ライフサイエンスコーパス: alizarin

1 al chromophore by ET from the electrolyte to alizarin.

2 acilitated by vibrational modes localized on alizarin.

3 Natural dyes-anthocyanins, alizarin (A), and hematoxylin (HEM)- were selected for t

4 For example alizarin, a plant derived anthraquinone and tetracycline

5 Fluorescent bony labels of Alizarin and Calcein green were delivered at weeks 4 and

6 carboxymethyl cellulose (CMC) and combining alizarin and curcumin.

7 s and historical periods, these dyes (mainly alizarin and purpurin) are traditionally analyzed by mea

8 The ET from TiO2 to both alizarin and the electrolyte diminishes the solar cell c

9 cal indicator of the strong coupling between alizarin and TiO2, at SMSERS.

10 photoinduced electron transfer (ET) from the alizarin chromophore into the TiO2 surface is investigat

11 ter, pOBCol3.6GFPcyan, and reduced uptake of Alizarin complexone stain.

12 noparticles acted as aluminum ion source for alizarin complexone-Al(3+)-F(-) complex formation.

13 to investigate the electron dynamics at the alizarin/I2-/TiO2 interface this study uses a novel stat

14 -clearing and calcium minerals staining with alizarin, mineralisation was evaluated using whole body

15 ductor acceptor states, TiO2 sensitized with alizarin presents a novel case in which the molecular ph

16 rapped at the surface to the ground state of alizarin proceeds on a 1 ps time scale and is facilitate

17 Colorants such as alizarin, purpurin, carminic acid, lac dye, crocin, and

18 Alizarin red and Alcian blue whole mount analysis of the

19 formed mineralized nodules, and stained for alizarin red and alkaline phosphatase, while expressing

20 ents were immunohistochemically stained with Alizarin red and human RANKL antibody.

21 smooth muscle cells in culture, as shown by Alizarin red and van Kossa stain and increased alkaline

22 was observed in those specimens stained with Alizarin red and Von Kossa after 21 and 28 days.

23 Alizarin red and von Kossa staining confirmed the dysfun

24 Alizarin red and von Kossa staining demonstrated that 15

25 nfirmed by alkaline phosphatase activity and Alizarin red and Von Kossa staining results.

26 rum: re-calcification can be demonstrated by Alizarin Red and von Kossa stains, by depletion of serum

27 issue deposits, which reacted positively for alizarin red and von Kossa, and demonstrated increased e

28 as well as alamar blue, acridine orange, and alizarin red assays.

29 ent pups double stained with alcian blue and alizarin red exhibited generalized, pronounced skeletal

30 le-mount homozygous lenses were stained with Alizarin red in the cataract region.

31 h before re-calcification can be detected by Alizarin Red or von Kossa staining and before the subseq

32 he interaction of the commercially available alizarin red S (ARS) chemosensor with the nanomaterial,

33 The oxidation of alizarin red s (ARS) in the boron-ARS complex at MNP/CNT

34 Alizarin red s (ARS) is used as a redox indicator.

35 Alizarin red S (ARS) staining has been used for decades

36 cid and the diol-containing, fluorescent dye Alizarin Red S (ARS) was probed.

37 ipogenic differentiation were analyzed using alizarin red S and oil red O staining, respectively.

38 fluid samples were compared by staining with alizarin red S and oxytetracycline.

39 cell line was confirmed histologically using alizarin red S and von Kossa staining as well as Raman m

40 printed carbon electrodes modified with poly Alizarin Red S are employed as electrochemical sensors i

41 on, alkaline phosphatase (ALP) staining, and Alizarin Red S biomineralization assays were performed t

42 le with the diol-containing, fluorescent dye Alizarin Red S is probed.

43 The number of alizarin red S positive colonies produced by the hSG-MSC

44 Results indicate that Alizarin Red S reacts with both the boronic (neutral, tr

45 rphologically, staining with trypan blue and alizarin red S showed an apparently intact endothelial m

46 uration/mineralization), von Kossa stain and alizarin red S stain for mineralization, and enzyme assa

47 nt, real-time polymerase chain reaction, and alizarin red S staining and calcium content analysis wer

48 d fewer false-positive test results than did alizarin red S staining and could provide estimates of t

49 Histochemical analyses using Von Kossa and Alizarin red S staining of kidney sections confirmed the

50 s/immunocytochemistry (for protein), whereas alizarin red S staining revealed CE cell shape.

51 Alizarin red S staining was used to detect calcium-conta

52 osphatase (ALP) activity/staining as well as alizarin red S staining when compared with DPSCs of thei

53 CCK8 assays, flow cytometry, Alizarin red S staining, ALP staining, qRT-PCR, and west

54 s post-fertilization (dpf) using microscopy, Alizarin Red S staining, and microCT was performed.

55 al skeletal patterning, based on Alcian blue/Alizarin red S staining.

56 mation was measured by Alcian blue stain and Alizarin red stain.

57 Alizarin red stained calcified deposits that did not loc

58 t reduced calcium deposition, as assessed by alizarin red staining (VICs: p < 0.0001; AV leaflets: p

59 mineral deposition by VSMCs, as assessed by alizarin red staining and (45)Ca accumulation.

60 Alizarin red staining and immunohistochemistry of GFP an

61 ed enhanced mineralization, as determined by alizarin red staining and mineralized marker expression.

62 MM, as measured by ALP activity at d 14 and Alizarin Red staining at d 21 (by 1.57+/-0.03- and 1.71+

63 Activation of SIRT1 by SRT1720 reduced Alizarin red staining by a third, via inhibition of the

64 Alizarin Red staining clearly showed that the elastin fi

65 Alizarin red staining data confirms the presence of calc

66 Calcification was assessed by alizarin red staining in primary human trabecular meshwo

67 uantitative histopathologic evaluations with Alizarin Red staining independently confirmed the respec

68 Alcian Blue and Alizarin Red staining of the cranium exhibited an unfuse

69 Alizarin red staining showed calcification.

70 Alizarin Red staining showed that osteogenic induction m

71 Alizarin red staining suggests mineralization at the per

72 Alizarin Red staining suggests that manganese bound to p

73 used to interveneosteoblasts (OBs).CCK-8 and Alizarin Red staining were used to investigate the proli

74 ne phosphatase activity) and mineralization (alizarin red staining) compared with cells treated with

75 tizing encephalitis and decreased bone size (Alizarin red staining) were noticed.

76 line phosphatase (ALP) activity measurement, alizarin red staining, and electron-dispersive x-ray spe

77 ed by micro-computed tomography, Alcian blue/Alizarin red staining, and histology.

78 Alizarin red staining, microcomputerized tomography (mic

79 assess, by immunofluorescence microscopy and Alizarin red staining, the potential impact of intraleaf

80 ification was assessed using micro-CT scans, Alizarin Red staining, Von Kossa staining, and calcium a

81 IOL calcification was analyzed by alizarin red staining, von Kossa staining, scanning elec

82 itriol) reduced calcification as measured by Alizarin Red staining.

83 f mineralization by alkaline phosphatase and alizarin red staining.

84 he medium and mineral deposition, assayed by Alizarin red staining.

85 s measured by the cresolphthalein method and alizarin red staining.

86 Calcium deposition was quantified by Alizarin Red Staining.

87 In vitro calcification was determined by Alizarin red staining.

88 y electron microscopy, whereas von Kossa and alizarin red stains showed no evidence of calcification.

89 of vibrissae, as confirmed by von Kossa and alizarin red stains.

90 sirius red to demonstrate collage type 1 and Alizarin red to demonstrate calcium/mineralisation furth

91 ated by alkaline phosphatase (ALP) activity, Alizarin Red, and Von Kossa staining followed by scannin

92 (osteopontin, alkaline phosphatase activity, Alizarin red, and Von Kossa) compared with the control g

93 e chain reaction and histochemical staining (Alizarin Red, Oil Red O, Toluidine Blue).

94 Alizarin red, osteopontin, and osteocalcin protein expre

95 s that stained with the calcium deposit dye, Alizarin red, were abundant in the insoluble fraction fr

96 Alizarin red-/Alcian blue-stained skeletons were prepare

97 er numbers of von Kossa-positive nodules and alizarin red-positive nodules compared with WT cells wit

98 s of panoramic and microscopic images of the alizarin red-stained corneal endothelium.

99 X-ray, microCT, alizarin red/alcian blue and calcein staining revealed s

100 Functional studies using Alizarin-Red staining showed robust mineral deposits wit

101 Mineralization was evaluated by Alizarin-Red-S staining.

102 d for 4 to 7 wks, formed toluidine-blue- and alizarin-red-stainable nodules, indicative of chondrogen

103 4) mineralization evaluated by von Kossa and Alizarin-red.

104 lk using the histochemical Ca(2+) indicator, alizarin S red.

105 the back electron transfer (ET) from TiO2 to alizarin, the ET from the surface to the electrolyte, an

106 The study, performed on the alizarin-TiO 2 interface at a range of temperatures, dem

107 The presence of perturbed alizarin-TiO2 coupling under interfacial electric potent

108 ed the change in the interface properties of alizarin-TiO2 system as a result of the externally appli

109 The molecular architecture seen in the alizarin-TiO2 system permits efficient electron injectio

110 ism, it proceeds mostly adiabatically in the alizarin-TiO2 system.

111 Calcein and alizarin were injected 6 and 3 days, respectively, prior