ライフサイエンスコーパス: spectrophotometer

1 windows from 350 to 190 nm using a dual-beam spectrophotometer.

2 ic reduction of NAD that is measured using a spectrophotometer.

3 lts were compared with data obtained using a spectrophotometer.

4 rger and technically more complex laboratory spectrophotometer.

5 was performed with a fiber optic reflectance spectrophotometer.

6 zed by XRD, TEM, HRTEM, SEM and fluorescence spectrophotometer.

7 inerals were determined by atomic absorption spectrophotometer.

8 ol and determined by flame atomic absorption spectrophotometer.

9 achieve 200 nm for the considered far-field spectrophotometer.

10 nriched DES phase was analyzed by UV-Visible spectrophotometer.

11 eristic wavelength of MB is measured using a spectrophotometer.

12 h traditional turbidity measurements using a spectrophotometer.

13 e was shown to be comparable to a laboratory spectrophotometer.

14 n Mardan are studied using Atomic Absorption spectrophotometer.

15 is robust and easy to perform with a simple spectrophotometer.

16 he visible, using a portable MINOLTA CM-2002 spectrophotometer.

17 he oxidative half-reaction in a stopped-flow spectrophotometer.

18 easured by using an Abbe refractometer and a spectrophotometer.

19 to nanoliter pH sensing and validated with a spectrophotometer.

20 trations and is more costly than the ND-1000 spectrophotometer.

21 nsmission were determined with a fiber-optic spectrophotometer.

22 TC-dextrans (4.4-77 kDa) was measured with a spectrophotometer.

23 mined over 24 hours, at 25 degrees C, with a spectrophotometer.

24 ily available chemicals and a visible region spectrophotometer.

25 interval, were measured with a fluorescence spectrophotometer.

26 rden of analytical performance solely on the spectrophotometer.

27 termined by reflectance measurements using a spectrophotometer.

28 iffusion was determined over 24 hours with a spectrophotometer.

29 aluated and compared to that of a commercial spectrophotometer.

30 min at levels from 5 to 50 pmol using only a spectrophotometer.

31 continuously monitored at 405 nm on a UV-VIS spectrophotometer.

32 ot possible with halogen-tungsten lamp-based spectrophotometers.

33 oise levels (0.0001 ABS) of typical benchtop spectrophotometers.

34 elength standards for calibrating absorption spectrophotometers.

35 ions were determined using atomic absorption spectrophotometer according to standard methods.

36 ned using a single-purpose atomic absorption spectrophotometer AMA 254.

37 th a blood substitute were determined with a spectrophotometer and an inverse-adding doubling algorit

38 Using a spectrophotometer and nanostars of different sizes and d

39 rface in a commercially available UV-visible spectrophotometer and of a colorimetric end-point assay

40 ts of hemoglobin spectra using a diode array spectrophotometer and oxygen tensions using a polarograp

41 kits exhibit less precision than the ND-1000 spectrophotometer and Quant-iT RiboGreen assays in the 5

42 fferent monochromator characteristics of the spectrophotometer and the spectrofluorometer.

43 violet-visible diode array or rapid-scanning spectrophotometers and the measurement requires a single

44 ation for 10 minutes at 36 degrees C using a spectrophotometer) and MALDI-TOF MS (both the standard r

45 by means of a pH meter, an atomic absorption spectrophotometer, and an inductively coupled plasma spe

46 ontents of sweet basils were determined by a spectrophotometer, and individual phenolic compounds and

47 procedure and thus do not require the use of spectrophotometer, and it could be used to obtain semi-q

48 ine was measured by ELISA, lipid peroxide by spectrophotometer, and microvascular function by laser s

49 mice) and habitat color (n=51 rocks) using a spectrophotometer, and showed that there was a correlati

50 eviously obtained with a conventional UV-vis spectrophotometer, and they showed little to no loss of

51 ion selective electrodes (ISE) and portable spectrophotometers are commercially available for in-fie

52 ed disaccharides that are measurable using a spectrophotometer at 232 nm.

53 hydrochloride (BAPNA) as the substrate with spectrophotometer at 410nm.

54 y detected by a miniaturized fiber optic CCD spectrophotometer at 520 nm, exploiting a long path-leng

55 igment of a child's arm was performed with a spectrophotometer at baseline and 4 weeks later.

56 ,4-benzoquinone, and O(2), in a stopped-flow spectrophotometer at pH 7.5 and 4 degrees C.

57 d by ultraviolet-visible absorbance (UV-vis) spectrophotometer, Attenuated total reflectance Fourier

58 ion development of a near-infrared (near-IR) spectrophotometer based on an acoustooptic tunable filte

59 heir reaction with DPPH using a stopped-flow spectrophotometer-based method.

60 were created many years ago, before most CD spectrophotometers became standardized and before it was

61 This spectrophotometer can detect water in ethanol at a limit

62 Using high-throughput, spectrophotometers capable of processing tens of 96-well

63 A thermostatic spectrophotometer cell compartment, widely used and avai

64 ation circuitry implemented with a dual-beam spectrophotometer configuration.

65 enoic acid (20:2) were also analyzed using a spectrophotometer cuvette fitted with an oxygen electrod

66 nal detection of DPPH decrease at 515nm on a spectrophotometer, depletion of antioxidant compounds tr

67 )+B(2) contents in corn meal using an FT-NIR spectrophotometer, equipped with an integration sphere,

68 cordance was due to the use of two different spectrophotometers, even though both had been properly c

69 The ND-1000 spectrophotometer exhibits high precision and accurately

70 on radioactive labeling, and requires only a spectrophotometer for detection of pyrophosphate formati

71 LISA was a more rapid procedure and use of a spectrophotometer for reading samples allowed for greate

72 o designed to acquire data from a variety of spectrophotometers for use in a NIST study of wavelength

73 In short, spectrophotometer-free image-based miniaturized ELISA on

74 lectance spectra, measured physically with a spectrophotometer, from psychophysically derived color-m

75 action is conveniently monitored on a UV-VIS spectrophotometer in a continuous fashion, with the addi

76 action is conveniently monitored on a UV-VIS spectrophotometer in a continuous fashion.

77 ources is comparable to standard fiber-optic spectrophotometer light sources.

78 y HPAEC-PAD, colour indexes were measured by spectrophotometer method.

79 ed aluminas were measured with a reflectance spectrophotometer on a black-and-white background.

80 s paper reports the construction of a UV-Vis spectrophotometer on a microreactor, and demonstrates th

81 activity to be measured continuously with a spectrophotometer or a microplate reader.

82 s, namely, the availability of an UV-visible spectrophotometer or an optical scanner, and will enable

83 onitored using either a portable fiber-optic spectrophotometer or the built-in camera of a smartphone

84 on three backings by means of a reflectance spectrophotometer over every wavelength (lambda) from 40

85 crease the signal-to-noise ratio of scanning spectrophotometers over present commercial instruments i

86 A novel photoacoustic spectrophotometer (PAS) for the measurement of gas-phase

87 ge of cost-affordable detectors, including a spectrophotometer, portable spectrometer, and iPhone cam

88 This study evaluated objective reflectance spectrophotometer (RS) assessment of SPT in 353 males or

89 A UV-visible rapid scan spectrophotometer (RSS) was coupled to a Au rotating dis

90 can be monitored continuously using a UV-Vis spectrophotometer set at 405 nm.

91 e-limited environments, expensive microplate spectrophotometers that are used in many central laborat

92 bined assay, PCR/OLA, are read directly by a spectrophotometer; the absorbances are compiled; and the

93 at 15 degreesC and pH 7.2 in a stopped-flow spectrophotometer; the Km for NADH is 13 microM, the Km

94 ryptophan in the rapid-scanning stopped-flow spectrophotometer, there is an absorbance increase at 50

95 re mixed with substrates in the stopped-flow spectrophotometer, there was a biphasic burst of hydride

96 In contrast with standard spectrophotometers, this sensor offers a low-cost and pu

97 ance liquid chromatography (HPLC) using a UV spectrophotometer to detect nonpolar p-bromophenylacyl m

98 e proposed method uses a conventional UV-vis spectrophotometer to monitor the colorimetric signal, wh

99 Using a stopped-flow spectrophotometer to rapidly mix potassium superoxide wi

100 Commercial spectrophotometers typically use absorption-based wavele

101 -bound flavin was observed in a stopped-flow spectrophotometer upon anaerobic mixing with betaine ald

102 been compared with those obtained by using a spectrophotometer used for fluoride measurement and foun

103 0 to 0.05-ng microl(-1) range via an ND-1000 spectrophotometer (UV), Agilent RNA 6000 kits (MCE), and

104 urchased from the local market by UV-Visible Spectrophotometer (UV-Vis).

105 An InfraAlyzer 500 spectrophotometer was used.

106 he dominant noise source for most commercial spectrophotometers, was effectively removed by use of un

107 Using a standard laboratory spectrophotometer, we calibrated the LSPR peak shift due

108 In an anaerobic stopped-flow spectrophotometer, we have measured the rate constants o

109 A parallel imaging system and scanning spectrophotometer were used to identify and characterize

110 ccurs in the mixing time of the stopped-flow spectrophotometer when arginine is the substrate, preclu

111 dardised to yield data corresponding to 1-cm spectrophotometer which is useful for quality assurance

112 develop an all-solid-state, compact near-IR spectrophotometer which not only is very sensitive, stab

113 e trypsin activity was measured as 9mU/mL by spectrophotometer while the amount of captured enzyme ca

114 ~3000 fold compared with that of commercial spectrophotometer with 1 cm-cuvette, owing to the novel

115 monitored using a Fourier transform infrared spectrophotometer with a time-resolved collection mode.