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Water, Air, & Soil Pollution

, 230:217 | Cite as

Untapped Sepia Shell–Based Composite for the Sorption of Cationic and Anionic Dyes

  • A. M. Elgarahy
  • K. Z. ElwakeelEmail author
  • G. A. Elshoubaky
  • S. H. Mohammad
Article

Abstract

The current research reports an efficient methodology of new sorbent (SSBC) synthesis based on neglected sepia shells for the sequestration of cationic dye (Methylene blue, MB) and an anionic dye (Reactive black 5, RB5) from aqueous solutions. The as-synthesized SSBC was produced by reaction of sepia shell powder with urea in the presence of formaldehyde. In the first part of the work, the sorbent was scrutinized by using scanning electron microscopy, energy-dispersive X-ray analysis, Fourier transform infrared spectrometry, and titration (for determining pHPZC). In the second step, the influence of several parameters including pH effect, sorbent dosage, temperature, and ionic strength on the two dyes’ sorption effectiveness was examined. The sorption isotherms and uptake kinetics were analyzed at the optimum pH. Outlined results showed that the dynamic experimental obtained data followed the Langmuir isotherm profile, while the kinetic profile fitted well to the pseudo-second-order rate equation. Maximum sorption capacities reach up to 0.794 mmol g−1 (254.05 mg g−1) for MB and 0.271 mmol g−1 (269.18 mg g−1) for RB5, at pH 10.5 and 2.3, respectively. By comparing the sorption properties at different temperatures, the endothermic nature of the sorption process was revealed. Sorption processing under microwave irradiation (microwave-enforced sorption, MES) enhanced mass transfer, and a contact time as low as 1 min is sufficient under optimized conditions (exposure time and power) reaching equilibrium, while 2–3 h was necessary for a “simple” sorption. Dye desorption was successfully tested using 0.5 M solutions of NaOH and HCl for the removal of RB5 and MB, respectively. The as-prepared sorbent can be reused for a minimum of 4 cycles of sorption/desorption. Finally, the sorbent was successfully tested on spiked tap water and real industrial wastewater.

Keywords

Sepia shell functionalization Sorption Microwave-enforced sorption Sorbent reusability Industrial wastewater 

Notes

Supplementary material

11270_2019_4247_MOESM1_ESM.docx (383 kb)
ESM 1 (DOCX 382 kb)

References

  1. Abd El-Salam, A. H., Ewais, H. A., & Basaleh, A. S. (2017). Silver nanoparticles immobilised on the activated carbon as efficient adsorbent for removal of crystal violet dye from aqueous solutions. A kinetic study. Journal of Molecular Liquids, 248, 833–841.Google Scholar
  2. Aboelfetoh, E. F., Elhelaly, A. A., & Gemeay, A. H. (2018). Synergistic effect of Cu(II) in the one-pot synthesis of reduced graphene oxide (rGO/CuxO) nanohybrids as adsorbents for cationic and anionic dyes. Journal of Environmental Chemical Engineering, 6, 623–634.Google Scholar
  3. Afshariani, F., & Roosta, A. (2019). Experimental study and mathematical modeling of biosorption of methylene blue from aqueous solution in a packed bed of microalgae Scenedesmus. Journal of Cleaner Production, 225, 133–142.Google Scholar
  4. Akar, S. T., Aslan, S., & Akar, T. (2018). Conversion of natural mineral to effective geosorbent by coating MnO2 and its application potential for dye contaminated wastewaters. Journal of Cleaner Production, 189, 887–897.Google Scholar
  5. Albadarin, A. B., Solomon, S., Abou Daher, M., & Walker, G. (2018). Efficient removal of anionic and cationic dyes from aqueous systems using spent Yerba Mate “Ilex paraguariensis”. Journal of the Taiwan Institute of Chemical Engineers, 82, 144–155.Google Scholar
  6. Alharbi, O. M. (2018). Sorption, kinetic, thermodynamics and artificial neural network modelling of phenol and 3-amino-phenol in water on composite iron nano-adsorbent. Journal of Molecular Liquids, 260, 261–269.Google Scholar
  7. Allafchian, A., Mousavi, Z. S., & Hosseini, S. S. (2019). Application of cress seed musilage magnetic nanocomposites for removal of methylene blue dye from water. International Journal of Biological Macromolecules, 136, 199–208.Google Scholar
  8. Álvarez-Torrellas, S., Ribeiro, R. S., Gomes, H. T., Ovejero, G., & García, J. (2016). Removal of antibiotic compounds by adsorption using glycerol-based carbon materials. Chemical Engineering Journal, 296, 277–288.Google Scholar
  9. Bello, K., Sarojini, B. K., Narayana, B., Rao, A., & Byrappa, K. (2018). A study on adsorption behavior of newly synthesized banana pseudo-stem derived superabsorbent hydrogels for cationic and anionic dye removal from effluents. Carbohydrate Polymers, 181, 605–615.Google Scholar
  10. Bharti, V., Vikrant, K., Goswami, M., Tiwari, H., Sonwani, R. K., Lee, J., Tsang, D. C., Kim, K., Saeed, M., Kumar, S., Rai, B. N., Giri, B. S., & Singh, R. S. (2019). Biodegradation of methylene blue dye in a batch and continuous mode using biochar as packing media. Environmental Research, 171, 356–364.Google Scholar
  11. Bi, X., Wang, P., Jiao, C., & Cao, H. (2009). Degradation of remazol golden yellow dye wastewater in microwave enhanced ClO2 catalytic oxidation process. Journal of Hazardous Materials, 168, 895–900.Google Scholar
  12. Bouras, H. D., Yeddou, A. R., Bouras, N., Hellel, D., Holtz, M. D., Sabaou, N., Chergui, A., & Nadjemi, B. (2017). Biosorption of Congo red dye by Aspergillus carbonarius M333 and Penicillium glabrum Pg1: kinetics, equilibrium and thermodynamic studies. Journal of the Taiwan Institute of Chemical Engineers, 80, 915–923.Google Scholar
  13. Calero, M., Rodríguez, I. I., Pérez, A., Lara, M. A., & Blázquez, G. (2018). Neural fuzzy modelization of copper removal from water by biosorption in fixed-bed columns using olive stone and pinion shell. Bioresource Technology, 252, 100–109.Google Scholar
  14. Chan, C. H., Yusoff, R., Ngoh, G. C., & Kung, F. W. (2011). Microwave-assisted extractions of active ingredients from plants. Journal of Chromatography. A, 1218, 6213–6225.Google Scholar
  15. Chicinas, R. P., Bedelean, H., Stefan, R., & Maicaneanu, A. (2018). Ability of a montmorillonitic clay to interact with cationic and anionic dyes in aqueous solutions. Journal of Molecular Structure, 1154, 187–195.Google Scholar
  16. De Lima, C. R., Gomes, D. N., Filho, J. R., Pereira, M. R., & Fonseca, J. L. (2018). Anionic and cationic drug sorption on interpolyelectrolyte complexes. Colloids and Surfaces, B: Biointerfaces, 170, 210–218.Google Scholar
  17. Demey, H., Lapo, B., Ruiz, M., Fortuny, A., Marchand, M., & Sastre, A. M. (2018a). Neodymium recovery by chitosan/iron(III) hydroxide [ChiFer(III)] sorbent material: batch and column systems. Polymers, 10, 204.  https://doi.org/10.3390/polym10020204.CrossRefGoogle Scholar
  18. Demey, H., Melkior, T., Chatroux, A., Attar, K., Thiery, S., Miller, H., Grateau, M., Sastre, A. M., & Marchand, M. (2019). Evaluation of torrefied poplar-biomass as a low-cost sorbent for lead and terbium removal from aqueous solutions and energy co-generation. Chemical Engineering Journal, 361, 839–852.Google Scholar
  19. Demey, H., Tria, S. A., Soleri, R., Guiseppi-Elie, A., & Bazin, I. (2017). Sorption of his-tagged protein G and protein G onto chitosan/divalent metal ion sorbent used for detection of microcystin-LR. Environmental Science and Pollution Research, 24, 15–24.Google Scholar
  20. Demey, H., Vincent, T., & Guibal, E. (2018b). A novel algal-based sorbent for heavy metal removal. Chemical Engineering Journal, 332, 582–595.Google Scholar
  21. Deniz, F., & Kepekci, R. A. (2017). A promising biosorbent for biosorption of a model hetero-bireactive dye from aqueous medium. Fibers and Polymers, 18, 476–482.Google Scholar
  22. Dos Santos, C. C., Mouta, R., Junior, M. C., Santana, S. A., Silva, H. A., & Bezerra, C. W. (2018). Chitosan-edible oil based materials as upgraded adsorbents for textile dyes. Carbohydrate Polymers, 180, 182–191.Google Scholar
  23. Du, W. N., & Chen, S. T. (2018). Photo- and chemocatalytic oxidation of dyes in water. Journal of Environmental Management, 206, 507–515.Google Scholar
  24. Dubinin, M. M., Zaverina, E. D., & Radushkevich, L. V. (1947). Sorption and structure of active carbons. I. Adsorption of organic vapors. Zhurnal Fizicheskoi Khimii, 21, 1351–1362.Google Scholar
  25. Elwakeel, K. Z., Elgarahy, A. M., & Mohammad, S. H. (2017). Use of beach bivalve shells located at Port Said coast (Egypt) as a green approach for methylene blue removal. Journal of Environmental Chemical Engineering, 5, 578–587.Google Scholar
  26. Elwakeel, K. Z., El-Kousy, S., El-Shorbagy, H. G., & Abd El-Ghaffar, M. A. (2016). Comparison between the removal of Reactive black 5 from aqueous solutions by 3-amino-1,2,4 triazole,5-thiol and melamine grafted chitosan prepared through four different routes. Journal of Environmental Chemical Engineering, 4, 733–745.Google Scholar
  27. Farzana, M. H., & Meenakshi, S. (2014). Decolorization and detoxification of Acid blue 158 dye using cuttlefish bone powder as co-adsorbent via photocatalytic method. Journal of Water Process Engineering, 2, 22–30.Google Scholar
  28. Fatima, M., Farooq, R., Lindström, R. W., & Saeed, M. (2017). A review on biocatalytic decomposition of azo dyes and electrons recovery. Journal of Molecular Liquids, 246, 275–281.Google Scholar
  29. Fontana, I. B., Peterson, M., & Cechinel, M. A. (2018). Application of brewing waste as biosorbent for the removal of metallic ions present in groundwater and surface waters from coal regions. Journal of Environmental Chemical Engineering, 6, 660–670.Google Scholar
  30. Foo, K. Y., & Hameed, B. H. (2012). Factors affecting the carbon yield and adsorption capability of the mangosteen peel activated carbon prepared by microwave assisted K2CO3 activation. Chemical Engineering Journal, 180, 66–74.Google Scholar
  31. Freundlich, H. M. F. (1906). Uber die adsorption in lasungen. Zeitschrift für Physikalische Chemie, 57, 385–470.Google Scholar
  32. Ghaneian, M. T., Momtaz, M., & Dehvari, M. (2012). An investigation of the efficacy of cuttlefish bone powder in the removal of Reactive Blue 19 dye from aqueous solutions: equilibrium and isotherm studies. Journal of Community Health Research, 1, 68–78.Google Scholar
  33. Ghazali, A., Shirani, M., Semnani, A., Zare-Shahabadi, V., & Nekoeinia, M. (2018). Optimization of crystal violet adsorption onto date palm leaves as a potent biosorbent from aqueous solutions using response surface methodology and ant colony. Journal of Environmental Chemical Engineering, 6, 3942–3950.Google Scholar
  34. Ghobashy, M. M., & Elhady, M. A. (2017). pH-sensitive wax emulsion copolymerization with acrylamide hydrogel using gamma irradiation for dye removal. Radiation Physics and Chemistry, 134, 47–55.Google Scholar
  35. Gole, V.L., & Priya, A. (2017). Microwave-photocatalyzed assisted degradation of brilliant green dye: A batch to continuous approach. J. Water Process Eng. 19, 101–105.Google Scholar
  36. Gunasundari, E., & Kumar, P. S. (2017). Adsorption isotherm, kinetics and thermodynamic analysis of Cu(II) ions onto the dried algal biomass (Spirulina platensis). Journal of Industrial and Engineering Chemistry, 56, 129–144.Google Scholar
  37. Guo, H., Bi, C., Zeng, C., Ma, W., Yan, L., Li, K., & Wei, K. (2018). Camellia oleifera seed shell carbon as an efficient renewable bio-adsorbent for the adsorption removal of hexavalent chromium and methylene blue from aqueous solution. Journal of Molecular Liquids, 249, 629–636.Google Scholar
  38. Hamoud, H. I., Finqueneisel, G., & Azambre, B. (2017). Removal of binary dyes mixtures with opposite and similar charges by adsorption, coagulation/flocculation and catalytic oxidation in the presence of CeO2/H2O2 Fenton-like system. Journal of Environmental Management, 195, 195–207.Google Scholar
  39. He, J. L., Chen, X. H., Zhu, W. J., Ma, W. H., Xiao, Y. Y., Li, J., & Zhang, H. (2014). Preparation of porous silica microspheres by polymerization-induced colloid aggregation method. Advanced Materials Research, 898, 132–135.Google Scholar
  40. Ho, Y. S., & McKay, G. (1999). Pseudo-second order model for sorption processes. Process Biochemistry, 34, 451–465.Google Scholar
  41. Hosseini, S. A., Vossoughi, M., Mahmoodi, N. M., & Sadrzadeh, M. (2018). Efficient dye removal from aqueous solution by high-performance electrospun nanofibrous membranes through incorporation of SiO2 nanoparticles. Journal of Cleaner Production, 183, 1197–1206.Google Scholar
  42. Huang, J., Liu, D., Lu, J., Wang, H., Wei, X., & Liu, J. (2016). Biosorption of reactive black 5 by modified Aspergillus versicolor biomass: kinetics, capacity and mechanism studies. Colloids and Surfaces, A: Physicochemical and Engineering Aspects, 492, 242–248.Google Scholar
  43. Jacob, J. M., Karthik, C., Saratale, R. G., Kumar, S. S., Prabakar, D., Kadirvelu, K., & Pugazhendhi, A. (2018). Biological approaches to tackle heavy metal pollution: a survey of literature. Journal of Environmental Management, 217, 56–70.Google Scholar
  44. Jóźwiak, T., Filipkowska, U., Szymczyk, P., & Zyśk, M. (2017). Effect of the form and deacetylation degree of chitosan sorbents on sorption effectiveness of Reactive black 5 from aqueous solutions. International Journal of Biological Macromolecules, 95, 1169–1178.Google Scholar
  45. Kumar, P. S., Varjani, S. J., & Suganya, S. (2018). Treatment of dye wastewater using an ultrasonic aided nanoparticle stacked activated carbon: kinetic and isotherm modeling. Bioresource Technology, 250, 716–722.Google Scholar
  46. Kumari, H. J., Krishnamoorthy, P., Arumugam, T. K., Radhakrishnan, S., & Vasudevan, D. (2017). An efficient removal of crystal violet dye from waste water by adsorption onto TLAC/chitosan composite: a novel low cost adsorbent. International Journal of Biological Macromolecules, 96, 324–333.Google Scholar
  47. Lagergren, S. (1898). About the theory of so-called adsorption of soluble substances. Kungl Svenska Vetenskapsakad. Handl., 24, 1–39.Google Scholar
  48. Langmuir, I. (1918). The adsorption of gases on plane surfaces of glass, mica and platinum. Journal of the American Chemical Society, 40, 1361–1403.Google Scholar
  49. Lebron, Y. A., Moreira, V. R., Santos, L. V., & Jacob, R. S. (2018a). Remediation of methylene blue from aqueous solution by Chlorella pyrenoidosa and Spirulina maxima biosorption: equilibrium, kinetics, thermodynamics and optimization studies. Journal of Environmental Chemical Engineering, 6, 6680–6690.Google Scholar
  50. Lebron, Y. A. R., Moreira, V. R., Santos, L. V. S., & Jacob, R. S. (2018b). Remediation of methylene blue from aqueous solution by Chlorella pyrenoidosa and Spirulina maxima biosorption: equilibrium, kinetics, thermodynamics and optimization studies. Journal of Environmental Chemical Engineering, 6, 6680–6690.Google Scholar
  51. Lee, S. H., & Kim, J. H. (2019). Kinetic and thermodynamic characteristics of microwave-assisted extraction for the recovery of paclitaxel from Taxus chinensis. Process Biochemistry, 76, 187–193.Google Scholar
  52. León, O., Bonilla, A. M., Soto, D., Pérez, D., Rangel, M., Colina, M., & García, M. F. (2018). Removal of anionic and cationic dyes with bioadsorbent oxidized chitosans. Carbohydrate Polymers, 194, 375–383.Google Scholar
  53. Li, Y., Bai, P., Yan, Y., Yan, W., Shi, W., & Xu, R. (2019). Removal of Zn2+, Pb2+, Cd2+, and Cu2+ from aqueous solution by synthetic clinoptilolite. Microporous and Mesoporous Materials, 273, 203–211.Google Scholar
  54. Lima, E.C., Adebayo, M.A., Machado F.M., (2015). Chapter 3—kinetic and equilibrium models of adsorption. In: Bergmann CP, Machado FM (Eds.), Carbon nanomaterials as adsorbents for environmental and biological applications (pp. 71-84). Springer. doi  https://doi.org/10.1007/978-3-319-18875-1_3.Google Scholar
  55. Liu, Z., Zhang, F., Liu, T., Peng, N., & Gai, C. (2016). Removal of azo dye by a highly graphitized and heteroatom doped carbon derived from fish waste: adsorption equilibrium and kinetics. Journal of Environmental Management, 182, 446–454.Google Scholar
  56. Maaloul, N., Oulego, P., Rendueles, M., Ghorbal, A., & Díaz, M. (2017). Novel biosorbents from almond shells: characterization and adsorption properties modeling for Cu(II) ions from aqueous solutions. Journal of Environmental Chemical Engineering, 5, 2944–2954.Google Scholar
  57. Mahmoud, M. E., Abdou, A. E., Shehata, A. K., Header, H. M., & Hamed, E. A. (2018a). Sustainable super fast adsorptive removal of Congo red dye from water by a novel technique based on microwave-enforced sorption process. Journal of Industrial and Engineering Chemistry, 57, 28–36.Google Scholar
  58. Mahmoud, M. E., Amira, M. F., Zaghloul, A. A., & Ibrahim, G. A. (2016a). High performance microwave-enforced solid phase extraction of heavy metals from aqueous solutions using magnetic iron oxide nanoparticles-protected-nanosilica. Separation and Purification Technology, 163, 169–172.Google Scholar
  59. Mahmoud, M. E., Amira, M. F., Zaghloul, A. A., & Ibrahim, G. A. (2016b). Microwave-enforced sorption of heavy metals from aqueous solutions on the surface of magnetic iron oxide-functionalized-3-aminopropyltriethoxysilane. Chemical Engineering Journal, 293, 200–206.Google Scholar
  60. Mahmoud, M. E., Hassan, S. S., Kamel, A. H., & Elserw, M. I. (2018b). Development of microwave-assisted functionalized nanosilicas for instantaneous removal of heavy metals. Powder Technology, 326, 454–466.Google Scholar
  61. Mahmoud, M. E., Nassar, A. M., Abou Ali, S. A., & Elweshahy, S. M. (2017). Factors optimization of super fast removal of heavy metals from aqueous solution using microwave-enforced sorption on the surface of a novel nano-composite. Separation and Purification Technology, 174, 493–501.Google Scholar
  62. Mandal, V., & Mandal, S. C. (2010). Design and performance evaluation of a microwave based low carbon yielding extraction technique for naturally occurring bioactive triterpenoid: oleanolic acid. Biochemical Engineering Journal, 50, 63–70.Google Scholar
  63. Martorell, M. M., Pajot, H. F., & de Figueroa, L. I. (2017). Biological degradation of Reactive black 5 dye by yeast Trichosporon akiyoshidainum. Journal of Environmental Chemical Engineering, 5, 5987–5993.Google Scholar
  64. Mbarki, F., Kesraoui, A., Seffen, M., & Ayrault, P. (2018). Kinetic, thermodynamic, and adsorption behavior of cationic and anionic dyes onto corn stigmata: nonlinear and stochastic analyses. Water, Air, and Soil Pollution, 229, 95.  https://doi.org/10.1007/s11270-018-3749-6.CrossRefGoogle Scholar
  65. Miandad, R., Kumar, R., Barakat, M. A., Basheer, C., Aburiazaiza, A. S., Nizami, A. S., & Rehan, M. (2018). Untapped conversion of plastic waste char into carbon-metal LDOs for the adsorption of Congo red. Journal of Colloid and Interface Science, 511, 402–410.Google Scholar
  66. Morosanu, I., Teodosiu, C., Paduraru, C., Ibanescu, D., & Tofan, L. (2017). Biosorption of lead ions from aqueous effluents by rapeseed biomass. New Biotechnology, 39, 110–124.Google Scholar
  67. Mouni, L., Belkhiri, L., Bollinger, J. C., Bouzaza, A., Assadi, A., Tirri, A., Dahmoune, F., Madani, K., & Remini, H. (2018). Removal of methylene blue from aqueous solutions by adsorption on kaolin: kinetic and equilibrium studies. Applied Clay Science, 153, 38–45.Google Scholar
  68. Munagapati, V. S., Yarramuthi, V., Kim, Y., Lee, K. M., & Su Kim, D. (2018). Removal of anionic dyes (Reactive black 5 and Congo red) from aqueous solutions using banana peel powder as an adsorbent. Ecotoxicology and Environmental Safety, 148, 601–607.Google Scholar
  69. Narayanan, N., Gupta, S., Gajbhiye, V. T., & Manjaiah, K. M. (2017). Optimization of isotherm models for pesticide sorption on biopolymer-nanoclay composite by error analysis. Chemosphere., 173, 502–511.Google Scholar
  70. Nematollahzadeh, A., Shojaei, A., & Karimi, M. (2015). Chemically modified organic/inorganic nanoporous composite particles for the adsorption of reactive black 5 from aqueous solution. Reactive and Functional Polymers, 86, 7–15.Google Scholar
  71. Nishikawa, E., Da Silva, M. G., & Vieira, M. G. (2018). Cadmium biosorption by alginate extraction waste and process overview in life cycle assessment context. Journal of Cleaner Production, 178, 166–175.Google Scholar
  72. Novais, R. M., Ascensão, G., Tobaldi, D. M., Seabra, M. P., & Labrincha, J. A. (2018). Biomass fly ash geopolymer monoliths for effective methylene blue removal from wastewaters. Journal of Cleaner Production, 171, 783–794.Google Scholar
  73. Omer, O. S., Hussein, M. A., Hussein, B. H., & Mgaidi, A. (2018). Adsorption thermodynamics of cationic dyes (methylene blue and crystal violet) to a natural clay mineral from aqueous solution between 293.15 and 323.15 K. Arabian Journal of Chemistry, 11, 615–623.Google Scholar
  74. Pathania, D., Sharma, S., & Singh, P. (2017). Removal of methylene blue by adsorption onto activated carbon developed from Ficus carica bast. Arabian Journal of Chemistry, 10, S1445–S1451.  https://doi.org/10.1016/j.arabjc.2013.04.021.CrossRefGoogle Scholar
  75. Pellicer, J. A., López, M. I., Fortea, M. I., Hernández, J. A., Abellán, C. L., Ros, M. T., Martínez, A. S., Delicado, E. N., Cosma, P., Fini, P., Franco, E., García, R., Ferrándiz, M., Pérez, E., & Ferrándiz, M. (2018). Removing of Direct Red 83:1 using α- and HP-α-CDs polymerized with epichlorohydrin: kinetic and equilibrium studies. Dyes and Pigments, 149, 736–746.Google Scholar
  76. Porter, J. F., McKay, G., & Choy, K. H. (1999). The prediction of sorption from a binary mixture of acidic dyes using single- and mixed-isotherm variants of the ideal adsorbed solute theory. Chemical Engineering Science, 54, 5863–5885.Google Scholar
  77. Priyantha, N., Lim, L. B., Tennakoon, D. T., Liaw, E. T., Ing, C. H., & Liyandeniya, A. B. (2018). Biosorption of cationic dyes on breadfruit (Artocarpus altilis) peel and core. Applied Water Science, 8, 37.  https://doi.org/10.1007/s13201-018-0648-3.CrossRefGoogle Scholar
  78. Raeiszadeh, M., Hakimian, A., Shojaei, A., & Molavi, H. (2018). Nanodiamond-filled chitosan as an efficient adsorbent for anionic dye removal from aqueous solutions. Journal of Environmental Chemical Engineering, 6, 3283–3294.Google Scholar
  79. Rangabhashiyam, S., Lata, S., & Balasubramanian, P. (2018). Biosorption characteristics of methylene blue and malachite green from simulated wastewater onto Carica papaya wood biosorbent. Surface and Interface, 10, 197–215.Google Scholar
  80. Razzaghi, S. E., Arabhosseini, A., Turk, M., Soubrat, T., Cendres, A., Kianmehr, M. H., Perino, S., & Chemat, F. (2019). Operational efficiencies of six microwave based extraction methods for orange peel oil. Journal of Food Engineering, 241, 26–32.Google Scholar
  81. Reck, I. M., Paixao, R. M., Bergamasco, R., Vieira, M. F., & Vieira, A. M. S. (2018). Removal of tartrazine from aqueous solutions using adsorbents based on activated carbon and Moringa oleifera seeds. Journal of Cleaner Production, 171, 85–97.Google Scholar
  82. Robles, J. D., Peresin, M. S., Tamminen, T., Rodríguez, A., Larrañeta, E., & Jääskeläinen, A. S. (2018). Lignin-based hydrogels with “super-swelling” capacities for dye removal. International Journal of Biological Macromolecules, 115, 1249–1259.Google Scholar
  83. Salih, S. S., & Ghosh, T. K. (2018). Highly efficient competitive removal of Pb(II) and Ni(II) by chitosan/diatomaceous earth composite. Journal of Environmental Chemical Engineering, 6, 435–443.Google Scholar
  84. Shaban, M., Abukhadra, M. R., Khan, A. A. P., & Jibali, B. M. (2018). Removal of Congo red, methylene blue and Cr(VI) ions from water using natural serpentine. Journal of the Taiwan Institute of Chemical Engineers, 82, 102–116.Google Scholar
  85. Siddiqui, S. H. (2018). The removal of Cu2+, Ni2+ and methylene blue (MB) from aqueous solution using Luffa actangula carbon: kinetics, thermodynamic and isotherm and response methodology. Groundwater for Sustainable Development, 6, 141–149.Google Scholar
  86. Temesgen, F., Gabbiye, N., & Sahu, O. (2018). Biosorption of reactive red dye (RRD) on activated surface of banana and orange peels: economical alternative for textile effluent. Surfaces and Interfaces, 12, 151–159.Google Scholar
  87. Temkin, M. I., & Pyzhev, V. (1940). Kinetics of ammonia synthesis on promoted iron catalysts. Acta Physiochim URSS, 12, 217–222.Google Scholar
  88. Tian, C., Feng, C., Wei, M., & Wu, Y. (2018). Enhanced adsorption of anionic toxic contaminant Congo red by activated carbon with electropositive amine modification. Chemosphere, 208, 476–483.Google Scholar
  89. Toumi, K. H., Benguerba, Y., Erto, A., Dotto, G. L., Khalfaoui, M., Tiar, C., Nacef, S., & Amrane, A. (2018). Molecular modeling of cationic dyes adsorption on agricultural Algerian olive cake waste. Journal of Molecular Liquids, 264, 127–133.Google Scholar
  90. Tural, B., Ertaş, E., Enez, B., Fincanc, S. A., & Tural, S. (2017). Preparation and characterization of a novel magnetic biosorbent functionalized with biomass of Bacillus subtilis: kinetic and isotherm studies of biosorption processes in the removal of methylene blue. Journal of Environmental Chemical Engineering, 5, 4795–4802.Google Scholar
  91. Weber, W. J., & Morris, J. C. (1963). Kinetics of adsorption on carbon from solutions. Journal of the Sanitary Engineering Division ASCE, 89, 31–60.Google Scholar
  92. Yap, M. W., Mubarak, N. W., Sahu, J. N., & Abdullah, E. C. (2017). Microwave induced synthesis of magnetic biochar from agricultural biomass for removal of lead and cadmium from wastewater. Journal of Industrial and Engineering Chemistry, 45, 287–295.Google Scholar
  93. You, L., Huang, C., Lu, F., Wang, A., Liu, X., & Zhang, Q. (2018). Facile synthesis of high performance porous magnetic chitosan-polyethylenimine polymer composite for Congo red removal. International Journal of Biological Macromolecules, 107, 1620–1628.Google Scholar
  94. Zeldowitsch, J. (1934). The catalytic oxidation of carbon monoxide on manganese dioxide. Acta Physicochimica URSS, 1, 364–449.Google Scholar
  95. Zeng, L., Xiao, L., Long, Y., & Shi, X. (2018). Trichloroacetic acid-modulated synthesis of polyoxometalate@UiO-66 for selective adsorption of cationic dyes. Journal of Colloid and Interface Science, 516, 274–283.Google Scholar
  96. Zhang, J., Li, F., & Sun, Q. (2018a). Rapid and selective adsorption of cationic dyes by a unique metal-organic framework with decorated pore surface. Applied Surface Science, 440, 1219–1226.Google Scholar
  97. Zhang, J., Yan, Z., Ouyang, J., Yang, H., & Chen, D. (2018b). Highly dispersed sepiolite-based organic modified nanofibers for enhanced adsorption of Congo red. Applied Clay Science, 157, 76–85.Google Scholar
  98. Zhang, Z., Shan, Y., Wang, J., Ling, H., Zang, S., Gao, W., Zhao, Z., & Zhang, H. (2007). Investigation on the rapid degradation of Congo red catalyzed by activated carbon powder under microwave irradiation. Journal of Hazardous Materials, 147, 325–333.Google Scholar

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Authors and Affiliations

  • A. M. Elgarahy
    • 1
  • K. Z. Elwakeel
    • 2
    • 3
    Email author
  • G. A. Elshoubaky
    • 4
  • S. H. Mohammad
    • 1
  1. 1.Zoology Department, Faculty of SciencePort Said UniversityPort SaidEgypt
  2. 2.Environmental Science Department, Faculty of SciencePort Said UniversityPort SaidEgypt
  3. 3.Chemistry Department, Faculty of ScienceUniversity of JeddahJeddahSaudi Arabia
  4. 4.Botany Department, Faculty of ScienceSuez Canal UniversityIsmailiaEgypt

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