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1 GTP) was quantitated by p21-activated kinase pull-down assay.
2 Rho activation was determined using a pull-down assay.
3 PDAC cells from mice and humans using a Raf pull-down assay.
4 E1 initiating enzyme, UBE1L, in an in vitro pull-down assay.
5 Activation of Cdc42 was determined by GTP pull-down assay.
6 large subunit with PfR4 was detected by GST pull-down assay.
7 s interaction was confirmed in vitro using a pull-down assay.
8 action between myosin VIIa and PDZD7 by FLAG pull-down assay.
9 2 and RAC3 using a glutathione S-transferase pull-down assay.
10 rmation of their interaction by the in vitro pull-down assay.
11 tation and a glutathione S-transferase (GST) pull-down assay.
12 east two-hybrid screening and in an in vitro pull-down assay.
13 on and shown to be 3'UTR-dependent by biotin pull-down assay.
14 ian two-hybrid and glutathione S-transferase-pull down assays.
15 icroRNA 195 (miRNA195) was determined by RNA pull-down assays.
16 1 integrin was demonstrated through in vitro pull-down assays.
17 eting domain (residues 81-230) of Rabex-5 in pull-down assays.
18 l80 that functions in conventional ELISA and pull-down assays.
19 cosedimentation, coimmunoprecipitation, and pull-down assays.
20 o-hybrid and glutathione S-transferase (GST) pull-down assays.
21 .1R was borne out by the results of in vitro pull-down assays.
22 tudy using a yeast two-hybrid screen and GST pull-down assays.
23 from mammalian cell lysates and in vitro by pull-down assays.
24 rain also interacts with these same sites in pull-down assays.
25 further confirmed by immunoprecipitation and pull-down assays.
26 ed for interaction with GST or GST-Aalpha in pull-down assays.
27 and tested for binding to GST-Galpha(12) in pull-down assays.
28 llular level of active Rab5-GTP, as shown by pull-down assays.
29 binds directly in glutathione-S-transferase pull-down assays.
30 ced aggregates of Glu1 based on results from pull-down assays.
31 precipitation, biotinylated CaM overlay, and pull-down assays.
32 artners for Ggamma13 by yeast two-hybrid and pull-down assays.
33 act in vitro using glutathione S-transferase pull-down assays.
34 ts interactions with PSD95 in two-hybrid and pull-down assays.
35 nd to coelute by gel-filtration analysis and pull-down assays.
36 l inhibition in vitro through use of protein pull-down assays.
37 in Far-Western analysis and to native IFs in pull-down assays.
38 OCK activity; GTP-bound RhoA was measured in pull-down assays.
39 demonstrated in vitro by GST fusion protein pull-down assays.
40 c peptidoglycan was confirmed by biochemical pull-down assays.
41 demonstrated using yeast two-hybrid and GST pull-down assays.
42 interacted in Escherichia coli and in vitro pull-down assays.
43 beta with the PRF signal was demonstrated in pull-down assays.
44 rectly to HER2 by co-immunoprecipitation and pull-down assays.
45 were determined by glutathione S-transferase pull-down assays.
46 using colocalization, yeast two-hybrid, and pull-down assays.
47 lular domain directly interacted with Dvl in pull-down assays.
48 rved an interaction between SERT and PIP2 in pull-down assays.
49 provide an effective system that complements pull-down assays.
50 ers advantages over lateral flow or magnetic pull-down assays.
51 ed FRET reporters, or by the use of Rap1-GTP pull-down assays.
52 o (co-immunoprecipitation) and in vitro (GST pull-down) assays.
53 al two-hybrid system and in a poly-histidine pull-down assay; 2) immunoprecipitation of the D(2) rece
55 Reporter assay, glutathione-S-transferase pull-down assay, adenovirus-mediated gene transduction,
57 By employing a bacterial two hybrid system, pull down assays and surface plasmon resonance (SPR) ana
58 D2 loop in protein associations using a GST pull-down assay and a heterologous coexpression system.
59 BDs avidly bound HIV-1 IN in an in vitro GST pull-down assay and each full-length protein potently st
62 ell as nuclear proteins in mouse brain using pull-down assay and matrix-assisted laser desorption ion
63 ns heterodimerize in vitro and in vivo using pull-down assays and a Forster energy-transfer approach,
65 ed by coimmunoprecipitation and in vitro GST pull-down assays and by the identification of a beta-TrC
66 h N-ethylmaleimide-sensitive factor (NSF) in pull-down assays and co-immunoprecipitated with NSF in r
67 A16 and IFT46 was confirmed through in vitro pull-down assays and coimmunoprecipitation from flagella
69 ed the binding of SLIP1 to DBP5 and eIF3g by pull-down assays and determined the 3.25 A resolution st
71 pha-actinins and filamin was confirmed using pull-down assays and gel overlay assay with purified pro
72 1, or both, binding studies utilizing biotin pull-down assays and heterologous luciferase reporter co
74 and GSK3 was also confirmed by in vitro GST pull-down assays and in situ coimmunoprecipitation assay
75 by glutathione S-transferase fusion protein pull-down assays and in vivo as shown by co-immunoprecip
76 confirmed in vitro by mobility shift and DNA pull-down assays and in vivo by chromatin immunoprecipit
77 ion using co-immunoprecipitation, His-tagged pull-down assays and intracellular immunofluorescence co
83 and protocadherin 15 CD3 was confirmed with pull-down assays and surface plasmon resonance analysis,
84 4A in the yeast two-hybrid system and in GST pull-down assays and that the two proteins can be coimmu
86 of Golgi compaction and vesicle transport in pull-down assays and was required to reconstitute Golgi
87 ed with SPY in yeast two-hybrid and in vitro pull-down assays and were O-GlcNAc modified in Escherich
89 ere compared by substrate competition assay, pull-down assay, and surface plasmon resonance (SPR).
90 ePRK1 and LePRK2 in yeast and in an in vitro pull-down assay, and with LePRK2 in a co-immunoprecipita
91 terminus was further substantiated using GST pull-down assays, and binding of the full-length tagged
92 with MPK6 in yeast two-hybrid tests, immuno-pull-down assays, and by bimolecular fluorescence comple
93 We confirmed the interaction by in vitro pull-down assays, and demonstrated that BIF2 phosphoryla
95 pecifically interacts with purified TFIID in pull-down assays, and we have mapped the domains of Rap1
96 120) mutation did not affect DiaA binding in pull-down assays, and we propose that domain II, like Di
98 We performed glutathione S-transferase (GST)-pull-down assays between purified KCNQ2-4 carboxy termin
101 rt that p62 interacts with the proteasome by pull-down assay, coimmunoprecipitation, and colocalizati
102 chromatin immunoprecipitation, and in vitro pull-down assays corroborated that Prx1 interacts with A
112 tor, Galpha12/13 knockdown and activated Rho-pull-down assays demonstrated that FTY720-P potently act
115 iated protein, and glutathione S-transferase pull-down assays demonstrated that MVP1 interacted speci
116 lex immunoprecipitation and biotinylated RNA pull-down assays demonstrated that PARP-14 forms a compl
121 Furthermore, Immunoprecipitation and GST pull-down assays demonstrated that TRIM28 interacts with
122 Bacterial two-hybrid analysis and protein pull-down assays demonstrated the ability of Bsp22 to as
123 y Western blot and glutathione S-transferase pull-down assays demonstrated the association of Tat wit
124 vitro and in vivo glutathione S-transferase pull-down assays demonstrated the two putative glycosylt
127 ion substrates of KEG in vitro, and in vitro pull-down assays document their direct interaction.
128 ing, immunoprecipitation, and an ATP-agarose pull-down assay, EGCG was found to directly modulate the
130 tween HIV Gag and human LysRS using affinity pull-down assays, fluorescence anisotropy measurements a
134 SD95 in the cellular milieu was confirmed in pull-down assays following heterologous expression in HE
142 confirmed by glutathione S-transferase (GST) pull-down assays (GST-NTRPC3 pulled down TRPC1 and vice
143 wn that in a glutathione S-transferase (GST) pull-down assay, GST/hnRNP C1 binds to poliovirus polype
146 firmed that the 2AI is cell permeable, while pull-down assays identified BfmR, a response regulator t
148 Most importantly, glutathione S-transferase pull-down assays identified that Stat3 binds to the p65
151 oresis (PAGE) gel shifts as well as affinity pull-down assays implicated Zu5 and beta-spectrin repeat
152 d for application in the design of selective pull-down assays in proteomics, drug delivery, and nanos
153 The interaction was also confirmed by a "pull-down" assay in which histidine-tagged ACBP was used
156 ping studies using glutathione S-transferase pull-down assays indicated that amino acids 137 to 181 o
160 acterized by glutathione S-transferase (GST) pull-down assays, limited proteolysis followed by mass s
165 on of CcpA-promoter interactions using a DNA pull-down assay mimicking physiological conditions showe
167 t bind ENaC in cells, as assessed by in vivo pull-down assays, nor did it phosphorylate ENaC in vitro
171 native claudin-4 on transfected CHO cells in pull-down assays, only the larger Cpe30 peptide affected
174 F4G binding, it binds m(7)GTP weakly, and in pull-down assays, rather than binding eIF4G, it binds 4E
176 oprecipitation and glutathione S-transferase pull-down assay results indicated that caveolin-1 and BK
178 scence results and glutathione S-transferase pull-down assays revealed an association of Ndm with cor
180 atin immunoprecipitation and oligonucleotide pull-down assays revealed ERalpha binding to the PBF pro
186 on experiments and glutathione-S-transferase pull-down assays revealed that TLX1 directly binds to CB
187 ybrid library screening and in vitro protein pull-down assays revealed that XLG2 interacts with the n
188 binding site, confirmed via oligonucleotide pull-down assays, revealed increased HAB promoter activi
192 triphosphate-agarose and calmodulin-agarose pull-down assays show that the TRPV6-ARD does not intera
194 on experiments and glutathione S-transferase pull-down assay showed a direct interaction between RARb
198 Western immunoblot and microaffinity DNA pull-down assays showed a parallel increase in nuclear t
199 atin immunoprecipitation and oligonucleotide pull-down assays showed that both FOXO3a and FOXM1 bind
203 ng with phospho-specific antibodies, and GST pull-down assays showed that Nck determines spatiotempor
210 me of which indeed interact with aldolase in pull-down assays, suggest supplementary, non-glycolytic
211 A2 in coimmunoprecipitation and in vitro GST pull-down assays, suggesting that regulation involved di
214 dy, we show by coimmunoprecipitation and GST pull-down assays that BK(Ca) channels can associate with
216 brid assay and the glutathione S-transferase pull-down assay, that mouse REV1 can physically interact
217 athways) has been demonstrated using the GST pull-down assay, the yeast two-hybrid assay, as well as
219 nteract with both p47(PHOX) and p67(PHOX) in pull-down assays, their proteolysis pattern upon thrombi
220 reporter probes in a single-molecule protein pull-down assay to characterize antibody binding and tar
222 ce spectroscopy and conventional biochemical pull-down assays to demonstrate a direct interaction bet
223 they were used in glutathione S-transferase pull-down assays to determine their binding properties.
225 export assays, and glutathione S-transferase pull-down assays to investigate the export pathway used
226 through the small GTP-ase, Rac1 and we used pull-down assays to investigate the role of Eps8 in Rac1
227 ar fluorescence complementation and in vitro pull-down assays to investigate the supramolecular organ
228 f the compound library and performed protein pull-down assays to purify the anticancer targets of the
234 hibition of SP-A binding to agarose beads, a pull-down assay using His-tagged Prdx6 and Ni(2) -chelat
237 tion and verified by confocal microscopy and pull-down assay using recombinant or in vitro translated
238 by means of glutathione S-transferase (GST) pull-down assays using GST fused to the Ran binding doma
240 ERalpha)-estrogen response element (ERE)-DNA pull-down assays using HeLa nuclear extracts followed by
242 endent as shown in glutathione S-transferase pull-down assays using native and recombinant Cpn0585.
248 These were further confirmed by peptide pull-down assays using specific mutations in the interac
257 covery after photobleaching, and biochemical pull down assays, we demonstrated that recycling of inte
263 nce resonance energy transfer technology and pull-down assays, we confirmed that these two subunits i
264 oprecipitation and glutathione S-transferase pull-down assays, we discovered and confirmed that Saito
271 ctive labeling on Hrp1, in vivo activity and pull-down assays, we were able to study this complex of
272 PTP-PEST interaction with SKAP-Hom, in vitro pull down assays were performed demonstrating that the P
273 d as VPg, therefore yeast two-hybrid and GST pull-down assays were carried out with proteins encoded
277 ation analysis and glutathione S-transferase pull-down assays, whereas the association of the two fac
278 mechanisms of OsHAD1, we performed in vitro pull-down assays, which revealed the association of OsHA
280 leavage was also demonstrated in an in vitro pull-down assay with agarose bead-immobilized AtS1P.
283 transcription factor C/EBPalpha by use of a pull-down assay with S-tagged C/EBPalpha combined with m
284 at combines the principles of a conventional pull-down assay with single-molecule fluorescence micros
287 stent with S-glutathionylation, streptavidin pull-down assays with biotinylated glutathione ethyl est
288 recipitation from mouse brain lysates and by pull-down assays with exogenously expressed proteins.
293 mass spectrometry on proteins obtained from pull-down assays with GST-nephrin cytoplasmic domain.
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