Caracterización estructural y óptica de Sb2S3 con morfología Hexahedral

Autores/as

  • Gómez-Zavala J.D. Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México
  • Courel-Piedrahita M. Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.
  • Ojeda-Martínez M. Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.
  • Rodríguez-Osorio, K.G. Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.
  • Morán-Lázaro, J.P. Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.

DOI:

https://doi.org/10.19136/jeeos.a8n2.6407

Palabras clave:

Estibinita, hexaedros, microondas, sulfuro de antimonio

Resumen

En este trabajo, se sintetizaron hexaedros de Sb2S3 por medio de un método coloidal asistido por microondas, usando como surfactante dodecilamina. Las muestras obtenidas de Sb2S3 fueron caracterizadas por difracción de rayos X (XRD, espectroscopia Raman, microscopía electrónica de barrido (SEM) y espectroscopia UV-Vis. Mediante XRD, la fase cristalina de Sb2S3 fue identificada a una temperatura de cristalización de 350 °C y, por espectroscopía Raman, las principales bandas de vibración Raman (135, 184 y 246 cm-1) confirmaron la fase de Sb2S3. Mientras, por SEM se observaron hexaedros con un tamaño promedio de arista de 1.57 μm. Finalmente, por espectroscopia UV-Vis se obtuvo la banda de absorción característica al Sb2S3.

Biografía del autor/a

  • Gómez-Zavala J.D., Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México

    Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.

  • Courel-Piedrahita M., Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.

    Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.

  • Ojeda-Martínez M., Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.

    Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.

  • Rodríguez-Osorio, K.G., Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.

    Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.

     

  • Morán-Lázaro, J.P., Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.

    Centro Universitario de los Valles (CUValles), Universidad de Guadalajara, Ameca, Jalisco 46600, México.

     

Referencias

[1] Devan, R.S., Patil, R.A., Lin, J.-H., Ma, Y.-R. (2012). One-dimensional metal-oxide nanostructures: Recent developments in synthesis, characterization, and

Applications. Advanced Functional Materials, 22, 3326–3370.

[2] Morán-Lázaro, J.P., Guillen-López, E.S., López-Urías, F., Muñoz-Sandoval, E., Blanco-Alonso, O., Guillén-Bonilla, H., Guillén-Bonilla, A., Rodríguez-Betancourtt, V.M., Sanchez-Tizapa, M., Olvera-Amador, M. de la L. (2018). Synthesis of

ZnMn2O4 nanoparticles by a microwave-assisted colloidal method and their evaluation as a gas sensor of propane and carbon monoxide, Sensors, 8, 701–713.

[3] Morán-Lázaro, J.P., Blanco-Alonso, O., Rodríguez-Betancourtt, V.M., Reyes-Gómez, J., Michel, C.R. (2016). Enhanced CO2-sensing response of nanostructured cobalt aluminates synthesized using a microwave-assisted colloidal method. Sensors and Actuators B, 226, 518–524.

[4] Bilecka, I., Niederberger, M. (2010). Microwave chemistry for inorganic nanomaterials synthesis. Nanoscale, 2, 1358–1374.

[5] Moreno-Laguna, K., Vega-Poot, A.G., Ramírez-Morales, E., Rojas-Blanco, L., González-Solano, M., Martínez-Hernández, D., Pérez-Hernández, G. (2018). Celdas solares sensibilizadas basadas en ZnO con diferentes tamaños de nanopartícula. Journal of Energy, Engineering Optimization and Sustainability, 2(1), 41–54.

[6] Kondrotas, R., Chen, C., Tang, J. (2018). Sb2S3 Solar Cells. Joule, 2, 1–22,

[7] Ghosh, C., Varma, B.P. (1979). Optical properties of amorphous and crystalline Sb2S3 thin films. Thin Solid Films, 60, 61–65.

[8] Liu, Y., Miao, H., Tan, G., Zhu, G. (2010). Hydrothermal synthesis ultralong single-crystal Sb2S3 nanowires. Journal of Wuhan University of Technology-Mater. Sci. Ed., 25(3), 411–414.

[9] Chen, G.-Y., Zhang, W.-X., Xu, A.-W. (2010). Synthesis and characterization of single-crystal Sb2S3 nanotubes via an EDTA-assisted hydrothermal route. Materials Chemistry and Physics, 123(1), 236–240.

[10] Hu, H., Mo, M., Yang, B., Zhang, X., Li, Q., Yu, W., Qian, Y. (2003). Solvothermal synthesis of Sb2S3 nanowires on a large scale. Journal of Crystal Growth, 258(1-2), 106–112.

[11] Zhang, H., Hu, C., Ding, Y., Lin, Y. (2015). Synthesis of 1D Sb2S3 nanostructures and its application in visible-light-driven photodegradation for MO. Journal of Alloys and Compounds, 625, 90–94.

[12] Alemi, A., Hanifehpour, Y., Joo, S.W. (2011). Synthesis and Characterization of Sb2S3 Nanorods via Complex Decomposition Approach. Journal of Nanomaterials, 2011, 414798.

[13] Baral, A, Dhara, A., Sinha, A., Mukherjee, N. (2021). Chemically synthesized Sb2S3 hollow-spheres for significantly fast and reliable visible light driven dye photodegradation. Spectrochimica Acta Part A: Molecular and Biomolecular Spectroscopy, 250, 119368.

[14] Ye, K., Wang, B.C., Nie, A.M., Zhai, K., Wen, F.S., Mu, C.P., Zhao, Z.S., Xiang, J.Y., Tian, Y.J., Liu, Z.Y. (2021). Broadband photodetector of high quality Sb2S3 nanowire grown by chemical vapor deposition. Journal of Materials Science & Technology, 75, 14–20.

[15] Blanco, O., Morán-Lázaro, J.P., Rodríguez-Betancourtt, V.M., Reyes-Gómez, J., Barrera, A. (2016). Colloidal synthesis of CoAl2O4 nanoparticles using dodecylamine and their structural characterization. Superficies y vacío, 29(3), 78–82.

[16] John Peter, I. Vijaya, S., Anandan, S., P. Nithiananthi, P. (2020). Microwave synthesis and analysis of Sb2S3 nanostructures as IR photon-absorber and counter electrode for the design of symmetric solar cells. Materials Letters, 276, 128160.

[17] Xiong, H.; Zhang, Y.; Liew, K.; Li, J. Catalytic performance of zirconium-modified Co/Al2O3 for Fischer–Tropsch synthesis. Journal of Molecular Catalysis A: Chemical. 2005, 231, 145–151.

[18] Zhang, H., Hu, C., Ding, Y., Lin, Y. (2015). Synthesis of 1D Sb2S3 nanostructures and its application in visible-light-driven photodegradation for MO. Journal of Alloys and Compounds, 625, 90–94.

[19] Salem, A. M., Selim, M. S., Salem, A. M. (2001). Structure and optical properties of chemically deposited Sb2S3 thin films. Journal of Physics D: Applied Physics, 34 (1), 12–17

[20] Wang, H., Lu, Y.-N., Zhu, J.-J., Chen, H.-Y. (2003). Sonochemical fabrication and characterization of stibnite nanorods. Inorganic Chemistry, 42 (20), 6404–6411.

[21] Kharbish, S. (2011). Raman spectroscopic investigations of some Tl-sulfosalt minerals containing pyramidal (As,Sb)S3 groups. American Mineralogist, 96(4), 609–616.

[22] Makreski, P., Petruševski, G., Ugarković, S., Jovanovski, G. (2013). Laser-induced transformation of stibnite (Sb2S3) and other structurally related salts. Vibrational Spectroscopy, 68, 177–182.

[23] Han, Q., Chen, L., Wang, M., Yang, X., Lu, L., Wang, X. (2010). Low-temperature synthesis of uniform Sb2S3 nanorods and its visible-light-driven photocatalytic activities. Materials Science and Engineering B 166, 118–121.

[24] Pal, M., Mathews, N. R., Mathew, X. (2016). Surfactant-mediated self-assembly of Sb2S3 nanorods during hydrothermal synthesis. Journal of Materials Research, 32(03), 530–538.

[25] Ahlawat, A., Sathe, V. G. (2010). Raman study of NiFe2O4 nanoparticles, bulk and films: effect of laser power. Journal of Raman Spectroscopy, 42(5), 1087–1094.

[26] Parize, R., Cossuet, T., Chaix-Pluchery, O., Roussel, H., Appert, E., Consonni, V. (2017). In situ analysis of the crystallization process of Sb2S3 thin films by Raman scattering and X-ray diffraction. Materials&Design, 121, 1–10.

[27] Rodríguez-Betancourtt, V.M., Guillén Bonilla, H., Flores Martínez, M., Guillén Bonilla, A., Moran Lazaro, J.P., Guillen Bonilla, J.T., González, M.A., Olvera Amador, M. de la L. (2017). Gas Sensing Properties of NiSb2O6 Micro- and Nanoparticles in Propane and Carbon Monoxide Atmospheres. Journal of Nanomaterials, 2017, 8792567.

[28] Rodríguez-Betancourtt, V.M., Guillén-Bonilla, H., Guillén-Bonilla, J.T., Casallas-Moreno, Y.L., Ramírez-Ortega, J.A., Morán-Lázaro, J.P., Olvera-Amador, M.L., Guillén-Bonilla, A. (2022). Synthesis, characterization, and sensitivity tests of a novel sensor based on barium antimonate powders. Materials Today Communications, 31, 103579.

[29] LaMer, V. K., Dinegar, R. H. (1950). Theory, production, and mechanism of formation of monodispersed hydrosols. Journal of the American Chemical Society, 72(11), 4847–4854.

[30] Aspnes, D. E., Kinsbron, E., Bacon, D. D. (1980). Optical properties of Au: Sample effects. Physical Review B, 21(8), 3290–3299.

[31] Mkawi, E.M., Al-Hadeethi, Y. (2022). Sb2S3 microbars prepared via the solvothermal method: Precursor sulfur source's effect on structural and optical properties for solar cell applications. Materials Science in Semiconductor Processing, 148, 106783.

[32] Martínez-Alonso, C., Olivos-Peralta, E.U., Sotelo-Lerma, M., Sato-Berrú, R.Y., Mayén-Hernández, S.A., Hu, H. (2017). Purity and crystallinity of microwave synthesized antimony sulfide microrods. Materials Chemistry and Physics, 186, 390–398.

Descargas

Publicado

2024-09-26

Número

Sección

ARTÍCULO CIENTÍFICO

Cómo citar

Gómez-Zavala, J., Courel-Piedrahita, M., Ojeda-Martínez , M., Rodríguez-Osorio, K. ., & Morán-Lázaro, J. (2024). Caracterización estructural y óptica de Sb2S3 con morfología Hexahedral. Journal of Energy, Engineering Optimization and Sustainability, 8(2), 91-98. https://doi.org/10.19136/jeeos.a8n2.6407