Impact of unit cell size on the compressive behavior of L-PBF fabricated maraging steel gyroid lattices

This study investigates the compressive performance of maraging steel gyroid lattice structures fabricated via Laser Powder Bed Fusion ( L -PBF). Gyroid lattices with varying unit cell sizes were designed and additively manufactured under ideal process parameters. Quasi-static compression tests revealed a significant influence of unit cell size on the structural response, with smaller cell sizes exhibiting higher strength and energy absorption due to improved load distribution efficiency. The lattice with a unit cell size of 5 mm demonstrated the highest quasi-elastic Gradient of 2.3 GPa and a compressive strength of 83 MPa at a relative density of 0.25. Scanning Electron Microscopic analysis revealed that the lattice with a larger unit cell size exhibited minor strut fractures, which resulted in lower energy absorption. These findings provide valuable insights for optimizing lattice geometries in load-bearing structures, energy absorbers, and lightweight lattice cores for aerospace applications using additive manufacturing.

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Publication Details

Journal
Next Materials
Published
2026-02-25
DOI
https://doi.org/10.1016/j.nxmate.2026.101793
Primary Topic
Calcium Carbonate Crystallization and Inhibition
Type
article
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article

Impact of unit cell size on the compressive behavior of L-PBF fabricated maraging steel gyroid lattices

Jagadeesh Baskaran, Tomaž Pavlič, Thirumalai Kumaran S., Anish Nair
Next Materials
Calcium Carbonate Crystallization and Inhibition
article

Impact of unit cell size on the compressive behavior of L-PBF fabricated maraging steel gyroid lattices

Jagadeesh Baskaran, Tomaž Pavlič, Thirumalai Kumaran S., Anish Nair
article en

Abstract

This study investigates the compressive performance of maraging steel gyroid lattice structures fabricated via Laser Powder Bed Fusion ( L -PBF). Gyroid lattices with varying unit cell sizes were designed and additively manufactured under ideal process parameters. Quasi-static compression tests revealed a significant influence of unit cell size on the structural response, with smaller cell sizes exhibiting higher strength and energy absorption due to improved load distribution efficiency. The lattice with a unit cell size of 5 mm demonstrated the highest quasi-elastic Gradient of 2.3 GPa and a compressive strength of 83 MPa at a relative density of 0.25. Scanning Electron Microscopic analysis revealed that the lattice with a larger unit cell size exhibited minor strut fractures, which resulted in lower energy absorption. These findings provide valuable insights for optimizing lattice geometries in load-bearing structures, energy absorbers, and lightweight lattice cores for aerospace applications using additive manufacturing.

Next MaterialsVol. 11
University of Ljubljana (SI), Slovenian Institute of Quality and Metrology (SI), PSG INSTITUTE OF TECHNOLOGY AND APPLIED RESEARCH (IN)
Sustainable cities and communities
Openalex Percentile: Top 44%
Calcium Carbonate Crystallization and Inhibition
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