Thin-layer Chromatographic Data

00 Adrenaline Decamethonium Bromide Demecarium Bromide Diminazene 

Diquat Dibromide Distigmine Bromide Ethyl Nicotinate Gallamine Triethiodide Hexamethonium Bromide Hydrastinine Mebezonium Iodide Neomycin Noradrenaline Paraquat Dichloride Pentolinium Tartrate Quinuronium Sulphate Streptomycin Tubocurarine Chloride 

01 Alcuronium Chloride Benserazide Bethanidine Bretylium Tosylate Carbachol Debrisoquine Dibromopropamidine Dihydrostreptomycin Guanethidine Guanoxan Hexylcaine Homatropine Hydroxystilbamidine Hyoscine Kanamycin Mepenzolate Bromide Metformin Obidoxime Chloride Pancuronium Bromide Pentamidine Pentapiperide Propamidine Pyrithidium Bromide Suxamethonium Chloride Suxethonium Bromide Thiamine 

02 Acetylcholine Chloride Ambenonium Chloride Amprolium Hydrochloride Atropine Methonitrate Bethanechol Chloride Bibenzonium Bromide Buformin Cadaverine Cetrimide 

03 Ambutonium Bromide Benzethonium Chloride Benzilonium Bromide Chlorproguanil Dequalinium Chloride Dofamium Chloride Glycopyrronium Bromide Guanoclor 

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Musumarra et al. [43] identified miconazole and other drugs by principal components analysis of standardized thin-layer chromatographic data in four eluent systems. The eluents, ethylacetate methanol 30% ammonium hydroxide (85 10 15), cyclohexane-toluene-diethylamine (65 25 10), ethylacetate chloroform (50 50), and acetone with the plates dipped in potassium hydroxide solution, provided a two-component model that accounts for 73% of the total variance. The scores plot allowed the restriction of the range of inquiry to a few candidates. This result is of great practical significance in analytical toxicology, especially when account is taken of the cost, the time, the analytical instrumentation and the simplicity of the calculations required by the method. 

G. Musumarra, G. Scarlata, G. Cirma, G. Romano, S. Palazzo, S. dementi, and G. Ginlietti, Qualitative organic analysis, Analysis of standarized thin-layer chromatographic data in four eluent systems, J. Chromatogr., 297 249 (1984). 

An alternative sequence of spray reagents, and alternative reference compounds, are given for Systems TD, TE, and TF on p. 168, and a comprehensive list of Rf values in these systems will be found in the indexes to Thin-layer Chromatographic Data in Part 3. 

Brzezinska, E., Koska, G. and Wimezak, A. (2003) Application of thin-layer chromatographic data in quantitative structure-activity relationship assay of thiazole and benzothiazole derivatives with H-antihistamine activity. II. J. Chromat., 1007, 157-164. 

Soczewinski, E., and Golkiewicz, W. (1976). A graphical method for the determination of retention times in column liquid-solid chromatography from thin layer chromatographic data. J. Chromatogr. 118 91—95. 

Soczewinski, E., Dzido, T., Golkiewicz, W., and Gazda, K. (1977). Comparison of high performance liquid chromatographic and thin layer chromatographic data obtained with various types of silica. J. Chromatogr. 131 408-411. 

Elix JA, Ernst-Russell KD (1993) A catalogue of standardized thin layer chromatographic data and biosynthetic relationships for lichen substances. Australian National Univ, Canberra... 

Oscik s relationship (Eq. 33) referring to solute retention in adsorption chromatography has been widely tested by means of thin-layer chromatographic data (36-39). Due to the excessive complexity of its general form it was usually limited to binary mobile phases only. In this particular case, Eq. 33 was transformed in the following way (39) ... 

U.A.T. Brinkman, G. de Vries, and R. Kuroda. Thin-layer chromatographic data for inorganic substances. Journal of Chromatography A 85 187-520,1973. 

Elix JA, Emst-Russell KD (1993) A Catalogue of Standardized Thin Layer Chromatographic Data and Biosynthetic Relationships for Lichen Substances, 2nd Edn. Australian National University... 

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