ライフサイエンスコーパス: colloidal gold

1 ly an order of magnitude more sensitive than colloidal gold.

2 of a fluorescein derivative dye attached to colloidal gold.

3 r outer-envelope proteins and with protein A-colloidal gold.

4 ochrome c' attached to the optical fiber via colloidal gold, along with fluorescent microspheres as i

5 Comparison of colloidal gold and antibody binding sites in untensioned

6 D31 m4 (ReLPS) and RsDPLA with 5- and 30-nm colloidal gold and compared their binding to the RAW 264

7 nd offer several advantages over traditional colloidal gold and planar SERS substrates, such as the a

8 s microscopically by the use of encapsulated colloidal gold and silver enhancement.

9 The glycocalyx did not bind protein A-colloidal gold and therefore did not contain aggregates

10 ity was 10-fold higher than the conventional colloidal gold based strip biosensor.

11 developed a simplified, visually detectable, colloidal gold-based serological assay to qualitatively

12 Colloidal gold binds microfibrils in the absence of anti

13 were assessed by horseradish peroxidase and colloidal gold-BSA uptake and computer-assisted morphome

14 highly specific chemical enhancement of the colloidal gold by reductive deposition of metallic silve

15 e numbers by means of ratio counting using a colloidal gold calibrant.

16 bination staining of amido black followed by colloidal gold, can extend the detection limit to 2.5 ng

17 A range of different labels (colloidal gold, carbon black and magnetic nanoparticles)

18 n this review, we discuss how colored (e.g., colloidal gold, carbon, and colloidal selenium NPs), lum

19 Anti-LMG-colloidal gold conjugate was immobilized onto the conjug

20 An indirect colloidal gold-conjugated antibody technique was employe

21 cholerae O139, the antigen was bound to the colloidal gold-conjugated MAb to form an antibody-antige

22 Colloidal gold conjugates of AGE-BSA bound to caveolae a

23 mRNA significantly decreased endocytosis of colloidal gold-coupled albumin, supporting the hypothesi

24 The colloidal gold distribution and percent co-labeling as o

25 CTB coupled to 14 nm colloidal gold (final diameter, 28.8 nm) failed to adher

26 The analysis of colloidal gold formation and of one-dimensional aggregat

27 These properties of saa are reminiscent of colloidal gold formation from gold ions and one-dimensio

28 ed BSA (AGE-BSA) or native BSA conjugated to colloidal gold (gAGE, gBSA) for various time periods, fi

29 Colloidal gold has been safely used to treat rheumatoid

30 ter-sized particles such as quantum dots and colloidal gold have functional and structural properties

31 Colloidal gold immunocytochemistry was used to quantify

32 Moreover, using high-resolution, colloidal-gold immunocytochemistry, osteopontin was foun

33 By using colloidal gold immunoelectron microscopy, we found that

34 e bound form of TNF-alpha as demonstrated by colloidal gold immunostaining of TNF-alpha and confirmed

35 trastructural studies with RanGDP-conjugated colloidal gold in digitonin-permeabilized cells showed a

36 With postembedding colloidal gold, intense VGLUT1 immunoreactivity was foun

37 Colloidal gold is developed as a molecular capture reage

38 Colloidal gold is extensively used for molecular sensing

39 ating gold or silver, respectively, onto the colloidal gold label.

40 Colloidal gold labeled with anti-S. Typhimurium antibody

41 Studies using colloidal gold-labeled liposomes showed the accumulation

42 yclonal antibody as the capture antibody and colloidal gold-labeled monoclonal antibodies specific fo

43 Colloidal gold labeling was also performed using an anti

44 ventional lateral flow immunoassays based on colloidal gold labeling.

45 type I collagen using colony dispersion and colloidal gold migration assays.

46 Colloidal gold nano-particles (GNP) were prepared and us

47 membranes and is able to self-assemble into colloidal gold nanoclusters or membranes in a controlled

48 Colloidal gold nanocrystals (AuNCs) with broad size tuna

49 ) nanoparticles have been developed by using colloidal gold nanocrystals and a class of thiolated blo

50 organic chromophores (reporter molecules) to colloidal gold nanocrystals for surface-enhanced Raman s

51 Colloidal gold nanocrystals have been used to develop a

52 The beacons are based on colloidal gold nanocrystals in two sizes (40 and 60 nm)

53 but much higher than with scFv conjugated to colloidal gold, Nanogold, or horseradish peroxidase.

54 Two sets of SERS nanotags were prepared with colloidal gold nanoparticle (Au-NPs size: 40 nm) by inco

55 Unlike the conventional colloidal gold nanoparticle based strip biosensors, the

56 Charged colloidal gold nanoparticles (AuNPs) can be assembled an

57 the efficiency for visualizing capillaries, colloidal gold nanoparticles (AuNPs) have been applied a

58 Colloidal gold nanoparticles (AuNPs) have myriad scienti

59 Colloidal gold nanoparticles (GNPs) serve as promising c

60 Herein, we report novel colloidal gold nanoparticles - graphene nanoplatelets -

61 he in vitro invasive activity of Mce1A using colloidal gold nanoparticles and fluorescent latex micro

62 n reported using various types of labels but colloidal gold nanoparticles are still the preferred cho

63 This paper studies the UV-vis absorbance of colloidal gold nanoparticles at 400 nm and validates it

64 Alternatively, a solution of colloidal gold nanoparticles can be pumped through the t

65 Here we describe a method for assembling colloidal gold nanoparticles rationally and reversibly i

66 retained after adsorption at the surface of colloidal gold nanoparticles, broadening the options for

67 that detects Mtb DNA electrochemically using colloidal gold nanoparticles.

68 probe of hybridization on DNA-functionalized colloidal gold nanoparticles.

69 The method is based on the combination of colloidal gold nanoplasmonics and surface plasmon resona

70 arations, which exploits the synergy between colloidal gold nanoplasmonics, nanoparticle-protein coro

71 f centrifugation for efficient separation of colloidal gold nanorods from a mixture of nanorods and n

72 bromide (MTAB) self-assembled monolayers on colloidal gold nanospheres (AuNSs) with diameters from 1

73 that utilized protein-induced aggregation of colloidal gold nanostars (AuNS) to rapidly detect EV71 w

74 ce spectrum of a self-assembled monolayer of colloidal gold on glass, as a function of biomolecular b

75 t over conventional reporter systems such as colloidal gold or colored latex beads.

76 ivated) horseradish peroxidase conjugated to colloidal gold, or cholera toxin subunit b, revealed tha

77 ivated) horseradish peroxidase conjugated to colloidal gold, or pseudorabies virus (PRV), into the nu

78 We used colloidal gold-palladium nanoparticles, rather than the

79 ysis of the data suggests that the number of colloidal gold particles (P<0.001) and nanogold particle

80 Antibodies attached to colloidal gold particles and then collected by filtratio

81 trast enhancement is demonstrated first with colloidal gold particles and then in representative cryo

82 synthetic Inv3 peptide stimulated uptake of colloidal gold particles as well as latex microspheres b

83 ver, quantitative analysis of the density of colloidal gold particles associated with mitochondria ve

84 lso approximately 2.5 times (P<0.05) as many colloidal gold particles associated with the microvilli

85 microtubule (MT) translocation assays, using colloidal gold particles coupled to monoclonal tubulin a

86 network capable of detecting and annotating colloidal gold particles in biological EM images obtaine

87 and does not require prior encapsulation of colloidal gold particles in silica gel, as proposed by p

88 Mce1A-coated colloidal gold particles induced plasma membrane invagin

89 rium Geobacter sulfurreducens facilitated by colloidal gold particles precipitated within the cell.

90 ed decrease in secondary antibody-conjugated colloidal gold particles that are predominantly associat

91 The lectin concanavalin A conjugated to colloidal gold particles was used to label the alpha-man

92 Colloidal gold particles were also found to be capable o

93 aining HGE bacteria incorporated endocytosed colloidal gold particles, suggesting that they are part

94 he linear aggregation and fiber formation of colloidal gold particles.

95 ues was used to covalently link NM fibers to colloidal gold particles.

96 owed by secondary antibodies conjugated with colloidal gold particles.

97 with anti-FSH-receptor antibodies coupled to colloidal gold, showed that the FSH receptor is exposed

98 es on the array, followed by incubation in a colloidal gold solution.

99 method to determine Au(0) concentrations in colloidal gold solutions.

100 inding to the AuNPs was first carried out in colloidal gold solutions.

101 stain visualizes proteins more rapidly than colloidal gold stain and the linear dynamic range is mor

102 Unlike colloidal gold stain, SYPRO Ruby protein blot stain is f

103 e, and india ink staining and nearly matches colloidal gold staining.

104 The nitrocellulose is incubated in colloidal gold suspension with gentle agitation (2-16 h)

105 flocculants and cooling, the aggregation of colloidal gold suspensions.

106 n electrochemical stripping detection of the colloidal gold tag, is described.

107 he mAbs and bound antibody detected with the colloidal gold technique.

108 ctron microscopy with horseradish peroxidase colloidal gold to label lysosomes.

109 tative protein assay based on the binding of colloidal gold to proteins adhered to nitrocellulose pap

110 A colloidal gold tracer was thus injected into the major a

111 The change in optical properties of colloidal gold upon aggregation has been used to develop

112 In the stroma, colloidal gold was distributed along the collagen fibril

113 onoclonal antibody (MAO B-1C2) conjugated to colloidal gold was used as a probe.

114 rotein (Ac-LDL), differentially labeled with colloidal gold, were added in pairs to cells at 4 degree

115 t-germ agglutinin apo-horseradish peroxidase colloidal gold) with labeling of the Ca(2+) binding prot