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Microbial Degradation of Rubber: Actinobacteria
Summary
This review examines how Actinobacteria, a group of soil microorganisms, can biologically degrade both natural and synthetic rubber using specialized enzymes called latex clearing proteins. The research is relevant to microplastic pollution because understanding microbial degradation pathways for synthetic polymers could inform future strategies for breaking down plastic waste in the environment.
Rubber is an essential part of our daily lives with thousands of rubber-based products being made and used. Natural rubber undergoes chemical processes and structural modifications, while synthetic rubber, mainly synthetized from petroleum by-products are difficult to degrade safely and sustainably. The most prominent group of biological rubber degraders are Actinobacteria. Rubber degrading Actinobacteria contain rubber degrading genes or rubber oxygenase known as latex clearing protein (<i>lcp</i>). Rubber is a polymer consisting of isoprene, each containing one double bond. The degradation of rubber first takes place when <i>lcp</i> enzyme cleaves the isoprene double bond, breaking them down into the sole carbon and energy source to be utilized by the bacteria. Actinobacteria grow in diverse environments, and <i>lcp</i> gene containing strains have been detected from various sources including soil, water, human, animal, and plant samples. This review entails the occurrence, physiology, biochemistry, and molecular characteristics of Actinobacteria with respect to its rubber degrading ability, and discusses possible technological applications based on the activity of Actinobacteria for treating rubber waste in a more environmentally responsible manner.
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