0
Article ? AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button. Tier 2 ? Original research — experimental, observational, or case-control study. Direct primary evidence. Environmental Sources Gut & Microbiome Remediation Sign in to save

Successful cultivation of edible fungi on textile waste offers a new avenue for bioremediation and potential food production

Scientific Reports 2024 10 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 50 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Liberty Hazelgrove, Suzy C. Moody

Summary

Researchers demonstrated for the first time that edible fungi can be cultivated on textile waste, offering a dual solution for bioremediation and potential food production. Three species of filamentous fungi were shown to colonize and break down both natural and synthetic fabric fibers. The study suggests that fungal cultivation on textile waste could help reduce the microplastic pollution that results from textiles breaking down in landfills.

Textile waste contains both natural fibres such as cotton and bamboo viscose, and synthetic fibres such as elastane and polyester. As a complex mixture, textiles present a challenging pollution issue as breakdown in landfill results in microplastics entering water and soil environments, and incineration results in particulate air pollution. Here the use of edible fungi as bioremediation agents of waste textiles is described for the first time. Three species of filamentous fungi were shown to colonise and grow on mixed fibre textile waste (underpants made from 28% cotton: 68% bamboo viscose: 4% elastane). All three fungi were able to metabolise the common textile dye Reactive Black 5 to some extent. The metabolome was captured to elucidate the dye remediation pathway utilized and to characterise the volatiles released during bioremediation with a view to assessing the safety profile of this process for future industrial applications. The results suggest that edible fungi may be cultivated on textiles, and that some interesting and useful compounds may be produced in the process. This has great biotechnological potential. No mushrooms were produced in this study, suggesting that further work will be needed to optimise conditions for crop production from waste textiles.

Sign in to start a discussion.

More Papers Like This

Article Tier 2

Filamentous Fungi Are Potential Bioremediation Agents of Semi-Synthetic Textile Waste

Not relevant to microplastics — this study tests whether filamentous fungi can biodegrade semi-synthetic textile waste and azo dyes, addressing textile recycling rather than microplastic particle pollution.

Article Tier 2

Dry gel spinning of fungal hydrogels for the development of renewable yarns from food waste

Researchers developed a dry gel spinning method using fungi to produce renewable textile yarns from food waste, offering a scalable alternative to conventional synthetic fibers. This approach could help reduce dependence on petroleum-based plastics in the textile industry.

Article Tier 2

Prospection of marine filamentous fungi in the biodegradation of microplastic

This Brazilian study examined whether marine filamentous fungi can biodegrade microplastics, exploring their enzyme systems and degradation mechanisms. Marine fungi represent an underexplored biological resource for breaking down the plastic pollution accumulating in ocean environments.

Article Tier 2

Robust Bio‐Textiles Via Mycelium‐Cellulose Interface Engineering

Researchers developed a sustainable bio-textile platform by engineering mycelium from fungi into cellulose fibers to form a semi-interpenetrating network, creating water-resistant textiles as a renewable alternative to petroleum-based synthetic fibers.

Article Tier 2

The removal capacities of three filamentous fungi to remediate floating microplastic particles

Three common filamentous fungi — Aspergillus niger, Aspergillus terreus, and Penicillium rubens — were found to remove 59–67% of polyamide microplastic particles from liquid environments within 24–72 hours through surface adhesion rather than biodegradation. This passive removal mechanism is far faster than full plastic degradation and suggests that fungi could be harnessed as a practical, low-cost tool for microplastic remediation.

Share this paper