Abstract
This chapter summarizes the current status of composites reinforced with advanced grid structures. We introduce classification of the mesh structure, its characteristics, structural design and process, molding and performance analysis, and applications for mesh structural composites (or lattice structural composites or grid structural composites). First, we provide a summary of the international status and development of mesh structure composite materials, and then the critical technology involved in mesh structural composites, its processing, testing, and so on are discussed in detail. Principles of structure design and the advantages and disadvantages of various molding process for mesh structural composites are also presented. Information on the structure molding, performance evaluation, and testing methods is also given in detail. Finally, the potential application of diverse mesh structure composites in both aerospace and civil fields is analyzed in association with the main applications of mesh structures.
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References
Vasiliev VV, Barynin VA, Razin AF (2012) Anisogrid composite lattice structures–development and aerospace applications. Compos Struct 94(3):1117–1127
Vasiliev V, Barynin V, Rasin A (2001) Anisogrid lattice structures–survey of development and application. Compos Struct 54(2–3):361–370
Huybrechts SM, Hahn SE, Meink TE (1999) Grid stiffened structures: a survey of fabrication, analysis and design methods [paper no. 357]. In: 12th International conference on composite materials (ICCM/12), Paris
Huybrechts S, Tsai SW (1996) Analysis and behavior of grid structures. Compos Sci Technol 56:1001–1015
Morozov E, Lopatin A, Nesterov V (2011) Finite-element modelling and buckling analysis of anisogrid composite lattice cylindrical shells. Compos Struct 93(2):308–323
Buragohaim M, Velmurugan R (2011) Study of filament wound grid-stiffened composite cylindrical structures. Compos Struct 93:1011–1038
Huybrechts SM, Meink TE, Wegner PM, Ganley JM (2002) Manufacturing theory for advanced grid stiffened structures. Compos Part A Appl S 33:155–161
Rieber G, Jiang J, Deter C, Chen N, Mitschang P (2013) Influence of textile parameters on the in-plane permeability. Compos Part A Appl S 52:89–98
Fan H, Fang D, Jin F (2008) Mechanical properties of lattice grid composites. Acta Mech Sinica 24(4):409–418
Velmurugan R, Buragohain M (2007) Buckling analysis of grid-stiffened composite cylindrical shell. J Aerosp Sci Technol 59(4):282
Paschero M, Hyer MW (2009) Axial buckling of an orthotropic circular cylinder: application to orthogrid concept. Int J Solid Struct 46(10):2151–2171
Zhang Y, Xue Z, Chen L, Fang D (2009) Deformation and failure mechanisms of lattice cylindrical shells under axial loading. Int J Mech Sci 51(3):213–221
Zhang Z, Chen H, Ye L (2008) Progressive failure analysis for advanced grid stiffened composite plates/shells. Compos Struct 86(1):45–54
Zhang Z, Chen H, Ye L (2011) A stiffened plate element model for advanced grid stiffened composite plates/shells. J Compos Mater 45(2):187–202
Vasiliev V, Barynin V, Rasin A, Petrokovskii S, Khalimanovich V (2009) Anisogrid composite lattice structures–development and space applications. Compos Nanostruct 3:38–50
Vasiliev VV, Razin AF (2006) Anisogrid composite lattice structures for spacecraft and aircraft applications. Compos Struct 76(1–2):182–189. doi:10.1016/j.compstruct.2006.06.025
Tsai SHSW (1996) Analysis and behavior of grid structures. J Compos Sci Technol 56:1001–1015
Huang L, Sheikh AH, Ng C-T, Griffith MC (2015) An efficient finite element model for buckling analysis of grid stiffened laminated composite plates. Compos Struct 122:41–50
Wang D, Abdalla MM (2015) Global and local buckling analysis of grid-stiffened composite panels. Compos Struct 119:767–776
Huybrechts S, Meink TE (2000) Advanced grid stiffened structures for the next generation of launch vehicles. Compos Struct 40(2):28–32
D’Amico B, Kermani A, Zhang H, Shepherd P, Williams CJK (2015) Optimization of cross-section of actively bent grid shells with strength and geometric compatibility constraints. Comput Struct 154:163–176
Zheng Q, Ju S, Jiang D (2014) Anisotropic mechanical properties of diamond lattice composites structures. Compos Struct 109:23–30
Jones RT, Hague D (1972) Application of multivariable search techniques to structural design optimization, vol 2038. National Aeronautics and Space Administration, Washington, DC
Gürdal Z, Gendron G (1993) Optimal design of geodesically stiffened composite cylindrical shells. Compos Eng 3(12):1131–1147
Chen B, Liu G, Kang J, Li Y (2008) Design optimization of stiffened storage tank for spacecraft. Struct Multidiscip Opt 36(1):83–92
Simitses G (1993) Optimization of stiffened cylindrical shells subjected to destabilizing loads. Prog Astronaut Aeronaut 150:663–663
Reddy AD, Valisetty R, Rehfield LW (1985) Continuous filament wound composite concepts for aircraft fuselage structures. J Aircraft 22(3):249–255
Nagendra S, Haftka RT, Gurdal Z (1993) Design of a blade stiffened composite panel by a genetic algorithm. In: Proceedings of the 34th AIAA/ASME/ASCE/AHS/ASC structures, structural dynamics and materials conference, La Jolla, 19–22 Apr 1993. AIAA, Reston, pp 2418–2436
Jaunky N, Knight NF, Ambur DR (1998) Optimal design of general stiffened composite circular cylinders for global buckling with strength constraints. Compos Struct 41(3):243–252
Ambur DR, Jaunky N (2001) Optimal design of grid-stiffened panels and shells with variable curvature. Compos Struct 52(2):173–180
Crossley WA, Laananen DH (1996) Genetic algorithm-based optimal design of stiffened composite panels for energy absorption. In: Proceeding of the American Helicopter Society 52nd annual forum, Washington, DC, 4–6 June 1995. American Helicopter Society, Fairfax
Sadeghifar M, Bagheri M, Jafari A (2010) Multiobjective optimization of orthogonally stiffened cylindrical shells for minimum weight and maximum axial buckling load. Thin Wall Struct 48(12):979–988
Bagheri M, Jafari A, Sadeghifar M (2011) A genetic algorithm optimization of ring-stiffened cylindrical shells for axial and radial buckling loads. Arch Appl Mech 81(11):1639–1649
Rikards R, Abramovich H, Auzins J, Korjakins A, Ozolinsh O, Kalnins K, Green T (2004) Surrogate models for optimum design of stiffened composite shells. Compos Struct 63(2):243–251
Li S, Xu Y, Zhang J (2006) Neural network response surface optimization design for composite stiffened structures. Chin J Mech Eng 42(11):115–119
Zhang Z, Yao W, Liu K (2008) Configuration optimization method for metallic stiffened panel structure based on updated Kriging model. J Nanjing Univ Aeronaut Astronaut 40(4):497–500
Lanzi L, Giavotto V (2006) Post-buckling optimization of composite stiffened panels: computations and experiments. Compos Struct 73(2):208–220
Ambur DR, Rehfield LW (1993) Effect of stiffness characteristics on the response of composite grid-stiffened structures. J Aircraft 30(4):541–546
Ray C, Satsangi S (1996) Finite element analysis of laminated hat-stiffened plates. J Reinf Plast Compos 15(12):1174–1193
Chen Y, Gibson RF (2003) Analytical and experimental studies of composite isogrid structures with integral passive damping. Mech Adv Mater Struc 10(2):127–143
Wodesenbet E, Kidane S, Pang SS (2003) Optimization for buckling loads of grid stiffened composite panels. Compos Struct 60(2):159–169
Chen H-J, Tsai SW (1996) Analysis and optimum design of composite grid structures. J Compos Mater 30(4):503–534
Dokainish M, Subbaraj K (1989) A survey of direct time-integration methods in computational structural dynamics-I. Explicit methods. Comput Struct 32(6):1371–1386
Kim TD (1999) Fabrication and testing of composite isogrid stiffened cylinder. Compos Struct 45(1):1–6
Kim TD (2000) Fabrication and testing of thin composite isogrid stiffened panel. Compos Struct 49(1):21–25
Fan HL, Fang DN (2008) Anisotropic mechanical properties of lattice grid composites. J Compos Mater 42(23):2445–2460
Shi S, Sun Z, Ren M, Chen H, Hu X (2013) Buckling resistance of grid-stiffened carbon-fiber thin-shell structures. Compos Part B Eng 45(1):888–896
He J, Ren M, Sun S, Huang Q, Sun X (2011) Failure prediction on advanced grid stiffened composite cylinder under axial compression. Compos Struct 93(7):1939–1946
Fan HL, Yang W, Chao ZM (2007) Microwave absorbing composite lattice grids. Compos Sci Technol 67(15–16):3472–3479
Fan H, Yang L, Sun F, Fang D (2013) Compression and bending performances of carbon fiber reinforced lattice-core sandwich composites. Compos Part A Appl Sci Manuf 52:118–125. doi:10.1016/j.compositesa.2013.04.013
Fan HL, Meng FH, Yang W (2007) Sandwich panels with Kagome lattice cores reinforced by carbon fibers. Compos Struct 81(4):533–539
Liu X, Jiang J, Chen N, Feng X (2009) Effect of manufacturing parameters on the tensile properties and yarn damage of glass fiber warp-knitted net preforms. J Ind Text 38(1):233–249
Morozov EV, Lopatin AV (2011) Design and analysis of the composite lattice frame of a spacecraft solar array. Compos Struct 93(7):1640–1648
Buragohain M, Velmurugan R (2011) Study of filament wound grid-stiffened composite cylindrical structures. Compos Struct 93(2):1031–1038
Kere P, Lento J (2005) Design optimization of laminated composite structures using distributed grid resources. Compos Struct 71(3–4):435–438
Bunakov V (1999) Design of axially compressed composite cylindrical shells with lattice stiffeners. In: Optimal design. Technomic Publishing, Lancaster, pp 207–246
Mindlin RD (1951) Influence of rotatory inertia and shear on flexural motions of isotropic elastic plates. J Appl Mech 18(1):31–38
Ochoa OO, Reddy JN (1992) Finite element analysis of composite laminates. In: Solid mechanics and its applications, vol 7. Springer, Netherlands, pp 37–109
Fan H, Jin F, Fang D (2009) Characterization of edge effects of composite lattice structures. Compos Sci Technol 69(11–12):1896–1903
Kidane S, Li G, Helms J, Pang S-S, Woldesenbet E (2003) Buckling load analysis of grid stiffened composite cylinders. Compos Part B Eng 34(1):1–9
Meink TE (1998) Composite grid vs. composite sandwich: a comparison based on payload shroud requirements. In: Aerospace conference, 1998 IEEE. IEEE, New York, pp 215–220
Wegner PM, Ganley JM, Huynrechts S, Meink TE (2000) Advanced grid stiffened composite payload shroud for the OSP launch vehicle. In: Aerospace conference proceedings, 2000. IEEE, New York, pp 359–365
Vavilov VP, Budadin ON, Kulkov AA (2015) Infrared thermographic evaluation of large composite grid parts subjected to axial loading. Polymer Testing 41:55–62
Wegner PM, Ganley JM, Huynrechts SM, Meink TE (2000) Advanced grid stiffened composite payload shroud for the OSP launch vehicle. In: Aerospace conference proceedings, 2000, vol 354. IEEE, New York, pp 359–365
Vasiliev V, Razin A (2006) Anisogrid composite lattice structures for spacecraft and aircraft applications. Compos Struct 76(1):182–189
Zheng J, Zhao L, Fan H (2012) Energy absorption mechanisms of hierarchical woven lattice composites. Compos Part B Eng 43(3):1516–1522
Han D, Tsai SW (2003) Interlocked composite grids design and manufacturing[J]. J Compos Mater 37(4):287–316
Acknowledgments
The authors gratefully acknowledge the support of the National Natural Science Foundation of China (NSFC 11472077), Shanghai Natural Science Foundation of Shanghai Municipal Science and Technology Commission (13ZR1400500), and Fundamental Research Funds for the Central Universities (2232015D3-0).
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Jiang, J., Chen, N., Geng, Y., Shao, H., Lin, F. (2017). Advanced Grid Structure-Reinforced Composites. In: Yang, Y., Yu, J., Xu, H., Sun, B. (eds) Porous lightweight composites reinforced with fibrous structures. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-662-53804-3_6
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DOI: https://doi.org/10.1007/978-3-662-53804-3_6
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