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Usage Polymeric Surfaces for Microbiological Applications through Laser Surface Adjustment
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Journal of Lasers, Optics & Photonics

ISSN: 2469-410X

Open Access

Commentary - (2021) Volume 8, Issue 7

Usage Polymeric Surfaces for Microbiological Applications through Laser Surface Adjustment

Razak Pathan*
*Correspondence: Dr. Razak Pathan, Young Researchers and Elite Club, North Tehran Branch, Islamic Azad University, Tehran, Iran, Email:
Young Researchers and Elite Club, North Tehran Branch, Islamic Azad University, Tehran, Iran

Received: 13-Aug-2021 Published: 03-Sep-2021
Citation: Pathan, Razak. "Usage Polymeric Surfaces for Microbiological Applications through Laser Surface Adjustment." J Laser Opt Photonics 8(2021) : 136.
Copyright: © 2021 Pathan R. This is an open-access article distributed under the terms of the creative commons attribution license which permits unrestricted use, distribution and reproduction in any medium, provided the original author and source are credited.

About the Study

Laser-prompted surface designing

It is by and large acknowledged that the more hydrophobic a surface is, the more quickly a biofilm will join. In any case, proof proposes that hydrophobicity is a significant factor during introductory connection however perhaps not really during development organizes as biofilms have been seen to constantly develop, notwithstanding the decrease in surface hydrophobicity. Thusly surfaces should be adjusted for the anticipation of bacterial connection at the absolute starting point. Albeit this work was completed on a metallic surface, the innovation gives knowledge into the usage of such laser surface alteration of polymeric biomaterial for the counteraction of bacterial pollution.

Laser removal preparing makes it conceivable to deliver sidelong designs coming to down to the Nano scale range. The most widely recognized strategies utilized for the laser surface designing of polymers use lasers that work in the UV range as UV removal. Monetarily accessible lasers which work inside the UV range incorporate excimer, femtosecond and picosecond lasers. The collaboration of exceptionally short (picosecond and sub picosecond) laser beats with optically straightforward polymers is a subject turning out to be progressively significant as they give an adaptable alternative to Nano patterning a wide scope of optically straightforward polymer materials which can't be sufficiently treated with nanosecond laser heartbeats.

Femtosecond nano patterning

Femtosecond lasers enjoy a few unmistakable benefits for material Nano processing, including high goals down to 25 nm and noncontact association, and can be applied to any substrate. High-exactness material preparing with femtosecond laser heartbeats has been shown which permitted the manufacture of muddled two-and threedimensional nanostructures with a construction size on the request Femtosecond lasers enjoy a few unmistakable benefits for material Nano processing, including high goals down to 25 nm and noncontact association, and can be applied to any substrate. High-exactness material preparing with femtosecond laser heartbeats has been shown which permitted the manufacture of muddled two-and threedimensional nanostructures with a construction size on the request

Various manufacture procedures have been created trying to make a super hydrophobic surface, including e-pillar lithography, layout lithography, delicate lithography and copy shaping; in any case, these surfaces have all been found to need steadiness against glue and slim powers. Laser surface change is a method which defeats these constraints while as yet having the option to surface example at a nanometer scale. One examination assessed bacterial maintenance on super hydrophobic titanium surfaces which had been created by femtosecond laser removal. The nanostructured titanium substrates were created by laser removal in fluid and the Nano pillar structures were displayed to forestall the connection of the clinic significant organic entity S. aureus.

As far as polymeric materials, it has as of late been shown that femtosecond two-proton polymerization can create structures with sub micrometer goal for applications in photonics. The cycle works by firmly centering the laser shaft into a volume of a fluid tar that is straightforward in the infrared district; femtosecond laser heartbeats would then be able to start two-photon polymerization and produce structures with a goal better than 200 nm. As of now, to the creator's information, this work has not been assessed for its utilization on biomaterials yet presents an exceptionally appealing method for material preparing which could be executed in the improvement of antimicrobial polymeric surfaces.

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Citations: 279

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