Load displacement curves of additive-manufactured stainless steel 316L specimens under different triaxialities

Description

This dataset has the load-displacement data for all the fracture specimens presented in the journal article "Dey, S., Rajan, S., & Kiran, R. (2026). Developing a fracture locus for predicting ductile fracture in stainless steel 316L additively manufactured using laser powder bed fusion. Additive Manufacturing Letters, 100383." The specimens were fabricated using the laser powder bed fusion process with a laser power of 320 W, a scanning speed of 700 mm/s, a laser spot diameter of 0.2 mm, a hatch spacing of 0.12 mm, and a layer thickness of 0.05 mm. Two specimen geometries were additively manufactured: plate-shaped specimens with overall dimensions of 150 mm × 40 mm × 4 mm, and cylindrical specimens with a height of 50 mm and a gage section diameter of 5 mm. All specimens were printed directly to their final geometry, with no post-build machining performed. The geometries of all specimens were provided in the dataset. Following fabrication, all specimens were heated at a rate of 500 °C/hour to a peak temperature of 1150 °C and held at that temperature under a peak pressure of 1050 bar for 3 hours in an argon atmosphere. The specimens were then cooled inside the furnace at a cooling rate of 600 °C/hour. Mechanical testing was performed at room temperature under displacement control using a constant crosshead rate of 0.1 mm/min, ensuring quasi-static loading conditions. The gage lengths for the cylindrical and plate-shaped specimens were 14 mm and 70 mm, respectively. The research presented in this study was supported by the National Science Foundation under CAREER Award #2329562. Any opinions, findings, conclusions, or recommendations expressed in this article are those of the author(s) and do not necessarily reflect the views of the National Science Foundation.

Steps to reproduce

Follow the Metal Additive manufacturing process parameters and hot isostatic pressing procedures reported in "Dey, S., Rajan, S., & Kiran, R. (2026). Developing a fracture locus for predicting ductile fracture in stainless steel 316L additively manufactured using laser powder bed fusion. Additive Manufacturing Letters, 100383." to replicate the data.

Institutions

• Arizona State University

  Arizona, Tempe

Categories

Funders

• U.S. National Science Foundation

  Government of the United States of America

  Alexandria

  Grant ID: 2329562

Licence