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1 pplications of OMIEC materials fabricated by electropolymerization.
2 ation cycles during cyclic voltammetry-based electropolymerization.
3 Au-glass slides by oxidative potentiodynamic electropolymerization.
4 d and subjecting it to 13 cycles of dopamine electropolymerization.
5 ubsequently coupled to the sensor surface by electropolymerization.
6 crystal resonator of EQCM by potentiodynamic electropolymerization.
7  been synthesized and used as substrates for electropolymerization.
8 d-casting, and increased reproducibility for electropolymerization.
9 age is predicted to be insufficient to drive electropolymerization.
10 electrochemical activation process of GCE or electropolymerization?
11             For this purpose, we prepared by electropolymerization a conductive polymer poly-(aniline
12 s, and long-range crystallinity, which makes electropolymerization a more attractive route to fabrica
13 he construction of the sensory interface via electropolymerization allows facile tuning of the surfac
14 e influenced by the applied potential during electropolymerization and by film thickness, both of whi
15 he amino acids have not only confirmed their electropolymerization and decomposition at high and low
16 tructure is fabricated by thermal oxidation, electropolymerization and electrodeposition.
17 artz crystal microbalance studies during the electropolymerization and membrane click reaction proced
18 n were substantially low due to selection of electropolymerization approach and the proposal describe
19                               We report here electropolymerization as a strategy for increasing inter
20 ic receptor was deposited by potentiodynamic electropolymerization as a thin film on an Au film elect
21 shown to be mechanistically distinct from CP electropolymerization at a solid electrode|electrolyte i
22 printed polymer (MIP) films are deposited by electropolymerization at relatively low potentials by el
23 osphoryl-n-alkyl)pyrrole film established by electropolymerization at the previously formed polypyrro
24 phenol monolayer-modified Au electrode by co-electropolymerization by repetitive cyclic voltammetry s
25                                          The electropolymerization conditions for obtaining almost id
26  the gold sensing platform where the optimal electropolymerization conditions were determined.
27  parameters, such as monomer/template ratio, electropolymerization cycle and adsorption time, are opt
28 tio of monomer and template ratio, number of electropolymerization cycles, mass deposited in each cyc
29                                    A general electropolymerization/electro-oligomerization strategy i
30                     Nevertheless, typical CP electropolymerization electrochemical behaviors, such as
31 for Lincomycin (LIN) was fabricated using an electropolymerization (EP) approach on a glassy carbon e
32 quartz crystal resonators by potentiodynamic electropolymerization from solution of FU, Ade-BTM, and
33  concentration, scan number and scan rate of electropolymerization) have been optimized.
34 he hybrid epitope imprinting was achieved by electropolymerization in the presence of two computation
35 first time in the assembly of a MIP film, by electropolymerization, in the presence of CEA.
36  Immobilization of DNA probes during pyrrole electropolymerization is a simple and efficient strategy
37 tion of monomer concentration and potential, electropolymerization leads either to solid nanowires or
38 a facile one-step in situ gold reduction and electropolymerization method to distribute high-density
39                                          The electropolymerization method we studied here forms a cas
40 photo-biointerface, through a facile in situ electropolymerization method, coated on nanoporous TiO(2
41 ypyrrole on a platin electrode surface using electropolymerization method.
42 th the working surface modified in course of electropolymerization of 3-aminophenylboronic acid (3-AP
43 icrorocket is prepared by membrane-templated electropolymerization of 3-aminophenylboronic acid monom
44 rtz crystal microbalance (EQCM) electrode by electropolymerization of 3-TAA in presence of mel templa
45             The sensor was developed through electropolymerization of a molecularly imprinted polymer
46 quinone(PQ)-modified electrodes, prepared by electropolymerization of a phenanthrenequinone-pyrrole d
47  acid) (PAA) were formed by Zn(II)-catalyzed electropolymerization of acrylic acid (AA) in the presen
48 Screen-printed electrodes were coated by the electropolymerization of aniline and metanilic acid, com
49 I increases the electrode surface area while electropolymerization of aniline increases the number of
50  immunosensor platform, produced via in situ electropolymerization of aniline onto a screen-printed g
51 ical strategy adopted involves deposition by electropolymerization of biotinylated polythiophene film
52                                              Electropolymerization of bithiophene-substituted cadmium
53 adsorption of Ru complex and enzyme and then electropolymerization of coatings.
54              A new methodology for selective electropolymerization of conducting polymer films using
55            We show, for the first time, that electropolymerization of derivatized phenols can functio
56   Here we evaluate for the first time the co-electropolymerization of dopamine (DA) and L-3,4-dihydro
57 lar imprinting film was prepared through the electropolymerization of dopamine in the presence of L-P
58  produced at the working electrode by direct electropolymerization of eriochrome black T (EBT).
59                           Formed in situ via electropolymerization of functional imidazolium-type ion
60 s, the coatings are attributed to the direct electropolymerization of graphene oxide sheets via oxida
61 he sensing surfaces of SAW chip by oxidative electropolymerization of m-phenylenediamine (mPD) in the
62  with point-of-care devices and exploits the electropolymerization of methylene blue (MB) together wi
63 8-OHdG assembled on a gold electrode through electropolymerization of monomer combined with the templ
64 lectrochemical immunosensor was developed by electropolymerization of N-(3-(4-(2-(4-hydroxyphenyl)pro
65 ination of butylated hydroxyanisole (BHA) by electropolymerization of O-cresolphthalein complexone (O
66 )O(4) on indium tin oxide (ITO), followed by electropolymerization of o-phenylenediamine with deltame
67                                              Electropolymerization of phenol was then employed to for
68 t the integration of a biosensor made by the electropolymerization of poly(toluidine blue O) (PTB) an
69    The device was then elaborated by in situ electropolymerization of PPy films.
70 tive electrochemical sensor was developed by electropolymerization of pyrrole (PY) and molecularly im
71 zation steps for hybridization procedure and electropolymerization of pyrrole as well as detection fr
72 ix on a 245-microm graphite electrode during electropolymerization of pyrrole in the presence of PQQ.
73 n a glassy carbon electrode substrate by the electropolymerization of pyrrole in the presence of PQQ.
74 of glassy carbon electrode (GCE) surface via electropolymerization of some organic monomers, particul
75 des fully made of Parylene-C, followed by an electropolymerization of the active area with the conduc
76 n the surface of electrodes (Au on glass) by electropolymerization of the aniline moiety.
77                                              Electropolymerization of the catalyst Ru(II)(bda)(4-viny
78 pencil graphite electrode (PGE) via one-step electropolymerization of the imprinted polymer composed
79 u-multiwalled carbon nanotubes (MWCNTs); ii) electropolymerization of the mediator, methylene blue (M
80 talytic microtubular engines are prepared by electropolymerization of the outer polymeric layer in th
81 The first involved entrapment of APSA during electropolymerization of the polyaniline.
82                                              Electropolymerization of thionine on a "preanodized" scr
83   MIP films were prepared by potentiodynamic electropolymerization of this complex with the imprintin
84                                    Oxidative electropolymerization of this monomer afforded the desir
85 polymers have been synthesized via oxidative electropolymerization of various bis(bithiophene)-substi
86 reated thin films by cyclic voltammetry (CV) electropolymerizations of the following phenolic functio
87  (MIP) film was deposited by potentiodynamic electropolymerization on a Pt disk electrode as well as
88 TAA) as functional monomer was fabricated by electropolymerization on gold surface.
89             Devices fabricated by polyphenol electropolymerization on one set of electrodes and Pd el
90 present in both compounds, undergo oxidative electropolymerization on platinum electrodes.
91  The films were deposited by potentiodynamic electropolymerization on the 10 MHz quartz resonators of
92 -NT) films were deposited by potentiodynamic electropolymerization on the Au-coated quartz crystal re
93  the o-phenylenediamine network via one-step electropolymerization on the surface of the modified pen
94 reened, synthesized, and then imprinted with electropolymerization onto poly(aniline-co-3-aminobenzen
95 h enzymes immobilized onto Pt UMEs by either electropolymerization or casting) for scanning electroch
96  valuable insights into the critical role of electropolymerization parameters in tailoring film prope
97                                          The electropolymerization parameters were optimized to get s
98 sensor technology through precise control of electropolymerization parameters.
99  distinct potentials for the duration of the electropolymerization process, thereby generating a time
100 peaks previously assigned in many reports to electropolymerization processes at the surface of GCE co
101 pamine electrochemical sensors assuming such electropolymerization processes, the AGCE showed analyti
102  three functional groups: hydroxyl group for electropolymerization, quinone group for its transductio
103                                    Overlayer electropolymerization results in up to 30-fold enhanceme
104        A key role of the electrolyte used in electropolymerization (tetrabuthylammonium perchlorate a
105 elf-assembled monolayer bridges, followed by electropolymerization to create a polymer network.
106 an Au electrode by oxidative potentiodynamic electropolymerization to fabricate an electrochemical ch
107 minobenzenesulfonic acid (MSAN) were used in electropolymerization to form molecularly imprinted poly
108                                   The use of electropolymerization to prepare electrocatalytically an
109 ted with the PQQPFPQQ-templated MIP film, by electropolymerization, to result in a complete chemosens
110 along the fibre axis that is obtained during electropolymerization using nanoscale templates.
111                                  Consecutive electropolymerization using two different monomers furni
112 nd continue to undergo oxidation, leading to electropolymerization, which fouls the electrode.
113         All other films continued to form by electropolymerization with successive CV cycles out to t
114 e sensitive layer, which was assembled by co-electropolymerization with the unsubstituted carbazole o

 
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