International Journal of Nonlinear Analysis and Applications
Effects of static magnetic field on dye extracted from Anchusa-Italica through optimization the optoelectronic properties
Document Type : Research Paper
Authors
1 Department of Material Science, Polymer Research Centre, University of Basrah, Iraq
2 Department of chemistry, College of Science, University of Basrah, Iraq
Abstract
The dye extracted from the plant is already well used in optoelectronic applications for its easy and safe handling. This study is to demonstrate the effect of magnetized distilled water on dye extracted from Anchusa-Italica flowers. The results of its optoelectronic behavior reveal that the use of magnetized water in the extraction process results in different and better properties than processes in which ordinary water was used. The structural analysis of Anchusa-Italica dye thin-film was performed using the Fourier-transform infrared technique (FT-IR). The optical responses, such as the absorption coefficient, absorption spectra, both standard and refractive indices, and electronic properties (optical energy gap) were studied using Ultraviolet-Visible transmittance spectra range 300–900 nm. The calculated energy band gap of the dye extracted using magnetized water was decreased from 3.23 to 2.35 eV and turned into the preferred direct band gap to make a useful contribution to optical sources. The optical absorption spectra of the dye extracted using magnetized water appear to have a better efficiency compared to that extracted with ordinary water. A significant evolution in the absorption coefficient was obtained by employing magnetized water to extract the dye. The magnetized extraction process also modified the electronic transmission values (indirect to direct). The effect of magnetized water on the resonance mode and transparent indication was deduced by studying the complex refractive index. An increase appeared in the spectrum of the absorption index at a wavelength of 570 nm, whereas a small attenuation coefficient was observed as well. The important effects of magnetized dye extraction will highly benefit the field of optoelectronic
applications.
Keywords
[2] Askim J. R., Mahmoudi M. and Suslick K. S., Optical sensor arrays for chemical sensing: the optoelectronic nose. Chemical Society Reviews 42 (2013) 8649–8682.
[3] Hao S., Wu J., Huang Y. and Lin J., Natural dyes as photosensitizers for dye-sensitized solar cell. Solar energy 80 (2006) 209–214.
[4] Narayan M. R., Dye sensitized solar cells based on natural photosensitizers. Renewable and Sustainable Energy Reviews 16 (2012) 208–215.
[5] Kasiri M. B. and Safapour S., Natural dyes and antimicrobials for green treatment of textiles. Environmental chemistry letters 12 (2014) 1–13.
[6] Crini G., Non-conventional low-cost adsorbents for dye removal: a review. Bioresource technology 97 (2006) 1061–1085.
[7] ZHAnG X. and Laursen R. A., Development of mild extraction methods for the analysis of natural dyes in textiles of historical interest using lc-diode array detector-ms. Analytical Chemistry 77 (2005) 2022–2025.
[8] Kant R., Textile dyeing industry an environmental hazard. Nartural science 4 (2012) 26–30.
[9] Qin C. and Clark A. E., DFT characterization of the optical and redox properties of natural pigments relevant to dye-sensitized solar cells. Chemical physics letters 438 (2007) 26–30.
[10] Lundqvist M. J., Galoppini E., Meyer G. J. and Persson P., Calculated optoelectronic properties of ruthenium tris-bipyridine dyes containing oligophenyleneethynylene rigid rod linkers in different chemical environments. The Journal of Physical Chemistry A 111 (2007) 1487–1497.
[11] Yoon M. J., Surface Modifications and Optoelectronic Characterization of T iO2-Nanoparticles: Design of New Photo-Electronic Materials. Journal of the Chinese Chemical Society 56 (2009) 449–454.
[12] Adeel S., Gulzar T., Azeem M., Saeed M., Hanif I., Iqbal N. et al., Appraisal of marigold flower based lutein as natural colourant for textile dyeing under the influence of gamma radiations. Radiation Physics and Chemistry 130 (2017) 35–39.
[13] Gukowsky J. C., Xie T., Gao S., Qu Y. and He L., Rapid identification of artificial and natural food colorants with surface enhanced raman spectroscopy. Food Control 92 (2018) 267–275.
[14] Lamelas F. and Swaminathan S., Optical absorption, scattering, and multiple scattering: Experimental measurements using food coloring, india ink, and milk. American Journal of Physics 88 (2020) 137–140.
[15] Aburjai T. and Natsheh F. M., Plants used in cosmetics Phytotherapy Research. An International Journal Devoted to Pharmacological and Toxicological Evaluation of Natural Product Derivatives 17 (2003) 987–1000.
[16] Colic M. and Morse D., The elusive mechanism of the magnetic ‘memory’of water. Colloids and Surfaces A: Physicochemical and Engineering Aspects 154 (1999) 167–174.
[17] Nakagawa J., Hirota N., Kitazawa K. and Shoda M., Magnetic field enhancement of water vaporization. Journal of applied physics 86 (1999) 2923–2925.
[18] Amiri M. C. and Dadkhah A. A., On reduction in the surface tension of water due to magnetic treatment. Colloids and Surfaces A: Physicochemical and Engineering Aspects 278 (2006) 252–255.
[19] Bo D. and XiaoFeng P., Variations of optic properties of water under action of static magnetic field. Chinese Science Bulletin 52 3179–3182.
[20] Holysz L., Szczes A. and Chibowski E., Effects of a static magnetic field on water and electrolyte solutions. Journal of Colloid and Interface Science 316 (2007) 996–1002.
[21] Pang X. F. and Deng B., The changes of macroscopic features and microscopic structures of water under influence of magnetic field. Physica B: Condensed Matter 403 (2008) 3571–3577.
[22] Pang X. and Deng B., Investigation of changes in properties of water under the action of a magnetic field. Science in China Series G: Physics, Mechanics and Astronomy 51 (2008) 1621–1632.
[23] Toledo E. J. L., Ramalho T. C. and Magriotis Z. M., Influence of magnetic field on physical–chemical properties of the liquid water: Insights from experimental and theoretical models. Journal of Molecular Structure 888 (2008) 409–415.
[25] Cefalas A. C., Kobe S., Draˇzic G., Sarantopoulou E., Kollia Z., Straˇziˇsar J. and Meden A., Nanocrystallization of CaCO3 at solid/liquid interfaces in magnetic field: A quantum approach. Applied Surface Science 254 (2008) 6715–6724.
[26] Del Giudice E., Preparata G. and Vitiello G., Water as a free electric dipole laser. Physical review letters 61 (1988) 1085.
[27] Cefalas A. C., Sarantopoulou E., Kollia Z., Riziotis C., Draˇzic G., Kobe S., Straˇziˇsar J. and Meden A., Magnetic field trapping in coherent antisymmetric states of liquid water molecular rotors. Journal of Computational and Theoretical Nanoscience 7 (2010) 1800–1805.
[28] Higashitani K. and Oshitani J., Magnetic effects on thickness of adsorbed layer in aqueous solutions evaluated directly by atomic force microscope. Journal of colloid and interface science 204 (1998) 363–368.
[29] Kobe S., Draˇzi´c G., McGuiness P. J. and Straˇziˇsar J., The influence of the magnetic field on the crystallisation form of calcium carbonate and the testing of a magnetic water-treatment device. Journal of magnetism and magnetic materials 236 (2001) 71–76.
[30] Gabrielli C., Jaouhari R., Maurin G. and Keddam M., Magnetic water treatment for scale prevention. Water Research 35 (2001) 3249–3259.
[31] Krems R. V., Breaking van der Waals molecules with magnetic fields. Physical review letters 93 (2004) 13201.
[32] Kumar R., Ali S. A., Mahur A., Virk H., Singh F., Khan S., Avasthi D. and Prasad R., Study of optical band gap and carbonaceous clusters in swift heavy ion irradiated polymers with uv–vis spectroscopy. Nuclear Instruments And Methods In Physics Research Section B: Beam Interactions With Materials And Atoms 266 (2008) 1788–1792.
[33] Srivastava A., Singh V., Aggarwal P., Schneeweiss F., Scherer U. W. and Friedrich W., Optical studies of insulating polymers for radiation dose monitoring. Indian J. Pure Appl. Phys. 48 (2010) 782–786.
[34] Yakuphanoglu F., Cukurovali A. and Yilmaz I., Determination and analysis of the dispersive optical constants of some organic thin films. Physica B: Condensed Matter 351 (2004) 53–58.
[35] Ingle Jr J. D. and Crouch S. R., Spectrochemical analysis (Prentice Hall), 1988.
[36] Dean J. A., Lange’s Hand Book of Chemistry, McGraw-Hill vol 1583 (McGraw-Hill, Inc.), 1999.
[37] Yakuphanoglu F., Cukurovali A. and Yilmaz I., Refractive index and optical absorption properties of the complexes of a cyclobutane containing thiazolyl hydrazone ligand. Optical Materials 27 (2005) 1363–1368.
[38] M. Fox, optical properties of solid, (Oxford university press), 2010.
[39] Davidson A., The effect of the metal atom on the absorption spectra of phthalocyanine films. The Journal of chemical physics 77 (1982) 168–172.
[40] Fujii T., Nishikiori H. and Tamura T., Absorption spectra of rhodamine b dimers in dip-coated thin films prepared by the sol-gel method. Chemical physics letters 233 (1995) 424–429.
[41] Tauc J. and Menth A., States in the gap. Journal of non-crystalline solids 8 (1972) 569–585.
[42] Brolo A. G., Gordon R., Leathem B. and Kavanagh K. L., Surface plasmon sensor based on the enhanced light transmission through arrays of nanoholes in gold films. Langmuir 20 (2004) 4813–4815.
[43] Mo L, Yang L and He S, Acp technical digest. (OSA), In-proceeding, 2012.
[44] Neuman K. C. and Block S. M., Optical trapping. Review of scientific instruments 75 (2004) 2787–2809.
[45] Yokogawa S., Burgos S. P. and Atwater H. A., Plasmonic color filters for cmos image sensor applications. Nano letters 12 (2012) 4349–4354.
[46] Shankaran D. R., Gobi K. V. and Miura N., Recent advancements in surface plasmon resonance immunosensors for detection of small molecules of biomedical, food and environmental interest. Sensors and Actuators B: Chemical 121 (2007) 158–177.
[47] Palik E. D., Handbook of optical constants of solids, vol 3 (Academic press), 1998
[48] Wemple S and DiDomenico Jr M, Behavior of the electronic dielectric constant in covalent and ionic materials. Physical Review B 3 (1971) 1338.
[49] Amma D. S. D., Vaidyan V. and Manoj P., Structural, electrical and optical studies on chemically deposited tin oxide films from inorganic precursors. Materials chemistry and physics 93 (2005) 194–201.
[50] Caglar Y., Ilican S. and Caglar M., Single-oscillator model and determination of optical constants of spray pyrolyzed amorphous SnO2 thin films. The European Physical Journal B 58 (2007) 251–256.
[51] Ilican S., Caglar Y., Caglar M. and Yakuphanoglu F., Electrical conductivity, optical and structural properties of indium-doped zno nanofiber thin film deposited by spray pyrolysis method. Physica E: Low-dimensional Systems and Nanostructures 35 (2006) 131–138.
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Volume 12, Issue 2
November 2021Pages 949-960
- Receive Date: 12 February 2021
- Revise Date: 04 March 2021
- Accept Date: 14 April 2021