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ADDITIVE MANUFACTURING
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Lei Zhang et al.
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Summary: Computational analysis and mechanical testing have shown that the skeletal system of deep-sea hexactinellid sponges has achieved near-optimal resistance to buckling through evolution. The diagonal reinforcement strategy of the sponge achieves the highest buckling resistance for a given amount of material, and the sponge-inspired lattice geometry approaches the optimum material distribution for the design space considered. Lessons learned from studying sponge skeletal systems can be applied to geometrically optimize square lattice structures to avoid global structural buckling and improve material use in modern infrastructural applications.
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Tiantian Li et al.
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INTERNATIONAL JOURNAL OF SOLIDS AND STRUCTURES
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