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Table 3 Physiochemical properties of the synthesized compounds 7a-e, 8a-c and 10a-k

From: Design, synthesis and evaluation of novel 1,2,4-triazole derivatives as promising anticancer agents

Entry

MWa

LogPb

HBDc

HBAd

TPSA (Ã…)e

RBf

Lipinski/Veber violation

7a

277.32

2.39

0

3

47.78

5

0

7b

346.21

3.40

0

3

47.78

5

0

7c

387.86

4.01

0

3

47.78

6

0

7d

432.31

4.11

0

3

47.78

6

0

7e

422.32

4.49

0

3

47.78

6

1

8a

263.34

3.32

0

2

30.71

5

0

8b

373.88

4.93

0

2

30.71

6

1

8c

418.33

5.04

0

2

30.71

6

1

10a

305.53

1.73

0

4

64.85

6

0

10b

339.78

2.23

0

4

64.85

6

0

10c

384.23

2.34

0

4

64.85

6

0

10d

418.67

2.84

0

4

64.85

6

0

10e

374.22

2.72

0

4

64.85

6

0

10f

381.43

2.84

0

4

64.85

7

0

10 g

399.42

3.22

0

5

64.85

7

0

10 h

415.87

3.32

0

4

64.85

7

0

10i

460.32

3.42

0

4

64.85

7

0

10j

417.41

3.59

0

6

64.85

7

0

10 k

450.32

3.79

0

4

64.85

7

0

Lipinski/Veber’s Rules

 ≤ 500

 ≤ 5

 ≤ 5

 ≤ 10

 ≤ 140

 ≤ 10

 ≤ 1

  1. aMolecular weight (MW). b Logarithm of partition coefficient between n-octanol and water (LogP). c Number of hydrogen bond donors (HBD). d Number of hydrogen bond acceptors (HBA). e Topological polar surface area (TPSA). f Number of rotatable bonds (RB)