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1                                              BMP (bone morphogenetic protein) signaling activity is p
2                                              BMP and TGFbeta signaling are instrumental in vascular d
3                                              BMP downstream signaling is strongly induced within epid
4                                              BMP inhibitor-induced decrease in hepatic triglyceride l
5                                              BMP signalling appears to regulate ecdysone receptor (Ec
6                                              BMP-2 induction leads to the expression of inhibitory Sm
7                                              BMPs are multifunctional growth factors implicated in re
8 ces BMP-9-mediated internalization of ALK-1, BMP-9-dependent signaling and gene expression.
9 uticle, a specialized ECM, impinges on DBL-1/BMP expression and signaling.
10 erestingly, the feedback regulation of DBL-1/BMP signaling by collagens is likely to be contact indep
11              We previously showed that DBL-1/BMP signaling determines body size through transcription
12 tivation of any of these genes reduces DBL-1/BMP signaling, measured by a pathway activity reporter.
13 We now identify feedback regulation of DBL-1/BMP through analysis of four DBL-1-regulated collagen ge
14 rowth factors, bone morphogenetic protein 2 (BMP-2) and vascular endothelial growth factor (VEGF).
15 fied arteries, bone morphogenetic protein 2 (BMP-2)levels were increased at the time of injury sugges
16                Bone morphogenetic protein-9 (BMP-9) is a circulating cytokine that is known to play a
17 etermine if the availability of brining as a BMP for salt application on residential roads would resu
18 d by two morphogens, Decapentaplegic (Dpp, a BMP) and Wingless (Wg, a Wnt).
19                           HOXD3 is part of a BMP-triggered cascade.
20 ly abundant at the villus base and provide a BMP reservoir, and we identified a CD81(+) PDGFRA(lo) po
21                              In zebrafish, a BMP signaling gradient patterns the dorsal-ventral axis.
22                                     Abnormal BMP signaling has also been associated with disease init
23 nt was attributed to lack of knowledge about BMP functioning, lag times, nonoptimal placement and dis
24 their ligand binding domain to over-activate BMP signaling in DV patterning.
25 ly activated SMAD2 in OAC, it also activated BMP signaling-associated SMAD1 in OA-MSC.
26 iated Treg cells exhibit constitutive-active BMP signaling.
27           However, mating induces additional BMP-mediated nuclear growth via a cell type-specific for
28 ly, fibrotic human lungs demonstrate altered BMP activation in the metaplastic epithelium.
29 enetically delivered high- and low-amplitude BMP signaling pulses indicate that spatiotemporal expres
30  luteolin significantly increased TIMP-1 and BMP-2 expressions and decreased MMP-8 levels.
31         Oligodendrocytes expressed BMP-2 and BMP-7 and pSMAD1/5/8.
32 t an effective replacement for autograft and BMP products used commonly in bone tissue engineering.
33 ransforming growth factor beta (TGF-beta and BMP signaling through SMAD members has distinct effects
34 ion, complement, WNT signaling, TGF-beta and BMP signaling, lipid metabolism, iron homeostasis, and m
35 ary, our results indicate that TGF-beta- and BMP-induced activation of low levels of cell surface-ass
36 y activation and expression of TGF-beta1 and BMP-2 between healthy and diseased tendon tissues and ce
37 g the specific interactions between BMPs and BMP type I receptors.
38 rmine the role of both the Activin/Nodal and BMP pathways as they function in Capitella axis patterni
39 on factors specific to the Activin/Nodal and BMP pathways, respectively.
40 two distinct branches: the Activin/Nodal and BMP pathways.
41 ardial-derived vessels, whilst SOXF/RBPJ and BMP-SMAD pathways are seen in sinus venosus-derived arte
42 gulating transmembrane protein recycling and BMP signaling.
43 ith structure-guided mutagenesis of RGMs and BMP ligands, binding studies, and cellular assays sugges
44 f growth factors that include R-spondins and BMP signalling antagonists such as Noggin or Gremlin 1.
45 d near genes involved in TGF beta (TGFB) and BMP signaling, both of which are key morphological signa
46 1 interaction, we localized the TGFbeta- and BMP-binding site in MAGP-1 to a 19-amino acid-long, high
47 ocesses and the contribution of TGFbeta- and BMP-regulated signaling pathways to disease states.
48 rthing converging signs of increased WNT and BMP signaling along this progression, we endeavored to u
49 iously implicated pathways: FGF, Hh, Wnt and BMP.
50                             For TGFbetas and BMPs, structures of ternary complexes have revealed diff
51             We demonstrate that the anterior BMP signaling is abolished by PNT through dpp repression
52 e involved in embryonic development, such as BMP-TGFbeta, WNT, Notch, HIF1alpha, TWIST1 and HOX famil
53 itional functionality, which is to attenuate BMP signaling.
54 l side of polarized cells, while basolateral BMP-SMAD signaling is unaffected.
55 atterning, likely being involved in TGF-beta/BMP and FGF/EGF signaling pathways.
56  further differentiated by a balance between BMP and Nodal signalling.
57        Here we examine the crosstalk between BMP-9 and LDL and how it influences their interactions w
58     In contrast, spatial differences between BMP target genes largely collapsed when FGF and Nodal si
59 augmenting the specific interactions between BMPs and BMP type I receptors.
60 (negative and positive lenses) bidirectional BMP gene expression regulation, 2) open-loop, form-depri
61 levels of ALK-1, via CAV-1, to regulate both BMP-9 signaling and LDL transcytosis.
62 l antagonism of TGF-beta/SMAD3 activation by BMP signaling in SMAD3 mutation-positive endosteal melor
63 elial and mesenchymal lineage as directed by BMP and TGF-beta signaling.
64 MPR-IB gene applying Easi-CRISPR followed by BMP-4/7 stimulation for 72 h.
65 ng tendons, and this process is regulated by BMP signaling.
66 D/P-SMAD)1 and 5, which could be reversed by BMP receptor inhibitors and ALK3 knockdown.
67 ded our understanding of the roles played by BMPs in the development and homeostasis of GI organs.
68 usion: PET with pulmonary administered (11)C-BMP can measure ABCC1 activity at the lung epithelial ba
69 amic PET scans after administration of (11)C-BMP intravenously or by intratracheal aerosolization.
70 ition of 6-bromo-7-(11)C-methylpurine ((11)C-BMP), a prodrug radiotracer that is intracellularly conj
71 rs of DNA binding, Id1 and Id3) in canonical BMP signaling.
72 including Smad7, via activation of canonical BMP-SMAD signaling.
73  preferentially signal through the canonical BMP signaling cascade to instruct inflammatory-type LCs
74                  In pluripotent mouse cells, BMP blocks entry into the neural lineage via transcripti
75  FGF4, Wnt pathway agonist CHIR99021 (CHIR), BMP pathway antagonist Noggin, and retinoic acid.
76                 GDF2 encodes the circulating BMP (bone morphogenetic protein) type 9, which is a liga
77         We aimed to determine if circulating BMPs can be identified and used as blood biomarkers to i
78                                 How a common BMP signal regulates diverse target genes across many ne
79 hus, differential interpretation of a common BMP signal, conferred by low affinity pMad/Medea binding
80 ug under development to inhibit constitutive BMP signaling during heterotopic ossification, may be re
81 hedgehog signalling as a rheostat to control BMP activation in the progenitor niche to determine rege
82 vation of Smurf1 protein level and decreased BMP signaling accordingly.
83                                    Designing BMP mimetics with specific activity will contribute to t
84 expression is not fully defined by different BMP signaling activation thresholds.
85 In this study, we could detect the different BMPs in the blood of 112 BE patients and 134 age- and se
86 r studies identify E2, esr2b, and downstream BMP activity as important regulators of hepatobiliary fa
87        These organized temporally downstream BMP-related activities, including expression of stalk-ce
88           We demonstrate that the Drosophila BMP type I receptor Sax (Saxophone) functions as a Dpp (
89 herapeutic approach to control dysfunctional BMP and TGFbeta signaling by regulating HOXD3.
90 novel type of cross talk between endothelial BMP and TGFbeta signaling as mediated by HOXD3.
91                   Oligodendrocytes expressed BMP-2 and BMP-7 and pSMAD1/5/8.
92 ity of the clinically licensed growth factor BMP-2.
93 irate concentrate (BMAC) and growth factors (BMP-2, FGF-2, and FGF-8) and 2) increase matrix strength
94                                      We find BMP signaling is active in regenerating progenitor cells
95 dorsoventral (DV) patterning as an assay for BMP signaling.
96           ENG (endoglin) is a coreceptor for BMP (bone morphogenetic protein) 9/10 and is strongly ex
97  point into a novel regulatory mechanism for BMP signaling, with broader implications for mechanical
98  a type I BMP receptor normally required for BMP-mediated patterning of the embryo, is dispensable fo
99 rating a temporally distinct requirement for BMP signaling in placode-derived structures.
100  our analysis demonstrates a requirement for BMP signalling in the establishment of Ephb4 expression
101  hair follicle and underscore a key role for BMP signaling in driving complete differentiation.
102 ctionalized to the microcarriers surface for BMP-2 conjugation.
103 stablish an unappreciated important role for BMPs and activins in cellular antiviral immunity, which
104   Owing to their broad and potent functions, BMPs and their pathways are regulated at multiple levels
105 sorted ductal cells, a fraction that harbors BMP-responsive progenitor-like cells.
106 11, or GPC4, which function in the Hedgehog, BMP, and Wnt signaling pathways; other genes in these pa
107                                         High BMP activity further results in enhanced TGFbeta signali
108                      Moreover, aberrant high BMP signaling in the lesional epidermis is mediated by a
109     We report that the endothelium with high BMP activity due to the loss of BMP inhibitor matrix Gla
110 ombinant human-like collagen (HLC) and human BMP-2 (hBMP2).
111                Additionally, BMPR1, a type I BMP receptor normally required for BMP-mediated patterni
112 an physically interact with ACVRL1, a type I BMP receptor, we generated cartilage-specific Acvrl1 (Ac
113 caused by activating mutations in the type I BMP/TGFbeta cell surface receptor ACVR1, which over-acti
114 is study identified a KC-derived signal (ie, BMP signaling) to promote epidermal changes in psoriasis
115    Loss of function mutations in the type II BMP receptor BMPR2 are the leading cause of pulmonary ar
116 ecycling pathways for the type I and type II BMP receptors and highlights the importance of tetraspan
117 ive endochondral bone growth due to impaired BMP-mediated chondrogenesis and osteogenesis, recapitula
118 lthough accumulating evidence has implicated BMPs in osteoblastogenesis, the mechanisms by which BMPs
119 n timing the exposure of cells to changes in BMP and Wnt signal activity during zebrafish gastrulatio
120 tion factor codes rather than differences in BMP signaling.
121 to be a major driver of spatial diversity in BMP-dependent gene expression in zebrafish.
122                       Activin A functions in BMP signaling in two ways: it either engages ACVR1B to a
123  unknowns that hinder further improvement in BMP effectiveness and suggest that machine learning, app
124 licating broader functions for this motif in BMP-dependent enhancer activity.
125 with embryonic stem cell pathways, including BMP and Wnt signaling, both of which have repeatedly bee
126 ted proteins like noggin and chordin inhibit BMP activity, whereas kielin/chordin-like proteins (KCP)
127  molecules and peptide modulators to inhibit BMP, TGF-beta (SMAD), and canonical Wnt pathways that re
128                               Interestingly, BMP-9-mediated ALK-1 internalization strongly re-duces L
129                  We show that interestingly, BMP signaling functions downstream from activated McSCs
130     We found that in the hemichordate larva, BMP signaling is required for DV patterning and is suffi
131 aling in renal cells and have yielded a lead BMP agonist.
132 as well as underlying molecular stimuli like BMP signaling.
133               We also show that manipulating BMP signaling enables us to induce a thickened epithelia
134  following WNT-mediated activation of McSCs, BMP and WNT pathways collaborate to trigger the commitme
135 Orco antagonist 2-tert-butyl-6-methylphenol (BMP) inhibited odorant responses in electroantennogram a
136 the study is to determine if HOXD3 modulates BMP and TGFbeta signaling in the endothelium.
137 eted signaling proteins from the FGF, Nodal, BMP and Wnt families.
138 zed manner and identifies AMOT130 as a novel BMP signaling regulator.
139                Like osteoblast cell numbers, BMP-2 expressions were also elevated in luteolin groups.
140                     The inhibitory action of BMP-4/7 on P4 secretion was abolished in both KO and KI
141                                Activation of BMP signaling by sb4 increased the phosphorylation of ke
142 ronic kidney disease (CKD), re-activation of BMP signaling is reported to be protective by promoting
143               Structure-activity analysis of BMP analogs identified compounds with improved potency.
144  or absence of Langerhans cells; analysis of BMP versus canonical TGF-beta signaling in DCs and Treg
145 e endothelial homeostasis and the binding of BMP-9 to the receptor activin-like kinase 1 (ALK-1) prom
146 ignaling as the nutrient-sensitive branch of BMP signaling.
147 he ectoderm is patterned by a combination of BMP and WNT signaling.
148 Cs are mediated by different combinations of BMP type 1 receptors in a vessel bed-specific manner, of
149 ize regulation, a trait under the control of BMP member DBL-1.
150                                Disruption of BMP signaling can trigger cardiovascular diseases, such
151 ns, termed "cytocensors", form downstream of BMP and have additional functionality, which is to atten
152 ients and tested the therapeutic efficacy of BMP signaling inhibitors in two pSS animal models.
153 ompounds that mimic key downstream events of BMP signaling in renal cells and have yielded a lead BMP
154 el bed-specific, heterogeneous expression of BMP type 1 receptors, explaining phenotypic differences
155 se that early commitment may be a feature of BMP-driven fate choices and that interlinked feedback is
156  surface not only provided immobilization of BMP-2 with prolonged bioavailability, but also enhanced
157                Pharmacological inhibition of BMP signaling protects human beta-cells from tacrolimus-
158                 In addition to inhibition of BMP signaling, several other noncanonical signaling moda
159 etics in cells receiving different levels of BMP signaling, we show that BMP signaling controls burst
160                         Expression levels of BMP-2 and BSP were significantly upregulated by OIM and
161 um with high BMP activity due to the loss of BMP inhibitor matrix Gla protein (MGP) shows induction o
162 ation studies in mice, we found that loss of BMP signaling in the lineage leads to hair graying due t
163                    We show that upon loss of BMP signaling, tumors lead to aberrant activation of JNK
164 ein receptor 1a (BMPR1a), a core mediator of BMP signaling, is palmitoylated.
165 t of phosphorylated (p) SMAD1, a mediator of BMP signaling.
166 d conditional/conventional double KO mice of BMP-receptor 1a (BMPR1a; targeted to PV-INs) and 1b (BMP
167  and teeth development through modulation of BMP signaling.
168 egulation of burst frequency, the numbers of BMP target gene transcripts per cell are graded across t
169 on disrupts the shaping of opposing poles of BMP and Wnt/TCF activity and the anterior-posterior patt
170 contribute to the translational potential of BMP-based therapies.
171 on, and 3) early, transient up-regulation of BMP gene expression in response to both types of lens an
172 ation (diffusers)-induced down-regulation of BMP gene expression, and 3) early, transient up-regulati
173 tracellular trafficking in the regulation of BMP signaling in vivo.
174              To identify novel regulators of BMP signaling, we performed a forward genetic screen in
175   We thus identified sustained repression of BMP signaling as a unique constituent of the long-term i
176 survival/proliferation, and a requirement of BMP for NC maturation.
177 tribute to hepatic fibrosis, but the role of BMP signaling in the development of NAFLD is unclear.
178         We sought to investigate the role of BMP signaling in Treg-cell accumulation in psoriasis.
179 tifs, can contribute to the specification of BMP target genes in efferent neuron subsets.
180  explore possible gene expression targets of BMP signaling, we measured the mRNA levels of the BDNF r
181 to achieve efficacy and is costly because of BMPs' complex synthesis.
182 es, nonoptimal placement and distribution of BMPs in the watershed, postimplementation BMP failure, a
183                        Biological effects of BMPs are mediated through binding with membrane bound re
184 in water quality after the implementation of BMPs, the lack of improvement was attributed to lack of
185 ther demonstrate that this effect of AMOT on BMP-SMAD signaling is dependent on endocytosis and speci
186        Strikingly, Bmp5 gene inactivation or BMP signaling inhibition with a small molecule inhibitor
187 /endothelial Bmp2 KO mice, although no other BMP ligand mRNAs were increased in the livers of double
188 ne Morphogenetic Protein 4 (BMP4), and other BMPs are upregulated in BE.
189  enhancement of signaling observed for other BMPs, like BMP2.
190 w that Ddr promotes leader-trailer-polarized BMP-Smad signaling independently of its role in cell-mat
191 of BMPs in the watershed, postimplementation BMP failure, and socio-political and economic challenges
192  Further, the biochemical methane potential (BMP) test was done for IONPs supplemented biomass.
193 e for brining as a best management practice (BMP) to reduce salt use relative to the standard practic
194 implementation of Best Management Practices (BMPs) within the watershed, these studies were mostly mo
195 plication via mechanical stretching promoted BMP-dependent mesoderm specification, confirming that ti
196 ation, including bone morphogenetic protein (BMP) and transforming growth factor (TGF) beta signaling
197 xample being the bone morphogenetic protein (BMP) gradient's conserved role in embryonic dorsal-ventr
198 ere we show that bone morphogenetic protein (BMP) growth factor signaling and AMOT function are inter
199              The bone morphogenetic protein (BMP) pathway is essential for the morphogenesis of multi
200 r P2RY1, and the bone morphogenetic protein (BMP) receptor 1A (BMPR1A)/activin-like kinase 3 (ALK3),
201 he same level of Bone Morphogenetic Protein (BMP) Receptor-1A as OAC but only 1/12 of Transforming Gr
202 ta (TGFbeta) and bone morphogenetic protein (BMP) signal transduction in postnatal mice, with BMP sig
203 udies identified bone morphogenetic protein (BMP) signaling as a mediator of the estrogen effects.
204 o assess whether bone morphogenetic protein (BMP) signaling contributes to the developmental acquisit
205 sess the role of bone morphogenetic protein (BMP) signaling in psoriatic skin inflammation.
206                  Bone morphogenetic protein (BMP) signaling is critical in renal development and dise
207                  Bone morphogenetic protein (BMP) signaling is known to contribute to hepatic fibrosi
208 it activates the bone morphogenetic protein (BMP) signaling pathway through expression of the BMP lig
209 r beta (TGFbeta)/bone morphogenetic protein (BMP) signaling system.
210 REBP) signaling, bone morphogenetic protein (BMP) signaling, and glycosylphosphatidylinositol biosynt
211 s including EMT, bone morphogenetic protein (BMP) signaling, chemokine signaling, and focal adhesion
212 lating effect on bone morphogenetic protein (BMP) signaling.
213 antly to promote bone morphogenetic protein (BMP) signaling.
214 r-beta (TGFbeta)/bone morphogenetic protein (BMP) signalling and illustrate how defects in the balanc
215 el, we find that bone morphogenetic protein (BMP) signalling is upregulated in stromal progenitor cel
216 rs overexpressed bone morphogenetic protein (BMP)-4, which plays a key role in both vascular calcific
217 eceptors for the bone morphogenetic protein (BMP)/growth differentiation factor (GDF) family.
218            Wnt and bone morphogenic protein (BMP) gradients drive this polarity, and colorectal cance
219 nalling, promoting bone morphogenic protein (BMP) signalling.
220  the ability of bone morphogenetic proteins (BMP) to promote colonic stem cell differentiation, we ai
221                 Bone morphogenetic proteins (BMPs) are members of the TGF-beta family that signal via
222                 Bone morphogenetic proteins (BMPs) are multifunctional cytokines of the transforming
223 e agent such as bone morphogenetic proteins (BMPs) has been considered as an optimized option when de
224                  Clinical use of recombinant BMPs, however, requires harmful doses to achieve efficac
225 ed reduced plasma levels of BMP9 and reduced BMP activity.
226                   Knockdown of CAV-1 reduces BMP-9-mediated internalization of ALK-1, BMP-9-dependent
227 atment of endothelial cells with LDL reduces BMP-9-induced SMAD1/5 phosphorylation and gene expressio
228 ne the cis-regulatory mechanisms restricting BMP-induced FMRFa neuropeptide expression to Tv4-neurons
229                                   Retrograde BMP signaling and canonical pMad/Medea-mediated transcri
230 ength MAGP-1 binds active TGFbeta-1 and some BMPs.
231 ifs, perturbing DNA binding by various STFs (BMP/TGF-beta-directed SMADs or WNT-induced TCFs) and aff
232 azole compound, sb4, that rapidly stimulated BMP signaling in these cells.
233                                    Targeting BMP signaling might allow to therapeutically interfere w
234 mouse models, we disrupted canonical TGFbeta/BMP signaling in either maturing basal VSNs (bVSNs) or a
235               However, disruption of TGFbeta/BMP signaling turned a normally beneficial Enterobacter
236 f genes related to Notch signalling, TGFbeta/BMP antagonists, a downregulation of genes related to gl
237                             It is clear that BMP signaling regulates GI function and disease progress
238                 Furthermore, we confirm that BMP/SMAD signaling is activated in protocol pancreas all
239                    Here, we demonstrate that BMP-mediated SC growth is dependent on the receptor for
240                                 We find that BMP and TGF-beta signaling define divergent molecular an
241 ferent levels of BMP signaling, we show that BMP signaling controls burst frequency by regulating the
242                     Recent studies show that BMP signaling establishes the dorsal-ventral axis in som
243                         These data show that BMP signaling is an important determinant of NAFLD in a
244 asts and demineralized pits, suggesting that BMP signaling through ACVR1 regulates osteoclast fusion
245 ed the outcome of infection, suggesting that BMP/SMAD activity influences antiviral immunity.
246                      Our study suggests that BMP-signaling in PV-INs during and shortly after the cri
247                                          The BMP test revealed up to a 25.14% rise in biogas yield (6
248  embryos, Sax activity is inhibited, and the BMP type I receptor Tkv (Thickveins) is the sole conduit
249 ) patterning across diverse bilaterians, the BMP-active side is ventral in chordates and dorsal in ma
250                           In Drosophila, the BMP family member Dpp is produced in a limited set of im
251               In Caenorhabditis elegans, the BMP ligand DBL-1 is a regulator of body size.
252  In summary we describe a novel role for the BMP pathway in myeloma-induced bone disease that can be
253                   Here, we elucidate how the BMP gradient is interpreted in the Drosophila embryo by
254 ssense single nucleotide polymorphism in the BMP type 1 receptor ALK6 (rs34970181;R371Q) associated w
255 y contributing to this responsiveness is the BMP signaling pathway.
256 way of the TGF-beta superfamily, but not the BMP pathway, is the primary dorsal-ventral patterning si
257 te effect on GDF5 signaling, RGMs occupy the BMP type 1 receptor binding site similar to the observed
258  signaling pathway through expression of the BMP ligand decapentaplegic (dpp).
259 promoting astrogenesis via activation of the BMP receptor signaling pathway.
260 cluded critical mediators and targets of the BMP signaling pathway.
261 ntrolled by differential availability of the BMP type I receptor Thickveins (Tkv), yet how its expres
262 4 exhibit reduced cell-surface levels of the BMP type II receptor DAF-4/BMPRII, along with impaired e
263 nhibition activates the transcription of the BMP-SMAD-ID signaling pathway, which may be responsible
264  beta-cell failure through activation of the BMP/SMAD signaling pathway when administered under mild
265 cts as a BMP2/BMP4 co-receptor, recruits the BMP receptor complexes into raft microdomains, and posit
266  present just below crypts that secretes the BMP antagonist Gremlin1.
267           Previous works have shown that the BMP concentration and release rate from approved CS carr
268                     Here, we report that the BMP-1/Tolloid family metalloprotease Tolkin (Tok) is res
269 tly promote Treg-cell generation through the BMP signaling cascade.
270 s of the TGF-beta family that signal via the BMP receptor (BMPR) signaling cascade, distinct from can
271                   AMOT130 interacts with the BMP receptor BMPR2 and facilitates SMAD activation and t
272 through a mechanism that intersects with the BMP-mothers against decapentaplegic homolog 1/5/8 (SMAD1
273 is and genetic variation associated with the BMP/SMAD pathway predicted the outcome of infection, sug
274                                          The BMPs (bone morphogenetic proteins) are essential morphog
275  agonists and antagonists that organize this BMP gradient remain obscure.
276                                        Thus, BMP-9 levels can control cell surface levels of ALK-1, v
277 ically identified target genes responding to BMP and found that they have diverse spatiotemporal expr
278 he majority of analyzed genes in response to BMP signaling pulses.
279 ed luciferase construct highly responsive to BMPs.
280                Restoring the balance towards BMP activation attenuated metaplastic KRT5(+) differenti
281  In this study, treatment with either of two BMP inhibitors reduced hepatic triglyceride content in d
282 rt experiments were performed with unlabeled BMP on the human distal lung epithelial cell line NCI-H4
283  Here, we identify a previously unrecognized BMP signaling antagonist.
284 hedgehog activation signalling to upregulate BMP antagonism in the progenitor niche that promotes met
285 eased mTOR and Wnt signaling but upregulated BMP signaling.
286 3 and H3K27me3, and subsequently upregulates BMP signaling and Nanog expression.
287 -derived astrogenesis from the SVZ niche via BMP receptor signaling pathway following injury.
288 emonstrating that brining is a highly viable BMP for local municipal operations.
289 rs' FGF and Wnt, and 'inhibitor' Hh, whereas BMP and mesenchyme-specific-FGF signalling were incorpor
290 Here, we characterize the mechanism by which BMP/SMAD signaling drives enterocyte differentiation.
291  osteoblastogenesis, the mechanisms by which BMPs regulate osteoclastogenesis remain unclear.
292                                        While BMP controls dorsoventral (DV) patterning across diverse
293          Treatment of endothelial cells with BMP-9 triggers the extensive endocytosis of ALK-1, and i
294                              Consistent with BMP-dependent regulation of burst frequency, the numbers
295                       Treatment of GSCs with BMP inhibits cell proliferation, but does not abrogate t
296  allows for the first time interference with BMP signaling in a polarized manner and identifies AMOT1
297  signal transduction in postnatal mice, with BMP signaling being restricted to basal VSNs and at the
298 n granulosa cells and cultured in vitro with BMP-4 stimulation for three different durations In addit
299 in distinct compartments, influenced by Wnt, BMP, and other subepithelial cues.
300 d in response to Ti implants, while the Wnt, BMP, and IGF pathways are overexpressed in response to S

 
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