ライフサイエンスコーパス: stability constant

1 ation seems proportional to the complexation stability constant.

2 tion (log K' < 3), where K' is the effective stability constant.

3 s of zinc enzymes that have inherently lower stability constants.

4 inic acid, we further calibrated their Cu(I) stability constants against the MCL series.

5 These extended structures have high stability constants and are resistant to oxidation and d

6 The metal binding capacities, conditional stability constants, and secondary structure of immobili

7 Selectivity and stability constants are also presented and discussed.

8 itative analysis allowed us to determine the stability constants associated with the plugging process

9 y for iron as represented by the cummulative stability constant (beta n), their effective stability c

10 The effective stability constant (beta) is a key physical parameter pr

11 ntal conditions, meaning that the U(VI)-MLGO stability constants calculated herein can be confidently

12 Conditional stability constants calculated using single metal bindin

13 gn of experimental studies, for example, for stability constant determination or metal isotope fracti

14 RAFAC allowed a direct extraction of complex stability constants during deconvolution yielding log(be

15 The equation allows one to calculate stability constants expected only on basis of acid-base

16 HP-gamma-CD and HP-beta-CD had the greatest stability constants, followed by beta-CD and HP-alpha-CD

17 rimental values better after the conditional stability constant for copper binding to fulvic acid (FA

18 The stability constant for Fe(III)-MC-LR (Complex 2) was est

19 Both L1 and L2 exhibit high stability constants for Cu(2+) and Zn(2+) and thus are g

20 on (CLE-SPE) method to determine conditional stability constants for Cu(2+)-DOM binding at pH 6.6 and

21 Thermodynamic properties and nucleotide stability constants for DNA sequences follow directly fr

22 th N depend quantitatively on the product of stability constants for each individual pair in domains,

23 Comparison of the thermodynamic stability constants for Gd(LDTPA)2- with other DTPA deri

24 The conditional stability constants for Hg(Hcys)H(2)(2+) and Hg(Hcys)(2)

25 ers, this study decreases the uncertainty in stability constants for Hg-sulfides, thereby improving t

26 As a consequence, apparent stability constants for sodium, potassium, and lithium (

27 Stability constants for standard compounds and for compo

28 Application of the stability constants for the formation of the correspondi

29 carbonate(s)) and calculated the respective stability constants for the important U(VI)-MLGO surface

30 n be detected, allowing determination of the stability constants for this system and detailed speciat

31 r, as shown by the significant change of the stability constant from 370 to 6500 for NH4(+) and NEt4(

32 ty for Fe(III), yet the origin of these high stability constants has been difficult to quantify exper

33 ) readily forms complexes with potassium (2, stability constant in methanol is K(K+) = 229 +/- 25 M(-

34 rate one-to-one complexes which possess high stability constants in organic media.

35 tronic structure contributions to their high stability constants in terms of sigma- and pi-donor cova

36 -free ion-exchanger membranes, and ionophore stability constants in the membrane.

37 to be present also in wild-type QFR, but its stability constant is much lower, and its signal intensi

38 t increase in measured actinide:dipicolinate stability constants is coincident with a significant inc

39 Accurate determination of stability constants is demonstrated utilizing four known

40 as monomers, not dimers, and that the dimer stability constant K D is smaller than 0.1 kg of H 2O/mo

41 Observed stability constants (K(obs)) measured by UV-vis and fluo

42 nction because of their extraordinarily high stability constants (K(STAB) = 10(30)-10(49)) and select

43 s of six fitting parameters characterize the stability constants (K1 and K2) of FA ligands with Cu2+,

44 Stability constants (Kq+) and stoichiometries (q) (i.e.,

45 eory at the B3LYP/3-21G* level, and the high stability constant, Ks = 4.67 x 10(5) M(-1), determined

46 H2cage binds Cu2+ in aqueous solution with a stability constant (log beta) of 10.8, which corresponds

47 The log Gd(III) stability constant (log K) is 21.99, and the log protona

48 Stability constants (log K) determined for dithio ((AmbS

49 tightly bound by the enzyme with an apparent stability constant of 10(13.7) at pH 7.2.

50 etriaminepentaacetic acid) resulted in a log stability constant of 21.2.

51 ential (E(m(pH 7.2))) of -56.6 mV, and has a stability constant of approximately 1.2 x 10(-2) at pH 7

52 e in solution to form a 1:2 complex having a stability constant of ca. 10(17) M(-2).

53 The thermodynamic stability constant of Gd-LDTPA was also measured.

54 effect of the boronic acid's pK(a)(B) on the stability constant of the adduct are discussed within.

55 For determination of the stability constant of the complex of the MIP cavity and

56 The stability constant of the FU-Ade-BTM complex of 1:2 stoi

57 ion constant of dissociated electrolyte, the stability constant of the ionophore, and the membrane co

58 The calculated stability constant of the QABCD-OTA(2-) complex was 28,8

59 Stability constants of boronic acid diol esters in aqueo

60 aneously calculate the temperature-dependent stability constants of both mononuclear Cu(II)Cl and Cu(

61 s well as pi bonding contributes to the high stability constants of catecholate complexes.

62 a thermodynamic equilibrium governed by the stability constants of chelator and apocarboxypeptidase

63 differences in the covalent contributions to stability constants of hydroxamate and catecholate compl

64 ental setup for the determination of complex stability constants of mononuclear uranyl(VI) hydrolysis

65 The equilibrium stability constants of quercetin-cadmium complex were de

66 Stability constants of the anion-ionophore complexes wer

67 n by ligands are closely correlated with the stability constants of the aqueous Fe(III)-ligand comple

68 The stability constants of the complexes of 4SS, 5SS, 6SS, a

69 tion was found between the logarithms of the stability constants of the Cu complexes and the magnitud

70 The stability constants of the dimeric complexes having pseu

71 Apparent stability constants per residue and their corresponding

72 stability constant (beta n), their effective stability constant reflecting affinity under biologic co

73 acetic acid (Fe-tCDTA) were synthesized with stability constants several orders of magnitude higher t

74 bor-pair thermodynamic additivity, where the stability constant, sij , for different domains of lengt

75 mely high affinity with iron, typically with stability constants substantially greater than 10(25)).

76 imental adsorption measurements to calculate stability constants that quantify the thermodynamic stab

77 rmation of 2:1 complexes with CO(3)(2-) with stability constants up to 4.1 x 10(15).

78 -oxido V(5+) complex, exhibiting the highest stability constant value ever observed for the V(5+) spe

79 The determined stability constant value of quercetin-cadminum complex a

80 The determined stability constant values were compared to those obtaine

81 ic regions was tested in terms of nucleotide stability constants versus sequence for the Escherichia

82 Apparent stability constants were determined for [UO2(NO3)2(TBP)2

83 Apparent stability constants were determined for the species [UO2

84 Furthermore, apparent stability constants were determined for U complexed to T

85 etail results in inaccurate determination of stability constants, which in turn affects the results o

86 nd coupled with the moderate strength of the stability constant with Fe(III) determined in this study

87 lytical approaches are used to determine the stability constants, with the ratio approach being most