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January 17, 2026Lubricants0 citationsOpen Access

Laser Surface Texturing of AA1050 Aluminum to Enhance the Tribological Properties of PTFE Coatings with a Taguchi-Based Analysis

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TCTimur CanelSFSinan FidanMBMustafa Özgür Bora

Key Points

  • The aim is to improve the friction and wear performance of PTFE coatings on AA1050 aluminum through laser surface texturing.
  • Applied fiber laser surface texturing with varying geometries and parameters
  • Utilized a Taguchi L16 design to optimize texture geometry and laser settings
  • Conducted dry sliding tests with specific load and speed against a steel ball
  • Measured wear track geometry using non-contact profilometry
  • Achieved a minimum coefficient of friction (COF) of 0.095 with diamond texture at 40 W
  • Hexagon texture showed the highest COF of 0.156
  • Scanned area ratio was identified as the main factor affecting COF, followed by geometry and power
  • Optimized textures led to significantly reduced coating penetration compared to the non-textured reference

Abstract

Fiber laser surface texturing was applied to AA1050 aluminum to improve friction and wear performance of PTFE coatings. A Taguchi L16 design varied texture geometry (square, diamond, hexagon, circle), scanned area ratio (20% to 80%), and laser power (40 to 100 W) prior to primer plus PTFE topcoat deposition (25 to 35 µm). Dry reciprocating sliding against a 6 mm 100Cr6 ball was conducted at 20 N, 1 Hz, and 50 m, and wear track geometry was measured by non-contact profilometry. The non-textured reference exhibited an average COF of 0.143, whereas the lowest mean COF was achieved with diamond 60% and 40 W (0.095) and the highest with hexagon 60% and 100 W (0.156); hexagon 20% and 60 W matched the reference. ANOVA indicated scanned area ratio as the dominant contributor to COF (39.72%), followed by geometry (35.07%) and power (25.21%). Profilometry confirmed reduced coating penetration for optimized textures: the reference wear track was approximately 1240 µm wide and 82 µm deep, compared with 930 µm and 34 µm for square 80% and 40 W, 997 µm and 39 µm for diamond 60% and 40 W, and 965 µm and 36 µm for hexagon 40% and 40 W.

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Cite This Study

Canel et al. (2026) studied this question.

synapsesocial.com/papers/696b2696d2a12237a9349d3ehttps://doi.org/10.3390/lubricants14010039
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Friction Properties and Surface Failure Mechanisms of Micro-Textured 7075 Aluminum Alloy Processed by Nanosecond Laser2026
  2. 2Primer Adhesion on Laser-Textured AA2024-T3: Effects of Texture Geometry via Reciprocating Sliding Tests2026
  3. 3An investigation on tribological behavior under dry and lubricated conditions of open-air and underwater laser textured Al-Mg alloy2026
  4. 4Optimization of Laser-Induced Composite Micro-Textures on PEEK/CF Composites and Their Wetting–Friction Behaviors2025
  5. 5Synergistic Effects of Surface Texture and Cryogenic Treatment on the Tribological Performance of Aluminum Alloy Surfaces2024