戻る
「早戻しボタン」を押すと検索画面に戻ります。 [閉じる]

コーパス検索結果 (１語後でソート)

通し番号をクリックするとPubMedの該当ページを表示します
1 from the vMALDI-LIT, which should facilitate selected reaction monitoring.
2  a triple-quadrupole mass spectrometer using selected reaction monitoring.
3 in with identification and quantification by selected reaction monitoring.
4 ers formed in BEAS-2B cells was obtained via selected reaction monitoring.
5 y LC/tandem mass spectrometric analyses with selected reaction monitoring.
6 dentification and quantitation were based on selected reaction monitoring.
7 and tandem mass spectrometric detection with selected reaction monitoring.
8 and tandem mass spectrometric detection with selected reaction monitoring.
9 d quantification of the residues using GC-MS selected reaction monitoring.
10 collagen content, myofibroblast numbers, and selected reaction monitoring.
11 metry using synthetic internal standards and selected reaction monitoring.
12  obtained with data-dependent acquisition or selected reaction monitoring.
13 different mass spectrometry technique called selected reaction monitoring.
14 dified proteins after proteolysis by using a selected reaction monitoring analysis in a tandem mass s
15      Results, validated manually and against selected reaction monitoring and gas-chromatography plat
16                                              Selected reaction monitoring and multiple reaction monit
17 ngII-regulated proteins was quantified using selected reaction monitoring and normalized by urine cre
18 arge-switch high mass accuracy LC-MS/MS with selected reaction monitoring and product ion accurate ma
19 enchmarked against ELISA and a gold-standard selected reaction monitoring assay (ID-SRM).
20 liable and high-throughput mass spectrometry-selected reaction monitoring assay that targets 48 key p
21                MS with a multiplexed peptide selected reaction monitoring assay was used to confirm d
22 ross-validation and absolutely quantified by selected reaction monitoring assay.
23 al expression of 5 proteins was confirmed by selected reaction monitoring assay.
24 o be sufficiently reproducible for scheduled selected reaction monitoring assays to be performed on d
25                                          The selected reaction monitoring, based on the m/z 530 --> 1
26 ay triple-quadrupole mass spectrometer under selected reaction monitoring conditions.
27 ed to sphingolipid and glycerophosphocholine selected reaction monitoring datasets, we demonstrate ov
28 of the five compounds in less than 30 s, and selected reaction monitoring detection from low nano- to
29 were demonstrated in positive ion mode using selected reaction monitoring detection of rhodamine dyes
30                  DESI-MS/MS imaging utilized selected reaction monitoring detection performed on an A
31 ray ionization tandem mass spectrometry with selected reaction monitoring detection.
32 g in the form of dimethylation, coupled with selected reaction monitoring (dimethyl-SRM).
33 ctrospray ionization mass spectrometry (with selected reaction monitoring) enabled the analysis of th
34 pproach using electron transfer dissociation-selected reaction monitoring (ETD-SRM) was developed to
35 fic CID reaction pathways can offer value to selected reaction monitoring experiments (SRM) as it may
36                                     Targeted Selected Reaction Monitoring experiments were conducted
37 m cholesterol esters (NL 368.5) and specific selected reaction monitoring for DAG molecular species,
38 hy-tandem mass spectrometry method utilizing selected reaction monitoring for measuring the absolute
39 using a 5.0 min preconcentration period with selected reaction monitoring for tamoxifen (m/z 372 -->
40 by gas chromatography mass spectrometry with selected reaction monitoring (GC-MS/MS).
41                             Under the highly selected reaction monitoring (H-SRM) mode, the detection
42           Reaction kinetics were analyzed by selected reaction monitoring in LC-MS-MS using stable is
43         This work presents a high-throughput selected reaction monitoring LC-MS bioanalytical method
44 itivity enhancement in liquid chromatography selected reaction monitoring (LC-SRM) analyses of low-ab
45     Here, we present a liquid chromatography-selected reaction monitoring (LC-SRM) approach that we d
46 iquid chromatography/mass spectrometry using selected reaction monitoring (LC/SRM-MS) holds great pro
47 f the long-gradient separations coupled with selected reaction monitoring (LG-SRM) for targeted prote
48                       This approach utilizes selected reaction monitoring liquid chromatography tande
49 enzodiazepines isolated from human urine via selected reaction monitoring liquid chromatography/mass
50  1.2 min using a positive ion turbo-ionspray selected reaction monitoring liquid chromatography/mass
51 eversed phase HPLC separation, combined with selected reaction monitoring mass spectrometric detectio
52 ctrophoresis for selected ion monitoring and selected reaction monitoring mass spectrometric detectio
53 ultra high performance liquid chromatography-selected reaction monitoring mass spectrometry (UHPLC-SR
54                                        Here, selected reaction monitoring mass spectrometry was used
55                                   Label-free selected reaction monitoring mass spectrometry was used
56 hty-eight novel quantitative assays based on selected reaction monitoring mass spectrometry were deve
57 periments were then validated using targeted Selected Reaction Monitoring mass spectrometry with a tr
58  The proteomic findings were confirmed using selected reaction monitoring mass spectrometry, validati
59                                        Using selected reaction monitoring mass spectrometry, we demon
60                               Using targeted selected reaction monitoring mass spectrometry, we detec
61 trospray ionization-tandem mass spectrometry-selected reaction monitoring method for the combined ana
62 le peptides to be included in a standardized selected reaction monitoring method.
63                  Selected ion monitoring and selected reaction monitoring methods were utilized for q
64 the use of targeted quantitative proteomics (selected reaction monitoring methods) and in vitro recom
65                                              Selected reaction monitoring mode (SRM) of tandem mass s
66 trometry (nanoLC-NSI/MS/MS) under the highly selected reaction monitoring mode and using a triple qua
67  triple quadrupole linear ion trap using the selected reaction monitoring mode for quantification as
68   Mass spectral data were recorded in either selected reaction monitoring mode or in full scan ion tr
69 ay ionization mass spectrometry operating in selected reaction monitoring mode to determine the absol
70      A tandem mass spectrometry operating in selected reaction monitoring mode was used to quantify n
71  atmospheric pressure chemical ionization in selected reaction monitoring mode with deuterium-labeled
72 idation products using the compound-specific selected reaction monitoring mode, which allows the char
73 uantified by capillary HPLC-ESI-MS/MS in the selected reaction monitoring mode.
74 thod in which the spectrometer operates in a selected reaction monitoring mode.
75 en LC/MS/MS quantitation is conducted in the selected reaction monitoring mode.
76 bo ion spray tandem mass spectrometry in the selected reaction monitoring mode.
77 ped for determining these analytes using the selected reaction monitoring mode.
78 onization tandem mass spectrometry under the selected reaction monitoring mode.
79 ss spectrometry using a triple quadrupole in selected reaction monitoring mode.
80 ated in positive electrospray ionization and selected reaction monitoring mode.
81            Quantitation was performed in the selected reaction monitoring mode.
82 pectrometer was operated in the negative ion selected-reaction-monitoring mode.
83                                        Using selected reaction monitoring MS, we identified the plant
84 hese sites was independently validated using selected reaction monitoring MS.
85 icro-LC-(T-uLC) with narrow-window-isolation selected-reaction monitoring MS(NWI-SRM) for ultra-sensi
86 ppaB/RelA, TG) triplets were validated by LC-selected reaction monitoring-MS and the results of STAT1
87 onducted without sample derivatization using selected reaction monitoring of mass transitions that ar
88                   Mass spectrometry employed selected reaction monitoring of the transitions of m/z 4
89      While isotope-dilution approaches using selected reaction monitoring of tryptic peptides (also k
90 ts can be measured by mass spectrometry with selected reaction monitoring or selected ion monitoring
91 geted proteomics experiments performed using selected reaction monitoring, parallel reaction monitori
92 n fraction from complex mixture, followed by selected reaction monitoring quantification.
93  in electron ionisation with highly specific selected reaction monitoring, quantification being perfo
94 L-1alpha-stimulated cartilage, confirmed the selected reaction monitoring results indicating compleme
95                               Both SILAC and selected reaction monitoring revealed heme oxygenase-1 (
96 subsequently analyzed by LC-ESI-MS/MS in the selected reaction monitoring scan mode.
97  is demonstrated for CS disaccharides, and a selected reaction monitoring scheme is used to quantify
98 o develop a targeted proteomics method using selected reaction monitoring (SRM) aimed at quantitative
99         The multiplexed LC-MS/MS assay using selected reaction monitoring (SRM) allows simultaneous q
100 tandem mass spectrometry (LC-ESI MS/MS) with selected reaction monitoring (SRM) and quantitation by h
101 ccurate peptide losses to be determined in a Selected Reaction Monitoring (SRM) assay, thus, enabling
102                  Here, we introduce a set of selected reaction monitoring (SRM) assays for the system
103 oaches using both high-resolution (HRMS) and selected reaction monitoring (SRM) based mass spectromet
104 cs approach based on mass spectrometric (MS) selected reaction monitoring (SRM) detection was exploit
105 chromatography and nanospray ionization with selected reaction monitoring (SRM) detection.
106                   Here, we report the use of selected reaction monitoring (SRM) for tracking proteoly
107 t, a highly specific, sensitive method using Selected Reaction Monitoring (SRM) in positive electrosp
108 andem mass spectrometer using time-triggered selected reaction monitoring (SRM) in positive electrosp
109                                              Selected reaction monitoring (SRM) is a mass spectrometr
110 eting histone acetylation and methylation by selected reaction monitoring (SRM) is one of the current
111 F1-2, IBP2-7, ALS, KLK6-7, ISK5, and PLF4 by selected reaction monitoring (SRM) liquid chromatography
112                       We show that utilizing selected reaction monitoring (SRM) mass spectrometry all
113                          A strategy of using selected reaction monitoring (SRM) mass spectrometry for
114 s on the high sensitivity and specificity of selected reaction monitoring (SRM) mass spectrometry, ma
115                   As a proof of principle, a selected reaction monitoring (SRM) mass spectrometry-bas
116 e and complex tryptic peptide matrices using selected reaction monitoring (SRM) mass spectrometry.
117 s cerevisiae by coupling a SILAC approach to selected reaction monitoring (SRM) mass spectrometry.
118 le quadrupole mass spectrometer operating in selected reaction monitoring (SRM) mode for sample quant
119                    Mass spectrometry (MS) in Selected Reaction Monitoring (SRM) mode is proposed for
120                        Ions were detected in selected reaction monitoring (SRM) mode, and transition
121 ation of the corresponding steroid esters in selected reaction monitoring (SRM) mode, for the first t
122 omatography-mass spectrometry (LC-MS) in the selected reaction monitoring (SRM) mode.
123 ree protein markers by targeted MS using the selected reaction monitoring (SRM) mode.
124 in both single ion monitoring (SIM) mode and selected reaction monitoring (SRM) mode.
125 ss spectrometry (nanoLC-NSI/MS/MS) under the selected reaction monitoring (SRM) mode.
126 m normal and mutant alleles were detected by selected reaction monitoring (SRM) of their product ions
127                                              Selected reaction monitoring (SRM) on triple quadrupole
128 tandem mass spectrometer (MS/MS) operated in selected reaction monitoring (SRM) or multiple reaction
129 oss scanning, followed by quantitation using selected reaction monitoring (SRM) scans.
130 from gel-based approaches to the upcoming LC-selected reaction monitoring (SRM) technique which combi
131 here multiple iterations of the same, single selected reaction monitoring (SRM) transition are collec
132 sitivity was reduced by interferences in the selected reaction monitoring (SRM) transition of the sig
133 d quantitation, which is based on predefined selected reaction monitoring (SRM) transitions for selec
134 ent ions that could be utilized for specific selected reaction monitoring (SRM) transitions.
135 ile quantitative analysis is performed using selected reaction monitoring (SRM) using a triple quadru
136                        Our platform utilizes selected reaction monitoring (SRM) with polarity switchi
137 3 cells, which were analyzed over a range of selected reaction monitoring (SRM), data-independent acq
138                                 Similarly to selected reaction monitoring (SRM), peptides can be quan
139            One remedy for this is the use of selected reaction monitoring (SRM), where the areas unde
140                           We here describe a selected reaction monitoring (SRM)-based approach for th
141                                   We applied selected reaction monitoring (SRM)-based proteomics, pro
142                  Here, we report an extended selected reaction monitoring (SRM)-based strategy to rep
143 nt selection and multiplexing) for sensitive selected reaction monitoring (SRM)-based targeted protei
144 geted proteomics experiments performed using selected reaction monitoring (SRM).
145 table isotope labeled internal standards and selected reaction monitoring (SRM).
146 ased on data-dependent acquisition (DDA) and selected reaction monitoring (SRM).
147 e added to serum samples for quantitation by selected reaction monitoring (SRM).
148               Identification was achieved by selected reaction monitoring (SRM).
149 noaffinity (IA) beads and codetermination by selected reaction monitoring (SRM).
150 ex biological samples is best achieved using selected reaction monitoring (SRM).
151 hromatography (LC)/mass spectrometry (MS) in selected-reactions-monitoring (SRM) mode provides a powe
152 pectrometry-based targeted proteomics (e.g., selected reaction monitoring, SRM) is emerging as an att
153 nd robust targeted mass spectrometric method selected reaction monitoring, SRM.
154 action monitoring, a multiplexed form of the selected reaction monitoring technique.
155 a workflow for targeted mass spectrometry by selected reaction monitoring that permits quantitative a
156 rt a novel approach using (18)O labeling and selected reaction monitoring to detect carbapenemase act
157              All samples were analyzed using selected reaction monitoring to ensure quantitative robu
158  vivo, we used tandem mass spectrometry with selected reaction monitoring to quantify the regiospecif
159                                              Selected reaction monitoring using synthetic heavy isoto
160                                              Selected reaction monitoring was performed on the transi
161                                              Selected reaction monitoring was performed on the transi
162 andem mass spectrometry method that utilizes selected reaction monitoring was used to measure the abs
163 noprecipitation, and targeted proteomics via selected reaction monitoring, we show that the gene enco
164  polar metabolomics profiling platform using selected reaction monitoring with a 5500 QTRAP hybrid tr

 
Page Top