ライフサイエンスコーパス: electron transfer dissociation

1 collisionally induced dissociation (CID) and electron transfer dissociation).

2 formula (IF) using tandem mass spectrometry (electron transfer dissociation).

3 Rydberg levels can initially be populated in electron transfer dissociation.

4 y of the clones by top-down proteomics using electron transfer dissociation.

5 y NMR spectroscopy and tandem MS analysis by electron transfer dissociation.

6 izing the protease Lys-N in combination with electron transfer dissociation.

7 dicals are of interest within the context of electron transfer dissociation, a phenomenon with high u

8 show that such fiber-assisted activated ion-electron transfer dissociation (AI-ETD) and IR multiphot

9 rt the first implementation of activated ion electron transfer dissociation (AI-ETD) for top down pro

10 cribed a new implementation of activated ion electron transfer dissociation (AI-ETD) on a quadrupole-

11 Activated ion electron transfer dissociation (AI-ETD) uses concurrent

12 Furthermore, we show that activated ion electron transfer dissociation (AI-ETD), a recently intr

13 e profiling methods enabled by activated ion electron transfer dissociation (AI-ETD), ultimately char

14 tly developed technique called activated ion electron transfer dissociation (AI-ETD).

15 ion and evaluation of activated ion negative electron transfer dissociation (AI-NETD) in order to enh

16 first application of activated-ion negative electron transfer dissociation (AI-NETD) to nucleic acid

17 ng both collision-activated dissociation and electron transfer dissociation, an approach termed the C

18 cale plant phosphoproteomic study to utilize electron transfer dissociation, analysis of the identifi

19 ndem mass spectrometry fragmentation methods electron transfer dissociation and collision-activated d

20 ne in peptide sequencing utilizes multistage electron transfer dissociation and higher energy collisi

21 nisms that have been proposed to account for electron-transfer dissociation and electron-capture diss

22 al for detection of protein phosphorylation, electron transfer dissociation, and identified autophosp

23 and compare collision-induced dissociation, electron-transfer dissociation, and electron-capture dis

24 ely, higher-energy collisional dissociation, electron-transfer dissociation, and electron-transfer hi

25 ion, higher-energy collisional dissociation, electron-transfer dissociation, and radical-directed dis

26 es, which, as a result, precludes the use of electron-transfer dissociation as a structural probe.

27 For the first time, we utilized electron transfer dissociation-based high spatial resolu

28 This study also marks the first use of electron transfer dissociation-based high spatial resolu

29 e used collision-activated dissociation- and electron transfer dissociation-based methods in a comple

30 rent fragmentation methods and find that the electron-transfer-dissociation-based approach enables th

31 tation methods, such as collision-induced or electron transfer dissociation (CID and ETD).

32 In addition, electron-transfer dissociation combined with higher ener

33 mbined use of collision-induced dissociation/electron transfer dissociation data and a cross-validati

34 iques (collisionally activated dissociation, electron transfer dissociation, decision tree).

35 and C-terminal electron capture dissociation/electron transfer dissociation (ECD/ETD) product ions ba

36 a multifragmentation approach consisting of electron transfer dissociation (ETD) and collision induc

37 try (MS)-based strategy combining sequential electron transfer dissociation (ETD) and collision-induc

38 igh-mass accuracy and consecutively obtained electron transfer dissociation (ETD) and higher-energy c

39 The instrument was already fitted with electron transfer dissociation (ETD) between the quadrup

40 r ion trap (LTQ) mass spectrometry (MS) with electron transfer dissociation (ETD) capabilities.

41 port a hybrid fragmentation method involving electron transfer dissociation (ETD) combined with ultra

42 ever, several side reactions can occur under electron transfer dissociation (ETD) conditions, includi

43 The use of electron transfer dissociation (ETD) facilitates this an

44 deuterium uptake than the wild type protein, electron transfer dissociation (ETD) fragmentation has b

45 higher-energy C-trap dissociation (HCD), and electron transfer dissociation (ETD) fragmentation modes

46 Electron transfer dissociation (ETD) gives many c- and z

47 Electron transfer dissociation (ETD) has improved the ma

48 Electron transfer dissociation (ETD) has proven to be a

49 ron capture dissociation and the more common electron transfer dissociation (ETD) have been introduce

50 UVPD outperformed electron transfer dissociation (ETD) in terms of sequenc

51 r-energy collisional dissociation (HCD), and electron transfer dissociation (ETD) in terms of yieldin

52 Electron capture dissociation (ECD) and electron transfer dissociation (ETD) involve radical-dri

53 Electron transfer dissociation (ETD) is a recently intro

54 Electron transfer dissociation (ETD) is a recently intro

55 Electron transfer dissociation (ETD) is an analytically

56 Electron transfer dissociation (ETD) is commonly used in

57 Electron transfer dissociation (ETD) is increasingly bec

58 Electron transfer dissociation (ETD) is the method of ch

59 on, but targeted analysis of MS1 pairs using electron transfer dissociation (ETD) markedly reduced ad

60 and site of isoaspartate can be confirmed by electron transfer dissociation (ETD) mass spectrometry.

61 e accessible alternative to conventional ECD/electron transfer dissociation (ETD) methods because it

62 r-energy collisional dissociation (HCD), and electron transfer dissociation (ETD) MS/MS approach obta

63 plex iTRAQ tagging reagent demonstrated that electron transfer dissociation (ETD) of 4-plex iTRAQ lab

64 Electron capture dissociation (ECD) and electron transfer dissociation (ETD) of doubly protonate

65 : collision-activated dissociation (CAD) and electron transfer dissociation (ETD) on a single instrum

66 h any MS platform: here Orbitrap XL with the electron transfer dissociation (ETD) option.

67 ivated dissociation (MAD) and metal-assisted electron transfer dissociation (ETD) or electron capture

68 of collision-induced dissociation (CID) and electron transfer dissociation (ETD) processes.

69 Using concurrent IR photoactivation during electron transfer dissociation (ETD) reactions, i.e., ac

70 ollisional dissociation (HCD), and 2981 from electron transfer dissociation (ETD) shows their great u

71 s our model to make accurate predictions for electron transfer dissociation (ETD) spectra and HCD spe

72 Moreover, electron transfer dissociation (ETD) tandem mass spectro

73 spread use in ion activation methods such as electron transfer dissociation (ETD) tandem mass spectro

74 tography (WCX/HILIC) and sequenced online by electron transfer dissociation (ETD) tandem mass spectro

75 -MS), ion mobility (IM), and native top-down electron transfer dissociation (ETD) techniques are empl

76 t integrates pulsed Q dissociation (PQD) and electron transfer dissociation (ETD) techniques for conf

77 d matters further, dissociation methods like electron transfer dissociation (ETD) that benefit glycop

78 CAD)--and the more recently developed method electron transfer dissociation (ETD) to characterize the

79 ked by more than one disulfide bond, we used electron transfer dissociation (ETD) to partially dissoc

80 Electron transfer dissociation (ETD) was employed to fra

81 of intact proteins followed by LC-MS/MS with electron transfer dissociation (ETD) was used to identif

82 Electron transfer dissociation (ETD) was used to sequenc

83 own collision-induced dissociation (CID) and electron transfer dissociation (ETD) with hybrid quadrup

84 Here we report the first implementation of electron transfer dissociation (ETD) with online CZE sep

85 Previously, we determined that electron transfer dissociation (ETD) yields distinct fra

86 nked peptides in the gas-phase for augmented electron transfer dissociation (ETD) yields.

87 Key to this strategy is our use of electron transfer dissociation (ETD), a mass spectrometr

88 Electron transfer dissociation (ETD), a technique that p

89 energy collision induced dissociation (HCD), electron transfer dissociation (ETD), and electron captu

90 eriorates on other types of spectra, such as Electron Transfer Dissociation (ETD), Higher-energy Coll

91 ng collision-activated dissociation (CAD) or electron transfer dissociation (ETD), respectively.

92 d chromatography (LC) coupled online with an electron transfer dissociation (ETD)-enabled hybrid Orbi

93 energy dissociation (HCD)-MS(2) followed by electron transfer dissociation (ETD)-MS(2) upon detectio

94 ion tandem mass spectrometry (CID-MS/MS) and electron transfer dissociation (ETD)-MS/MS of intercross

95 Herein, we report on the first use of electron transfer dissociation (ETD)-produced diagnostic

96 oft gas-phase fragmentation methods, such as electron transfer dissociation (ETD).

97 ted ADCs at the subunit level (~25 kDa) with electron transfer dissociation (ETD).

98 as collision-induced dissociation (CID) and electron transfer dissociation (ETD).

99 bitrap hybrid mass spectrometer enabled with electron transfer dissociation (ETD).

100 sassignment of glycoforms when LC-MS/MS with electron-transfer dissociation (ETD) alone is used for t

101 Electron-transfer dissociation (ETD) analysis indicates

102 tely mapped by LC-MS with the combination of electron-transfer dissociation (ETD) and collision induc

103 Duty cycles for both electron-transfer dissociation (ETD) and collision-induc

104 was developed for quantitative prediction of electron-transfer dissociation (ETD) and electron-captur

105 anion reagent because it selectively causes electron-transfer dissociation (ETD) and minimizes PT wh

106 Two related methods for effecting electron-transfer dissociation (ETD) are described that

107 In this study, the electron-transfer dissociation (ETD) behavior of cations

108 Electron-transfer dissociation (ETD) constitutes a valua

109 Electron-transfer dissociation (ETD) delivers the unique

110 tral loss from the charge reduced species in electron-transfer dissociation (ETD) fragmentation.

111 Electron-transfer dissociation (ETD) has recently been i

112 ch as electron-capture dissociation (ECD) or electron-transfer dissociation (ETD) have been successfu

113 one from each emitter, for performing rapid electron-transfer dissociation (ETD) ion/ion reactions o

114 ases coupled online to an LTQ-Orbitrap Velos electron-transfer dissociation (ETD) mass spectrometer (

115 rse-phase (RP) liquid chromatography (LC) to electron-transfer dissociation (ETD) mass spectrometry.

116 in addition to the standard SPS workflow, an electron-transfer dissociation (ETD) MS2 was performed a

117 how collision-induced dissociation (CID) and electron-transfer dissociation (ETD) on each precursor o

118 f charge inversion ion/ion reactions, CID of electron-transfer dissociation (ETD) products and CID of

119 mass spectra obtained in fragmentations via electron-transfer dissociation (ETD) reactions.

120 based on application of multi-point HR-HRPF, electron-transfer dissociation (ETD) tandem MS (MS/MS) a

121 ite was confirmed using a recently developed electron-transfer dissociation (ETD) technique.

122 Electron-transfer dissociation (ETD) was then used to pi

123 t ion yields and structural information from electron-transfer dissociation (ETD) were observed, sugg

124 ubly charged precursors could be achieved by electron-transfer dissociation (ETD) with increased supp

125 g., collision-induced dissociation (CID) and electron-transfer dissociation (ETD)).

126 193 nm ultraviolet photodissociation (UVPD), electron-transfer dissociation (ETD), and electron-trans

127 higher-energy collision dissociation (HCD), electron-transfer dissociation (ETD), and electron-trans

128 ced dissociation (CID), beam-type CID (HCD), electron-transfer dissociation (ETD), and the combinatio

129 hange mass spectrometry (HDX-MS) followed by electron-transfer dissociation (ETD), chemical cross-lin

130 igher-energy collisional dissociation (HCD), electron-transfer dissociation (ETD), electron-transfer/

131 ced dissociation (CID), beam-type CID (HCD), electron-transfer dissociation (ETD), ETciD, and EThcD.

132 Furthermore, we adopted a hybrid electron-transfer dissociation (ETD)-HCD acquisition pro

133 anions via electrospray ionization (ESI) for electron-transfer dissociation (ETD).

134 collision-induced dissociation (CID-MS(2)), electron-transfer dissociation (ETD-MS(2)), and CID of a

135 and detection, gas phase ion/ion chemistry, electron transfer dissociation for peptide fragmentation

136 ing higher-energy collision dissociation and electron transfer dissociation fragmentation for sensiti

137 We employed the electron transfer dissociation fragmentation technique i

138 on of a diagnostic ion of a glycan fragment, electron transfer dissociation fragmentation was perform

139 spectrometric analysis (HCD-MS(n)) and ETD (electron transfer dissociation)-HCD MS(3) analysis using

140 Although electron transfer dissociation-higher energy collisional

141 g (TMT) labeling and an LTQ Orbitrap XL ETD (electron transfer dissociation) hybrid mass spectrometer

142 Electron transfer dissociation ion/ion reactions are imp

143 ion of low mass-to-charge fragment ions, and electron transfer dissociation is especially useful for

144 Among the existing fragmentation methods, electron transfer dissociation is known for its precisio

145 Front-end electron transfer dissociation mass spectrometry analyse

146 Electron transfer dissociation mass spectrometry analysi

147 fication of FlgG using collision-induced and electron transfer dissociation mass spectrometry, as wel

148 ter ions produced by supplemental activation electron transfer dissociation mass spectrometry.

149 tion sites of native modified peptides using electron transfer dissociation mass spectrometry.

150 disordered regions of A4 were identified by electron transfer dissociation mass spectrometry.

151 ted acquisition of high-quality, single-scan electron transfer dissociation MS/MS spectra of phosphop

152 ing collisionally activated dissociation and electron-transfer dissociation MS ( n ) to protein analy

153 D (collision-induced dissociation)- and ETD (electron transfer dissociation)-MS/MS experiments.

154 Negative electron transfer dissociation (NETD) has proven valuabl

155 We further show that negative electron transfer dissociation (NETD) is an even more ef

156 In this negative electron transfer dissociation (NETD) scheme, an electro

157 Subsequent negative electron transfer dissociation (NETD) tandem mass spectr

158 his work, we apply the technique of negative electron transfer dissociation (NETD) to GAGs on a comme

159 tron detachment dissociation (EDD), negative electron transfer dissociation (NETD), and extreme ultra

160 tron detachment dissociation (EDD), negative electron transfer dissociation (NETD), or extreme UV pho

161 n liquid chromatography (HILIC) and negative electron transfer dissociation (NETD).

162 escribe the first implementation of negative electron-transfer dissociation (NETD) on a hybrid ion tr

163 protein interactions by use of ion mobility, electron transfer dissociation, nonbinding control pepti

164 However, electron transfer dissociation of peptides generates com

165 ent sequence coverage (80%) is obtained with electron transfer dissociation of the same high charge-s

166 Electron-transfer dissociation of doubly positively char

167 ragmentation HDX analyses is demonstrated by electron-transfer dissociation of ubiquitin ions under c

168 DX), subzero temperature chromatography, and electron transfer dissociation on the Orbitrap mass spec

169 nvolving Rydberg orbitals appropriate to the electron transfer dissociation process.

170 o been demonstrated with proton transfer and electron transfer dissociation reactions with peptides.

171 tection, a targeted proteomic approach using electron transfer dissociation-selected reaction monitor

172 After an initial electron-transfer dissociation step, all ions including

173 at different sites) at the residue level by electron transfer dissociation tandem mass spectrometry

174 uid chromatography coupled with electrospray electron transfer dissociation tandem mass spectrometry

175 these peptides in hand, we demonstrate that electron-transfer dissociation tandem mass spectrometry

176 ed in tandem with ion mobility separation or electron transfer dissociation, thus enabling multiple o

177 isomers, and Orbitrap mass spectrometry with electron transfer dissociation to identify the resolved

178 terium exchange mass spectrometry coupled to electron transfer dissociation to pinpoint individual re

179 Here, we explore middle-down proteomics with electron transfer dissociation using a targeted acquisit

180 d here show that middle-down proteomics with electron transfer dissociation using PRM is a novel, att

181 ntial ion mobility spectrometry (FAIMS) with electron transfer dissociation, we demonstrate rapid bas

182 nt method, both collisional dissociation and electron transfer dissociation were used to fragment the

183 ncorporation data for fragments generated by electron-transfer dissociation, whereas high-energy coll

184 palmitoyl group was mostly preserved during electron transfer dissociation, which produced extensive

185 these sites can be revealed by photoinduced electron transfer dissociation, which produces character

186 ere as a possible reaction partner to induce electron transfer dissociation with deprotonated peptide

187 higher-energy collision dissociation (HCD), electron-transfer dissociation with supplemental collisi