Andrzej Maczynski 0 5.2e+00 Ambient temperature 2 5.2 °C 1 1.27e+01 Relative mass (1 in 2) 3 1.27 $\pu{\upmu g(\rm{1})/kg(\rm{2})}$ 1 -9 1.28e-09 Mole fraction - Liquid (1) 3 1.28 1 -6 1.27e-06 Relative mass - solution (1) 3 1.27 g₁/100 g sln 1 1.00e+01 Ambient temperature 3 1.00 °C 1 1.75e+01 Relative mass (1 in 2) 3 1.75 $\pu{\upmu g(\rm{1})/kg(\rm{2})}$ 2 -9 1.77e-09 Mole fraction - Liquid (1) 3 1.77 1 -6 1.75e-06 Relative mass - solution (1) 3 1.75 g₁/100 g sln 1 1.41e+01 Ambient temperature 3 1.41 °C 1 2.22e+01 Relative mass (1 in 2) 3 2.22 $\pu{\upmu g(\rm{1})/kg(\rm{2})}$ 3 -9 2.24e-09 Mole fraction - Liquid (1) 3 2.24 1 -6 2.22e-06 Relative mass - solution (1) 3 2.22 g₁/100 g sln 1 1.83e+01 Ambient temperature 3 1.83 °C 1 2.91e+01 Relative mass (1 in 2) 3 2.91 $\pu{\upmu g(\rm{1})/kg(\rm{2})}$ 4 -9 2.94e-09 Mole fraction - Liquid (1) 3 2.94 1 -6 2.91e-06 Relative mass - solution (1) 3 2.91 g₁/100 g sln 1 2.24e+01 Ambient temperature 3 2.24 °C 1 3.72e+01 Relative mass (1 in 2) 3 3.72 $\pu{\upmu g(\rm{1})/kg(\rm{2})}$ 5 -9 3.76e-09 Mole fraction - Liquid (1) 3 3.76 1 -6 3.72e-06 Relative mass - solution (1) 3 3.72 g₁/100 g sln 1 2.46e+01 Ambient temperature 3 2.46 °C 1 4.34e+01 Relative mass (1 in 2) 3 4.34 $\pu{\upmu g(\rm{1})/kg(\rm{2})}$ 6 -9 4.39e-09 Mole fraction - Liquid (1) 3 4.39 1 -6 4.34e-06 Relative mass - solution (1) 3 4.34 g₁/100 g sln 1 2.50e+01 Ambient temperature 3 2.50 °C 1 4.46e+01 Relative mass (1 in 2) 3 4.46 $\pu{\upmu g(\rm{1})/kg(\rm{2})}$ 7 -9 4.51e-09 Mole fraction - Liquid (1) 3 4.51 1 -6 4.46e-06 Relative mass - solution (1) 3 4.46 g₁/100 g sln 1 2.87e+01 Ambient temperature 3 2.87 °C 1 5.57e+01 Relative mass (1 in 2) 3 5.57 $\pu{\upmu g(\rm{1})/kg(\rm{2})}$ 8 -9 5.63e-09 Mole fraction - Liquid (1) 3 5.63 1 -6 5.57e-06 Relative mass - solution (1) 3 5.57 g₁/100 g sln 1 2.90e+01 Ambient temperature 3 2.90 °C 1 5.70e+01 Relative mass (1 in 2) 3 5.70 $\pu{\upmu g(\rm{1})/kg(\rm{2})}$ 9 -9 5.76e-09 Mole fraction - Liquid (1) 3 5.76 1 -6 5.7e-06 Relative mass - solution (1) 2 5.7 g₁/100 g sln 1 Solubility, Solubility data series The dynamic coupled column liquid chromatography (DCCLC) method was based on generating saturated solutions by pumping water through a column packed with glass beads that have been coated with the component [1] (generator column). The concentration of [1] in the effluent of the generator column was measured by a modification of the coupled column liquid chromatographic process that has been described in [1]. The International Union of Pure and Applied Chemistry May, W.; Chesler, S.; Cram, S.; Gump, B.; Hertz, H.; Enagonio, D.; Dyszel, S.; J. Chromatogr. Sci. 1975, 13, 535. paper https://doi.org/10.1093/chromsci/13.11.535 May, W. E.; Wasik, S. P.; Freeman, D. H.; Anal. Chem. 1978, 50, 997-1000 paper https://doi.org/10.1021/ac50029a042 120-12-7 1 C14H10 InChI=1S/C14H10/c1-2-6-12-10-14-8-4-3-7-13(14)9-11(12)5-1/h1-10H MWPLVEDNUUSJAV-UHFFFAOYSA-N 178.229 Anthracene Commercial product; less than 3% impurities. 7732-18-5 2 H2O InChI=1S/H2O/h1H2 XLYOFNOQVPJJNP-UHFFFAOYSA-N 18.0153 Water Distilled over $\ce{KMnO4}$ and $\ce{NaOH}$ and passed through a column packed with XAD-2 (Rohm and Hass, Philadelphia, Pa.) Anthracene with Water