ライフサイエンスコーパス: potentiometry

1 bility that is not possible via conventional potentiometry.

2 nsistent with those determined previously by potentiometry.

3 ic resonance (EPR) spectroscopies coupled to potentiometry.

4 emical open-circuit potential method, namely potentiometry.

5 ctively, using voltammetry, amperometry, and potentiometry.

6 est aspects of thin-layer cells and standard potentiometry.

7 ([3Fe-4S](+/0)) clusters were determined by potentiometry.

8 other iron-sulfur centers by selective redox potentiometry.

9 low and steady-state kinetic methods, and by potentiometry.

10 een -100 and -280 mV, as determined by redox potentiometry.

11 d aqueous Fe2+ concentrations using mediated potentiometry.

12 mV, respectively) were measured using redox potentiometry.

13 Potentiometry allows one to assess the ionized form of p

14 (PANI/PAA)(2) films was examined using both potentiometry and ATR spectroscopy.

15 Mediated redox potentiometry and characterization by UV-visible, magnet

16 e sample speciation compared to zero-current potentiometry and detect the sum of labile carbonate spe

17 asicities of the compounds were evaluated by potentiometry and fluorescence spectroscopy.

18 ectrolytes is certainly possible with direct potentiometry and is done routinely in clinical analyzer

19 with classic calcium (Ca(2+)) ion-selective potentiometry and isotherms of Ca(2+) binding to a mixtu

20 In situ potentiometry and null ellipsometry was combined and use

21 eference hydricity is determined using redox potentiometry and spectrophotometric titration for a par

22 ruginosa ATCC 9027 has been determined using potentiometry and two spectroscopic approaches at concen

23 brane is shown to detect pH (by zero current potentiometry) and acidity and alkalinity (by chronopote

24 loride (TDDA) were read out at zero current (potentiometry) and with applied current techniques (chro

25 scaffold, GGG, we have employed fluorimetry, potentiometry, and calorimetry to determine the thermody

26 scopy, analytical ultracentrifugation, redox potentiometry, and EPR demonstrate that PRIME binds the

27 es are normally interrogated by zero current potentiometry, and their selectivity is understood to be

28 Future applications of NC potentiometry are briefly discussed.

29 d membrane against traditional ion-selective potentiometry are demonstrated in terms of a detection l

30 Therefore, potentiometry as a single technique is by itself not suf

31 base behavior of the compound was studied by potentiometry at 298.2 K in aqueous solution and at ioni

32 nd fumarate (fum(2-)) anions were studied by potentiometry at 298.2 K in aqueous solution and at ioni

33 Here we show that potentiometry can be used to study the surface of colloi

34 In situ potentiometry can provide real-time feedback during synt

35 Potentiometry confirmed the strong stabilization of the

36 Redox potentiometry coupled with optical spectroscopy allowed

37 dology compares well to that of open circuit potentiometry, despite giving complementary information

38 se voltammetry, square wave voltammetry, and potentiometry), each with different uses.

39 Using redox potentiometry, electronic absorption, circular dichroism

40 -art thick film, laser printing, solid-state potentiometry, fluidics and wireless technologies.

41 of each heme A and heme B to [H10H24](2) and potentiometry indicated the pair of hemes B resided in t

42 Potentiometry indicates that the substitutions do not si

43 es dynamic electrochemistry and zero current potentiometry into a single protocol.

44 Potentiometry is also reported for colloidal CdSe NCs, w

45 Potentiometry is known to be sensitive to so-called free

46 roach called "concentration-related response potentiometry" is used to study molecular interaction fo

47 gnal readout was achieved using open circuit potentiometry (OCP).

48 educed CdSe NCs to ZnO NCs in solution, with potentiometry providing a measure of the inter-NC electr

49 Potentiometry reveals major pK shifts from 4.2 to 7.0 an

50 lectivity of the membrane compared to direct potentiometry, since the level of interference will incr

51 roscope is used to demonstrate low-cost zeta potentiometry that allows measurement of both particle a

52 advantages of ion-transfer voltammetry over potentiometry to quantitatively and mechanistically asse

53 rrently the stainless steel response (CV and potentiometry) toward two different species; l-dopa, whi

54 Temperature pulse potentiometry (TPP) gives convenient peak-shaped analyti

55 Such measurements are done by potentiometry using polyaniline (PAni)-based working ele

56 3 mm DBS punches were measured via indirect potentiometry, using the Roche Cobas 8000 routine chemis

57 troduce graphene, electroanalytical methods (potentiometry, voltammetry, amperometry and electrochemi

58 ometric sensing, termed backside calibration potentiometry, was recently introduced.

59 can be favorably compared to that in direct potentiometry where no sample depletion occurs.

60 the same Nernstian responses as typical for potentiometry, which is demonstrated with Cl(-) ISE meas

61 e traditionally interrogated by zero current potentiometry, which, ideally, gives information on the

62 Potentiometry with resonance Raman and FTIR spectroscopy