Trichoderma Biomass as an Alternative for Removal of Congo Red and Malachite Green Industrial Dyes

Argumedo-Delira, Rosalba; Gómez-Martínez, Mario J.; Uribe-Kaffure, Ramiro

doi:10.3390/app11010448

Cited by 35 publications

(9 citation statements)

References 99 publications

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“…Fungal biomasses are composed of sugars, proteins, and lipids, and different functional groups (alcohols, carboxyl, and alkanes) which provide it certain properties and applications as a biosorption in treatments of wastewater (Isaza-Pérez et al, 2020;Ahmed and Ebrahim, 2020). Biotreatment of dyecontaining wastewater effluent by fungal cell was provided a cost-effective, easily applicable, eco-friendly (Salem et al, 2019;(Argumedo-Delira et al, 2021), and absence of nutrient needs (Ghany et al, 2019). Different species of fungus have been used as an effective candidate for the removal of a variety of dyes from effluents such as Trichoderma sp.…”

Section: Adsorbents From Fungal Biomassmentioning

confidence: 99%

Biomass-Based Adsorbents for Removal of Dyes From Wastewater: A Review

Aragaw

Bogale

2021

Front. Environ. Sci.

125

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Dyes, especially azo dyes contained in wastewaters released from textile, pigment, and leather industries, are entering into natural waterbodies. This results in environmental deterioration and serious health damages (for example carcinogenicity and mutagenesis) through food chains. Physiochemical, membrane processes, electrochemical technology, advanced oxidation processes, reverse osmosis, ion exchange, electrodialysis, electrolysis, and adsorption techniques are commonly used conventional treatment technologies. However, the limitations of most of these methods include the generation of toxic sludge, high operational and maintenance costs. Thus, technological advancements are in use to remediate dyes from effluents. Adsorption using the nonconventional biomass-based sorbents is the greatest attractive alternatives because of their low cost, sustainability, availability, and eco-friendly. We present and reviewed up-to-date publications on biomass-based sorbents used for dye removal. Conceptualization and synthesizing their state-of-the-art knowledge on their characteristics, experimental conditions used were also discussed. The merits and limitations of various biosorbents were also reflected. The maximum dye adsorption capacities of various biosorbents were reviewed and synthesized in the order of the biomass type (algae, agricultural, fungal, bacterial, activated carbon, yeast, and others). Surface chemistry, pH, initial dye concentration, temperature, contact time, and adsorbent dose as well as the ways of the preparations of materials affect the biosorption process. Based on the average dye adsorption capacity, those sorbents were arranged and prioritized. The best fit of the adsorption isotherms (for example Freundlich and Langmuir models) and basic operating parameters on the removal dyes were retrieved. Which biomass-based adsorbents have greater potential for dye removal based on their uptake nature, cost-effectiveness, bulk availability, and mono to multilayer adsorption behavior was discussed. The basic limitations including the desorption cycles of biomass-based adsorbent preparation and operation for the implementation of this technology were forwarded.

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Section: Adsorbents From Fungal Biomassmentioning

confidence: 99%

Biomass-Based Adsorbents for Removal of Dyes From Wastewater: A Review

Aragaw

Bogale

2021

Front. Environ. Sci.

125

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“…Complete decolorization of the malachite green and congo red dyes was observed when the fungus was further screened on broth medium containing the dyes. Decolorization of malachite green dye by Trichoderma virens at an absorption rate of 81.82 mg/g was reported [29]. The cultivation of Aspergillus niger in 500 g/L dyes resulted in a 100 % decolorization of different textile dyes [30].…”

Section: Laccase Screeningmentioning

confidence: 96%

Optimizing Laccase Production from Delonix regia Pods by Aspergillus carbonarius F5 Using Response Surface Methodology and it’s Dye Decolorization Potential

Arekemase

Tiamiyu

Kazeem

et al. 2022

AJB2T

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Introduction: Laccase is a muilti-copper enzyme that directs oxidation of compounds by reducing oxygen to water molecules. It has been identified as a significant enzyme which possesses diverse interest in industrial sector due to its ability to degrade toxicants from dye-utilizing related industries. Aim: The current research focuses on the optimization of laccase from Aspergillus carbonarius F5 on Delonix regia pods, for application in dye degradation. Methodology: Potential laccase producing fungi were screened and characterized using 18s rRNA. Laccase production was further conducted on untreated and acid pretreated Delonix regia pods. Plackett-Burman design and Central Composite Design (CCD) of the Response Surface Methodology (RSM) was used to screen for various nutritional and environmental factors to improve the yield of the enzyme and then applied for dye decolorization studies. Results: The fungal strain with the highest laccase activity was identified as Aspergillus carbonarius F5. The acid pretreated Delonix regia pods showed considerably high enzyme activity when compared with untreated. Moreover, variation of notable nutritional and environmental factors were detected to improve laccase yield. The effect of input parameters such as incubation period, pH, temperature and MgSO4 were documented as the major factors influencing high laccase yield using Plackett-Burman design. Results obtained from the modelling of experiment using CCD-RSM shows that maximum laccase production of 8.04 U/ml was recorded at temperature 36°C, pH 6, MgSO4.7H2O at 0.2 (g/L), and 7 days which reveals a 8.28 –fold increase. The outcome of the investigation performed on dye decolorization suggests an 87.6 % and 62.6 % degradation on congo red and malachite green dyes respectively. Conclusion: Delonix regia pods could be an added substrate, suitable for optimization of laccase by Aspergillus carbonarius F5 and the enzyme was capable of decolorizing industrial dyes.

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“…One of the sorbents used in the purification processes are those produced from waste materials (low-cost adsorbents). Some of these materials are formed from waste substances that no longer have any use, e.g., peels, citrus stones, agricultural waste, fly ash, peat, slag and many others [31][32][33][34][35][36][37][38][39][40][41][42][43]. They are mainly characterized by their availability and cheap production cost, while their disadvantage is the relatively low sorption capacity compared with activated carbons or polymeric resins [34][35][36][37][38][39][40].…”

Section: Introductionmentioning

confidence: 99%

Physicochemical Interactions in Systems C.I. Direct Yellow 50—Weakly Basic Resins: Kinetic, Equilibrium, and Auxiliaries Addition Aspects

Wawrzkiewicz

Polska-Adach

2021

Water

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Intensive development of many industries, including textile, paper or plastic, which consume large amounts of water and generate huge amounts of wastewater-containing toxic dyes, contribute to pollution of the aquatic environment. Among many known methods of wastewater treatment, adsorption techniques are considered the most effective. In the present study, the weakly basic anion exchangers such as Amberlyst A21, Amberlyst A23 and Amberlyst A24 of the polystyrene, phenol-formaldehyde and polyacrylic matrices were used for C.I. Direct Yellow 50 removal from aqueous solutions. The equilibrium adsorption data were well fitted to the Langmuir adsorption isotherm. Kinetic studies were described by the pseudo-second order model. The pseudo-second order rate constants were in the range of 0.0609–0.0128 g/mg·min for Amberlyst A24, 0.0038–0.0015 g/mg·min for Amberlyst A21 and 1.1945–0.0032 g/mg·min for Amberlyst A23, and decreased with the increasing initial concentration of dye from 100–500 mg/L, respectively. There were observed auxiliaries (Na2CO3, Na2SO4, anionic and non-ionic surfactants) impact on the dye uptake. The polyacrylic resin Amberlyst A24 can be promising sorbent for C.I. Direct Yellow 50 removal as it is able to uptake 666.5 mg/g of the dye compared to the phenol-formaldehyde Amberlyst A23 which has a 284.3 mg/g capacity.

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Trichoderma Biomass as an Alternative for Removal of Congo Red and Malachite Green Industrial Dyes

Cited by 35 publications

References 99 publications

Biomass-Based Adsorbents for Removal of Dyes From Wastewater: A Review

Biomass-Based Adsorbents for Removal of Dyes From Wastewater: A Review

Optimizing Laccase Production from Delonix regia Pods by Aspergillus carbonarius F5 Using Response Surface Methodology and it’s Dye Decolorization Potential

Physicochemical Interactions in Systems C.I. Direct Yellow 50—Weakly Basic Resins: Kinetic, Equilibrium, and Auxiliaries Addition Aspects

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