ライフサイエンスコーパス: ion-selective electrode

1 eaction with the active-site serine using an ion selective electrode.

2 interference, which was overcome by specific ion selective electrode.

3 lymeric mixed-matrix membrane and used as an ion-selective electrode.

4 embrane, which was then used to fabricate an ion-selective electrode.

5 epithelial cell monolayer monitored with an ion-selective electrode.

6 s turnover by P4H, is detected by a fluoride ion-selective electrode.

7 and Ca2+ flux adjacent to the membrane with ion-selective electrodes.

8 candidate for the fabrication of implantable ion-selective electrodes.

9 poly(vinyl chloride) and decyl methacrylate ion-selective electrodes.

10 re synthesized as ion-selective reagents for ion-selective electrodes.

11 ogy has a profound effect on the behavior of ion-selective electrodes.

12 ctive for mass production of all-solid state ion-selective electrodes.

13 , there is still a lack in the production of ion-selective electrodes.

14 urposely different from common practice with ion-selective electrodes.

15 tammetry, and free Cu(2+) was measured using ion-selective electrodes.

16 termine unbiased selectivity coefficients of ion-selective electrodes.

17 so far not found their way into the field of ion-selective electrodes.

18 which are then used as a substrate to build ion-selective electrodes.

19 bon nanotubes to yield transducer layers for ion-selective electrodes.

20 ed as a material for clinical containers and ion-selective electrodes.

21 t obtained for the more conventional type of ion-selective-electrodes.

22 In a first example, a potassium ion-selective electrode acts as the reference electrode

23 emical microscope with an amperometric Ag(+) ion-selective electrode (Ag(+)-ISE) and the respiration

24 assay uses a low-volume solid-contact silver ion-selective electrode (Ag(+)-ISE) to monitor the deple

25 d at the lower/sensitive end of the ammonium ion selective electrode (AISE) with O-ring and then elec

26 red by CLE-SPE with those measured by copper-ion-selective electrode and voltammetry demonstrates tha

27 that bridge the detection windows of copper-ion-selective electrode and voltammetry measurements.

28 me and memory effects of low-detection-limit ion-selective electrodes and for other membrane electrod

29 agreement with titration data obtained using ion-selective electrodes and mobility data obtained usin

30 The traditional cation exchangers used in ion-selective electrodes and optodes are tetraphenylbora

31 of the ion activity, in complete analogy to ion-selective electrodes, and multiple such waves are ob

32 Polymeric membrane ion-selective electrodes are normally interrogated by ze

33 Solid-state ion-selective electrodes are used as scanning electroche

34 tramethyl ammonium (TMA), each with specific ion-selective electrodes, as well as by measurement of e

35 o polyvinyl chloride membranes and tested as ion selective electrodes at pH 6.6, whereas near-equal s

36 d as active components of nucleotide-sensing ion-selective electrodes at pH 6.6.

37 nophores in the development of solid-contact ion-selective electrodes based on conducting polymer pol

38 e instrumental control of polymeric membrane ion-selective electrodes based on electrochemically indu

39 with the upper detection limit observed for ion-selective electrodes based on the ionophores valinom

40 ith membranes incorporated into conventional ion-selective electrode bodies or cast onto microfabrica

41 e development of highly sensitive and robust ion selective electrodes capable of in situ measurements

42 al and imaging techniques, such as vibrating ion-selective electrodes, carbon fiber amperometry, and

43 ansistor (ISFET) pH electrodes, and Chloride-Ion Selective Electrodes (Cl-ISE) directly exposed to th

44 onal poly(vinyl chloride) and poly(urethane) ion-selective electrode coatings.

45 Polymer membrane ion-selective electrodes containing lipophilic ionophore

46 valently attaching heparin on the surface of ion-selective electrodes, electrodes with improved blood

47 polymers or plasticizers are implemented for ion-selective electrode fabrication.

48 l characterization and validation of a novel ion-selective electrode for the highly sensitive and sel

49 ently been introduced to replace traditional ion-selective electrodes for a number of applications.

50 development of miniaturized all-solid-state ion-selective electrodes for in situ measurements.

51 e) (PVC) with plasticizers have been used in ion-selective electrodes for many years.

52 While ion-selective electrodes for the polycation protamine ha

53 ective optodes (ISOs), the optical analog of ion-selective electrodes, have played an increasingly im

54 Ion-selective electrodes ideally operate on the basis of

55 ditioning refers to the equilibration of the ion-selective electrode in an aqueous solution before th

56 ium (NH4+), measured as NH4-N loads using an ion-selective electrode installed at the inlet of a sewa

57 new family of passive/active all-solid-state ion selective electrodes interrogated by a current pulse

58 , the surface of calcium-selective polymeric ion-selective electrodes is coated with polyelectrolyte

59 novel solid contact type for all-solid-state ion-selective electrodes is introduced, yielding high st

60 The membrane potential of ion-selective electrodes is measured at zero current in

61 mic model of the phase boundary potential of ion-selective electrodes is presented.

62 The ion selective electrode (ISE) membranes with tren-based

63 Sophisticated laboratory grade tools such as ion selective electrodes (ISE) and portable spectrophoto

64 creen-printing can be used for solid contact ion selective electrodes (ISE) realization; these, howev

65 It is well known that the selectivity of an ion-selective electrode (ISE) depends on the stoichiomet

66 dent potential response of a polymeric-based ion-selective electrode (ISE) is presented.

67 hibit excellent selectivity for silver ions, ion-selective electrode (ISE) membranes were optimized a

68 A new and convenient ion-selective electrode (ISE) method was used to assay N

69 y(3-octylthiophene) (POT) solid-contact (SC) ion-selective electrode (ISE) polymeric membrane has bee

70 A recent new direction in ion-selective electrode (ISE) research utilizes a stir e

71 ibited, thereby reducing the response of the ion-selective electrode (ISE).

72 d gives new insights into the functioning of ion-selective electrodes (ISE's).

73 A new kind of potentiometric chip sensor for ion-selective electrodes (ISE) based on a solvent polyme

74 We used ion selective electrodes (ISEs) to directly characterize

75 of carbonate detection using ultrasensitive ion selective electrodes (ISEs).

76 The PEDOT-C14-based solid contact (SC) ion-selective electrodes (ISEs) (H(+), K(+), and Na(+))

77 Measurements with ion-selective electrodes (ISEs) are performed relative t

78 Selectivities of solvent polymeric membrane ion-selective electrodes (ISEs) are quantitatively relat

79 Paper-based ion-selective electrodes (ISEs) are simple, flexible, an

80 Ion-selective electrodes (ISEs) are widely used tools fo

81 optimization of the lower detection limit of ion-selective electrodes (ISEs) can be assessed with an

82 Ion-selective electrodes (ISEs) containing neutral ionop

83 ) system based on an array of potentiometric ion-selective electrodes (ISEs) for the discrimination o

84 Papers published on ion-selective electrodes (ISEs) generally report on the

85 The applications of ion-selective electrodes (ISEs) have been broadened thro

86 The selectivity coefficients, KIJpot, of ion-selective electrodes (ISEs) have been fundamentally

87 rent ion fluxes through polymer membranes of ion-selective electrodes (ISEs) may lead to biased endpo

88 Preparation of ion-selective electrodes (ISEs) often requires long and

89 ducting polymer-based solid contact (SC) for ion-selective electrodes (ISEs) that could become the ul

90 Solid contact ion-selective electrodes (ISEs) typically have an interm

91 ) carbon solid contacts on the properties of ion-selective electrodes (ISEs) were examined.

92 y(vinyl chloride)-based membranes to develop ion-selective electrodes (ISEs) with enhanced blood comp

93 Ion-selective electrodes (ISEs) with fluorous anion-exch

94 hilic salen derivatives were used to prepare ion-selective electrodes (ISEs) with ionophore-doped flu

95 for the development of a range of polymeric ion-selective electrodes (ISEs) with low detection limit

96 ulsed galvanostatic technique to interrogate ion-selective electrodes (ISEs) with no intrinsic ion-ex

97 ic membranes have been the main reason early ion-selective electrodes (ISEs) without added ion exchan

98 -based (PEDOT(PSS)-based) solid contact (SC) ion-selective electrodes (ISEs), the surfaces of Pt, Au,

99 tool to follow the kinetics of biofouling of ion-selective electrodes (ISEs).

100 ate and clean a multi-probe of solid-contact ion-selective electrodes (ISEs).

101 embrane matrixes were used to prepare silver ion-selective electrodes (ISEs).

102 increases the selectivity and robustness of ion-selective electrodes (ISEs).

103 Ion-selective electrodes measured plasma ionized magnesi

104 Ultrasensitive ion-selective electrode measurements based on stripping

105 This was confirmed in ion-selective electrode membranes containing no calcium

106 per detection limit of polar ionophore-based ion-selective electrode membranes is predicted by utiliz

107 amples using a classical LaF3-based fluoride ion-selective electrode method.

108 analyzers measure electrolytes via different ion-selective electrode methodology, that is, direct and

109 se slopes in complete analogy to established ion-selective electrode methodology.

110 adjustment equation to correct between both ion-selective electrode methods.

111 We used ion-selective electrodes, nuclear magnetic resonance spe

112 experimental results and contrasts to common ion-selective electrode practice, where a salt of the an

113 The resulting ion-selective electrodes presented near-Nernstian respon

114 Ion-selective electrode recordings showed that each even

115 an effect that has become very important in ion-selective electrode research in recent years.

116 de methodology, that is, direct and indirect ion-selective electrodes, respectively.

117 A new type of solid-contact ion-selective electrode (SC-ISE) has been developed that

118 (E degrees ) of potentiometric solid-contact ion-selective electrodes (SC-ISE) is described.

119 signal transduction concerning solid-contact ion-selective electrodes (SC-ISE) with a conducting poly

120 mmonly used in solid-contact and coated-wire ion-selective electrodes (SC-ISEs and CWEs) was quantifi

121 s in lakes with potentiometric solid-contact ion-selective electrodes (SC-ISEs) and a data processing

122 Solid contact polymeric ion-selective electrodes (SC-ISEs) have been fabricated

123 ibility of the emf response of solid contact ion-selective electrodes (SC-ISEs) requires a precise co

124 esented as a novel approach to solid-contact ion-selective electrodes (SC-ISEs).

125 ucting substrates to construct solid-contact ion-selective electrodes (SCISEs).

126 The ionophore was incorporated into a planar ion-selective electrode sensor format and the selectivit

127 Vesicle anion transport assays using ion-selective electrodes show that this class of compoun

128 The resulting ion-selective electrodes showed Nernstian response slope

129 A new type of potentiometric solid-state ion-selective electrode (SS-ISE) has been fabricated wit

130 ured in extracts from brain regions by using ion selective electrode technique.

131 An ion-selective electrode technique was used to measure fl

132 opment of a chronopotentiometric readout for ion-selective electrodes that allows one to record trans

133 In contrast to ion-selective electrodes, the pulstrodes do not require

134 all the current challenges in inkjet-printed ion-selective electrodes, this different fabrication app

135 A novel, solid-supported voltammetric ion-selective electrode to detect anticoagulant/antithro

136 d the novel approach based on a voltammetric ion-selective electrode to enable the electrochemical de

137 chelates shift the potential of the fluoride ion-selective electrode to more positive stable potentia

138 s with low detection limits and voltammetric ion-selective electrodes, to increase operational lifeti

139 ility of potential readings of the resulting ion-selective electrodes together with good reproducibil

140 lts were compared with classical solid-state ion selective electrodes using carbon nanotubes as trans

141 first time, a single-piece, all-solid-state ion-selective electrode was fabricated with carbon black

142 The fabricated ion-selective electrodes were used to determine Pb(2+) c

143 potassium, calcium, hydrogen, and carbonate ion-selective electrodes, which all exhibit the high sel

144 f solid-contact galvanostatically controlled ion-selective electrodes with a conducting polymer as a

145 ionophore used in PVC or decyl methacrylate ion-selective electrodes, with minor adjustments to acco

146 to perform rapid localized pH titrations at ion-selective electrodes without the need for volumetric