6th International Young Scientist Congress (IYSC-2020) will be Postponed to 8th and 9th May 2021 Due to COVID-19. 10th International Science Congress (ISC-2020).  International E-publication: Publish Projects, Dissertation, Theses, Books, Souvenir, Conference Proceeding with ISBN.  International E-Bulletin: Information/News regarding: Academics and Research

Role of molecularly imprinted polymers for selective determination of antiepileptic drug-carbamazepine: a short review

Author Affiliations

  • 1Department of Chemistry, Punjabi University, Patiala-147002, Punjab, India
  • 2Department of Chemistry, Punjabi University, Patiala-147002, Punjab, India
  • 3Department of Chemistry, Punjabi University, Patiala-147002, Punjab, India
  • 4Department of Chemistry, Punjabi University, Patiala-147002, Punjab, India

Res.J.chem.sci., Volume 7, Issue (6), Pages 26-30, June,18 (2017)

Abstract

Epilepsy is a neurological condition marked by frequent and unprovoked seizures. Antiepileptic drugs (AEDs) play a prominent role for treatment of epilepsy by achieving good control with medications. But, in past few decades, lot of studies shows that with the continuous release of these drugs into the environment, equally contributes them in a category of persistent organic pollutants (POP). Carbamazepine (CBZ), an antiepileptic drug is over a great extent used to treat epilepsy and bipolar disorder. This is also included in the POP category because of its profound use and possible ecotoxicology. Analytical methods should have the sensitivity for contamination detection and quantification, but in case of complex matrices or real matrices the direct application of the analytical methods can be rarely achieved. Thus, sensitive and selective analytical methods are required. The increasing use of molecular imprinted polymers during recent years in pharmaceutical analysis in complex matrices is because these materials seem to be particularly desirable for applications where analyte sensitivity and selectivity is essential. They show preferred affinity to a particular template molecule as compared to other molecules present in complex matrices, and this property of selectivity is the main driving force for such diverse application of this techniques. Such techniques have been more and more employed in a wide range of applications such as sample pretreatment, chromatography, catalysts, drug delivery, sensors, purification, bio-analytical areas etc.

References

  1. Kot-Wasik A., Jakimska A. and Śliwka-Kaszyńska M. (2016)., Occurrence and seasonal variations of 25 pharmaceutical residues in wastewater and drinking water treatment plants., Environmental monitoring and assessment, 188(12), 661.
  2. Gani K.M. and Kazmi A.A. (2016)., Contamination of Emerging Contaminants in Indian Aquatic Sources: First Overview of the Situation., Journal of Hazardous, Toxic, and Radioactive Waste, 04016026.
  3. Navarro Fernández D. (2016)., Use of mass-spectra database for screening pharmaceuticals and drug of abuse in the aquatic ecosystem.,
  4. Dodgen L.K., Kelly W.R., Panno S.V., Taylor S.J., Armstrong D.L., Wiles K.N. and Zheng W. (2017)., Characterizing pharmaceutical, personal care product, and hormone contamination in a karst aquifer of southwestern Illinois, USA, using water quality and stream flow parameters., Science of the total Environment, 578, 281-289.
  5. Vanderford B.J. and Snyder S.A. (2006)., Analysis of pharmaceuticals in water by isotope dilution liquid chromatography / tandem mass spectrometry., Environmental science & technology, 40(23), 7312-7320.
  6. Sankaraneni R. and Lachhwani D. (2015)., Antiepileptic drugs-a review., Pediatric annals, 44(2), e36-e42.
  7. Jos A., Repetto G., Rios J.C., Hazen M.J., Molero M.L., Del Peso A. and Cameán A. (2003)., Ecotoxicological evaluation of carbamazepine using six different model systems with eighteen endpoints., Toxicology in Vitro, 17(5), 525-532.
  8. Xie X., Bu Y. and Wang S. (2016)., Molecularly imprinting: a tool of modern chemistry for analysis and monitoring of phenolic environmental estrogens., Reviews in Analytical Chemistry, 35(2), 87-97.
  9. Kotova K., Hussain M., Mustafa G. and Lieberzeit P.A. (2013)., MIP sensors on the way to biotech applications: Targeting selectivity., Sensors and Actuators B: Chemical, 189, 199-202.
  10. Hashim S.N., Schwarz L.J., Danylec B., Potdar M.K., Boysen R.I. and Hearn M.T. (2016)., Selectivity mapping of the binding sites of (E)-resveratrol imprinted polymers using structurally diverse polyphenolic compounds present in Pinot noir grape skins., Talanta, 161, 425-436.
  11. Takeuchi T., Hayashi T., Ichikawa S., Ayaka K.A.J.I., Masui M., Matsumoto H. and Sasao R. (2016)., Molecularly imprinted tailor-made functional polymer receptors for highly sensitive and selective separation and detection of target molecules., Chromatography, 37(2), 43-64.
  12. Wang J., Cormack P.A., Sherrington D.C. and Khoshdel E. (2003)., Monodisperse, molecularly imprinted polymer microspheres prepared by precipitation polymerization for affinity separation applications., Angewandte Chemie International Edition, 42(43), 5336-5338.
  13. Tamayo F.G., Casillas J.L. and Martin-Esteban A. (2003)., Highly selective fenuron-imprinted polymer with a homogeneous binding site distribution prepared by precipitation polymerisation and its application to the clean-up of fenuron in plant samples., Analytica Chimica Acta, 482(2), 165-173.
  14. Mayes A.G. and Mosbach K. (1996)., Molecularly imprinted polymer beads: suspension polymerization using a liquid perfluorocarbon as the dispersing phase., Analytical Chemistry, 68(21), 3769-3774.
  15. Pang X., Cheng G., Li R., Lu S. and Zhang Y. (2005)., Bovine serum albumin-imprinted polyacrylamide gel beads prepared via inverse-phase seed suspension polymerization., Analytica chimica acta, 550(1), 13-17.
  16. Haginaka J., Takehira H., Hosoya K. and Tanaka N. (1999)., Uniform-sized molecularly imprinted polymer for (S)-naproxen selectively modified with hydrophilic external layer., Journal of Chromatography A, 849(2), 331-339.
  17. Surugiu I., Ye L., Yilmaz E., Dzgoev A., Danielsson B., Mosbach K. and Haupt K. (2000)., An enzyme-linked molecularly imprinted sorbent assay., Analyst, 125(1), 13-16.
  18. Caro E., Marcé R.M., Cormack P.A., Sherrington D.C. and Borrull F. (2004)., Molecularly imprinted solid-phase extraction of naphthalene sulfonates from water., Journal of Chromatography A, 1047(2), 175-180.
  19. Zurutuza A., Bayoudh S., Cormack P.A.G., Dambies L., Deere J., Bischoff R. and Sherrington D.C. (2005)., Molecularly imprinted solid-phase extraction of cocaine metabolites from aqueous samples., Analytica Chimica Acta, 542(1), 14-19.
  20. Sánchez-Barragán I., Costa-Fernández J.M., Pereiro R., Sanz-Medel A., Salinas A., Segura A. and González J.M. (2005)., Molecularly imprinted polymers based on iodinated monomers for selective room-temperature phosphorescence optosensing of fluoranthene in water., Analytical chemistry, 77(21), 7005-7011.
  21. Beltran A., Caro E., Marce R.M., Cormack P.A.G., Sherrington D.C. and Borrull F. (2007)., Synthesis and application of a carbamazepine-imprinted polymer for solid-phase extraction from urine and wastewater., Analytica chimica acta, 597(1), 6-11.
  22. Beltran A., Marcé R.M., Cormack P.A.G. and Borrull F. (2009)., Synthesis by precipitation polymerisation of molecularly imprinted polymer microspheres for the selective extraction of carbamazepine and oxcarbazepine from human urine., Journal of Chromatography A, 1216(12), 2248-2253.
  23. Esfandyari-Manesh M., Javanbakht M., Shahmoradi E., Dinarvand R. and Atyabi F. (2013)., The control of morphological and size properties of carbamazepine-imprinted microspheres and nanospheres under different synthesis conditions., Journal of Materials Research, 28(19), 2677-2686.
  24. Esfandyari‐Manesh M., Javanbakht M., Atyabi F. and Dinarvand R. (2012)., Synthesis and evaluation of uniformly sized carbamazepine‐imprinted microspheres and nanospheres prepared with different mole ratios of methacrylic acid to methyl methacrylate for analytical and biomedical applications., Journal of Applied Polymer Science, 125(3), 1804-1813.
  25. Dai C.M., Geissen S.U., Zhang Y.L., Zhang Y.J. and Zhou X.F. (2010)., Performance evaluation and application of molecularly imprinted polymer for separation of carbamazepine in aqueous solution., Journal of hazardous materials, 184(1), 156-163.
  26. Esfandyari-Manesh M., Javanbakht M., Dinarvand R. and Atyabi F. (2012)., Molecularly imprinted nanoparticles prepared by miniemulsion polymerization as selective receptors and new carriers for the sustained release of carbamazepine., Journal of Materials Science: Materials in Medicine, 23(4), 963-972.
  27. Dai C.M., Zhang J., Zhang Y.L., Zhou X.F., Duan Y.P. and Liu S.G. (2013)., Removal of carbamazepine and clofibric acid from water using double templates–molecularly imprinted polymers., Environmental Science and Pollution Research, 20(8), 5492-5501.
  28. Khalilian F. and Ahmadian S. (2016)., Molecularly imprinted polymer on a SiO2‐coated graphene oxide surface for the fast and selective dispersive solid‐phase extraction of Carbamazepine from biological samples., Journal of separation science, 39(8), 1500-1508.
  29. Zhang Y.L., Zhang J., Dai C.M., Zhou X.F. and Liu S.G. (2013)., Sorption of carbamazepine from water by magnetic molecularly imprinted polymers based on chitosan-Fe 3 O 4., Carbohydrate polymers, 97(2), 809-816.
  30. Schweiger B., Bahnweg L., Palm B. and Steinfeld U. (2009)., Development of molecular imprinted polymers (MIPs) for the selective removal of carbamazepine from aqueous solution., Development, 197, 15381.