Water recovery from textile wastewater treatment by encapsulated cells of Phanerochaete chrysosporium and ultrafiltration system

Sierra-Solache, R. E.; Muro, Claudia; Maciel, A.; Illescas, Javier; Díaz, María Dolores Díaz; Carbajal-Franco, G.; Hernández, Omar A.

doi:10.2478/s11756-020-00466-2

Cited by 9 publications

(4 citation statements)

References 33 publications

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“…Using the fungi P. chrysosporium , Wanderley et al [ 195 ] reported the transformation of the azo dye Congo Red in two sequential batch bioreactors operated in cycles of 24 h and 48 h. In this case, laccase enzymes were produced in higher amounts. Sierra-Solache et al [ 196 ] reported on the utilization of the P. chrysosporium strain EMIM 5 in global wastewater treatment of textile effluents based on bioremediation and ultrafiltration processes. P. chrysosporium were immobilized onto spheres of alginate–polyvinyl alcohol–graphene and used in aerated bioreactors.…”

Section: Bioremediation By White Rot Fungimentioning

confidence: 99%

White Rot Fungi as Tools for the Bioremediation of Xenobiotics: A Review

Torres-Farradá,

Thijs,

Rineau

et al. 2024

JoF

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Industrial development has enhanced the release into the environment of large quantities of chemical compounds with high toxicity and limited prospects of degradation. The pollution of soil and water with xenobiotic chemicals has become a major ecological issue; therefore, innovative treatment technologies need to be explored. Fungal bioremediation is a promising technology exploiting their metabolic potential to remove or lower the concentrations of xenobiotics. In particular, white rot fungi (WRF) are unique microorganisms that show high capacities to degrade a wide range of toxic xenobiotic compounds such as synthetic dyes, chlorophenols, polychlorinated biphenyls, organophosphate pesticides, explosives and polycyclic aromatic hydrocarbons (PAHs). In this review, we address the main classes of enzymes involved in the fungal degradation of organic pollutants, the main mechanisms used by fungi to degrade these chemicals and the suitability of fungal biomass or extracellular enzymes for bioremediation. We also exemplify the role of several fungi in degrading pollutants such as synthetic dyes, PAHs and emerging pollutants such as pharmaceuticals and perfluoroalkyl/polyfluoroalkyl substances (PFASs). Finally, we discuss the existing current limitations of using WRF for the bioremediation of polluted environments and future strategies to improve biodegradation processes.

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Section: Bioremediation By White Rot Fungimentioning

confidence: 99%

White Rot Fungi as Tools for the Bioremediation of Xenobiotics: A Review

Torres-Farradá,

Thijs,

Rineau

et al. 2024

JoF

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“…Biomedical fields define other significant application areas of polymer nanofibers [147]. Various polymer and carbon nanoparticle-derived nanofibers have been produced for this purpose [148][149][150]. Electrospun poly(vinyl alcohol))/graphene nanocomposite nanofibers [151,152] and poly(D, L-lactic-co-glycolic acid)/graphene oxide nanocomposite nanofibers have been observed for the fabrication of tissue engineering scaffolds [153,154].…”

Section: Significance Of Electrospun Polymer/nanocarbon Nanocomposite...mentioning

confidence: 99%

Section: Significance Of Electrospun Polymer/nanocarbon Nanocomposite...mentioning

confidence: 99%

Electrospinning Processing of Polymer/Nanocarbon Nanocomposite Nanofibers—Design, Features, and Technical Compliances

Kausar

Ahmad

2023

J. Compos. Sci.

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Polymeric nanofibers have emerged as exclusive one-dimensional nanomaterials. Various polymeric nanofibers and nanocomposite nanofibers have been processed using the thermoplastic, conducting, and thermoset matrices. This review aims to highlight the worth of electrospinning technology for the processing of polymer/nanocarbon nanocomposite nanofibers. In this regard, the design, morphology, physical properties, and applications of the nanofibers were explored. The electrospun polymer/nanocarbon nanofibers have a large surface area and fine fiber orientation, alignment, and morphology. The fiber processing technique and parameters were found to affect the nanofiber morphology, diameter, and essential physical features such as electrical conductivity, mechanical properties, thermal stability, etc. The polymer nanocomposites with nanocarbon nanofillers (carbon nanotube, graphene, fullerene, etc.) were processed into high-performance nanofibers. Successively, the electrospun nanocomposite nanofibers were found to be useful for photovoltaics, supercapacitors, radiation shielding, and biomedical applications (tissue engineering, antimicrobials, etc.).

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“…Although these methods and techniques can reach a specific efficiency and thus attain the legal requirements of textile discharges, they are costly, and the residue generated is not economically viable for commerce, while only a few studies consider the reuse of contaminants (e.g., dyes [40]) and water [23]. Also, there are certain emerging pollutants with serious environmental impacts, such as microplastics [41], which are not considered by many depuration processes, so these pollutants are simply dumped into rivers, soils, and ultimately oceans.…”

Section: Revalorizationmentioning

confidence: 99%

Towards a Cleaner Textile Industry: Using ASEC to Decrease the Water Footprint to Zero Liquid Discharge

Bonnail,

Vera,

Blasco

et al. 2023

Water

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Textile manufacturing is the second most polluting industry. It involves a series of processes that require large amounts of water and generates highly polluting wastewater. Four liquid wastes collected at different steps from two different textile factories (synthetic and natural fibers) were treated using a new disruptive technology (Adiabatic Sonic Evaporation and Crystallization—ASEC). After the treatment of the contaminated fluids, the byproducts obtained (freshwater and crystallized solids <1% humidity) were characterized to determine depuration efficiency and their potential commercial reuse. The physicochemical parameters were analyzed in the liquid and solid phases. The results evidence a completely efficient separation of the contaminants and solutes from the liquids analyzed, resulting in 100% pure water with the characteristics of distilled water (an electrical conductivity below 20 µS/cm) suitable for other industrial processes or water reuses, including human consumption. This implies an estimated annual reduction in the water consumption of these factories of between 16 and 103 Olympic pools. It would also avoid the disposal of 181 and 966 ton/y dried residue by the current synthetic and natural fiber textile processing factories, respectively. More than 75% of the resulting solid residue was S from the synthetic fiber industry, and light elements from the natural fiber residues. The installation of ASEC technology in different phases or at the end of industrial textile processing lines could change the paradigm of water consumption to a minimum, thus reducing consumption and resulting in the complete recycling of water. Using renewable energy and residual heat transforms the system into a zero-pollution technology; it makes it possible to attain almost 0% CO2 emissions, fulfilling the European Green Deal objectives such as a circular economy, the decarbonization of the textile industry, the protection of the biodiversity of river basins, and zero pollution.

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Water recovery from textile wastewater treatment by encapsulated cells of Phanerochaete chrysosporium and ultrafiltration system

Cited by 9 publications

References 33 publications

White Rot Fungi as Tools for the Bioremediation of Xenobiotics: A Review

White Rot Fungi as Tools for the Bioremediation of Xenobiotics: A Review

Electrospinning Processing of Polymer/Nanocarbon Nanocomposite Nanofibers—Design, Features, and Technical Compliances

Towards a Cleaner Textile Industry: Using ASEC to Decrease the Water Footprint to Zero Liquid Discharge

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