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1 odies, RNA interference, receptor decoys and gamma-secretase inhibitors).
2 leukemic mice treated with vehicle or with a gamma-secretase inhibitor.
3 ocked in newborn mice by administration of a gamma-secretase inhibitor.
4 e lungs by disrupting Notch signaling with a gamma-secretase inhibitor.
5 nd-dependent Notch signaling is blocked by a gamma-secretase inhibitor.
6 ing of this radioligand or a non-radioactive gamma-secretase inhibitor.
7 (1) arrest and apoptosis when treated with a gamma-secretase inhibitor.
8 eoisomer of LY-411,575, which is a very weak gamma-secretase inhibitor.
9 to a biotinylated, benzophenone-derivatized gamma-secretase inhibitor.
10 ity probe based on a transition state analog gamma-secretase inhibitor.
11 n induction of apoptosis, in the presence of gamma-secretase inhibitor.
12 ofiles observed in humans upon dosing with a gamma-secretase inhibitor.
13 minutes of blocking Abeta production with a gamma-secretase inhibitor.
14 ich is abrogated by combination therapy with gamma secretase inhibitors.
15 inhibitors of PI3K kinase but insensitive to gamma-secretase inhibitors.
16 rminal fragment in mediating the activity of gamma-secretase inhibitors.
17 chema, we avoided the reported toxicities of gamma-secretase inhibitors.
18 was blocked by ATP itself and APP-selective gamma-secretase inhibitors.
19 s, as well as wild-type neurons treated with gamma-secretase inhibitors.
20 eavages, in the presence or absence of known gamma-secretase inhibitors.
21 ial target of a number of recently developed gamma-secretase inhibitors.
22 by inhibitors known as non-transition state gamma-secretase inhibitors.
23 dies of SPP as well as evaluation of SPP and gamma-secretase inhibitors.
24 This function of PS1 is unaffected by gamma-secretase inhibitors.
25 This process can be blocked by gamma-secretase inhibitors.
26 ble that Notch function could be affected by gamma-secretase inhibitors.
27 dominant-negative form of PS or treated with gamma-secretase inhibitors.
28 the active chair conformation of the parent gamma-secretase inhibitors.
29 substrates for assessing relative potency of gamma-secretase inhibitors.
30 showed reduced sensitivity to inhibition by gamma-secretase inhibitors.
31 with NOTCH1-binding sites are insensitive to gamma-secretase inhibitors.
32 get genes, and exhibited cross-resistance to gamma-secretase inhibitors.
33 signaling that can be effectively blocked by gamma-secretase inhibitors.
34 ed by Notch1 signaling and can be blocked by gamma-secretase inhibitors.
35 l, para-substituted fluorophenyl ring in the gamma-secretase inhibitor 1 (BMS-708,163) with the bicyc
37 ric synthesis of novel, potent photoreactive gamma-secretase inhibitors 2 and 3 has been accomplished
39 dent protein kinase (PKG) inhibitor, but not gamma-secretase inhibitor, abolished the elevation of sy
46 efore relevant factors in the development of gamma-secretase inhibitors and can be evaluated using ap
47 ion by anti-amyloidogenic compounds, such as gamma-secretase inhibitors and nonsteroidal anti-inflamm
48 ME NOTCH1 mutants are effectively blocked by gamma-secretase inhibitors and require an intact metallo
49 duction of DCC-ICD is inhibited by selective gamma-secretase inhibitors, and by the expression of the
50 aceable by peptidomimetic and small molecule gamma-secretase inhibitors, and exhibited rapid associat
51 deficient for gamma-secretase or exposed to gamma-secretase inhibitors are caused by the loss of Not
53 anti-angiogenesis agent bevacizumab or to a gamma-secretase inhibitor as well as knockdown shRNA stu
54 is on the promise and challenges in applying gamma-secretase inhibitors as a new line of targeted the
55 g is the main cause for untoward effects for gamma-secretase inhibitors as therapeutics for Alzheimer
56 d selective targeting, we have developed the gamma-secretase inhibitor-based prodrugs 13a and 15a as
57 ation of Notch-1 by small interfering RNA or gamma-secretase inhibitors before TW-37 treatment result
58 se embryos revealed 50 and 80% reductions of gamma-secretase inhibitor binding density in the heteroz
60 nhibitory protein (c-FLIP) turnover and that gamma-secretase inhibitor blocked c-FLIP turnover and al
61 he inhibition of IL-5, because addition of a gamma-secretase inhibitor blocked the type I IFN-indepen
62 ependent on secretase activity as ADAM10 and gamma-secretase inhibitors blocked RAGE ligand-mediated
65 plore the mechanisms of structurally diverse gamma-secretase inhibitors by examining their ability to
66 e specificity or the preference of the known gamma-secretase inhibitors by examining their effects on
67 sion and (ii) selectivity of various SPP and gamma-secretase inhibitors can be rapidly evaluated.
71 rons with beta-secretase inhibitors, but not gamma-secretase inhibitors, caused significant reduction
76 nd altered processing of these substrates by gamma-secretase inhibitors could lead to unintended biol
79 is dependent on Notch signaling, because the gamma-secretase inhibitor DAPT blocked its upregulation.
80 rsely, IL-33 expression was inhibited by the gamma-secretase inhibitor DAPT or by inhibiting the func
83 lidate a protocol that utilizes BMP4 and the gamma-secretase inhibitor DAPT to induce SE differentiat
84 tch activation in the chick embryo using the gamma-secretase inhibitor DAPT, we see a complete loss o
87 blockade of Notch signaling pathways using a gamma-secretase inhibitor, DAPT (N-[N-(3,5-difluorophena
89 d cell death, whereas Notch1 inhibition by a gamma-secretase inhibitor, DAPT, enhanced cell death in
90 otch receptor cleavage was blocked using the gamma-secretase inhibitor, DAPT, or signaling was activa
96 locking the NOTCH signaling pathway with the gamma-secretase inhibitor dibenzazepine increased the nu
99 se inhibition of gamma-secretase activity by gamma-secretase inhibitors did not affect the PEN-2 leve
100 mma-secretase components, and that selective gamma-secretase inhibitors differentially affect the tra
102 y, treatment of wild-type splenocytes with a gamma-secretase inhibitor directly promoted the granuloc
103 ckade of Notch signaling by dibenzazepine, a gamma-secretase inhibitor, disrupted the large vessels a
106 uire Notch1 mutations and are sensitive to a gamma-secretase inhibitor, endogenous Nras G12D/+ signal
108 as independently inhibited by three specific gamma-secretase inhibitors, expression of the dominant n
112 has been performed with a range of selected gamma-secretase inhibitors from six distinct structural
113 stigated the combination between miR-34a and gamma-secretase inhibitor (gammaSI), Sirtinol or zoledro
117 Treatment with a novel sulfonamide-type gamma-secretase inhibitor (GSI) attenuated the formation
118 of mice carrying autochthonous NSCLCs with a gamma-secretase inhibitor (GSI) blocks cancer growth.
120 -1 that produces NICD, we asked whether this gamma-secretase inhibitor (GSI) might prevent dendritic
121 t after training or before testing) with the gamma-secretase inhibitor (GSI) N-[N-(3,5-difluorophenac
122 activity was abrogated by a Notch inhibitor, gamma-secretase inhibitor (GSI) or Notch-1 small-interfe
124 locked in PCT cell lines by treatment with a gamma-secretase inhibitor (GSI) or transduction of a dom
125 over, pharmacologic Notch inhibition using a gamma-secretase inhibitor (GSI) rescued the hyperprolife
129 13 T-cell leukemia cell lines treated with a gamma-secretase inhibitor (GSI) to inhibit Notch signals
131 acologic inhibition of Notch signaling using gamma-secretase inhibitor (GSI) treatment blocks (1) TGF
135 her with cyclin D3 shows partial rescue from gamma-secretase inhibitor (GSI)-induced G(1) arrest in t
138 , we demonstrate that inhibition of Notch by gamma-secretase inhibitors (GSI) is efficacious in downs
139 ized that inhibition of Notch signaling with gamma-secretase inhibitors (GSI) may enhance the chemose
147 However, inhibition of NOTCH signaling with gamma-secretase inhibitors (GSIs) has shown limited anti
149 that could synergize with or substitute for gamma-secretase inhibitors (GSIs) in T-cell acute lympho
150 nditionally deleting Notch1 or administering gamma-secretase inhibitors (GSIs) in vivo attenuated dis
151 Inhibiting Notch 3 activation in vitro with gamma-secretase inhibitors (GSIs) or small interfering R
152 ile of a novel spirocyclic sulfone series of gamma-secretase inhibitors (GSIs) related to MRK-560.
153 ouse or human T-ALL cell lines in vitro with gamma-secretase inhibitors (GSIs) results in growth arre
154 leukemia (T-ALL) led to clinical testing of gamma-secretase inhibitors (GSIs) that prevent NOTCH1 ac
155 sphere-like ReN cell aggregate cultures with gamma-secretase inhibitors (GSIs), but not SGSMs, induce
156 en we cultured utricles from young mice with gamma-secretase inhibitors (GSIs), striolar SCs complete
159 astic leukemia (T-ALL) and Notch inhibitors (gamma-secretase inhibitors [GSIs]) have produced respons
166 A negative drug trial with a broad spectrum gamma-secretase inhibitor in AD patients has severely da
168 E1 or BACE2 was blocked by a number of known gamma-secretase inhibitors in a concentration-dependent
169 f systemic Notch blockade were observed with gamma-secretase inhibitors in preclinical and early clin
170 of novel therapies, including nelarabine and gamma-secretase inhibitors, in adult patients with T-cel
171 that whereas blocking Notch signaling with a gamma-secretase inhibitor increased the conversion of in
172 The absence or reduction of PS1, as well as gamma-secretase inhibitors, increases neuronal miR-212,
174 2 trafficking, PS1 was also required for the gamma-secretase inhibitor-induced plasma membrane accumu
177 w that the new zeta-cleavage is inhibited by gamma-secretase inhibitors known as transition state ana
178 e Abeta aggregation inhibitor clioquinol and gamma-secretase inhibitor L-685,458 attenuated caspase-3
179 hemic hemisphere and that treatment with the gamma-secretase inhibitor L-685,458 improves the neurolo
180 profen (1 microM, 48 h) or with the specific gamma-secretase inhibitor L-685,458 significantly attenu
183 disruption of HUVEC-based tube formation by gamma-secretase inhibitor L1790 confirmed the critical r
184 sequences of gamma-secretase inhibition, the gamma-secretase inhibitor LY-411,575 was administered to
185 deed, we found that acute treatment with the gamma-secretase inhibitor LY-411575 reduces soluble Abet
187 dibenzazepinone 1, the core structure in the gamma-secretase inhibitor LY411575, can be prepared in f
193 enhanced by the combination of ATRA and the gamma-secretase inhibitor N-(N-(3,5-difluorophenacetyl)-
194 The effects of Notch inhibition, using the gamma-secretase inhibitor N-(N-[3,5-difluorophenacetyl]-
197 mbryonic fibroblast lines and blocked by the gamma-secretase inhibitors N-[N-(3,5-difluorophenacetyl-
198 treatment with the notch pathway inhibitor (gamma-secretase inhibitor), N-S-phenyl-glycine-t-butyl e
199 vation to hypoxia tolerance using a specific gamma-secretase inhibitor, N-[N-(3,5-Difluorophenacetyl)
201 tured mouse metanephroi in the presence of a gamma-secretase inhibitor, N-S-phenyl-glycine-t-butyl es
202 ion of amyloid-beta generation with beta- or gamma-secretase inhibitors not only decreased amyloid-be
203 N2a neuroblastoma cells exposed to beta- or gamma-secretase inhibitors, nuclear translocation was gr
205 this study was to determine the effects of a gamma-secretase inhibitor on the production of Abeta in
206 lar domain rescued the inhibitory effects of gamma-secretase inhibitors on VEGF-induced angiogenesis.
207 generate a new series of helical peptides as gamma-secretase inhibitors, one of which, 11, showed an
210 N1(IC) levels in MCF7/VP cells with either a gamma-secretase inhibitor or shRNA led to reduction of A
211 the Notch pathway by treatment with either a gamma-secretase inhibitor or stable expression of shRNA
212 nd that APP-PS1 interactions occur even when gamma-secretase inhibitors or "dominant-negative" PS1 mu
213 ls with the Notch activation signature using gamma-secretase inhibitors or by expressing a dominant n
216 Moreover, by inhibiting Notch signaling with gamma-secretase inhibitors or Notch receptor-specific ne
217 itizes them to inhibition via small-molecule gamma-secretase inhibitors or NOTCH-1 RNA interference.
219 ived intravitreal injection of PEDF, DAPT (a gamma-secretase inhibitor) or PEDF + DAPT at the time of
220 jective response rate after therapy with the gamma-secretase inhibitor PF-03084014 in patients with r
223 ch pathway are the Notch receptors, in which gamma-secretase inhibitors prevent the generation of the
227 mice, the cleavage product from Ac-gamma-Glu-gamma-secretase inhibitor prodrug 13a (gamma-GT-targetin
228 mma-GCT-targeting) but not from Ac-alpha-Glu-gamma-secretase inhibitor prodrug 15a (APA-targeting) ac
229 ical inhibition of the Notch pathway (with a gamma-secretase inhibitor) protected rats with proteinur
233 macological blockade of Notch signaling with gamma-secretase inhibitors raises insulin sensitivity af
234 ble by a photoactivated active site-directed gamma-secretase inhibitor rather than total PS1; hence,
235 trated that inhibition of Notch signaling by gamma-secretase inhibitors reduced tumor cell proliferat
236 Blockage of Notch4 processing to ICD4 by gamma-secretase inhibitor renders MCF-7 cells sensitive
237 that inhibition of Notch activation using a gamma-secretase inhibitor represents a potential new app
238 cing amyloid-beta by treating neurons with a gamma-secretase inhibitor restored surface expression of
239 with D283 medulloblastoma xenografts with a gamma secretase inhibitor resulted in decreased prolifer
240 hway inhibition with soluble Delta ligand or gamma secretase inhibitors resulted in a marked reductio
243 ng Notch signaling, through injection of the gamma-secretase inhibitor RO4929097, stimulates a subset
245 auma, when Notch signaling is inhibited by a gamma-secretase inhibitor selected for potency in stimul
246 vation of Notch transcriptional targets in a gamma secretase inhibitor-sensitive manner and causes No
249 tion of Notch signaling in these cells using gamma-secretase inhibitors significantly delayed leukemo
251 tch signaling, via knockdown of Notch1 or by gamma-secretase inhibitors, significantly reduced TGF-be
254 1 and 2 (PS1/2) knockouts recapitulated the gamma-secretase inhibitor studies, as compared with thei
255 ing Ab or specific inhibition of Notch1 by a gamma-secretase inhibitor substantially inhibits LFA-1/I
258 IG2/LMO1 transgenic mice was suppressed by a gamma-secretase inhibitor, suggesting that Notch1 up-reg
259 r cells was counteracted by treatment with a gamma-secretase inhibitor, suggesting that the aggressiv
260 ehavior of APP after treatment with beta- or gamma-secretase inhibitors suggests that the amount of b
261 /R injury activated Notch-2 signaling, and a gamma-secretase inhibitor suppressed I/R-induced Notch-2
262 nally, inhibition of Notch signaling using a gamma-secretase inhibitor suppressed proliferation of Ts
263 y, targeting Notch signaling with a peptidyl gamma-secretase inhibitor suppressed survivin levels, in
264 lates Notch signaling, and administration of gamma-secretase inhibitors suppressed the intestinal dys
265 Potential nephroprotective effects of the gamma-secretase inhibitor targeted prodrugs were investi
266 nyl]-S-phenylglycine t-butyl ester (DAPT), a gamma-secretase inhibitor that blocks activation of Notc
267 alpha-secretase in generating an endogenous gamma-secretase inhibitor that down-regulates the produc
270 for the development of clinically effective gamma-secretase inhibitors that can reduce amyloid-beta
271 o activated transcription in the presence of gamma-secretase inhibitors that prevent amyloid beta-pep
273 ated by Notch signaling; administration of a gamma-secretase inhibitor to mice increased the number o
275 eatment with a series of chemically distinct gamma-secretase inhibitors to prevent Notch-1 signaling.
277 udy, we determined the ability of MRK-003, a gamma-secretase inhibitor, to inhibit Notch3 signaling,
278 e NF-kappaB subunit c-Rel was compromised in gamma-secretase inhibitor-treated and CSL/RBP-Jkappa KO
280 s harboring FBW7 mutations were resistant to gamma-secretase inhibitor treatment and this resistance
281 ages from CSL/RBP-Jkappa KO mice phenocopied gamma-secretase inhibitor treatment for reduced IL-12p40
282 growth arrest and apoptosis associated with gamma-secretase inhibitor treatment or Notch1 inhibition
284 trategies to block NOTCH pathway activation: gamma-secretase inhibitor treatment, preventing nuclear
285 primary lymphoblasts were hypersensitive to gamma-secretase inhibitor treatment, which is known to i
288 gamma-secretase in terms of sensitivity to a gamma-secretase inhibitor, upregulation of Abeta42 produ
290 ase cleavage site and Compound E, a specific gamma-secretase inhibitor, we found high levels of gamma
291 presenilin selectivity of several classes of gamma-secretase inhibitors, we observed that sulfonamide
292 S were made into one eye and either Abeta or gamma-secretase inhibitor were injected into their oppos
293 ibited at the G(1) phase by treatment with a gamma-secretase inhibitor which specifically blocks the
294 our strategy to design metabolically stable gamma-secretase inhibitors which are selective for inhib
296 eceptor a promising target for drugs such as gamma-secretase inhibitors, which block a proteolytic cl
297 east cancer subtype and can be suppressed by gamma-secretase inhibitors, which effectively block rece
298 quitin ligase activity, or by treatment with gamma-secretase inhibitors, which prevent intramembrane
299 development of a new generation of selective gamma-secretase inhibitors with an improved side effect
300 henylglycine t-butylester (DAPT), a specific gamma-secretase inhibitor, would alter beta2-mediated ce
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