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1                   Recovery is 90% for a pure phosphopeptide.
2 (D) of 0.35 nm in 1:1 binding to its cognate phosphopeptide.
3 er been used for the selective enrichment of phosphopeptides.
4 dues, interfering with the identification of phosphopeptides.
5 R, and EDX and employed in the enrichment of phosphopeptides.
6 r abilities to enrich for different types of phosphopeptides.
7 ave selective affinity and can interact with phosphopeptides.
8 percentage of longer, basic, and hydrophilic phosphopeptides.
9 mined 14-3-3-binding motifs from non-binding phosphopeptides.
10 ble quantitation across tens of thousands of phosphopeptides.
11 simultaneous enrichment of glycopeptides and phosphopeptides.
12 ysate, representing a more natural source of phosphopeptides.
13 omatography for the sequential enrichment of phosphopeptides.
14 cles to create membranes that rapidly enrich phosphopeptides.
15 uced efficiency, indicating a preference for phosphopeptides.
16 ation and enrichment of different classes of phosphopeptides.
17 tion-specific amino acid patterns in sets of phosphopeptides.
18 ation allows the selective identification of phosphopeptides.
19 ylation at 258 phosphosites, from 219 unique phosphopeptides.
20 lic QPSSSR peptide library as well as common phosphopeptides.
21 e CZE-MS/MS-based platform identified 11,555 phosphopeptides.
22 ntensity from low concentrations of enriched phosphopeptides.
23 hment provided more than 90% selectivity for phosphopeptides.
24  monoliths with surface layers selective for phosphopeptides.
25 ocols yielded comparable numbers of distinct phosphopeptides, 1693 and 1842, respectively, from micro
26         We provide temporal profiles of 4797 phosphopeptides, 608 of which showed significant regulat
27 he phosphoproteomic results of increased T31 phosphopeptide abundance with decreased MKK2 abundance i
28                                              Phosphopeptide abundances of five phosphoproteins involv
29 as also demonstrated on the basic and acidic phosphopeptides: acidophilic phosphorylation sites were
30 echniques that reproducibly measure the same phosphopeptides across multiple replicates, conditions,
31 ntibody fragment (Fab30) that recognizes the phosphopeptide-activated state of beta-arrestin-1.
32 ptide, and the interaction with the tyrosine phosphopeptide affects the pyruvate kinase activity of P
33 explored comparative binding pattern of GLI3 phosphopeptides against betaTrCP1.
34 inase:substrate relationship analysis of the phosphopeptides also revealed ABL1 and SRC tyrosine kina
35       Here, we employ a library of synthetic phosphopeptide analogues of the GPCR rhodopsin C-terminu
36 Using genetic, biochemical, and quantitative phosphopeptide analyses, we found that the E3 ubiquitin
37                      Mass spectrometry-based phosphopeptide analysis demonstrated that the relative r
38  (i) ratio distortion remained a problem for phosphopeptide analysis in multiplexed quantitative work
39 /RP-nanoUPLC to compare their performance in phosphopeptide analysis.
40 e the suitability of the TMTpro reagents for phosphopeptide analysis.
41 ical binding interface to recognize the Cdc7 phosphopeptide and a non-canonical interface to bind Dbf
42       To this end, we performed and compared phosphopeptide and phosphoprotein enrichment methodologi
43  enabled us to identify nearly 10,000 unique phosphopeptides and 1,500 unique N-glycopeptides.
44 tative phosphoproteomic dataset yielded 2250 phosphopeptides and 1314 localized phosphosites with exc
45 enriched considerably longer and more acidic phosphopeptides and consequently, we identified 327 phos
46  to global proteome, the workflow identified phosphopeptides and glycopeptides from the PTM enrichmen
47 ncrease the number of identified hydrophilic phosphopeptides and improve MS detection signals.
48  localizing sites of phosphorylation in both phosphopeptides and intact phosphoproteins.
49                                              Phosphopeptides and lysine-acetylated peptides were quan
50  an updated workflow to sequentially isolate phosphopeptides and N-glycopeptides, enabling multiple P
51 r studying weak bonds between metal ions and phosphopeptides and provided a direct means of thermodyn
52 ID fragmentation analysis between unmodified phosphopeptides and those modified online with FBDSA or
53 monstrated that PKM2 interacts with tyrosine phosphopeptide, and the interaction with the tyrosine ph
54                       A total of 8202 unique phosphopeptides, and 4317 unique proteins were identifie
55  compensation voltage settings for unlabeled phosphopeptides, and demonstrate the advantages of FAIMS
56 ytes tested include steroids, phospholipids, phosphopeptides, and sialylated glycans.
57 esence of nano-TiO2 for selective binding of phosphopeptides, and the magnetic responsiveness of magn
58 signal intensities were enhanced for most pY-phosphopeptides (approximately 70%) when using the pY-MI
59 thodologies to enrich heterogeneous types of phosphopeptides are critical for comprehensive mapping o
60 present study, the fragmentation patterns of phosphopeptides are improved through ion/ion-mediated pe
61                                              Phosphopeptides are of interest in enzymes and phosphory
62        To demonstrate the potential of these phosphopeptides as asymmetric catalysts, enantioselectiv
63 phosphoproteomic study identified additional phosphopeptides as possible targets that show the involv
64             Several studies identified short phosphopeptides as tight BRCT binders.
65 a designed phospholipid-inspired amphiphilic phosphopeptide at 0.8 A resolution is presented.
66 absorption and high cleavage coverage of the phosphopeptides at much lower irradiation fluence than f
67  serum samples are used for the detection of phosphopeptides based biomarkers.
68 re-affinity relationship studies showed that phosphopeptides based on Tyr631 from IL-4Ralpha bind wit
69                                            A phosphopeptide-based proteomic screen identified ROCK (R
70 bitor of MKP5 using a p38alpha MAPK-derived, phosphopeptide-based small-molecule screen.
71                                            A phosphopeptide bearing the antagonistic motif (AVPI) to
72 7 phosphorylation sites from 13029 different phosphopeptides belonging to 3163 different phosphoprote
73 tivity to Src kinase while products (ADP and phosphopeptide) bind with positive cooperativity.
74 d of yellow and blue fluorescent proteins, a phosphopeptide binding domain, a MAPK substrate domain a
75 e R377A does not cause a significant loss of phosphopeptide binding, but rather a tandem substitution
76 bryonic DNA damage responses by means of its phosphopeptide-binding ability: activating Mnk in the nu
77 rupting effect on the structure of the N-SH2 phosphopeptide-binding cleft mediating the interaction o
78 ylates UBF1 at Ser-412, thereby generating a phosphopeptide-binding epitope that binds the ECT2 BRCT
79                    Plant 14-3-3 proteins are phosphopeptide-binding proteins, belonging to a large fa
80                     A triple mutation in the phosphopeptide-binding site of the forkhead-associated (
81 ures revealed that the monobodies occupy the phosphopeptide-binding sites of the SH2 domains and thus
82      In addition, we found that the ETS1 SRR phosphopeptide binds to distantly related PU.1 in vitro,
83 structures of inactive, preactivated p44 and phosphopeptide-bound arrestins and will guide our unders
84            Detection and characterization of phosphopeptides by infrared multiphoton dissociation two
85 re minimal differences between enrichment of phosphopeptides by TiO2 and Ti(4+)-IMAC when considering
86                  Mapping of rat striatal DAT phosphopeptides by two-dimensional thin layer chromatogr
87 h throughput approach, based on high density phosphopeptide chips, to determine the in vitro substrat
88 thesis by determining the structure of a FHA:phosphopeptide complex, from which we design a constitut
89           Mass spectroscopy analysis of Gp78 phosphopeptides confirmed S538 as a major p38 MAPK phosp
90               We identified a total of 2,001 phosphopeptides containing 1,026 unambiguous phosphoryla
91 demonstrate that electrophoretic mobility of phosphopeptides containing one phosphoryl group can be p
92 derived for only a few 14-3-3 complexes with phosphopeptide-containing proteins and a variety of comp
93   Phosphoproteomic analysis revealed that 19 phosphopeptides corresponding to 12 proteins were differ
94 ptides, we extracted 849 uniquely identified phosphopeptides corresponding to 425 proteins and identi
95 n total, the SPS-MS3 method quantified 38247 phosphopeptides, corresponding to 11000 phosphorylation
96                          In all, 6579 unique phosphopeptides, corresponding to 1701 unique phosphoryl
97                                          The phosphopeptide data set is at least 100% larger than tha
98 nt glycopeptides can be found in a published phosphopeptide data set.
99 ochemical properties of pY-MIP-TiO2-enriched phosphopeptides demonstrated that this protocol retrieve
100 rative evaluations of enrichment methods for phosphopeptides depend highly on the experimental protoc
101 s not directly contact pTyr(1087) of a bound phosphopeptide derived from p190RhoGAP; rather, it makes
102 was synergistic with activation by a soluble phosphopeptide derived from receptor tyrosine kinases.
103                                              Phosphopeptides derived from aberrantly phosphorylated p
104  these in vitro phosphorylated peptides with phosphopeptides derived from endogenous proteins isolate
105 this method to detect and quantify predicted phosphopeptides derived from T-bet.
106 is study, we evaluated two HLA-A2-restricted phosphopeptides derived from the insulin receptor substr
107 -metal ion complexes during LC which hampers phosphopeptide detection.
108                         To date, hundreds of phosphopeptides displayed on melanoma, ovarian cancer, l
109  proteins, >300 protein kinases, and >15,000 phosphopeptides, enabled deep insight into signaling rec
110  14-3-3 isotypes gamma, theta, and zeta with phosphopeptides encompassing pS910, pS935, or pS1444 dem
111 thetic phosphopeptide reference data set and phosphopeptide-enriched samples.
112 d human blood serum, are used to explore its phosphopeptide enrichment ability from complex samples f
113 hieve precise quantitation, followed by TiO2 phosphopeptide enrichment and high resolution mass spect
114                    The combination of TiO(2) phosphopeptide enrichment and MudPIT analysis revealed 8
115 ere determined by a strategic combination of phosphopeptide enrichment and nano-ultra-performance liq
116                                      In each phosphopeptide enrichment and purification process, only
117                                    Automated phosphopeptide enrichment demonstrates reproducible synt
118                       As a result, automated phosphopeptide enrichment enables statistical analysis o
119                                              Phosphopeptide enrichment from complicated peptide mixtu
120                                              Phosphopeptide enrichment from digested peptide mixtures
121                  Reproducible, comprehensive phosphopeptide enrichment is essential for studying phos
122 nd inactive states of kinases but performing phosphopeptide enrichment made it possible to measure th
123 rbents (Strata X-AW and Oasis WAX) and three phosphopeptide enrichment materials based on affinity ch
124 ffinity purification, mass spectrometry, and phosphopeptide enrichment of isotope-labeled peptides, w
125                                              Phosphopeptide enrichment onto the synthesized amine-fun
126     We provide a free downloadable automated phosphopeptide enrichment program to facilitate uniform
127 been identified using these highly selective phosphopeptide enrichment protocols in combination with
128    The combination of pY-MIP- and TiO2-based phosphopeptide enrichment provided more than 90% selecti
129 ere, we simplified the assay by removing the phosphopeptide enrichment step, increasing throughput wh
130                      Here, we report a novel phosphopeptide enrichment strategy and its application t
131                  Here, we report an unbiased phosphopeptide enrichment strategy based on strong anion
132 se unique properties render the pY-MIP-based phosphopeptide enrichment technique an attractive altern
133               Most of them combine different phosphopeptide enrichment techniques and require startin
134 e composite exhibits enhanced capability for phosphopeptide enrichment with sensitivity assessed to b
135  amino acids in cell culture, affinity-based phosphopeptide enrichment, and high-resolution mass spec
136  an inverse strategy based on TiO2 selective phosphopeptide enrichment, fractionation by strong catio
137             Furthermore, by integrating with phosphopeptide enrichment, the nanoFAC 2D RPLC platform
138 ication technology (MudPIT), without or with phosphopeptide enrichment, was applied to study the prot
139 d Ti-IMAC microspheres for uniform automated phosphopeptide enrichment.
140 re for visualization, and a biotin group for phosphopeptide enrichment.
141  the engineering of an affinity material for phosphopeptide enrichment.
142        The sol-gel network was then used for phosphopeptide enrichment.
143  was compatible with previous data on TiO(2) phosphopeptide enrichment.
144  provides immobilized metal ion affinity for phosphopeptides enrichment.
145                                       Robust phosphopeptide enrichments that are suitable for low inp
146 devised a strategy that enhances analysis of phosphopeptides, especially multiply phosphorylated pept
147  reacted with HPO4(2-), phosphoserine, and a phosphopeptide (FQpSEEQQQTEDELQDK, abbreviated "betacas"
148 tituted up to 8% of the pY-MIP-TiO2-enriched phosphopeptide fractions.
149  fragments and comigration of PKC-stimulated phosphopeptide fragments with NDAT Ser-7 phosphopeptide
150 t in base signal-to-noise for distinguishing phosphopeptide from unphosphorylated peptide.
151 broblast cell lysate a total of 1,944 unique phosphopeptides from 1,087 unique phosphoproteins were i
152 anoFAC 2D RPLC platform can identify ~20,000 phosphopeptides from 100 mug of MCF-7 cell lysate.
153 bserved in cancer, we quantified 7566 unique phosphopeptides from 3279 proteins.
154  methodology for the selective extraction of phosphopeptides from 40 muL of tryptic beta-casein diges
155 tem was applied for the enrichment of casein phosphopeptides from a simulated tryptic digest with bov
156                     The nanoparticles enrich phosphopeptides from casein variants, nonfat milk, egg y
157 e protocols to enrich for subfemtomole-level phosphopeptides from cell line and human tissue samples
158  be developed to characterize HLA-associated phosphopeptides from clinical samples that are limited b
159                  Capturing glycopeptides and phosphopeptides from complicated biological samples is i
160 gated for the enrichment and purification of phosphopeptides from digested protein mixture solutions.
161 affinity capture and identification of 3,908 phosphopeptides from fractionated whole-heart homogenate
162 lipovitellin from egg yolk and phospholipids/phosphopeptides from human serum.
163 iochemical WIP1 activity assays that utilize phosphopeptides from native WIP1 substrates.
164       We first reassess efficient sorting of phosphopeptides from nonphosphopeptides based on IR-abso
165  Several methods were employed for isolating phosphopeptides from proteolytically digested plasma mem
166 ses is carried out for the identification of phosphopeptides from serum digest and HeLa cell extract.
167 e rounds to enable the maximum extraction of phosphopeptides from the whole cell lysates.
168           This facilitates the separation of phosphopeptides from unmodified acidic peptides.
169 ty, the composite was employed for enriching phosphopeptides from yeast protein digests.
170 otypes comprising 14,165 proteins and 18,405 phosphopeptides (from 4,511 proteins), quantified across
171                                        These phosphopeptides had more serine phosphorylated residues
172                       At a pH higher than 5, phosphopeptides have two negative charges per residue an
173 s as a central filtering rule for maximizing phosphopeptide identification and quantitation.
174 d LC-MS/MS were complementary in large-scale phosphopeptide identifications and produced different ph
175                            From 8,075 unique phosphopeptides identified, we observe that aberrant act
176 confidence datasets, since information about phosphopeptide identity, site-localization, and quantita
177   However, water molecules interact with the phosphopeptide in the hydrophilic region of the lattice.
178                The system identifies >30,000 phosphopeptides in 12 h and protein-protein or protein-d
179 sphatase domain that confers specificity for phosphopeptides in a specific sequence context.
180                   Cancer cells display novel phosphopeptides in association with MHC class I and II m
181 ed to the determination of glycopeptides and phosphopeptides in clinical specimens, cell lysates, and
182 a model for predicting the migration time of phosphopeptides in CZE.
183 al of ultra-low flow ESI for the analysis of phosphopeptides in liquid based separation techniques.
184 of phosphoangiotensin and recover 70% of the phosphopeptides in mixtures with a 15-fold excess of non
185 oproteomics to compare the global changes in phosphopeptides in WT and snrk2.2/2.3/2.6 triple mutant
186                Typical methods for enriching phosphopeptides include immobilized metal affinity chrom
187                 Target motif analysis of the phosphopeptides increased in PKA-null cells indicates th
188                       Whereas all functional phosphopeptides interact with a common phosphate binding
189 at, based on structurally characterized BRCT-phosphopeptide interactions, were presumed critical for
190 ner proteins usually bind via insertion of a phosphopeptide into an amphipathic groove of 14-3-3.
191 on or reactivation affected largely distinct phosphopeptides, introducing a concept of nonoverlapping
192           We conclude that chromatography of phosphopeptides is best performed at low pH in the ERLIC
193            An expanded library of 967 unique phosphopeptides is detected using significantly reduced
194 f-of-concept 10-plex experiment, we compared phosphopeptide levels from five murine brains to five li
195   We have applied FAIMS to the analysis of a phosphopeptide library comprising the sequences GPSGXVpS
196 yme binding and activity with a microarrayed phosphopeptide library printed on chips coated with eith
197 d mutagenesis of NEM1 and SPO7, coupled with phosphopeptide mapping and immunoblotting with a phospho
198                                              Phosphopeptide mapping by mass spectrometry indicates an
199      Phosphoamino acid analysis coupled with phosphopeptide mapping of the CKI-phosphorylated Pah1 in
200               Phosphoamino acid analysis and phosphopeptide mapping revealed that lipin 1beta is phos
201 ncation analysis, site-directed mutagenesis, phosphopeptide mapping, and phosphoamino acid analysis,
202 s, coupled with phosphorylation analysis and phosphopeptide mapping, to identify Ser-45 and Ser-46 of
203 ion analysis, site-directed mutagenesis, and phosphopeptide mapping, we identified Ser-677, Ser-769,
204  normal as assayed by in vitro kinase and MT phosphopeptide mapping.
205 ry identified 14,155 spectra of 3,371 unique phosphopeptides mapping to 1,159 proteins (false discove
206 ted phosphopeptide fragments with NDAT Ser-7 phosphopeptide markers.
207 The major components of the pipeline include phosphopeptide meta-analysis, correlation network analys
208 al challenge to analysis is the formation of phosphopeptide-metal ion complexes during LC which hampe
209                                              Phosphopeptides migrate significantly slower than corres
210                              A cell permeant phosphopeptide mimetic of Niban (NiPp) was generated.
211                            We are developing phosphopeptide mimetics targeting the SH2 domain of STAT
212 ryptic digest of bovine serum albumin, and a phosphopeptide mixture.
213 lculated Cscore from a large data set (>7000 phosphopeptide MS/MS spectra) was approximately 32 compa
214 ncy of EV isolation, protein extraction, and phosphopeptide/N-glycopeptide enrichment to achieve sens
215 e of pY-MIP for enrichment and sequencing of phosphopeptides obtained by tryptic digestion of protein
216 iron fortified goat and cow milks and casein phosphopeptides obtained from each species of milk was d
217 itors that disrupt the interaction between a phosphopeptide of SLAM (signaling lymphocytic activation
218    Quantitative phosphoproteomics identified phosphopeptides of increased abundance in hai1-2 in unst
219                               Characteristic phosphopeptides of phosphoproteins are identified from h
220 identification of over 10,000 unique "basic" phosphopeptides of which many represent putative targets
221 ntially expressed proteins and 11 543 unique phosphopeptides, of which 80% are novel and 7% preferent
222 Polar analytes, including neurotransmitters, phosphopeptides, oligonucleotides, illicit drugs, and ph
223                 We also cataloged 144 unique phosphopeptides on known OCT4 interacting partners, incl
224  affect activation of p85/p110beta dimers by phosphopeptides or Gbetagamma.
225 estigated the thermodynamic properties of 18 phosphopeptides or peptide with phosphate mimic and thre
226 r, methodological limitations (e.g. in MS of phosphopeptides, or antibodies against phosphoepitopes)
227                       We identified distinct phosphopeptide patterns in metastatic tissues compared w
228                  We started by comparing the phosphopeptide patterns of cells treated with WNT3A for
229                                              Phosphopeptides/phosphoproteins enrichment from biologic
230                                              Phosphopeptides play a crucial role in many biological p
231  a search engine that detects and quantifies phosphopeptide positional isomers from parallel reaction
232 strategies, we succeeded in quantifying 1371 phosphopeptides present in the CE-MS data set and found
233 enables the identification of HLA-associated phosphopeptides presented by human tissue samples contai
234                      Selective enrichment of phosphopeptides prior to their analysis by mass spectrom
235 tor interaction between a glycopeptide and a phosphopeptide produces sPGPs that form nanoparticles, w
236  to which phosphate neutral loss occurs from phosphopeptide product ions due to the infrared photoact
237  IRMPD in the top-down analysis of peptides, phosphopeptides, proteins, phosphoproteins, ribonucleopr
238 r2 >/= 0.80) and high-fidelity (>90% purity) phosphopeptide purification in a 96-well format.
239 on interference, we assessed the accuracy of phosphopeptide quantitation across a variety of experime
240 otope-assisted mass spectrometric methods of phosphopeptide quantitation to characterize proteins in
241 ivity is directed to specific substrates via phosphopeptide recognition by its carboxyl-terminal polo
242        Forkhead-associated (FHA) domains are phosphopeptide recognition modules found in many signali
243 richment demonstrates reproducible synthetic phosphopeptide recovery across 2 orders of magnitude, "w
244 d SWATH-MS and benchmarked using a synthetic phosphopeptide reference data set and phosphopeptide-enr
245 ptides showed large sequence homology in the phosphopeptides released by tryptic hydrolysis and simul
246                                  Analysis of phosphopeptides requires enrichment, and even after the
247 0.1 fmol and 0.05 fmol for glycopeptides and phosphopeptides, respectively), and good reusability.
248                            Specifically, the phosphopeptide self-assembles to form nanoparticles, whi
249 The comparison showed significantly improved phosphopeptide sensitivity in equal sample load and equa
250  indicate that the FHA domain is a consensus phosphopeptide sensor, and that the ligand for activatio
251 native because CZE and LC are orthogonal for phosphopeptide separation and because the migration time
252 e separation method that produces orthogonal phosphopeptide separation to the widely used LC needs to
253                         A complex mixture of phosphopeptides showed similar coverage could be achieve
254 s in human CD8 T cells imparted high-avidity phosphopeptide-specific recognition and cytotoxic and cy
255 ed a peptide esterification step to increase phosphopeptide specificity from these low-input samples.
256 ow that AI-ETD can identify 24,503 localized phosphopeptide spectral matches enriched from mouse brai
257 ides from caseins, bovine serum albumin, and phosphopeptide standards.
258 o a well plate containing lysis buffer and a phosphopeptide substrate.
259                                          Two phosphopeptides, termed pIRS-21097-1105 and pCDC25b38-46
260 limited repeatability and linearity for most phosphopeptides tested, and different phosphopeptides we
261 involved the microinjection of a fluorescent phosphopeptide that is hydrolyzed specifically by PTPs.
262 t TiO2 enrichment does not fully recover the phosphopeptides that are not identified with the corresp
263                                     However, phosphopeptides that are unique to IMAC enrichment showe
264                                          The phosphopeptides that are unique to IMAC enrichment, uniq
265                                     Cortical phosphopeptides that distinguished female and male CRF-O
266 es demonstrated that this protocol retrieved phosphopeptides that tend to be smaller (<24 residues),
267                                     Notably, phosphopeptides that were more abundant in female CRF-OE
268       With 10 measurements recorded for each phosphopeptide, this equates to more than 628000 binary
269 sin-digested tumor samples were enriched for phosphopeptides through immobilized metal ion affinity c
270 ir activities are further enhanced by an RTK phosphopeptide to levels markedly exceeding that of acti
271 he intermediate oxazoline ring formed in the phosphopeptide to the metal-phosphate complex.
272 s present in the CE-MS data set and found 49 phosphopeptides to be differentially regulated in the tw
273 sphoproteomics requires better separation of phosphopeptides to boost the coverage of the phosphoprot
274 ficient protection against phosphate loss in phosphopeptides upon collision-induced dissociation tand
275 ratio of (18)O- versus (16)O-labeled tryptic phosphopeptide using high mass accuracy mass spectrometr
276 lls with the quantification of 11,266 unique phosphopeptides using multiplexed quantitative mass spec
277  with the vasopressin V2 receptor C-terminal phosphopeptide (V2Rpp).
278                                          The phosphopeptide was shown to self-assemble into semi-elli
279                                 A mixture of phosphopeptides was analyzed by 2DMS without any prior s
280  binding affinities of Ga(3+) and Fe(3+) for phosphopeptides, we designed a metal-directed immobilize
281 ized metal affinity chromatography to enrich phosphopeptides, we extracted 849 uniquely identified ph
282                                              Phosphopeptides were adsorbed onto the amine-functionali
283  whereas only 10% of 5069 monophosphorylated phosphopeptides were commonly enriched in both fractions
284  PAH and control cells, 170 proteins and 240 phosphopeptides were differentially expressed; of these,
285 de enrichment and purification process, only phosphopeptides were enriched and separated from the oth
286 r most phosphopeptides tested, and different phosphopeptides were found to have different linear rang
287                             Several thousand phosphopeptides were identified after TiO2 enrichment, a
288 erties and resolution in MALDI-TOF-MS, these phosphopeptides were identified as suitable markers for
289              However, only about 60% as many phosphopeptides were identified with SAX at pH 6 than vi
290                      In one ERLIC run, 12467 phosphopeptides were identified, including 4233 with mor
291 ally expressed; of these, 45 proteins and 18 phosphopeptides were located in the mitochondria.
292           In addition, up to 92% of the 6283 phosphopeptides were uniquely enriched in either the fir
293  quantitations and identifications even from phosphopeptides with a low number of spectral matches.
294 tially phosphorylated proteins (DP) from 350 phosphopeptides with a total of 399 phosphorylated sites
295 th IMAC and TiO2 enriched similar amounts of phosphopeptides with comparable enrichment efficiency.
296 he IMAC and TiO2 procedures clearly enriched phosphopeptides with different motifs.
297 ains challenging, especially for hydrophilic phosphopeptides with enriched regions of serines, threon
298 e present a straightforward method to enrich phosphopeptides with multiple basic residues, an under-r
299 ue allowed the identification of 2560 unique phosphopeptides with only 8% overlap.
300 identified and quantified over 13,000 unique phosphopeptides, with a large percentage dependent on Sy

 
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