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1 ion in the solid and gas phases of argon and krypton.
2 e mid-1940s, of less than 5 dpm per liter of krypton.
3 ds is limited for xenon and even more so for krypton.
4 r to a mixture of chondritic and atmospheric krypton.
5 tion after inhalation of a mixture of stable krypton (80%) and oxygen (20%), with reconstruction of d
6 been used to count individual krypton-85 and krypton-81 atoms present in a natural krypton gas sample
7 nance imaging (MRI) with hyperpolarized (hp) krypton-83 (83Kr) has become available.
8 d the release thereby of the fission product krypton-85 (half-life = 10.71 years, fission yield = 0.2
9 tral atoms has been used to count individual krypton-85 and krypton-81 atoms present in a natural kry
10               The present largest emitter of krypton-85 is the French reprocessing plant at Cap-de-la
11 imately 100% of the non-radiogenic argon and krypton and 80% of the xenon.
12 he binding of xenon and, to a lesser degree, krypton and argon, tend to expand the volume of the cavi
13 The level of enhancement after inhalation of krypton and its excellent clinical tolerance makes this
14                             Experiments with krypton and xenon give results analogous to those with a
15                     Here we show that argon, krypton and xenon in Jupiter's atmosphere are enriched t
16                                              Krypton and xenon isotopes in the Yellowstone mantle plu
17 n, neon, and hydrogen sulfide were measured; krypton and xenon were detected.
18 topic composition, heavy noble gases (argon, krypton and xenon) have an isotopic composition very sim
19 gases tested (neon, nitrogen, oxygen, argon, krypton and xenon), except for hydrogen.
20 te for the separation of rare gases, such as krypton and xenon.
21 d to have higher affinity for xenon than for krypton, and have comparable affinity for Kr and N(2).
22 ass spectrometry technique to measure argon, krypton, and xenon isotopes in volcanic gas with ultrahi
23 purely hydrophobic solutes (methane, ethane, krypton, and xenon) to study hydrophobicity at the most
24 phage T4 lysozymes in the presence of argon, krypton, and xenon.
25  the ability to selectively adsorb xenon and krypton at ambient conditions.
26  recently designed pressurization cell using krypton at high pressure, a new gas binding site has bee
27 sly binds to the noble gases (Ngs) xenon and krypton at room temperature in a reaction that is typica
28 udy the phase behavior of adsorbed argon and krypton atoms as well as their coupling to the substrate
29    Vacuum ultraviolet spectra emanating from krypton atoms, exposed to intense waveform-controlled op
30                                              Krypton attenuation difference between normal and emphys
31 alled CNTs filled with lead, barium and even krypton can be produced, and externally decorated with p
32                    One potential solution is Krypton Chloride (KrCl) excimer lamps (often referred to
33 ion at far ultraviolet C (far-UVC) 222 nm by krypton chloride (KrCl*) excilamps can enhance microbial
34                                              Krypton chloride (KrCl*) excimer ultraviolet (UV) light
35 inactivation level compared with that of the krypton chloride excilamp and low-pressure mercury lamp.
36                  Among these UV sources, the krypton chloride excilamp emitting at a peak wavelength
37                 In this study, we utilised a krypton-chloride excimer lamp and a pulsed laser system
38   Far-UVC wavelengths (222 nm) from filtered krypton-chloride excimer lamps are effective at inactiva
39 4 nm) that are more hazardous to humans than krypton chlorine excimer lamps emitting 222 nm (UV(222))
40  water types using UV-C light emitted from a krypton-chlorine excimer lamp (UV light at 222 nm, UV(22
41 thermal stabilities of a series of xenon and krypton clathrates of (+/-)-cryptophane-111 (111).
42  current induced vacuum ultraviolet (dc-VUV) krypton discharge lamp and an alternating current, radio
43 tons generated by a vacuum ultraviolet (VUV) krypton discharge lamp.
44 oionization using a 10 eV vacuum ultraviolet krypton discharge lamp.
45 ene/ethylene, linear/branched alkanes, xenon/krypton, etc.
46                 The capture of the xenon and krypton from nuclear reprocessing off-gas is essential t
47 used to model the transfer thermodynamics of krypton from the gas phase into water.
48 d laser-induced plasma generated in a pulsed krypton gas jet target.
49 85 and krypton-81 atoms present in a natural krypton gas sample with isotopic abundances in the range
50 ays is tested in canine lung tissue by using krypton gas with natural abundance isotopic distribution
51 g of the noble gases follows the trend xenon>krypton>argon.
52 ction of 5 x 10(-9) Torr partial pressure of krypton in argon with a signal-to-noise ratio of approxi
53                                  Atmospheric krypton instead originates from accretion of solar nebul
54     Raman spectroscopy was performed using a krypton ion laser providing excitation at 406.7 nm (5 mW
55 is contribution, the only NMR active, stable krypton isotope (83)Kr (spin I = (9)/(2)) is explored as
56 tmosphere of Mars has different (solar-type) krypton isotope ratios, indicating that it is not a prod
57                          We found chondritic krypton isotope ratios, which imply early incorporation
58            Here we present the full suite of krypton isotopes from the deep mantle of the Galapagos a
59                                  We measured krypton isotopes in the martian meteorite Chassigny, rep
60                                              Krypton isotopes provide insights on volatile delivery o
61                       Except for (86)Kr, the krypton isotopic compositions are similar to a mixture o
62                                              Krypton (Kr) and xenon (Xe) adsorption on two partially
63 vestigate diffusive transport of xenon (Xe), krypton (Kr), and sulfur hexafluoride (SF(6)) through in
64 nization (APPI) source equipped with a 10 eV krypton lamp and operated in negative ion mode.
65                               One week after krypton laser photocoagulation in C57BL/6J mice, 34 of 6
66 ately dependent on small fluctuations in the krypton loading but differ strongly between some of the
67 f commensurate-incommensurate transitions in krypton monolayers adsorbed on graphite, in which there
68                     The experiments measured krypton number densities in a sooting, atmospheric press
69 surements revealed the mass transport of the krypton radioisotopes through the target-water processin
70                 The successful collection of krypton radioisotopes to generate (76)Br and (77)Br demo
71 ctory elements occurred simultaneously, with krypton recording concomitant accretion of non-solar vol
72 placed in each quadrant of the fundus with a krypton red laser (614 nm, 50 microm, 0.05 second, 200 m
73 ine capture, proton conductivity, and xenon/ krypton separation.
74                                          The krypton surface relaxation is found to be largely indepe
75 ion data ( u , u RMS', vRMS' ) recorded with Krypton Tagging Velocimetry (KTV) at 100 kHz in a hypers
76  of volatile radionuclides such as xenon and krypton that evolve into reprocessing facility off-gas i
77                                              Krypton was extracted from the air bubbles in four appro
78     In this study, dissolved gases (methane, krypton) were injected into a coastal plain stream in No
79                         The chemical element krypton, whose principal source is the atmosphere, had a
80                        In contrast to xenon, krypton with its smaller atomic radius has been demonstr
81 al practical potential for the separation of krypton, xenon and radon from air at concentrations of o
82                               In contrast to krypton, xenon is retained within the pores of this zeol