Large deflections of metallic sandwich and monolithic beams under locally impulsive loading. International Journal of Mechanical Sciences, 2009, 51 (11-12): 752-773
[116]
155 Qin QH, Wang TJ. A theoretical analysis of the dynamic response of metallic sandwich beam under impulsive loading. European Journal of Mechanics A/Solids, 2009, 28 (5): 1014-1025
[117]
156 Vaziri A, Hutchinson JW. Metal sandwich plates subject to intense air shocks. International Journal of Solids and Structures, 2007, 44 (6): 2021-2035
[118]
157 McMeeking RM, Spuskanyuk AV, He MY, et al. An analytic model for the response to water blast of unsupported metallic sandwich panels. International Journal of Solids and Structures, 2008, 45 (2): 478-496
[119]
158 Tilbrook MT, Deshpande VS, Fleck NA. The impulsive response of sandwich beams: analytical and numerical investigation of regimes of behaviour. Journal of the Mechanics and Physics of Solids, 2006, 54 (11): 2242-2280
[120]
159 Tan PJ, Reid SR, Harrigan JJ, et al. Dynamic compressive strength properties of aluminium foams. Part II: ‘Shock’ theory and comparison with experimental data and numerical models. Journal of the Mechanics and Physics of Solids, 2005, 53 (10): 2206-2230
[121]
160 Liang Y, Spuskanyuk AV, Flores SE, et al. The response of metallic sandwich panels to water blast. Journal of Applied Mechanics, 2007, 74 (1): 81-99
[122]
161 McShane GJ, Deshpande, VS, Fleck NA. The underwater blast resistance of metallic sandwich beams with prismatic lattice cores. Journal of Applied Mechanics, 2007, 74 (2): 352-364
[123]
162 Tagarielli VL, Deshpande VS, Fleck NA. The dynamic response of composite sandwich beams to transverse impact. International Journal of Solids and Structures, 2007, 44 (7-8): 2442-2457
[124]
163 Rathbun HJ, Radford DD, Xue Z, et al. Performance of metallic honeycomb core sandwich beams under shock loading. International Journal of Solids and Structures, 2006, 43 (6): 1746-1763
[125]
164 Jing L, Wang ZH, Ning JG, et al. The dynamic response of sandwich beams with open-cell metal foam cores. Composites Part B: Engineering, 2011, 42 (1): 1-10
[126]
165 Jing L, Wang ZH, Ning JG, et al. The mechanical response of metallic sandwich beams under foam projectile impact loading. Latin American Journal of Solids and Structures, 2011, 8 (1): 107-120
[127]
166 Wang ZH, Jing L, Ning JG, et al. The structural response of clamped sandwich beams subjected to impact loading. Composite Structures, 2011, 93 (4): 1300-1308
[128]
167 Jing L, Yan QR, Wang ZH, et al. The dynamic mechanical behavior of sandwich beams with aluminum honeycomb cores. Advanced Science Letters, 2011, 4 (3): 731-735
[129]
168 Qiu X, Despande VS, Fleck NA. Finite element analysis of the dynamic response of clamped sandwich beams subject to shock loading. European Journal of Mechanics A/Solids, 2003, 22: 801-814
[130]
169 Tilbrook MT, Despande VS, Fleck NA. Underwater blast loading of sandwich beams: regimes of behavior. International Journal of Solids and Structures, 2009, 46 (17): 3209-3221
173 Foo CC, Chai GB, Seah LK. Quasi-static and low-velocity impact failure of aluminum honeycomb sandwich panels. Journal of Materials: Design and Applications, 2006, 220 (2): 53-66
[135]
174 Belouettar S, Abbadi A, Azari Z, et al. Experimental investigation of static and fatigue behavior of composites honeycomb materials using four point bending tests. Composite Structures, 2009, 87 (3): 265-273
[136]
175 Ruan D, Lu GX, Wong YC. Quasi-static indentation tests on aluminum foam sandwich panels. Composite Structures, 2010, 92 (9): 2039-2046
[137]
176 Fan HL, Zhou Q, Yang W, et al. An experimental study on the failure mechanisms of woven textile sandwich panels under quasi-static loading. Composites: Part B, 2010, 41 (8): 686-692
[138]
177 Fan HL, Yang W, Zhou Q. Experimental research of compressive responses of multi-layered woven textile sandwich panels under quasi-static loading. Composites: Part B, 2011, 42 (5): 1151-1156
[139]
178 Shin KB, Lee JY, Cho SH. An experimental study of lowvelocity impact responses of sandwich panels for Korean low floor bus. Composite Structures, 2008, 84 (3): 228-240
[140]
179 Fatt MSH, Park KS. Dynamic models for low-velocity impact damage of composite sandwich panels. Part A: deformation. Composites Structures, 2001, 52 (3-4): 335-351
[141]
180 Fatt MSH, Park KS. Dynamic models for low-velocity impact damage of composite sandwich panels. Part B: damage initiation. Composites Structures, 2001, 52 (3-4): 353-364
182 Khalili MR, Malekzadeh K, Mittal RK. Effect of physical and geometrical parameters on transverse low-velocity impact response of sandwich panels with a transversely flexible core. Composites Structures, 2007, 77 (4): 430-443
[144]
183 Etemadi E, Khatibi AA, Takaffoli M. 3D finite element simulation of sandwich panels with a functionally graded core subjected to low velocity impact. Composites Structures, 2009, 89 (1): 28-34
[145]
184 Xie ZH, Vizzini AJ, Tang QR. On residual compressive strength prediction of composite sandwich panels after lowvelocity impact damage. Acta Mechanica Solida Sinica, 2006, 19 (1): 9-17
[146]
185 Mines RAW, Worrall CM, Gibson AG. Low velocity perforation behavior of polymer composite sandwich panels. Int J Impact Engng, 1998, 21 (10): 855-879
[147]
186 Olsson R, McManus HL. Improved theory for contact indentation of sandwich panels. Am Inst Aeronaut Astronaut J, 1996, 34 (6): 1238-1244
[148]
187 Anderson TA. An investigation of SDOF models for large mass impact on sandwich composites. Composites: Part B, 2005, 36 (2): 135-142
[149]
188 Hassan MA, Cantwell WJ. The low velocity impact response of an aluminum honeycomb sandwich structure. Composites: Part B, 2003, 34 (8): 679-687
[150]
189 Kassno H. Impact perforation of orthotropic and quasiisotropic CFRP laminates by a steel ball projectile. Adv Compos Mater, 2001, 10 (4): 309-318
[151]
190 Karagiozova D, Nurick GN, Langdon GS, et al. Response of flexible sandwich-type panels to blast loading. Composites Science and Technology, 2009, 69, (6): 754-763
[152]
191 Dharmasena KP, Wadley HNG, Xue Z, et al. Mechanical response of metallic honeycomb sandwich panel structures to high-intensity dynamic loading. Int J of Impact Engineering, 2008, 35 (9): 1063-1074
[153]
192 Nurick GN, Langdon GS, Chi Y, et al. Behavior of sandwich panels subjected to intense air blast. Part 1: experiments. Composite Structures, 2009, 91 (4): 433-441.
[154]
193 Zhu F, Zhao LM, Lu GX, et al. Deformation and failure of blast-loaded metallic sandwich panels——experimental investigations. Int J Impact Engng, 2008, 35 (8): 937-951
[155]
194 McKown S, Shen Y, Brookes WK, et al. The quasi-static and blast loading response of lattice structures. International Journal of Impact Engineering, 2008, 35 (8): 795-810
[156]
195 Tilbrook MT, Radford DD, Deshpande VS, et al. Dynamic crushing of sandwich panels with prismatic lattice cores. International Journal of Solids and Structures, 2007, 44 (18-19): 6101-6123
[157]
196 McShane GJ, Radford DD, Deshpande VS, et al. The response of clamped sandwich plates with lattice cores subjected to shock loading. European Journal of Mechanics A/Solids, 2006, 25 (2): 215-229
[158]
197 Radford DD, McShane GJ, Deshpande VS, et al. The response of clamped sandwich plates with metallic foam cores to simulated blast loading. International Journal of Solids and Structures, 2006, 43 (7-8): 2243-2259
201 Alwar RS, Adimurthy NK. Non-linear dynamic response of sandwich panels under pulse and shock type excitations. Journal of Sound and Vibration, 1975, 39 (1): 43-54
[163]
202 Mei C, Wentz KR. Large-amplitude random response of angle-ply laminated composite plates. American Institute of Aeronautics and Astronautics Journal, 1982, 20 (10): 1450-1458
[164]
203 Reddy JN. Geometrically nonlinear transient analysis of laminated composite plates. American Institute of Aeronautics and Astronautics Journal, 1983, 21 (4): 621-629
[165]
204 Reddy JN. Dynamic (transient) analysis of layered anisotropic composite material plates. International Journal for Numerical Methods in Engineering, 1983, 19 (2): 237-255
[166]
205 Qiu X, Deshpande VS, Fleck NA. Dynamic response of a clamped circular sandwich plate subject to shock loading. Journal of Applied Mechanics, 2004, 71 (5): 637-645
[167]
206 Deshpande VS, Fleck NA. One-dimensional response of sandwich plates to underwater shock loading. Journal of the Mechanics and Physics of Solids, 2005, 53 (11): 2347-2383
[168]
207 Zhu F, Wang ZH, Lu GX. Analytical investigation and optimal design of sandwich panels subjected to shock loading. Materials and Design, 2009, 30 (1): 91-100
[169]
208 Zhu F, Wang ZH, Lu GX, et al. Some theoretical considerations on the dynamic response of sandwich structures under impulsive loading. International Journal of Impact Engineering, 2010, 37 (6): 625-637
[170]
209 Aktay L, Johnson AF, Holzapfel M. Prediction of impact damage on sandwich composite panels. Computational Materials Science, 2005, 32 (3-4): 252-260.
[171]
210 Main JA, Gazonas GA. Uniaxial crushing of sandwich plates under air blast: influence of mass distribution. International Journal of Solids and Structures, 2008, 45 (7-8): 2297-2321
[172]
211 Xue ZY, Hutchinson JW. Preliminary assessment of sandwich plates subject to blast loads. International Journal of Mechanical Sciences, 2003, 45 (4): 687-705
[173]
212 Andrews EW, Moussa NA. Failure mode maps for composite sandwich panels subjected to air blast loading. International Journal of Impact Engineering, 2009, 36 (3): 418-425
[174]
213 Cui XD, Zhao LM, Wang ZH, et al. A lattice deformation based model of metallic lattice sandwich plates subjected to impulsive loading. Int J Solids Struc, 2012, 49 (19-20): 2854-2862
215 Fatt HMS, Park KS. Perforation of honeycomb sandwich plates by projectiles. Composites: Part A, 2000, 31 (8): 889-899
[177]
216 Dean J, S-Fallah A, Brown PM, et al. Energy absorption during projectile perforation of lightweight sandwich panels with metallic fiber cores. Composite Structures, 2011, 93 (3): 1089-1095
[178]
217 Goldsmith W, Wang G-T, Li K, et al. Perforation of cellular sandwich plates. International Journal of Impact Engineering, 1997, 19 (5-6): 361-379
[179]
218 Hou WH, Zhu F, Lu GX, et al. Ballistic impact experiments of metallic sandwich panels with aluminum. International Journal of Impact Engineering, 2010, 37 (10): 1045-1055
[180]
219 Hanssen AG, Girardc Y, Olovsson L, et al. A numerical model for bird strike of aluminum foam-based sandwich panels. International Journal of Impact Engineering, 2006, 32 (7): 1127-1144
[181]
220 Buitrago BL, Santiuste C. Modeling of composite sandwich structures with honeycomb core subjected to high-velocity impact. Composite Structures, 2010, 92 (9): 2090-2096.
222 Hause T, Librescu L. Dynamic response of doubly-curved anisotropic sandwich panels impacted by blast loadings. International Journal of Solids and Structures, 2007, 44 (20): 6678-6700
[184]
223 Vonach WK, Rammerstorfer FG, Bathe KJ. Face layer wrinkling in sandwich shells of general configuration. Computational Fluid and Solid Mechanics, 2003, 1-2: 727-731
[185]
224 Hohe J, Librescu L. A nonlinear theory for doubly curved anisotropic sandwich shells with transversely compressible core. International Journal of Solids and Structures, 2003, 40 (5): 1059-1088
[186]
225 Li R, Kardomateas GA, Simitses GJ. Nonlinear response of a shallow sandwich shell with compressible core to blast loading. Journal of Applied Mechanics, 2008, 75 (6): 1-10
[187]
226 Hutchinson JW, He MY. Buckling of cylindrical sandwich shells with metal foam cores. International Journal of Solids and Structures, 2000, 37 (46-47): 6777-6794
[188]
227 Dawson MA, Gibson LJ. Optimization of cylindrical shells with compliant cores. International Journal of Solids and Structures, 2007, 44 (3-4): 1145-1160
[189]
228 Shen JH, Zhao LM, Wang ZH, et al. Experiments on curved sandwich panels under blast loading. International Journal of Impact Engineering, 2010, 37 (9): 960-970
[190]
229 Liu XR, Tian XG, Lu TJ, et al. Blast resistance of sandwich-walled hollow cylinders with graded metallic foam cores. Composite Structures, 2012, 94 (8): 2485-2493
[191]
230 Fatt MSH, Surabhi H. Blast resistance and energy absorption of foam-core cylindrical sandwich shells under external blast. Composite Structures, 2012, 94 (11): 3174-3185
[192]
231 Jing L, Xi CQ, Wang ZH, et al. Energy absorption and failure mechanism of metallic cylindrical sandwich shells under impact loading. Materials & Design, 2013, 52: 470-480
[193]
232 Jing L, Wang ZH, Zhao LM. Response of metallic cylindrical sandwich shells subjected to projectile impact——experimental investigations. Composite Structures, 2014, 107: 36-47
[194]
233 Jing L, Wang ZH, Zhao LM, et al. Blast resistance of clamped cylindrical sandwich shells with metallic foam cores. Key Engineering Materials, 2013, 535-536: 461-464.
[195]
234 Jing L, Wang ZH, Zhao LM. Dynamic response of cylindrical sandwich shells with metallic foam cores under blast loading——numerical simulations. Composite Structures, 2013, 99: 213-223
[196]
235 Jing L, Wang ZH, Shim VPW, et al. An experimental study of the dynamic response of cylindrical sandwich shells with metallic foam cores subjected to blast loading. International Journal of Impact Engineering, 2014, 71: 60-72
[197]
236 Jing L, Wang ZH, Zhao LM. An approximate theoretical analysis for clamped cylindrical sandwich shells with metallic foam cores subjected to impulsive loading. Composites Part B: Engineering, 2014, 60: 150-157
[198]
237 Jing L, Yang F, Wang ZH, et al. A numerical simulation of metallic cylindrical sandwich shells subjected to air blast loading. Latin American Journal of Solids and Structures, 2013, 10: 631-645
[199]
13 Olurin OB, Fleck NA, Ashby MF. Deformation and fracture of aluminum foams. Mater Sci Eng A, 2000, 291 (1-2): 136-146
[200]
14 Paul A, Ramamurty U. Strain rate sensitivity of a closedcell aluminum foam. Mater Sci Eng A, 2000, 281 (1-2): 1-7
[201]
15 Tan PJ, Harrigan JJ, Reid SR. Inertia effects in uniaxial dynamic compression of a closed cell aluminum alloy foam. Materials Science and Technology, 2002, 18 (5): 480-488
[202]
16 Kooistra GW, Deshpande VS, Wadley HNG. Compressive behavior of age hardenable tetrahedral lattice truss structures made from aluminium. Acta Mater, 2004, 52 (14): 4229-4237
[203]
17 Wadley HNG, Fleck NA, Evans AG. Fabrication and structural performance of periodic cellular metal sandwich structures. Compos Sci Technol, 2003, 63 (16): 2331-2343
[204]
18 Wadley H, Dharmasena K, Chen YC, et al. Compressive response of multilayered pyramidal lattices during under-water shock loading. International Journal of Impact Engineering, 2008, 35 (9): 1102-1114
20 Brittain ST, Sugimura Y, Schuelle OJA, et al. Fabrication and mechanical performance of a mesoscale space-filling truss system. Journal of Microelectromechanical Systems, 2001, 40(2): 157-169
26 Xue ZY, Hutchinson JW. A comparative study of impulseresistant metal sandwich plates. International Journal of Impact Engineering, 2004, 30 (10): 1283-1305
[213]
27 Hutchinson JW, Xue ZY. Metal sandwich plates optimized for pressure impulses. International Journal of Mechanical Sciences, 2005, 47 (4-5): 545-569
39 Warren WE, Kraynik AM. Linear elastic behavior of a lowdensity Kelvin foam with open cells. ASME Journal of Applied Mechanics, 1997, 64 (4): 787-794
[226]
40 Papka SD, Kyriakides S. In-plane crushing of a polycarbonate honeycomb. International Journal of Solids Structure, 1998, 35 (3-4): 239-267
[227]
80 Mukai T, kanahashi H, Miyoshi T, et al. Experimental study of energy absorption in a close-celled aluminum foam under dynamic loading. Scripta Materialia, 1999, 40 (8): 921-927
[228]
81 Zhao H, Elnasri I, Abdennadher S. An experimental study on the behavior under impact loading of metallic cellular materials. International Journal of Mechanical Sciences. 2005, 47 (4-5): 757-774
[229]
82 Hall IW, Guden M, Yu CJ. Crushing of aluminum closed cell foams: density and strain rate effects. Scripta Materialia, 2000, 43 (6): 515-521.
[230]
83 Ruan D, Lu G, Wang B, et al. In-plane dynamic crushing of honeycombs——a finite element study. International Journal of Impact Engineering, 2003, 28 (2): 161-182
86 Calladine CR, English RW. Strain and inertia effects in the collapse of two types of energy-absorbing structure. Int J Mech Sci, 1984, 26 (11-12): 689-701
[234]
87 Lehmhus D, Banhart J. Properties of heat-treated aluminum foams. Materials Science and Engineering: A, 2003, 349 (1-2): 98-110
[235]
126 Tae SL, Chang SL, Dai GL. Failure modes of foam core sandwich beams under static and impact loads. Journal of Composite Materials, 2004, 38 (18): 1639-1662
[236]
127 Yu JL, Wang EH, Li JR, et al. Static and low-velocity behavior of sandwich beams with closed-cell aluminum-foam core in three-point bending. International Journal of Impact Engineering, 2008, 35 (8): 885-894
[237]
128 Yu JL, Wang X, Wei ZG, et al. Deformation and failure mechanism of dynamically loaded sandwich beams with aluminum-foam core. International Journal of Impact Engineering, 2003, 28 (3): 331-347