Numerical Analysis of Compression Strength of Networks Structures based on Trusses, and Periodic Surfaces aimed for Additive Manufacturing Components

Jansson, Anton; Ekengren, Jens; Pejryd, Lars

doi:10.25341/d45p4r

2018

DOI: 10.25341/d45p4r

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Numerical Analysis of Compression Strength of Networks Structures based on Trusses, and Periodic Surfaces aimed for Additive Manufacturing Components

Anton Jansson¹,

Jens Ekengren²,

Lars Pejryd³

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2021

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“…The study performed by Jansson et al compares network structures based on truss-lattices and periodic surfaces. The structures were designed and analyzed by Finite element software Abaqus, and the findings show the periodic surface networks are much stiffer than truss lattice structures [32]. Several lattice structures are generated through periodic octet cell, including Octet, Cross, FrameCross, InsideCross, and OctetFramed to measure their performance in compression [21].…”

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Systematic Experimental Evaluation of Function Based Cellular Lattice Structure Manufactured by 3D Printing

2021

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Additive manufacturing (AM) has a greater potential to construct lighter parts, having complex geometries with no additional cost, by embedding cellular lattice structures within an object. The geometry of lattice structure can be engineered to achieve improved strength and extra level of performance with the advantage of consuming less material and energy. This paper provides a systematic experimental evaluation of a series of cellular lattice structures, embedded within a cylindrical specimen and constructed according to terms and requirements of ASTMD1621-16, which is standard for the compressive properties of rigid cellular plastics. The modeling of test specimens is based on function representation (FRep) and constructed by fused deposition modeling (FDM) technology. Two different test series, each having eleven test specimens of different parameters, are printed along with their replicates of 70% and 100% infill density. Test specimens are subjected to uniaxial compressive load to produce 13% deformation to the height of the specimen. Comparison of results reveals that specimens, having cellular lattice structure and printed with 70% infill density, exhibit greater strength and improvement in strength to mass ratio, as compared to the solid printed specimen without structure.

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Systematic Experimental Evaluation of Function Based Cellular Lattice Structure Manufactured by 3D Printing

2021

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Numerical Analysis of Compression Strength of Networks Structures based on Trusses, and Periodic Surfaces aimed for Additive Manufacturing Components

Cited by 1 publication

References 0 publications

Systematic Experimental Evaluation of Function Based Cellular Lattice Structure Manufactured by 3D Printing

Systematic Experimental Evaluation of Function Based Cellular Lattice Structure Manufactured by 3D Printing

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