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Effect of plasma treatment on accelerated PLA degradation

Poly(lactic acid) (PLA) has been found to be important in various applications, such as in the medical, pharmaceutical, and packaging industries. However, the long-term associated degradation process of PLA is a limiting factor for some applications. Therefore, in this research, the influence of cor...

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Published in:Express polymer letters 2021-08, Vol.15 (8), p.725-743
Main Authors: Antunes, A., Luyt, A. S., Kasak, P., Aljarod, O., Hassan, M. K., Popelka, A.
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container_issue 8
container_start_page 725
container_title Express polymer letters
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creator Antunes, A.
Luyt, A. S.
Kasak, P.
Aljarod, O.
Hassan, M. K.
Popelka, A.
description Poly(lactic acid) (PLA) has been found to be important in various applications, such as in the medical, pharmaceutical, and packaging industries. However, the long-term associated degradation process of PLA is a limiting factor for some applications. Therefore, in this research, the influence of corona and radio-frequency (RF) surface plasma treatment on the degradation of PLA in accelerated weathering tests was studied. The accelerated weathering test was applied using standard UV irradiation for up to 2000 h. The morphological/topographical, chemical, crystallization, mechanical, and thermal changes were analyzed after 500, 1000, and 2000 h of accelerated weathering time. The introduction of the polar functional groups caused by plasma treatment on the PLA surface improved its wettability, and therefore, hydrolytic degradation was promoted over the accelerated weathering time. It was revealed that the plasma treatment enhanced the hydrolytic and UV degradation of the PLA, as was confirmed by investigation of the physical, chemical, mechanical, and thermal properties. Moreover, the RF plasma was more pronounced than the corona plasma in the degradation of the PLA. Such an approach represents a pathway to promote and tailor PLA degradation.
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subjects accelerated degradation
Accelerated tests
Aluminum
Biocompatibility
Biodegradable materials
biodegradable polymers
Biodegradation
Biopolymers
Contact angle
Crystallization
Degradation
Functional groups
Humidity
Investigations
Mechanical properties
Microorganisms
Plasma etching
plasma treatment
Polylactic acid
Polymers
Radio frequency
Thermodynamic properties
Ultraviolet radiation
Weathering
Wettability
title Effect of plasma treatment on accelerated PLA degradation
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