Aug 2026· Biodegradation· Vol 37· 0 citations· 158 references
Medicine
TL;DR
The biodegradation abilities of bacteria, fungi, and microbes associated with insects are examined and the methods used for degradation assessments are critically analyzed, differentiating between genuine biodegradation and mineralization versus surface oxidation, fragmentation, and reduction in polymer weight.
It is concluded that microbial diversity is technologically valuable when converted into predictable, robust and recoverable function at relevant scale when converted into phenotype-to-process matching.
Cissé Hama, Kaboré Boukaré, Ouédraogo Arouna et al.· Asian Journal of Biotechnolo...· 0 citations
This review includes various bacterial and fungal enzymes associated with major stages of microbial plastic degradation, including biodeterioration, biofragmentation, bioassimilation, and mineralization and highlights recent advancements in metagenomics, enzyme engineering, synthetic biology, and multi‐omics approaches...
This review aims to synthesize knowledge on plastics and microbial plastic degradation, with particular focus on emerging and re-emerging challenges that hinder its large-scale application.
A. N., Eknog M. O., Akubuenyi F et al.· Biological and Environmental...· 0 citations
This review critically evaluates mycelium-based biocomposites, with particular emphasis on the relationships between fungal biosynthesis, substrate transformation, processing strategies, and resulting material properties.
The Hong Phong Nguyen, L. Thompson, Mostafa Nikzad et al.· Molecules· 0 citations
The reviewed research shows that microbial technologies have the potential of providing efficient pollutant management as well as resource recovery in the form of biogas, microbial biomass, biopolymers, nutrients and metals, thus making circular economy possible.
Sumangala N· Journal of Pharmaceutical Re...· 0 citations
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