536
A. Nosal-Wierci´ nska and W. Kaliszczak
References
1. Alias K, Fawcett WR, Parsons R (1974) Effects of adsorbed ions on simple electrode reactions.
Part 1. Reduction of periodate ion in the presence of toluene-p-sulphonate anions. J Chem Soc
Faraday Trans 1(70):1046–1056
2. Parsons R (1980) Adsorption phenomena in electrochemistry. Surf Sci 101:316–326
3. Kalvoda R (2007) Is polarography still attractive? Chem Anal 52:869–873
4. Barek J (2013) Possibilities and limitations of mercury and mercury-based electrodes in
practical electroanalysis of biologically active organic compounds. Port Electrochim Acta
31:291–295
5. Ikeda O, Watanabe K, Taniguchi Y, Tamura H (1984) Adsorption effect of highly polarizable
organic compounds on electrode kinetics. Bull Chem Soc Jpn 57:3363–3367
6. Dalmata D (2005) Kinetics and mechanism of Zn(II) ions electroreduction catalyzed by organic
compounds. Electroanalysis 17:789–793
7. Nosal-Wierci´ nska A (2010) Catalytic activity of thiourea and its selected derivatives on
electroreduction of In(III) in chlorates(VII). Cent Europ J Chem 8:1–11
8. Sykut K, Dalmata G, Nieszporek J (1998) The catalysis of the reduction of Bi III ions by
methionine. Electroanalysis 10:458–461
9. Sykut K, Dalmata G, Nowicka B, Saba J (1978) Acceleration of electrode processes by organic
compounds—“cap-pair” effect. J Electroanal Chem 90:291–302
10. Nosal-Wierci´ nska A (2014) Intermolecular interactions in systems containing Bi(III)–ClO 4
− –
H 2 O–selected amino acids in the aspect of catalysis of Bi(III) electroreduction. Electroanalysis
26:1013–1023
11. Saba J, Sykut K, Nieszporek J, Gugała D (2001) Influence of the mixed adsorption layer
1-butanol/thiourea on the two-step electroreduction of zinc(II) ions. Croat Chem Acta 74:75–89
12. Saba J, Nieszporek J, Gugala D, Sienko D, Szaran J (2003) Influence of the mixed adsorption layer of 1-butanol/toluidine isomers on the two step electroreduction of zinc(II) ions.
Electroanalysis 15:33–39
13. Nieszporek J (2011) Influence of sodium 1-decanesulfonate on the enthalpy of activation of
two-step Zn 2+ ions electroreduction. J Electroanal Chem 662:407–414
14. Nieszporek J, Nieszporek K (2018) Experimental and theoretical studies of anionic surfactants
activity at metal/solution interface: the influence of temperature and hydrocarbon chain length
of surfactants on the zinc ions electroreduction rate. Bull Chem Soc Jpn 91:201–210
15. Perek-Dlugosz A, Socha A, Rynkowski J (2017) Electrochemical reactions of sodium
2-ethylhexyl sulfate salt. Electrocatalysis 8:270–278
16. Fawcett WR (2011) Fifty years of studies of double layer effects in electrode kinetics—a
personal view. J Solid State Electrochem 15:1347–1358
17. Kowalska A (2009) Chloro and thiopurine derivatives with anticancer and immunosuppressive
activity. Farm Przegl Nauk 5:15–20
18. Zochowska D, Zegarska J, Hryniewiecka E, Samborowska E, Jazwiec R, Tszyrsznic W,
Borowiec A, Dadlez M, Paczek L (2016) Determination of concentrations of azathioprine
metabolites 6-thioguanine and 6-methylmercaptopurine in whole blood with the use of liquid
chromatography combined with mass spectrometry. Transplant Proc 48:1836–1839
19. Gowda JI, Mallappa M, Sharanappa T, Nandibewoor T (2017) CTAB functionalized multiwalled carbon nanotube composite modified electrode for the determination of 6- mercaptopurine. Sens Bio-Sens Res 12:1–7
20. Crawford DJK, Maddocks JL, Jones DN, Szawlowski P (1996) Rational design of novel
immunosuppressive drugs: analogues of azathioprine lacking the 6-mercaptopurine substituent
retain or have enhanced immunosuppressive effects. J Med Chem 39:2690–2695
21. Coulthard SA, Hogarth LA, Little M, Matheson EC, Redfern CP, Minto L, Hall AG (2002)
The effect of thiopurine methyl-transferase expression on sensitivity to thiopurine drugs. Mol
Pharmacol 62:102–109
22. Galus Z (1979) Electroanalytical methods of determination of physicochemical constants.
PWN, Warsaw (in Polish)
A. Nosal-Wierci´ nska and W. Kaliszczak
References
1. Alias K, Fawcett WR, Parsons R (1974) Effects of adsorbed ions on simple electrode reactions.
Part 1. Reduction of periodate ion in the presence of toluene-p-sulphonate anions. J Chem Soc
Faraday Trans 1(70):1046–1056
2. Parsons R (1980) Adsorption phenomena in electrochemistry. Surf Sci 101:316–326
3. Kalvoda R (2007) Is polarography still attractive? Chem Anal 52:869–873
4. Barek J (2013) Possibilities and limitations of mercury and mercury-based electrodes in
practical electroanalysis of biologically active organic compounds. Port Electrochim Acta
31:291–295
5. Ikeda O, Watanabe K, Taniguchi Y, Tamura H (1984) Adsorption effect of highly polarizable
organic compounds on electrode kinetics. Bull Chem Soc Jpn 57:3363–3367
6. Dalmata D (2005) Kinetics and mechanism of Zn(II) ions electroreduction catalyzed by organic
compounds. Electroanalysis 17:789–793
7. Nosal-Wierci´ nska A (2010) Catalytic activity of thiourea and its selected derivatives on
electroreduction of In(III) in chlorates(VII). Cent Europ J Chem 8:1–11
8. Sykut K, Dalmata G, Nieszporek J (1998) The catalysis of the reduction of Bi III ions by
methionine. Electroanalysis 10:458–461
9. Sykut K, Dalmata G, Nowicka B, Saba J (1978) Acceleration of electrode processes by organic
compounds—“cap-pair” effect. J Electroanal Chem 90:291–302
10. Nosal-Wierci´ nska A (2014) Intermolecular interactions in systems containing Bi(III)–ClO 4
− –
H 2 O–selected amino acids in the aspect of catalysis of Bi(III) electroreduction. Electroanalysis
26:1013–1023
11. Saba J, Sykut K, Nieszporek J, Gugała D (2001) Influence of the mixed adsorption layer
1-butanol/thiourea on the two-step electroreduction of zinc(II) ions. Croat Chem Acta 74:75–89
12. Saba J, Nieszporek J, Gugala D, Sienko D, Szaran J (2003) Influence of the mixed adsorption layer of 1-butanol/toluidine isomers on the two step electroreduction of zinc(II) ions.
Electroanalysis 15:33–39
13. Nieszporek J (2011) Influence of sodium 1-decanesulfonate on the enthalpy of activation of
two-step Zn 2+ ions electroreduction. J Electroanal Chem 662:407–414
14. Nieszporek J, Nieszporek K (2018) Experimental and theoretical studies of anionic surfactants
activity at metal/solution interface: the influence of temperature and hydrocarbon chain length
of surfactants on the zinc ions electroreduction rate. Bull Chem Soc Jpn 91:201–210
15. Perek-Dlugosz A, Socha A, Rynkowski J (2017) Electrochemical reactions of sodium
2-ethylhexyl sulfate salt. Electrocatalysis 8:270–278
16. Fawcett WR (2011) Fifty years of studies of double layer effects in electrode kinetics—a
personal view. J Solid State Electrochem 15:1347–1358
17. Kowalska A (2009) Chloro and thiopurine derivatives with anticancer and immunosuppressive
activity. Farm Przegl Nauk 5:15–20
18. Zochowska D, Zegarska J, Hryniewiecka E, Samborowska E, Jazwiec R, Tszyrsznic W,
Borowiec A, Dadlez M, Paczek L (2016) Determination of concentrations of azathioprine
metabolites 6-thioguanine and 6-methylmercaptopurine in whole blood with the use of liquid
chromatography combined with mass spectrometry. Transplant Proc 48:1836–1839
19. Gowda JI, Mallappa M, Sharanappa T, Nandibewoor T (2017) CTAB functionalized multiwalled carbon nanotube composite modified electrode for the determination of 6- mercaptopurine. Sens Bio-Sens Res 12:1–7
20. Crawford DJK, Maddocks JL, Jones DN, Szawlowski P (1996) Rational design of novel
immunosuppressive drugs: analogues of azathioprine lacking the 6-mercaptopurine substituent
retain or have enhanced immunosuppressive effects. J Med Chem 39:2690–2695
21. Coulthard SA, Hogarth LA, Little M, Matheson EC, Redfern CP, Minto L, Hall AG (2002)
The effect of thiopurine methyl-transferase expression on sensitivity to thiopurine drugs. Mol
Pharmacol 62:102–109
22. Galus Z (1979) Electroanalytical methods of determination of physicochemical constants.
PWN, Warsaw (in Polish)