Presentation + Paper
17 February 2017 Direct laser interference patterning of transparent and colored polymer substrates: ablation, swelling, and the development of a simulation model
Author Affiliations +
Abstract
It is well known that micro and sub-micrometer periodical structures play a significant role on the properties of a surface. Ranging from friction reduction to the bacterial adhesion control, the modification of the material surface is the key for improving the performance of a device or even creating a completely new function. Among different laser processing techniques, Direct Laser Interference Patterning (DLIP) relies on the local surface modification process induced when two or more beams interfere and produce periodic surface structures. Although the produced features have controllable pitch and geometry, identical experimental conditions applied to different polymers can result on totally different topologies. In this frame, observations from pigmented and transparent polycarbonate treated with ultraviolet (263 nm) and infrared (1053 nm) laser radiation permitted to identify different phenomena related with the optical and chemical properties of the polymers. As a result from the experimental data analysis, a set of material-dependent constants can be obtained and both profile and surface simulations can be retrieved, reproducing the material surface topography after the surface patterning process.
Conference Presentation
© (2017) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
Sabri Alamri and Andrés F. Lasagni "Direct laser interference patterning of transparent and colored polymer substrates: ablation, swelling, and the development of a simulation model", Proc. SPIE 10092, Laser-based Micro- and Nanoprocessing XI, 1009219 (17 February 2017); https://doi.org/10.1117/12.2251740
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CITATIONS
Cited by 2 scholarly publications.
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KEYWORDS
Polymers

Laser ablation

Optical lithography

Infrared lasers

Laser processing

Ultraviolet radiation

Optical simulations

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