ライフサイエンスコーパス: Nernst equation

1 ding membrane potentials as predicted by the Nernst equation.

2 vity of ion-selective sensors limited by the Nernst equation.

3 (GSSG) and calculated E(h) according to the Nernst equation.

4 nd GSSG, and the calculation of Eh using the Nernst equation.

5 lectrostriction and analyzed using the Drude-Nernst equation.

6 with changes in [Cl-]i, as predicted by the Nernst equation.

7 in a greater quantity than predicted by the Nernst equation.

8 p is <6.0 and p is >8.5 in a proton-modified Nernst equation.

9 nalyzed as a function of potential using the Nernst equation.

10 nd the potential changes with respect to the Nernst equation.

11 activity in the sample in agreement with the Nernst equation.

12 e potential in the solution according to the Nernst equation.

13 otentiometry is determined by the well-known Nernst equation.

14 um CRP speciation and calculations using the Nernst equation.

15 tential that varies with pH according to the Nernst equation.

16 with the theoretical value predicted by the Nernst Equation (-59.2 mV pH(-1)).

17 ited by the value predicted according to the Nernst equation and inversely proportional to the charge

18 ty with the voltage output determined by the Nernst equation and proportional to the logarithm of the

19 which equilibrates in cells according to the Nernst equation and provides a numerical, replicable est

20 culated to be -275.4 +/- 0.3 mV by using the Nernst equation and the Keq for the equilibrium of the r

21 allows DeltaPsi(m) to be calculated with the Nernst equation, but this has proven difficult in practi

22 e Ca2+-dependent current as predicted by the Nernst equation for a K+-selective current.

23 The titrations fit a Nernst equation for a one-electron reaction and were nea

24 in agreement with the value predicted by the Nernst equation for a potassium conductance; serotonin o

25 ternal Cl- concentration as predicted by the Nernst equation for chloride ions.

26 transfer (CT)-IT system have considered the Nernst equation for the CT, while there is no empirical

27 In this paper, the Nernst equation is used to simultaneously calculate the

28 on and withdrawal of NH(4)(+) conformed to a Nernst equation modified to include realistic NH(4)(+) p

29 solution potential and that it's theoretical Nernst equation of E(H)[mV] = 855 - 177 pH - 59 log [Fe(

30 -) concentrations together with the relevant Nernst equation resolved the tetrathionate/thiosulfate r

31 Formal analysis of the Nernst equation reveals that reduction potential contain

32 Cys, CySS, GSH, and GSSG were used with the Nernst equation to calculate the redox states.

33 Fits of the Nernst equation to the corresponding lag-vs-potential pl

34 rom the first-order predictions based on the Nernst equation to the implicit inclusion of second-orde

35 porating enzymatic rate expressions into the Nernst equation was derived to explain the observed pote

36 ectrodes ideally operate on the basis of the Nernst equation, which predicts less than 60- and 30-mV

37 -500 mV) fit a function corresponding to the Nernst equation with a midpoint potential of -316 mV.