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1 ions, in particular deuterium oxide (D2 O or heavy water).
2 by growing C. elegans in the presence of 70% heavy water.
3 gG4 dimer formation at high concentration in heavy water.
4 estimates of the melting points of light and heavy water.
5 ferent when mineralization is carried out in heavy water.
6 ing a 7-day metabolic labeling protocol with heavy water.
7 y-one patients with suspected NAFLD ingested heavy water ((2) H2 O, 50-mL aliquots) two to three time
8 n the incorporation of deuterium ((2)H) from heavy water ((2)H(2)O) into the deoxyribose moiety of pu
9 f the incorporation of deuterium ((2)H) from heavy water ((2)H(2)O) into the deoxyribose moiety of pu
10 he incorporation of deuterium ((2)H(2)) from heavy water ((2)H(2)O) into tubulin dimers and polymers
11                                            A heavy water ((2)H(2)O) labeling method recently develope
12 for estimating protein dynamics in vivo with heavy water ((2)H(2)O) using matrix-assisted laser desor
13 logical limitations have hampered the use of heavy water ((2)H(2)O), a convenient, universal biosynth
14 st to the longer term labeling achieved with heavy water ((2)H(2)O).
15               Participants were administered heavy water ((2)H(2)O; deuterium oxide) continuously for
16 rious forms of commercially available stable heavy water ((2)H2O, H2(18)O, and (2)H2(18)O).
17                                              Heavy water (2H2O) labeling has recently been developed
18              After a pulse administration of heavy water (2H2O), distinct, newly synthesized 2H-label
19 tope labelling of microbial populations with heavy water (a passive tracer) and (15) N ammonium in co
20 stitution of this marrow transit time in the heavy water analysis gave a better-defined blood half-li
21 on of force and temperature in normal water, heavy water and with cosolvents.
22 LB/c controls were labeled continuously with heavy water, and splenic B cells and dendritic cells wer
23 igher), small enrichments (8% or smaller) of heavy water are used with most organisms.
24 crobiome via incorporation of deuterium from heavy water as an activity marker.
25 t protein beta-crystallin in both normal and heavy-water-based solutions.
26  A monomer-dimer equilibrium was observed in heavy water buffer at low temperature.
27 ent increase as the temperature decreased in heavy water buffers.
28 tional spectra of cold, composition-selected heavy water clusters, D(+)(D2O)n, can be exploited to ca
29 ique was developed to measure the density of heavy water confined in a nanoporous silica matrix in a
30 d the ability to differentiate the origin of heavy water, confirming that deuterium incorporation was
31 rational sum-frequency generation spectra of heavy water (D(2)O) near a monolayer graphene electrode,
32                                  Here, using heavy water (D(2)O) with Raman-stable isotope labeling (
33     Employing a sonic spray, we atomized the heavy water (D(2)O, 99.9 atom % D) solution of three cla
34                                              Heavy water (D2O) has a distinct molecular vibration spe
35                                  Analysis of heavy water data sets yielded turnover rates consistent
36    Relative ion abundances of the light- and heavy-water digestion products, which are separated by 2
37                      Metabolic labeling with heavy water followed by liquid chromatography coupled to
38 glyceride gain, mice were first administered heavy water for 5 weeks to label adipose triglycerides w
39 sed concentration, decreased temperature and heavy water from 8% to 25% in all buffers except for hig
40 entially labeled peptides in the presence of heavy water (H(2)(18)O), and performed LC/MS/MS analysis
41                          TBW was measured by heavy water (H2O18 or D2O) dilution in 64 pediatric pati
42 urface, using isotopic mixtures of water and heavy water, have recently been performed.
43 kbone of PE with deuterium atoms from D(2)O (heavy water) in solvent.
44 uantification of deuterium assimilation from heavy water into single bacterial cells to check the inf
45                                              Heavy water is a cost-effective and easy to use labeling
46                        Our results show that heavy water is capable of quantifying in situ single-cel
47 he bioinformatics aspects of the analysis of heavy water labeled mass spectral data, available softwa
48  that measures fractional gluconeogenesis by heavy water labeling and gas chromatographic-mass spectr
49 ty of isotope ratio mass spectrometry with a heavy water labeling approach to capture the full range
50                                              Heavy water labeling combined with sensitive tandem mass
51 ssible areas of concern regarding the use of heavy water labeling during plant growth.
52                     Inpatient and outpatient heavy water labeling protocols resulted in (2)H label in
53                    In both treatment groups, heavy water labeling revealed that after 2 h (study A),
54 otein turnover rates is accomplished using a heavy water labeling strategy.
55                            In a pilot study, heavy water labeling was used to determine hepatitis B s
56                                 Deuterated ("heavy") water labeling in patients with chronic lymphocy
57                                   Results of heavy-water labeling studies have challenged the notion
58 h rapidly and quantitatively measures stable heavy water levels in total body water.
59 gue impurities (HOD/H(2)O) on the surface of heavy water microdroplets, implying possible future deve
60  isotopologue impurities from the surface of heavy water microdroplets.
61 ery similar for our "normal" and fictitious "heavy" water models.
62 ng data in healthy adult subjects using both heavy water (n = 4) and deuterium-labeled glucose (n = 9
63  to be strictly observed in the operation of heavy-water nuclear power plants is the mandatory regula
64  more-efficient operation and maintenance of heavy-water nuclear power plants.
65                                              Heavy water or deuterium oxide (D(2) O) comprises deuter
66 a readily accessible amount, could provide a heavy-water output comparable to that of modern plants.
67 isotopic mixtures are processed annually for heavy-water production and tritium decontamination.
68          Raman-stable isotope labeling using heavy water (Raman-D(2)O) is attracting great interest a
69                Rate constant estimation with heavy water requires a long-term experiment with data co
70 ange of NaCl concentrations and in light and heavy water revealed that the X-ray radius of gyration (
71                   By switching from water to heavy water, the chemical conversion during photopolymer
72                                     By using heavy water to constrain cellular growth activity, we ca
73 n of the circadian clock: when mutants drank heavy water to lengthen the period, these aspects of the
74 he density data we obtained for the confined heavy water under these conditions are valuable to large
75 oods harvested from a hydroponic system with heavy water, vitamin A activity of stable isotope-labele
76  The increased second-order rate constant in heavy water was expected from ordering of this loop over
77 in the THz spectrum of deuterated glycine in heavy water, which allow us to separate the distinct mod
78 nged by stable isotope labeling studies with heavy water, which yielded estimates in excess of 3 days
79  was exposed to Ringer solution made up from heavy water, whose solvent isotope effect should reduce
80 e is digested with RNase T1 in 18O-labeled ("heavy") water with the 18O being incorporated at the 3'-