ライフサイエンスコーパス: biofuel cell

1 ased bioelectrodes within the framework of a biofuel cell.

2 roduction catalyst in a photoelectrochemical biofuel cell.

3 e employed as the bioanode in a pyruvate/air biofuel cell.

4 sed as the cathode in a photoelectrochemical biofuel cell.

5 - and membrane-free enzymatic glucose/oxygen biofuel cell.

6 yme electrodes were integrated to a DET-type biofuel cell.

7 advantages of both the glucose biosensor and biofuel cell.

8 old higher power output than other leukocyte biofuel cells.

9 and power density of pyruvate/air enzymatic biofuel cells.

10 c electrodes for enzyme-based biosensors and biofuel cells.

11 emical applications including biosensors and biofuel cells.

12 ent delivery vehicles, and as biosensors and biofuel cells.

13 se monitoring biosensors and high performing biofuel cells.

14 o aid in the development of energy efficient biofuel cells.

15 ion of biosensors, bioanodes, biocathodes or biofuel cells.

16 ation of a novel bioanode for ethanol-oxygen biofuel cells.

17 enhance the enzyme functions in implantable biofuel cells.

18 yme immobilization enhancement in glucose/O2 biofuel cells.

19 energy conversion capability in ethanol/air biofuel cells.

20 in LbL thin films relevant to biosensors and biofuel cells.

21 igher than for previous carbon nanotube yarn biofuel cells.

22 d electrodes and their use as biosensors and biofuel cells.

23 as a molecular "wire" in oxygen cathodes for biofuel cells.

24 eating efficiently engineered biosensors and biofuel cells.

25 er 24 h), compared with previous unprotected biofuel cells.

26 ling coatings, food packaging materials, and biofuel cells.

27 electrodes for application to biosensors or biofuel cells.

28 production of cost-effective biosensors and biofuel cells.

29 plication to glucose oxidising biosensors or biofuel cells.

30 nic biosensors, thin-film protein arrays, or biofuel cells.

31 ecular bioelectronic devices, biosensors and biofuel cells.

32 ntually new photoelectrocatalytic systems or biofuel cells.

33 ical catalysts with potential application in biofuel cells.

34 Glucose oxidase is of particular interest in biofuel cell and biosensor applications, and the approac

35 unds may range from electrons or hydrogen in biofuel cell and environmental applications to complex d

36 this HTPS/GOx-based electrode in long-lived biofuel cells and amperometric biosensors.

37 catalysis promises to be valuable for future biofuel cells and biosensors.

38 sensor opens new doors for implementation of biofuel cells and capacitor circuits for medical diagnos

39 tems can find applications in biosensors and biofuel cells and for studying electrochemically the cat

40 atalysts of H(2) oxidation and production in biofuel cells and photoelectrochemical cells.

41 riety of applications, including implantable biofuel cells and self-powered sensors.

42 for evaluating and characterizing enzymatic biofuel cells and their corresponding bioanodes and bioc

43 g electrochemical paper-based biosensors and biofuel cells and to identify, at the light of newly acq

44 in the development of biosensors, enzymatic biofuel cells, and other bioelectrocatalytic application

45 as employed to prepare the enzyme anodes for biofuel cells, and the EAPC anode produced 7.5-times hig

46 s a promising enzyme for the construction of biofuel cell anodes and biosensors capable of oxidizing

47 evelopment of glucose biosensors and glucose biofuel cell anodes working at physiological or neutral

48 de dehydrogenase (ADH and AldDH) enzymes for biofuel cell applications.

49 Biofuel cells are bio-electrochemical devices, which are

50 Enzymatic biofuel cells are bioelectronic devices that utilize oxi

51 Glucose biofuel cells are capable to generate sufficient power f

52 Our biscrolled yarn biofuel cells are woven into textiles having the mechani

53 ) at anode and cathode, respectively, in the biofuel cell arrangement.

54 lts toward the development of an implantable biofuel cell as an autonomous energy conversion device f

55 The biofuel cell assembly produced a linear dynamic range of

56 - and membrane-free enzymatic glucose/oxygen biofuel cell based on transparent and nanostructured con

57 ticle (AuNP)-based mediatorless sugar/oxygen biofuel cell (BFC) operating in neutral sugar-containing

58 attractive new candidate for application in biofuel cells (BFCs) and biosensors.

59 ntegration of supercapacitors with enzymatic biofuel cells (BFCs) can be used to prepare hybrid devic

60 Enzymatic biofuel cells (BFCs) may power implanted medical devices

61 These findings show that glucose biofuel cells can be further investigated in the develop

62 hrymal liquid, fully support our belief that biofuel cells can be used as electrical power sources fo

63 Enzymatic biofuel cells can generate electricity directly from the

64 A microscale membrane-less biofuel cell, capable of generating electrical energy fr

65 The specific application of the system is a biofuel cell cathode, but this protein-engineering appro

66 of a compartment-less miniature glucose-O(2) biofuel cell, comprised only of two bioelectrocatalyst-c

67 As a proof of biofuels cell conception, the bioanode was combined with

68 Here we report on the first implanted biofuel cell continuously operating in a snail and produ

69 the first prototype of a future implantable biofuel cell controlled by complex biochemical reactions

70 ort our proposition that an ascorbate/oxygen biofuel cell could be a suitable power source for glucos

71 Enzymatic biofuel cell (EBFC) operates at ambient temperature and

72 Enzymatic biofuel cells (EBFCs) are capable of generating electric

73 Enzymatic biofuel cells (EBFCs) can generate energy from metabolit

74 MCOs have been used to elaborate enzymatic biofuel cells (EBFCs), a subclass of fuel cells in which

75 The enzymatic biofuel cell (EFC) generated an open circuit potential o

76 PD in fabrication of miniature biosensor and biofuel cell electrodes are described and discussed.

77 imals, enzyme-containing battery electrodes, biofuel cell electrodes, and biosensors are often damage

78 nes was quantified at the levels expected in biofuel cell electrodes.

79 When operated in 45 mM glucose, the biofuel cell exhibited an open circuit voltage and power

80 ysiological glucose concentration (5mM), the biofuel cell exhibits open circuit voltage and power den

81 neration by flow through miniature enzymatic biofuel cells fed with an aerated solution of glucose an

82 Fundamental part of each Glucose biofuel cell (GBFC) is two bioelectrodes which their sur

83 rategy to boost the power density of glucose biofuel cells (GBFCs) biocathodes.

84 The biofuel cell generated maximum power output of 130microW

85 -treat" system that is based on an enzymatic biofuel cell has been developed.

86 Implantable biofuel cells have been suggested as sustainable micropo

87 f-powered sensing system, driven by a hybrid biofuel cell (HBFC) with carbon paper discs coated with

88 In this study, a supercapacitor/biofuel cell hybrid device was prepared by the immobilis

89 The specific power densities of the biofuel cell implanted in a female Blaberus discoidalis

90 Alternatively, biofuel cells in which whole cells or isolated redox enz

91 A biofuel cell incorporating a bienzymatic trehalase|gluco

92 he input voltage (as low as 0.25 V) from the biofuel cell is converted to a stepped-up power and char

93 de in a membraneless enzyme-based glucose/O2 biofuel cell is further evaluated.

94 lectron transfer (DET) based sulphite/oxygen biofuel cell is reported that utilises human sulphite ox

95 The present biofuel cell is the first prototype of a future implanta

96 seless and membraneless miniature glucose-O2 biofuel cell, is rapidly damaged by serum urate at its o

97 scussed including electrochemical batteries, biofuel cells, lithium-ion batteries, supercapacitors, a

98 A switchable biofuel cell logically controlled by immune signals was

99 This study focuses on an improved biofuel cell operating on phorbol myristate acetate (PMA

100 ery few examples of abiotic and enzyme-based biofuel cells operating in animals in vivo have been rep

101 Biofuel cell operation in human serum provides high area

102 s the advancements in the field of enzymatic biofuel cells over the last 30 years.

103 Enzyme-based biofuel cells possess several positive attributes for en

104 The contact lens biofuel cell presented here is a step toward achieving s

105 In the optimum conditions the biofuel cell produced the power density of 1.713 mW cm(-

106 he fibers in the grape leads to an operating biofuel cell producing 2.4 micro W at 0.52 V.

107 that our separator-free carbon nanotube yarn biofuel cells provide an open-circuit voltage of 0.70 V,

108 However, enzyme-based biofuel cells remain limited by short lifetimes, low pow

109 Biofuel cell researchers have studied multienzyme system

110 The biofuel cell structure-based glucose sensor synergizes t

111 or glucose oxidation is of great interest in biofuel cell technology because the enzyme are unaffecte

112 Recent advances in biofuel cell technology have addressed these deficiencie

113 Contact lens biofuel cell testing was performed in a synthetic tear s

114 to a biocathode to form an ascorbic acid/O2 biofuel cell that functions as a self-powered biosensor.

115 Biofuel cells that generate electricity from glucose in

116 physiological pH 7.3 electrolyte battery or biofuel cell, the O2 cathode should operate at, or posit

117 the feasibility of POx-based biosensors and biofuel cells, the enzyme electrodes were prepared using

118 es were observed in the photoelectrochemical biofuel cell using either hydrogenase or platinum cathod

119 We show the performance of a biofuel cell using these modified bacteria at the anode,

120 The maximum power densities of biofuel cells using CA, EC and EPC electrodes without BQ

121 Biofuel cells utilize vegetable and animal fluids (e.g.

122 The biofuel cell was also switched OFF by another biochemica

123 A contact lens biofuel cell was fabricated using buckypaper electrodes

124 The cathode used in the biofuel cell was modified with a polymer-brush functiona

125 ted for the oxygen reduction, and the entire biofuel cell was switched ON.

126 me in electrochemical glucose biosensors and biofuel cells, was measured between pH 4.5 and 8.5 using

127 ently used in a conventional two-compartment biofuel cell where the power density output was recorded

128 Enzymatic biofuel cells, which replace expensive metal catalysts w

129 The snail with the implanted biofuel cell will be able to operate in a natural enviro

130 nd electrode configuration in biosensors and biofuel cells will be discussed.

131 ity obtained from the continuously operating biofuel cell with a maximum power output of 0.086microW/

132 An enzyme-based biofuel cell with a pH-switchable oxygen electrode, cont

133 l for maximum power output of a hypothetical biofuel cell with a planar cathode and a reversible hydr

134 -2) , a new efficiency record for a hydrogen biofuel cell with base metal catalysts.

135 We propose the use of this bioanode in biofuel cells with increased current density and coulomb

136 eview highlights the progress on implantable biofuel cell, with focus on the nano-carbon functionaliz