Scandium adsorption from WL residual liquor with activated carbon modified with H3PO4 solutions
Keywords:
adsorption processes, activated carbon, chemical modification, phosphoric acid, scandium removal.Abstract
Results of a virgin activated carbon oxidation effect and the same carbon, but regenerated after being declared exhausted in producing rum process, using phosphoric acid solutions of 1 mol/L and 2 mol/L concentration are presented. Consequences of chemical modification on the mechanism and degree of scandium adsorption (III) ions in the WL residual liquor of acid technology were evaluated. Textural characterization by N2 adsorption allowed verifying the microporous nature of the carbons used. The highest increase in scandium adsorption capacity was achieved by oxidizing the regenerated coal with H3PO4 at lowest concentration, with a value of 0,145 mg/g, which represented 11,8 % removal. It was demonstrated that chemical modification of activated carbon causes an increase in the adsorption capacity and thus in the scandium removal due to the creation of specific interactions with the adsorbent material. Treatment of WL waste liquor with activated carbon constitutes a part from a way to recover scandium for financial purposes, an alternative to mitigate the environmental pollution caused by this waste.Downloads
References
Acevedo, S.; Giraldo, L. y Moreno, J. C. 2017: Caracterización de carbones activados modificados con agentes quelantes para la adsorción de metales tóxicos en solución acuosa. Afinidad, 74(578): 101-107.
Álvarez, M. A.; López, V. y Moreno, C. 2005: A study of the static and dynamic adsorption of Zn (II) ions on carbon materials from aqueous solutions. Journal Colloid Interface Science, 288: 335–341.
Carballo, A.; Muñoz, J. N.; Orozco, G. A. y Rojas, A. L. 2018: Criterios geológicos y económicos sobre la existencia de escandio en los yacimientos lateríticos de Moa, Cuba. Minería y Geología, 34(4): 374-386.
Caviedes, D. I.; Muñoz, R. A.; Perdomo, A.; Rodríguez, D. y Sandoval, I. J. 2015: Tratamientos para la Remoción de Metales Pesados Comúnmente Presentes en Aguas Residuales Industriales. Una Revisión. Ingeniería y Región, 13(1): 73-90.
Chasseé, M.; Griffin, W. L.; O'Reilly, S. Y. y Calas, G. 2016: Scandium speciation in a world-class lateritic deposit. Geochemical Perspective Letters, 3(2): 105–114.
Contreras, J.; Fuenmayor, H.; Colina, M.; Díaz, A.; Fernández, N.; Pérez de Scott, M. J. y Colina, G. 2008: Capacidad adsortiva del carbón activado preparado a partir del bagazo de la caña de azúcar para la adsorción de fenol, 2-clorofenol, 2-nitrofenol y 2,4-dimetilfenol. Ciencia, 16(1): 111-121.
Crespo, H. 2017: Management of Activated Carbon in the Cuban Rum Industry. Tesis doctoral. Universidad de Oriente. Santiago de Cuba. 100 p.
Durán, J. 2019: Evaluación de la posible recuperación de Escandio en el proceso de lixiviación ácida a alta presión de la Empresa niquelífera Pedro Sotto Alba. Trabajo de diploma. Universidad de Oriente. Santiago de Cuba. 44 p.
Ghasemi, M.; Khosroshahy, M. Z.; Abbasabadi, A. B.; Ghasemi, N.; Javadian, H. y Fattahi, M. 2015: Microwave-assisted functionalization of Rosa Canina-L fruits activated carbon with tetraethylenepentamine and its adsorption behavior toward Ni (II) in aqueous solution: Kinetic, equilibrium and thermodynamic studies. Powder Technology, 274: 362–371.
Gregg, S. J. 1982: Adsorption of gases-tool for the study of the texture solids. Studies in Surface Science and Catalysis, 10: 153-164.
Guerrero, J. R.; Falcón, J. y Martínez, R. 2006: Estudio preliminar del tratamiento del residual líquido (WL) de la empresa “Comandante Pedro Sotto Alba” Moa Nickel SA. mediante el proceso de separación por membranas. Tecnología Química, 26(2): 83-93.
Hernández, M. 2019: Treatment of The Acid Waste Liquor (Wl) With Activated Carbon from Coffee and Cocoa Seed Husks Pre-Treated with Sodium Sulfide. Tesis doctoral. Universidad de Oriente. Santiago de Cuba. 194 p.
Hernández, M.; Otero, A.; Falcón, J. y Yperman, Y. 2016: Características fisicoquímicas del carbón activado de conchas de coco modificado con HNO3. Revista Cubana de Química, 29(1): 26-38.
Hernández, M. 2015: Extracción de níquel (II) del licor ácido residual (WL) con carbón activado de conchas de coco químicamente modificado. Tesis de maestría. Instituto Superior Minero-Metalúrgico de Moa, Cuba.
Kano, N.; Pang, M.; Deng, Y. y Imaizumi, Y. 2017: Adsorption of Rare Earth Elements (REEs) onto Activated Carbon Modified with Potassium Permanganate (KMnO4). Journal of Applied Solution Chemistry and Modeling, 6(2): 51-61.
Lastoskie, C.; Gubbins, K. E. y Quirke, N. 1993: Pore size distribution analysis of microporous carbons: a density functional theory approach. The journal of phisycal chemistry, 97(18): 4786-4796.
Lavaut, W. 2015: Las bajas concentraciones metalíferas: Reto de la actividad minero-metalúrgica cubana. En: VI Congreso Cubano de Minería, Simposio Geología, Exploración y Explotación de las Lateritas. GEOCIENCIAS.
Manals, E.; Vendrell, F. y Penedo, M. 2015: Aplicación de carbón activado de cascarón de coco en adsorción de especies metálicas contenidas en el licor de desecho (WL) de la lixiviación ácida de mineral laterítico. Tecnología Química, 36(1): 117-129.
Mata, L. N. 2020: Metodología para la modificación química del carbón activado aplicada a la adsorción de escandio en el residual líquido (WL). Trabajo de diploma. Universidad de Oriente. Santiago de Cuba. 36 p.
Ministerio de Ciencia, Tecnología y Medio Ambiente. 2020: Resolución 361/2020. La Habana.
Nie, H.; Wang, Y.; Wang, Y; Zhao, Z.; Dong, Y. y Sun, X. 2018: Recovery of scandium from leaching solutions of tungsten residue using solvent extraction with Cyanex 572. Hydrometallurgy, 175: 117-123.
Peric, J.; Trgo, M. y Medvidovic, N. V. 2004: Removal of zinc, copper and lead by natural zeolite-a comparison of adsorption isotherms. Water Research, 38: 1893-1899.
Scherdel, C.; Reichenauer, G. y Wiener, M. 2010: Relationship between pore volumes and surface areas derived from the evalution on N2-sorption data by DR-, BET- and t-plot. Microporous and Mesoporous Materials, 132(3): 572-575.
Tunomukwathi, P. 2015: Extracción de Níquel (Ni) del Licor Ácido Residual (WL) con Carbón Activado de Conchas de Coco Químicamente Modificado. Trabajo de diploma. Instituto Superior Minero Metalúrgico de Moa. Cuba. 71 p.
Uçar, S.; Erdem, M.; Tay, T. y Karagöz, S. 2015: Removal of lead (II) and nickel (II) ions from aqueous solution using activated carbon prepared from rapeseed oil cake by Na2CO3 activation. Clean Tech Environ Policy, 17: 747-756.
Zhou, H.; Li, D.; Gong, G.; Tian, Y. y Chen Y. 2008: Adsorption of soluble metal ions from red mud by modified activated carbon. Engineering Materials, 368-372: 1541-1544.
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