Applied Ecology and Environmental Sciences
ISSN (Print): 2328-3912 ISSN (Online): 2328-3920 Website: https://www.sciepub.com/journal/aees Editor-in-chief: Alejandro González Medina
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Applied Ecology and Environmental Sciences. 2022, 10(9), 568-572
DOI: 10.12691/aees-10-9-2
Open AccessArticle

Experimental Studies on Spectrophotometric Extraction for Estimation of Fe (III) Using an Analytical Reagent

Sonali S. Patil1,

1Department of Chemistry, J.S.M. College, Alibag, Raigad, Maharashtra, India

Pub. Date: September 05, 2022

Cite this paper:
Sonali S. Patil. Experimental Studies on Spectrophotometric Extraction for Estimation of Fe (III) Using an Analytical Reagent. Applied Ecology and Environmental Sciences. 2022; 10(9):568-572. doi: 10.12691/aees-10-9-2

Abstract

In the present experimental studies, a new reagent 2, 4-dimethyl -3H- 1, 5 benzodiazepine (DBA) is devised for the extractive estimation of Fe (III) from given sample and by use of spectrophotometer as analysis tool. In the laboratory work, the fresh reagent was prepared and its characterization has been carried out with the help of mass spectrophotometer and IR, NMR, elemental analysis. The created analytical reagent (DBA) when reacts with iron produces red complex, this complex can be extracted by using n-butanol as a selected solvent, maintained at constant pH 7.8. The Beer's law is followed in the concentration of 1-10 μg Lit-1 of Fe (III) and the optimum values of maximum absorption, molar extinction coefficient, and sandal’s sensitivity to the red complex, are observed to be 430 nm, 4954 Lit mol-1cm-2 and 0.01203 μg cm-2 respectively. Accordingly to which it turned out that the reagent is the best for the assessment for estimation of Fe (III) from various sources of samples.

Keywords:
Fe (III) Spectrophotometric determination DBA reagent molar absorptivity

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References:

[1]  Blais, J.F., Dufresne. S. and Mercier G., (1999). State of the art of technologies for metal removal from industrial effluents, Journal of Water Science, 12(4), 687-711.
 
[2]  Guards R.L. and Coutinho A.P., (2008). A group contribution method for viscosity estimation of ionic liquids, 266, 195-201.
 
[3]  Sosaari P., Srivastava V. and Sillanpää M., (2008). Ionic liquid-based water treatment technologies for organic pollutants: Current status and future prospects of ionic liquid mediated technologies, Science of the Total Environment, 690, 604–619.
 
[4]  Gunatilake S.K., (2005).Methods of removing heavy metals from industrial wastewater, Multidisciplinary Engineering Science Studies (JMESS), 1(1), 12-18.
 
[5]  Babel, S., and Kurniawan. T.A., (2004). Cr (VI) removal from synthetic wastewater using coconut shell charcoal and commercial activated carbon modified with oxidizing agent’s and/or Chitosan, Chemosphere, 54(7), 951-967.
 
[6]  Faur-Brasquet, C., Kadirvelu K., and Le Cloirec, P., (2002). Removal of metal ions from aqueous solutions by adsorption: competition with organic matter, Carbon, 40, 2387-2392.
 
[7]  Fu F., and Wang Q., (2011). Removal of heavy metal ions from wastewaters: A review, Journal of Environmental Management, 92(3), 407-418.
 
[8]  He J, Yang J., Sarwar M.T., Duan C. and Zhao Y.,(2003). Comparative investigation on copper leaching efficiency from waste mobile phones using various types of ionic liquids, Journal of Cleaner Production, 256, 348-368.
 
[9]  Kenntner N., Krone O., Altenkamp R. and Tataruch F., (2003). Environmental contaminants in liver and kidney of free- ranging Northern Goshawks (Accipiter gentilis) from three regions of Germany, Archives of Environmental Contamination and Toxicology, 45(1), 128-135.
 
[10]  Li C., and Trost B.M, (2008). Green chemistry for chemical synthesis, 105(36), 13197-13202.
 
[11]  Patil S.S. and Lokhande R.S., (2013). Development of an Extractive Spectrophotometric Method for Determination of Cr (VI) using 2, 4-dimethyl -3H- 1, 5 benzodiazepine, International Journal of Applied Chemistry, 9(2), 133-140.
 
[12]  P. G. T. Fogg, and R. J. Hall, (1971). Kinetics of the formation of monocomplexes of iron(III) with salicylic acid, sulphosalicylic acid, 8-hydroxyquinoline, and salicylaldehyde, Journal of Chemical Society A, 1365-1370.
 
[13]  F. P. Cavasino and E. Di Dio., (1971). Kinetics of the formation of iron(III) monochelates with substituted malonic acids, Journal of Chemical Society A, 3176-3180.
 
[14]  N. Kujundzie and M. Pribanic., (1978). Rate and mechanism of the formation of the monohydroxamato complexes of iron(III), Journal of Inorganic and Nuclear Chemistry, 40, 729-731.
 
[15]  K. Kustin, R. F. Pastemack, and E. M. Weinstock, (1966). Steric effects in fast metal complex substitution reaction. I, Journal of American Chemical Society, 88, 4610-4615.
 
[16]  A. Kowalak, K. Kustin, R. F. Pastemack and S. Petruci., (1967). Steric effects in fast metal complex substitution reactions. II, Journal of American Chemical Society, 89, 3126-3130.
 
[17]  P. T. Thomas, and K. N. Raymond., (1981). Coordination chemistry of microbial iron transport compounds Kinetics and mechanism of iron exchange in hydroxamate siderophore complexes, Journal of American Chemical Society, 103, 6617-6624.
 
[18]  M. Birus, N. Kujundzik, and M. Pribanic.,(1984). Iron (III) complexation by desferrioxamine B in acidic aqueous solutions. Kinetics and mechanism of the formation and hydrolysis of the binuclear complex diferrioxamine B, Inorganic Chemistry, 23, 2170-2191.
 
[19]  J. H. Micheal, and F. K. Dermot., (1991).Reactions of metal ions with protonated ligands. Kinetics and mechanisms of the reactions of iron(III) with heptane-2,4,6-trione (H2hto), 1-phenylhexane 1,3,5-trione (H2phto) and 1,5-diphenylpentane1,3,5-trione (H2dppto) in methanol-water (70: 30 vol./vol.) at 25°C and I=0.5 mol dm-3, Inorganica Chimica Acta, 187, 159-165.
 
[20]  K. Ogava, and N. Tobe., (1966). A spectrophotometric study of the complex formation between Iron (III) and sulfosalicylic acid, Bulletin of Chemical Society of Japan, 39, 223-227.
 
[21]  Lutfullah, S. Sharma, N. Rahman, S. N. H. Azmi, H. J. S. Al Hidaifi, and M. E. M. Alqasmi., (2010). Spectrophotometric determination of Fe(III) via complexation with piroxicam in synthetic mixture and soil samples, Journal of Scientific and Industrial Research, 69: 135-141.
 
[22]  M. Sun, and M. Lu., (2016). Spectrophotometric determination of trace iron in Fe (III)-potassium thiocyanate methyl violet polyvinyl alcohol system, Indian Journal of Advances in Chemical Science 4(3), 302-307.
 
[23]  S. Khan, R. Dashora, A. K. Goswamy, and D. N. Purohith., (2004). Review of spectrophotometric methods for determination of iron, Reviews in Analytical Chemistry 23, 1-4.