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Abstract

A sequential injection method for the determination of penicillamine (PA) was developed based on quenching the chemiluminescence generated by oxidation of luminol by hydrogen peroxide in presence of silver nanoparticles (AgNPs). The chemiluminescence (CL) of the reaction was found to greatly enhance in presence of AgNPs due to the increased catalyst surface area. The method was sensitive and found suitable for analysis of penicillamine in pharmaceutical preparations. Linear calibration curve is obtained in the range 0.2-1.0 mg mL-1 with a relative standard deviation less than 2%. A recovery percent of 102.3 ±0.2 was obtained with the tablets matrix indicating reasonable selectivity of the method for PA in tablets. The mechanism of quenching of the CL reaction was investigated by UV-Visible spectroscopy and transmission electron microscopy as well as by theoretical calculations using DFT-B3LYP method. The covalent attachment of PA to the AgNPs triggers aggregation of the particles thereby diminishing the surface significantly. The method was applied for the assay of PA in pharmaceutical preparations.

Keywords

Chemiluminescence Silver nanoparticles Sequential injection analysis Pharmaceutical preparations and Penicillamine.

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References

  1. Han, S., Liu, B., Liu, Y. and Fan, Z. Silver nanoparticle induced chemiluminescence of the hexacyanoferrate-fluorescein system, and its application to the determination of catechol. Microchimica Acta, 2016, 183, 917–921.
  2. Xu, S.-L. L. and Cui, H. Luminol chemiluminescence catalysed by colloidal platinum nanoparticles. Luminescence, 2007, 22, 77–87.
  3. Iranifam, M., Imani-Nabiyyi, A., Khataee, A. and Kalantari, J. Enhanced luminol–O 2 chemiluminescence reaction by CuO nanoparticles as oxidase mimics and its application for determination of ceftazidime. Analytical Methods, 2016, 8, 3816–3823.
  4. Ji, X., Wang, W., Li, X., Chen, Y. and Ding, C. Enhanced chemiluminescence detection of glutathione based on isoluminol-PSM nanoparticles probe. Talanta, 2016, 2016, 150, 666–670.
  5. Chaichi, M.J., Alijanpour, S.O., Asghari, S. and Shadlou, S. Evaluation of luminol chemiluminescence based on simultaneous introducing of coumarin derivatives as green fluorophores and chitosan-induced Au/Ag alloy nanoparticle as catalyst for the sensitive determination of glucose. Journal of Fluorescence, 2015, 25.
  6. Liu, W., Guo, Y., Li, H., Zhao, M., Lai, Z. and Li, B. A paper-based chemiluminescence device for the determination of ofloxacin. Spectrochimica Acta - Part A Molecular and Biomolecular Spectroscopy, 2015, 137, 1298–1303 .
  7. Wang, S., Wu, Q., Wang, H., Zheng, X., Shen, S., Zhang, Y., Miao, J. and Zhao, B. Biosensors and Bioelectronics Novel pyrazoline-based fluorescent probe for detecting glutathione and its application in cells. Biosensensors Bioelectronics, 2014, 55, 386–390.
  8. Safavi, A., Absalan, G. and Bamdad, F. Effect of gold nanoparticle as a novel nanocatalyst on luminol-hydrazine chemiluminescence system and its analytical application. Analytica Chimica Acta, 2008, 610, 243–248.
  9. Bae, D.R. et al. Lysine-functionalized silver nanoparticles for visual detection and separation of histidine and histidine-tagged proteins. Langmuir, 2010, 26, 2181–2185.
  10. Guo, J.Z., Cui, H., Zhou, W. and Wang, W. Ag nanoparticle-catalyzed chemiluminescent reaction between luminol and hydrogen peroxide. Journal of Photochemistry and Photobiology: A Chemistry, 2008, 193, 89–96 .
  11. Feng, S., Hu, Y., Ma, L. and Lu, X. Development of molecularly imprinted polymers-surface-enhanced Raman spectroscopy/colorimetric dual sensor for determination of chlorpyrifos in apple juice. Sensors and Actuators, B Chemical, 2017, 241, 750–757.
  12. Tite, T., Ollier, N., Sow, M.C., Vocanson, F. and Goutaland, F. Ag nanoparticles in soda-lime glass grown by continuous wave laser irradiation as an efficient SERS platform for pesticides detection. Sensors and Actuators, B Chemical, 2017, 242, 127–131.
  13. Zheng, J., Zhao, C., Tian, G. and He, L. Rapid screening for ricin toxin on letter papers using surface enhanced Raman spectroscopy. Talanta, 2017, 162, 552–557.
  14. Chen, Y., Zhang, Y., Pan, F., Liu, J., Wang, K., Zhang, C., Cheng, S., Lu, L.-G., Zhang, Z., Zhi, X., Zhang, Q., Zhang, W., Chen, D., Alfranca, G., De La Fuente J.M. and Cui, D. Breath analysis based on surface enhanced raman scattering sensors distinguishes early and advanced gastric cancer patients from healthy persons. ACS Nano, 2016,10, 8169–8179.
  15. Xiao, R., Zhang, X., Rong, Z., Xiu, B., Yang, X., Wang, C., Hao, W., Zhang, Q., Liu, Z., Duan, C., Zhao, K., Guo, X., Fan,Y., Zhao, Y., Johnson, H., Huang, Y., Feng, X., Xu, X., Zhang, H. and Wang, S. Non-invasive detection of hepatocellular carcinoma serum metabolic profile through surface-enhanced Raman spectroscopy. Nanomedicine Nanotechnology, Biology and Meicine, 2016, 12, 2475–2484.
  16. Cao, X., Shi, Lu, C.W., Zhao, H., Wang, M., Zhang, M., Chen, X., Dong, J., Han, X. and Qian, W. Surface enhanced Raman scattering probes based on antibody conjugated Au nanostars for distinguishing lung cancer cells from normal cells. Journal of Nanoscience and Nanotechnology, 2016, 16, 12161–12171.
  17. Birtoiu, I.A., Rizea, C., Togoe, D., Munteanu, R.M., Micsa, C., Rusu, M.I., Tautan, M., Braic, L., Scoicaru, L.O., Parau, A., Becherescu-Barbu, N.D., Udrea, M.V., Tonetto, A., Notonier, R. and Grigorescu,C.E.A., Diagnosing clean margins through Raman spectroscopy in human and animal mammary tumour surgery: A short review. Interface Focus, 2016, 6.
  18. Elechiguerra, J.L., Burt, J.L., Morones, J.R., Camacho-Bragado, A., Gao, X., Lara, H.H. and Yacaman, M.J. Interaction of silver nanoparticles with HIV-1. Journal of Nanobiotechnology , 2005, 3, 6.
  19. Cao, G. and Wang, Y. "Nanostructures and Nanomaterials: Synthesis, Properties and Applications". World Scientific Publishing Co., Singapore, 2011.
  20. Zhang, Z.F., Cui, H., Lai, C.Z. and Liu, L.J. Gold nanoparticle-catalyzed luminol chemiluminescence and its analytical applications. Analytical Chemistry, 2005, 77, 3324–3329.
  21. Wang, L. et al. A flow injection chemiluminescence method for the determination of fluoroquinolone derivative using the reaction of luminol and hydrogen peroxide catalyzed by gold nanoparticles. Talanta, 2007, 72, 1066–1072 .
  22. Kamruzzaman, M., Alam, A.-M., Lee, S. H.H. and Dang, T.D.D. Chemiluminescence microfluidic system on a chip to determine vitamin B1 using platinum nanoparticles triggered luminol-AgNO3 reaction. Sensors and Actuators, B Chemical, 2013, 185, 301–308.
  23. Chaichi, M.J.M.J., Azizi, S.N.S.N. and Heidarpour, M. A novel luminol chemiluminescent method catalyzed by silver/gold alloy nanoparticles for determination of anticancer drug flutamide. Spectrochimica Acta - Part A Molecular and Biomolecular Spectroscopy, 2013, 116, 594–598.
  24. Wabaidur, S. mohammad, Alam, S.M., Alothman, Z.A. and Mohsin, K. Silver nanoparticles enhanced flow injection chemiluminescence determination of gatifloxacin in pharmaceutical formulation and spiked urine sample. Spectrochimica - Acta Part A Molecular Biomolecular Spectroscopy, 2015, 144, 170–175.
  25. Samadi-Maybodi, A. and Akhoondi, R. Trace analysis of N-acetyl-L-cysteine using luminol-H2O2 chemiluminescence system catalyzed by silver nanoparticles. Luminescence, 2015, 30, 775–779.
  26. Voicescu, M., Nistor, C.L.C.L. and Meghea, A. Insights into the antioxidant activity of some flavones on silver nanoparticles using the chemiluminescence method. Journal of Luminsence, 2015, 157, 243–248.
  27. Liu, C.-H., Li, Z.-P., Du, B.-A., Duan, X.-R. and Wang Y.-C. Silver nanoparticle-based ultrasensitive chemiluminescent detection of DNA hybridization and single-nucleotide polymorphisms. Analytical Chemistry, 2006, 78, 3738–3744.
  28. Kamruzzaman, M., Alam, A.-M., Kim, K.M., Lee, S.H., Kim, Y.H., Kabir, A.N.H., G.-M. Kim. and Dang, T.D. Chemiluminescence microfluidic system of gold nanoparticles enhanced luminol-silver nitrate for the determination of vitamin B12. Biomedical Microdevices, 2013, 15, 195–202.
  29. Al Lawati, H.A.J., Kadavilpparampu, A.M. and Suliman, F.O. Combination of capillary micellar liquid chromatography with on-chip microfluidic chemiluminescence detection for direct analysis of buspirone in human plasma. Talanta, 2014, 127, 230–238.
  30. Ge, L., Wang, S., Ge, S., Yu, J., Yan, M., Li, N. and Huang, J., Electrophoretic separation in a microfluidic paper-based analytical device with an on-column wireless electrogenerated chemiluminescence detector. Chemical Communications 2014, 50, 5699–5702.
  31. Chen, X. et al. Determination of beta-agonists in swine hair by μFIA and chemiluminescence. Electrophoresis, 2015, 36, 986–993.
  32. Kadavilpparampu, A.M., Al-Lawati, H.A. J., Suliman, F.O. and Al Kindy, S.M.Z. Determination of the pseudoephedrine content in pharmaceutical formulations and in biological fluids using a microbore HPLC system interfaced to a microfluidic chemiluminescence detector. Luminescence, 2015, 30, 1242–1249.
  33. Al Haddabi, B., Al Lawati, H.A.J. and Suliman, F.O. An enhanced cerium(IV)-rhodamine 6G chemiluminescence system using guest-host interactions in a lab-on-a-chip platform for estimating the total phenolic content in food samples. Talanta, 2016, 150, 399–406.
  34. Wang, H., Li, Zhang, J.X., Hu, B., Liu, Y., Zhang, L., Cha, R., Sun, J. and Jiang, X. A microfluidic indirect competitive immunoassay for multiple and sensitive detection of testosterone in serum and urine. Analyst, 2016, 141, 815–819.
  35. Al Haddabi, B., Al Lawati, H.A.J. and Suliman, F.O. A comprehensive evaluation of three microfluidic chemiluminescence methods for the determination of the total phenolic contents in fruit juices. Food Chemistry, 2017, 214, 670–677.
  36. Walshe, J. M. The story of penicillamine: A difficult birth. Movement Disorders, 2003,18, 853–859.
  37. Derk, C.T., Huaman, G. and Jimenez, S.A. A retrospective randomly selected cohort study of D-penicillamine treatment in rapidly progressive diffuse cutaneous systemic sclerosis of recent onset. British Journal of Dermatology, 2008, 158, 1063–1068.
  38. Becke, A.D. Density-functional thermochemistry. III. The role of exact exchange. Journal of Chemical Physics, 1993, 98, 5648–5652.
  39. Lee, C., Yang, W. and Parr, R.G. Development of the Colle-Salvetti correlation-energy formula into a functional of the electron density. Physics Review B, 1988, 37, 785–789.
  40. Hay, P.J. and Wadt, W.R. Ab initio effective core potentials for molecular calculations. Potentials for K to Au including the outermost core orbitale. Journal of Chem. Physics, 1985, 82, 299–310.
  41. Qi, H., Alexson, D., Glembocki, O. and Prokes, S.M. The effect of size and size distribution on the oxidation kinetics and plasmonics of nanoscale Ag particles. Nanotechnology , 2010, 21, 215706.
  42. Jana, N.R., Gearheart, L. and Murphy, C.J. Seeding growth for size control of 5-40 nm diameter gold nanoparticles. Langmuir, 2001, 17, 6782–6786.
  43. Liu, Y.-M., Liu, E.-B. and Cheng, J.-K. Ultrasensitive chemiluminescence detection of sub-fM level Co(II) in capillary electrophoresis. Journal of Chromatography. A, 2001, 939, 91–97.
  44. Wheatley, R.A., Sariahmetoglu, M. and Cakici, I. Enhancement of luminol chemiluminescence by cysteine and glutathione. Analyst, 2000, 125, 1902–1904.
  45. Abbehausen, C., Heinrich, T.A., Abrão, E.P., Costa-neto, C.M., Lustri, W.R., Formiga, A.L.B. and Corbi, P.P. Chemical , spectroscopic characterization , DFT studies and initial pharmacological assays of a silver(I) complex with N-acetyl-L-cysteine. Polyhedron, 2011, 30, 579–583.