Plastic pollution and degradation pathways: A review on the treatment technologies

In recent years, the production of plastic has been estimated to reach 300 million tonnes, and nearly the same amount has been dumped into the waters. This waste material causes long-term damage to the ecosystem, economic sectors, and aquatic environments. Fragmentation of plastics to microplastics...

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Published in:HELIYON
Main Authors: Zaini, Nurfadhilah; Kasmuri, Norhafezah; Mojiri, Amin; Kindaichi, Tomonori; Nayono, Satoto Endar
Format: Review
Language:English
Published: CELL PRESS 2024
Subjects:
Online Access:https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001226049400001
author Zaini
Nurfadhilah; Kasmuri
Norhafezah; Mojiri
Amin; Kindaichi
Tomonori; Nayono
Satoto Endar
spellingShingle Zaini
Nurfadhilah; Kasmuri
Norhafezah; Mojiri
Amin; Kindaichi
Tomonori; Nayono
Satoto Endar
Plastic pollution and degradation pathways: A review on the treatment technologies
Science & Technology - Other Topics
author_facet Zaini
Nurfadhilah; Kasmuri
Norhafezah; Mojiri
Amin; Kindaichi
Tomonori; Nayono
Satoto Endar
author_sort Zaini
spelling Zaini, Nurfadhilah; Kasmuri, Norhafezah; Mojiri, Amin; Kindaichi, Tomonori; Nayono, Satoto Endar
Plastic pollution and degradation pathways: A review on the treatment technologies
HELIYON
English
Review
In recent years, the production of plastic has been estimated to reach 300 million tonnes, and nearly the same amount has been dumped into the waters. This waste material causes long-term damage to the ecosystem, economic sectors, and aquatic environments. Fragmentation of plastics to microplastics has been detected in the world's oceans, which causes a serious global impact. It is found that most of this debris ends up in water environments. Hence, this research aims to review the microbial degradation of microplastic, especially in water bodies and coastal areas. Aerobic bacteria will oxidize and decompose the microplastic from this environment to produce nutrients. Furthermore, plants such as microalgae can employ this nutrient as an energy source, which is the byproduct of microplastic. This paper highlights the reduction of plastics in the environment, typically by ultraviolet reduction, mechanical abrasion processes, and utilization by microorganisms and microalgae. Further discussion on the utilization of microplastics in the current technologies comprised of mechanical, chemical, and biological methods focusing more on the microalgae and microbial pathways via fuel cells has been elaborated. It can be denoted in the fuel cell system, the microalgae are placed in the bio-cathode section, and the anode chamber consists of the colony of microorganisms. Hence, electric current from the fuel cell can be generated to produce clean energy. Thus, the investigation on the emerging technologies via fuel cell systems and the potential use of microplastic pollutants for consumption has been discussed in the paper. The biochemical changes of microplastic and the interaction of microalgae and bacteria towards the degradation pathways of microplastic are also being observed in this review.
CELL PRESS

2405-8440
2024
10
7
10.1016/j.heliyon.2024.e28849
Science & Technology - Other Topics
gold
WOS:001226049400001
https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001226049400001
title Plastic pollution and degradation pathways: A review on the treatment technologies
title_short Plastic pollution and degradation pathways: A review on the treatment technologies
title_full Plastic pollution and degradation pathways: A review on the treatment technologies
title_fullStr Plastic pollution and degradation pathways: A review on the treatment technologies
title_full_unstemmed Plastic pollution and degradation pathways: A review on the treatment technologies
title_sort Plastic pollution and degradation pathways: A review on the treatment technologies
container_title HELIYON
language English
format Review
description In recent years, the production of plastic has been estimated to reach 300 million tonnes, and nearly the same amount has been dumped into the waters. This waste material causes long-term damage to the ecosystem, economic sectors, and aquatic environments. Fragmentation of plastics to microplastics has been detected in the world's oceans, which causes a serious global impact. It is found that most of this debris ends up in water environments. Hence, this research aims to review the microbial degradation of microplastic, especially in water bodies and coastal areas. Aerobic bacteria will oxidize and decompose the microplastic from this environment to produce nutrients. Furthermore, plants such as microalgae can employ this nutrient as an energy source, which is the byproduct of microplastic. This paper highlights the reduction of plastics in the environment, typically by ultraviolet reduction, mechanical abrasion processes, and utilization by microorganisms and microalgae. Further discussion on the utilization of microplastics in the current technologies comprised of mechanical, chemical, and biological methods focusing more on the microalgae and microbial pathways via fuel cells has been elaborated. It can be denoted in the fuel cell system, the microalgae are placed in the bio-cathode section, and the anode chamber consists of the colony of microorganisms. Hence, electric current from the fuel cell can be generated to produce clean energy. Thus, the investigation on the emerging technologies via fuel cell systems and the potential use of microplastic pollutants for consumption has been discussed in the paper. The biochemical changes of microplastic and the interaction of microalgae and bacteria towards the degradation pathways of microplastic are also being observed in this review.
publisher CELL PRESS
issn
2405-8440
publishDate 2024
container_volume 10
container_issue 7
doi_str_mv 10.1016/j.heliyon.2024.e28849
topic Science & Technology - Other Topics
topic_facet Science & Technology - Other Topics
accesstype gold
id WOS:001226049400001
url https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001226049400001
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