A six degrees of freedom femtosecond laser system for fabrication of small-scale mechanical property specimens

We present the details of a novel ultra-short pulsed laser machining workstation that has been employed for high-throughput laser machining of small-scale mechanical property specimens. This system employs a six degrees of freedom hexapod positioning stage capable of macroscopic movements at high positional accuracy. We developed a methodology that uses quantitative image analysis to measure key parameters required to minimize the hexapod positioning and rotational error. Application of this system to laser machining of small-scale 316L stainless steel tensile specimens and ultra-high molecular weight polyethylene compressive specimens using eucentric tilt and rotation about the specimen axis will be shown, where serial laser milling at a specimen tilt angle of 10° was used to effectively eliminate any taper in the sample cross section that is typically found in laser machining.

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Publication Details

Journal
Review of Scientific Instruments
Published
2024-09-01
DOI
https://doi.org/10.1063/5.0218245
Citations
1
Primary Topic
Laser Material Processing Techniques
Type
article
Field-Weighted Citation Impact
0.37

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article

A six degrees of freedom femtosecond laser system for fabrication of small-scale mechanical property specimens

Ryan Price, Thomas Canfield, Brian E. Schuster, Stephani Nevarez et al.
1 citations
Review of Scientific Instruments
Laser Material Processing Techniques
0.37
article

A six degrees of freedom femtosecond laser system for fabrication of small-scale mechanical property specimens

Ryan Price, Thomas Canfield, Brian E. Schuster, Stephani Nevarez, José Miguel González, Zachary Wayne Barker, David K. Santacruz, Jorge L. Acosta-Cordero
article en
1 citations

Abstract

We present the details of a novel ultra-short pulsed laser machining workstation that has been employed for high-throughput laser machining of small-scale mechanical property specimens. This system employs a six degrees of freedom hexapod positioning stage capable of macroscopic movements at high positional accuracy. We developed a methodology that uses quantitative image analysis to measure key parameters required to minimize the hexapod positioning and rotational error. Application of this system to laser machining of small-scale 316L stainless steel tensile specimens and ultra-high molecular weight polyethylene compressive specimens using eucentric tilt and rotation about the specimen axis will be shown, where serial laser milling at a specimen tilt angle of 10° was used to effectively eliminate any taper in the sample cross section that is typically found in laser machining.

Review of Scientific InstrumentsVol. 95(9)
The University of Texas at El Paso (US), Kansas City National Security Campus, Honeywell (United States) (US)
Honeywell Federal Manufacturing and Technologies, Sandia National Laboratories
Peace, Justice and strong institutions
Openalex Percentile: Top 44%
Laser Material Processing Techniques
0.37
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