We can't find the internet
Attempting to reconnect
Something went wrong!
Hang in there while we get back on track
Papers
20 resultsShowing papers similar to Microbes as Biocatalysts of Marine Micropollutants
ClearThe Role Of Bacteria In Microplastic Bioremediation And Implications For Marine Ecosystems
This literature review summarizes how bacteria can be harnessed through bioremediation to break down microplastics in marine environments, cataloging the bacterial species and mechanisms involved. While biological degradation is slow and not yet a practical cleanup solution at scale, identifying effective bacteria is an important step toward developing tools to reduce the long-term accumulation of microplastics in ocean ecosystems.
Biocatalytic strategies for the degradation of emerging micropollutants: From nanoplastics to pharmaceuticals
Researchers demonstrated that specific bacteria can break down both nanoplastics and common pharmaceuticals such as paracetamol and ibuprofen, which frequently contaminate waterways. Encasing these bacteria in alginate beads improved their stability and reusability, pointing toward practical bioremediation tools for tackling multiple classes of emerging pollutants simultaneously.
Biocatalytic strategies for the degradation of emerging micropollutants: From nanoplastics to pharmaceuticals
Researchers demonstrated that specific bacteria can break down both nanoplastics and common pharmaceuticals such as paracetamol and ibuprofen, which frequently contaminate waterways. Encasing these bacteria in alginate beads improved their stability and reusability, pointing toward practical bioremediation tools for tackling multiple classes of emerging pollutants simultaneously.
Recent trends in bioremediation and bioaugmentation strategies for mitigation of marine based pollutants: current perspectives and future outlook
This review evaluates recent advances in bioremediation and bioaugmentation strategies for addressing marine pollution from microplastics, hydrocarbons, heavy metals, and pesticides. Researchers highlight progress in developing tailored microbial consortia, genetically engineered degradation agents, and nano-enabled remediation approaches informed by omics tools. The study notes that while significant advances have been made, scaling these biological approaches to handle complex pollutant mixtures in real ocean conditions remains a major challenge.
Biologics in synergy to degrade target micropollutants
This review describes how biological agents—bacteria, fungi, and engineered enzymes—can be combined to break down a range of environmental pollutants, including microplastics, chlorinated solvents, and pharmaceuticals. The emphasis on enzyme discovery and microbial consortia points toward scalable, low-emission alternatives to incineration or chemical treatment for tackling complex pollution mixtures.
Biologics in synergy to degrade target micropollutants
This review describes how biological agents—bacteria, fungi, and engineered enzymes—can be combined to break down a range of environmental pollutants, including microplastics, chlorinated solvents, and pharmaceuticals. The emphasis on enzyme discovery and microbial consortia points toward scalable, low-emission alternatives to incineration or chemical treatment for tackling complex pollution mixtures.
Bioremediation of microplastic pollution: A systematic review on mechanism, analytical methods, innovations, and omics approaches
Researchers systematically reviewed how bacteria, fungi, and algae can break down microplastics through enzymes and biofilms, and how cutting-edge tools like genomics and genetically engineered microbes are improving biodegradation efficiency. While microbial bioremediation is a promising sustainable approach to microplastic pollution, challenges around scalability and varying degradation rates in real environments still need to be overcome.
Microbial degradation of contaminants of emerging concern: metabolic, genetic and omics insights for enhanced bioremediation
This review covers how microorganisms have evolved the ability to break down emerging pollutants including plasticizers, pharmaceuticals, and pesticides, turning them into less harmful substances. Understanding the genes, enzymes, and metabolic pathways these microbes use could lead to cost-effective, eco-friendly cleanup methods for removing persistent contaminants -- including plastic-derived chemicals -- from the environment before they reach people.
Marine Environmental Plastic Pollution: Mitigation by Microorganism Degradation and Recycling Valorization
This review examines how microorganisms can degrade marine plastic pollution through enzymatic processes and how recycling technologies can recover value from plastic waste. Researchers surveyed various microbial species capable of breaking down common plastics and assessed the effectiveness of different recycling approaches. The study suggests that combining biological degradation with improved recycling infrastructure could help address the growing crisis of ocean plastic pollution.
Harnessing Microorganisms for Microplastic Degradation: A Sustainable Approach to Mitigating Environmental Pollution
This review surveys microorganisms—bacteria, fungi, and other taxa—capable of degrading microplastics, examining the enzymes, metabolic pathways, and environmental conditions involved, and assessing the practical potential of harnessing these organisms for bioremediation of plastic pollution.
Microplastics on the frontline: causes, strategies to combat pollution and protect health with advanced bioremediation—a review
This systematic review examines how microplastics carry toxic chemicals like heavy metals and persistent pollutants into the food chain, ultimately reaching humans. It also explores promising bioremediation approaches — using bacteria and enzymes to break down microplastics — as a potential strategy to reduce exposure.
The threat of microplastics and microbial degradation potential; a current perspective
This review covers the growing threat of microplastics in marine environments, where they enter the food chain and can transfer to humans along with pathogenic organisms, causing various toxic effects. The paper also explores how bacteria and fungi found in ocean environments could be harnessed to biodegrade different types of plastics as a future strategy for reducing microplastic pollution.
Catalytic and biocatalytic degradation of microplastics
This review covers the current state of breaking down microplastics using catalysts and biological agents including enzymes, metals, nanomaterials, and microorganisms. While some approaches show promise for degrading certain plastic types, the field is still developing standardized methods for measuring how well these techniques work. Finding effective ways to break down microplastics is critical for reducing the environmental and health burden of plastic pollution.
Marine Bacteria for Bioremediation of Polluted Marine Environments: A Blue Revolution Approach
This review explored how marine bacteria can be harnessed to bioremediate polluted ocean environments contaminated with hydrocarbons, heavy metals, and microplastics. The authors found that marine bacteria offer cost-effective and ecologically compatible remediation potential but that practical deployment at scale remains a major challenge.
Marine Bacteria for Bioremediation of Polluted Marine Environments: A Blue Revolution Approach
This review explored how marine bacteria can be harnessed to bioremediate polluted ocean environments contaminated with hydrocarbons, heavy metals, and microplastics. The authors found that marine bacteria offer cost-effective and ecologically compatible remediation potential but that practical deployment at scale remains a major challenge.
Bio-catalytic Mitigation for Removal of Microplastics from Water Contaminated with Industrial Effluents
This review discusses the problem of microplastic pollution and examines bio-catalytic approaches—using enzymes, bacteria, and fungi—as emerging methods for breaking down microplastics in water contaminated with industrial effluents. It covers the mechanisms of biological degradation and highlights potential pathways to scale up these technologies for practical water treatment applications.
Challenges and opportunities in bioremediation of micro-nano plastics: A review.
This review examines biological approaches to removing micro- and nanoplastics from the environment, focusing on microbial degradation and bioremediation strategies. While bioremediation holds promise, challenges remain in identifying microbes capable of degrading common plastic types and scaling these processes for practical environmental cleanup.
Critical review on unveiling the toxic and recalcitrant effects of microplastics in aquatic ecosystems and their degradation by microbes
This review provides a comprehensive look at how microplastics accumulate in aquatic ecosystems and their toxic effects on marine organisms throughout the food chain. Researchers also examine the potential of bacteria, fungi, and algae to break down microplastics through biodegradation, including advances in genetic engineering to enhance this process. The study underscores both the severity of microplastic pollution and the emerging biological strategies that could help address it.
Biodegradation of Plastics Induced by Marine Organisms: Future Perspectives for Bioremediation Approaches
This review explores how marine organisms, including bacteria and fungi, can biodegrade plastic pollution in ocean environments. Researchers surveyed the current evidence on biofouling and enzymatic breakdown of different plastic types by marine life. The study suggests that harnessing these natural biodegradation processes could offer a promising bioremediation approach, though significant research gaps remain before practical applications are feasible.
Omics Strategies Targeting Microbes with Microplastic Detection and Biodegradation Properties
This review examines how omics approaches — genomics, proteomics, and metabolomics — are being applied to identify and engineer microorganisms capable of detecting and degrading microplastics. The authors map progress in plastic-degrading microbial pathways and discuss how synthetic biology could accelerate the development of bioremediation solutions.