Components of chiral vector, experimental and calculated values of water solubility, and octanol water partition coefficient for CNT under consideration. Calculations have been carried out by formulas obtained with set-1 in role of the training set.

 No.       

n

m

LogSexpr

LogScalc

LogPexpr

LogPcalc

1 *      

9

0

-36.6

-36.6716

29.8

30.0134

2      

10

0

-40.1

-40.1791

34.0

33.7837

3 *     

11

0

-43.6

-43.6866

37.9

37.5540

4 *     

12

0

-47.1

-47.1941

41.7

41.3243

5*     

13

0

-50.7

-50.7016

45.4

45.0946

6      

14

0

-54.2

-54.2091

49.1

48.8649

7      

15

0

-57.7

-57.7166

52.7

52.6352

8  *    

16

0

-61.3

-61.2241

56.3

56.4055

9      

17

0

-64.8

-64.7316

59.8

60.1758

10*    

18

0

-68.4

-68.2391

63.6

63.9461

11     

5

5

-40.7

-40.6121

32.3

32.9327

12*     

6

6

-47.8

-47.7137

40.5

40.3031

13     

7

7

-54.8

-54.8153

48.1

47.6735

14     

8

8

-61.9

-61.9169

55.3

55.0439

15*    

9

9

-69.0

-69.0185

62.5

62.4143

16     

10

10

-76.1

-76.1201

69.6

69.7847
* CNTs of the test set.

The data was taken from
F. Torrens, Partition of solvents and co-solvents of nanotubes: Proteins and cyclopyranoses, in: Frontiers in Drug Design and Discovery I, Eds. G. W.Caldwell, Atta-ur-Rahman and B. A. Springer, Bentham, Hilversum (Holland), 2005, 231-266.
The study was published in paper:
Andrey A. Toropov, Danuta Leszczynska, Jerzy Leszczynski, Predicting water solubility and octanol water partition coefficient for carbon nanotubes based on the chiral vector, Computational Biology and Chemistry, 31 (2007) 127–128
qsar1003023.jpg
map103-0 map103-1 qsar1003022.jpg
map102-1 map102-2 map102-3 qsar1003021.jpg
map101-1 map101-2 map101-3 qsar1003020.jpg
C60 solubility 2
qsar1003018.gif
qsar1003016.gif
qsar1003014.gif
map100-1 qsar1003013.gif
qsar1003011.gif
qsar1003009.gif
qsar1003007.gif
qsar1003005.gif
qsar1003003.gif
qsar1003001.gif