ライフサイエンスコーパス: polyaniline

1 ive deposition of an electrochromic polymer (polyaniline).

2 of APSA during electropolymerization of the polyaniline.

3 polymerization of aniline to form conductive polyaniline.

4 een pre-modified with the conductive polymer polyaniline.

5 H 5, corresponding to the conductive form of polyaniline.

6 oligoaniline shell on gold nanoparticles to polyaniline.

7 n/off fluorescence switching, reminiscent of polyaniline.

8 d chemical properties typical of para-linked polyanilines.

9 s of emeraldine base polyaniline (PANI) and (polyaniline)(0.5)V(2)O(5) x 1.0 H(2)O have been determin

10 ne-step process involving the pyrolysis of a polyaniline aerogel synthesized in the presence of phyti

11 ges in Raman spectra of boronate-substituted polyaniline after addition of glucose are similar to tho

12 lized conducting copolymer matrix comprising polyaniline and 2-aminobenzylamine.

13 Nanofibers of polyaniline and oligoanilines of controlled molecular we

14 onsive nanocapsules consisting of conductive polyaniline and polypyrrole shells were successfully syn

15 detection of various small soluble n-mers of polyaniline and silver ion solvent clusters formed from

16 ed from laser ablation of electropolymerized polyaniline and silver thin films, respectively.

17 . nafion, polyphenylenediamine, polypyrrole, polyaniline, and polynaphthol using a novel silica-based

18 rein the redox energies of Al and conducting polyaniline are exploited to design a battery type senso

19 The second utilized a polyaniline array as a substrate to immobilize a biotiny

20 dispersed active sites are prepared by using polyaniline as a graphene precursor and introducing phen

21 en proposed for the excellent sensitivity of polyaniline as a pH sensor for detection of H(+) ions re

22 The approach uses polyaniline as a precursor to a carbon-nitrogen template

23 ple electrostatic binding of the antibody to polyaniline as well as a more complex procedure using a

24 nt of nucleation using a conjugated polymer, polyaniline, as an example.

25 oligomers were produced, and the self-doped polyaniline backbone had a longer conjugation length and

26 he switching of amine functionalities in the polyaniline backbone, converting them to imine forms.

27 Conducting polyaniline-based chemiresistors on printed polymeric mi

28 In this trial, the ability of polyaniline-based materials (PANI-EB and PANI-ES) was te

29 performance when compared with conventional polyaniline-based sensors, and this was attributed to th

30 The polyaniline capsules exhibited delayed release under oxi

31 ic carbon for iodine loading by pyrolysis of polyaniline coated cellulose wiper.

32 tained by thermal activation of a mixture of polyaniline-coated graphene oxide and ammonium hexafluor

33 Stable suspensions of polyaniline colloids (approximately 115 nm in diameter)

34 was demonstrated that the positively charged polyaniline colloids can be electrophoretically deposite

35 yl acetate) itaconic acid (PANI(PVIA)) doped polyaniline conducting nanobeads (SiO2(LuPc2)PANI(PVIA)-

36 ormed to characterize the interconversion of polyaniline content (from amine to imine) in manno-PANI

37 Compared with its sulfur-polyaniline core-shell counterparts, the yolk-shell nano

38 Being a polyaniline derivative, PAPBA showed an ion-dependent re

39 were first coated with emulsion-polymerized polyaniline/dinonylnaphthalenesulfonic acid (PANI/DNNSA)

40 A caused by shielding of charges on DNA when polyaniline/DNA complexes formed in solution.

41 vals that of pressed pellets of conventional polyaniline doped with acid.

42 was prepared from vitamin B12 (VB12) and the polyaniline-Fe (PANI-Fe) complex, respectively.

43 A novel chiral selective imprinted polyaniline-ferrocene-sulfonic acid film has been electr

44 voltammogram obtained from the experiment on polyaniline film using Fe(2+)/Fe(3+) in HCl as the redox

45 odegrading E. coli cells were immobilized on polyaniline film.

46 cal conductivities in excess of 50 S/cm when polyaniline films are exposed to dichloroacetic acid.

47 xploration of the viscoelastic properties of polyaniline films exposed to aqueous perchloric acid has

48 oating small polymer objects with conductive polyaniline films preventing accumulation of static elec

49 15 nm in diameter) were formed by dispersing polyaniline/formic acid solution into acetonitrile.

50 C3 N) can be attributed to their inherent 2D polyaniline frameworks, which provide large net positive

51 resent a method for controlled deposition of polyaniline from colloidal suspensions.

52 posited on top of an electrosprayed graphene/polyaniline (G/PANI) modified screen printed carbon elec

53 Polyaniline in the emeraldine base form functions as a v

54 allenges in developing better products using polyaniline in this new morphology.

55 echanical treatment transforms nonconductive polyaniline into its conductive form.

56 Polyaniline is a conducting polymer with incredible prom

57 ant E. coli cells in the microenvironment of polyaniline led to a change in its conductivity, which w

58 e characteristics based on manganese dioxide/polyaniline (MNW/PANI) coaxial nanowire networks.

59 The polyaniline-modified nanochannels showed three different

60 The biosensing layer was placed onto a polyaniline-Nafion composite platinum electrode and cove

61 use of a novel ammonium ion-specific copper-polyaniline nano-composite as transducer for hydrolase-b

62 ess was 4,500 times faster when a self-doped polyaniline nanocomposite was fabricated using in situ p

63 Highly dispersible polyaniline nanofibers can now be reproducibly prepared

64 Uniform polyaniline nanofibers readily form using interfacial po

65 iew explores some intriguing applications of polyaniline nanofibers, as well as the advantages and re

66 Polyaniline nanofibers, on the other hand, have demonstr

67 Under flash irradiation, polyaniline nanofibres 'melt' to form a smooth and conti

68 e tumor-targeting rapamycin/DiR loaded lipid-polyaniline nanoparticle (RDLPNP) for dual-modal imaging

69 Correlating the shape and aggregation of polyaniline nanoparticles with the mode of nucleation, a

70 kjet printed ammonia sensor fabricated using polyaniline nanoparticles.

71 ulcanization process by heating a mixture of polyaniline nanotube and sulfur at 280 degrees C.

72 A novel vulcanized polyaniline nanotube/sulfur composite was prepared succe

73 cluding a continuous electrically conductive polyaniline network, binding with the Si surface through

74 n ether (G-quadruplexes), chemical (pH-doped polyaniline), or biocatalytic (glucose oxidase/urease) t

75 idized microRNA (miRNA)-guided deposition of polyaniline (PAn), a highly sensitive impedimetric miRNA

76 ce of the Al(2)O(3) NPs is modified by ionic polyaniline (PANDB) rather than the conventional silane

77 Pulsed electrodeposition of polyaniline (PANI) allows the fabrication of flexible, e

78 ee-dimensional structures of emeraldine base polyaniline (PANI) and (polyaniline)(0.5)V(2)O(5) x 1.0

79 horetically deposited nanocomposite films of polyaniline (PANI) and core-shell Ag@AgO nanoparticles (

80 ChE) biosensor was successfully developed on polyaniline (PANI) and multi-walled carbon nanotubes (MW

81 Nanostructures of polyaniline (PAni) and polypyrrole (PPy) with controlled

82 omposite of camphorsulfonic acid (CSA)-doped polyaniline (PANI) and the room-temperature ionic liquid

83 situ polymerized mesoporous silica-supported polyaniline (PANI) by carbonization of the latter, follo

84 Overall, polyaniline (PAni) doped in acidic media has shown metal

85 of the microtiter reader plates well with a polyaniline (PANI) film sensitive for ascorbic acid is p

86 graphene (G), polyvinylpyrrolidone (PVP) and polyaniline (PANI) has been successfully prepared and us

87 Graphene-polyaniline (PANI) hybrids are attractive candidates for

88 ding an alpha-amylase specific antibody to a polyaniline (PANI) layer and controlling device assembly

89 composed of mesoporous silica (SBA-15) with polyaniline (PANI) nanostructures within its channel por

90 rbon nanotube (S/SWNT) composite coated with polyaniline (PANI) polymer as polysulfide block to achie

91 he AuNPs-AOx conjugate was encapsulated with polyaniline (PANI) synthesized by oxidative polymerizati

92 Polyaniline (PANI) was deposited electrochemically from

93 In this system, polyaniline (PANI) with pi-pi electronic conjugated syst

94 Composed exclusively of organic components, polyaniline (PANi), graphene, and double-walled nanotube

95 Conducting polymers, especially polyaniline (PAni), have been extensively used in biosen

96 measurements are done by potentiometry using polyaniline (PAni)-based working electrodes and silver/s

97 xidase (HRP)-immobilized conducting polymer, polyaniline (PANI).

98 and rapid bacteria counting method based on polyaniline (PANI)/bacteria thin film was proposed.

99 Tubular polyaniline (PANI)/Zn microrockets are described that di

100 growth of a shell of NLO materials (such as polyaniline, PANI) with variable thickness.

101 y using an electrochemical growth of bilayer polyaniline/platinum microtubes within the conically sha

102 es of electronic conducting polymers such as polyaniline, polypyrrole, and poly(3,4-ethylenedioxythio

103 from three types of pi-conjugated polymers: polyaniline, polypyrrole, and polythiophene.

104 ers of conducting polymer nanofibers such as polyaniline, polythiophene, and poly(3-hexylthiophene) c

105 Polyaniline possesses a well-defined local atomic arrang

106 ese pores to form a microarray of conductive polyaniline protrusions.

107 to a battery type discharge reaction wherein polyaniline redox energy changes from the conducting to

108 Homogeneous nucleation of polyaniline results in nanofibers, while heterogeneous n

109 s been found that a Pt electrode coated with polyaniline satisfies all the above requirements.

110 mechanism of the resistance decrease is the polyaniline self-doping, i.e., as an alternative to prot

111 ymerization technique was adapted to produce polyaniline sensing layers doped with poly(4-styrenesulf

112 increase in porosity, for example, when the polyaniline shell is swollen using small amounts of DMF

113 introduced (gold triangular nanoprism core)/(polyaniline shell) nanoparticles (GTNPs@PANI) as an OCT

114 he gaps are bridged with conducting polymer (polyaniline) so that one can measure the conductance of

115 des featuring 4-nm underlayers of sulfonated polyaniline (SPAN) covered with a film containing myoglo

116 mposite through a heating vulcanization of a polyaniline-sulfur core-shell structure.

117 Here, we report the synthesis of a polyaniline-sulfur yolk-shell nanocomposite through a he

118 A Polyaniline-Supercapacitor with quinone electrolytes rem

119 s resulting in decreased conductivity of the polyaniline thin film.

120 llustrated by electrophoretically patterning polyaniline thin films onto selected individual micromet

121 xide first oxidizes HRP, which then oxidizes polyaniline, thus resulting in decreased conductivity of

122 ility by preventing the conversion of porous polyaniline to a highly reactive state.

123 for covalent immobilization of human IgG on polyaniline using glutaraldehyde as the cross-linker is

124 of MIP was photochemically grafted over the polyaniline, via N,N'-diethyldithiocarbamic acid benzyl

125 uced grapheme oxide (rGO), vinyl substituted polyaniline (VS-PANI) and lutetium Phthalocyanine (LuPc2

126 a unique tetragonal star-like morphology of polyaniline was applied as a efficient solid phase for s

127 Polyaniline was electrodeposited onto the sensors and th

128 Polyaniline was electrodeposited onto the sensors and th

129 Polyaniline was electrodeposited onto the sensors, and t

130 Polyaniline was electropolymerized within these pores to