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1 proresolving mediators and proteins, such as annexin A1.
2 the structure of the N-terminally truncated annexin A1.
3 trophin-glycoprotein complex of proteins and annexin A1.
4 ng required the expression of caveolin 1 and annexin A1.
5 ntly changed in the tumor stroma that lacked annexin A1.
6 partitioning defective protein 3 (PAR3) and annexin A1.
7 d override the prosurvival effect of LPS via annexin A1.
8 ; and further investigation into the role of annexin A1, a downstream mediator of glucocorticoid acti
9 ulation were associated with the cleavage of annexin A1, a powerful anti-inflammatory protein known t
11 cence and subcellular fractionation revealed Annexin A1, A2, and A5 in the cytoplasm and nuclei of tu
13 domains, studies reported herein showed that annexins A1, A2, A5, and B12 could be divided into two g
14 ctinin-1, moesin, 14-3-3 protein zeta/delta, annexin A1/A3/A4/A5/A6, clathrin heavy chain 1, glyceral
16 tumor stroma and suggested a mechanism that annexin A1 affects tumor development and metastasis thro
19 and sufficient for releasing EVs containing annexin A1 and GDE3 from the plasma membrane via Wiskott
20 we show that these contacts are tethered by annexin A1 and its Ca(2+)-dependent ligand, S100A11, and
21 that dysferlin normally associates with both annexins A1 and A2 in a Ca2+ and membrane injury-depende
22 lin and the Ca2+ and lipid-binding proteins, annexins A1 and A2, and define a role for dysferlin in C
23 ected as lipid mixing involved extracellular annexins A1 and A5 acting in a functionally redundant ma
26 tant-associated protein C (SP-C), L-plastin, annexin A1, and haptoglobin increased, whereas transferr
27 th I3C reduced the level of SP-C, L-plastin, annexin A1, and haptoglobin to that of untreated control
32 o a decrease in the level of cell-associated annexin A1 (AnxA1) and cathelin-related antimicrobial pe
33 ncy was associated with an early increase of annexin A1 (AnxA1) and did not modify the course of neut
34 inflammation such as resolvins, protectins, annexin A1 (ANXA1) and galectins as potential targets fo
36 gands, including the proresolution mediators annexin A1 (AnxA1) and lipoxin A(4), as well as the acti
37 upled with increased expression of mRNAs for annexin A1 (AnxA1) and the formyl peptide receptors [(Fp
39 he proresolving properties of lipoxin A4 and annexin A1 (AnxA1) and the proinflammatory signals elici
40 cted role for the anti-inflammatory molecule annexin A1 (AnxA1) as a critical regulator of this proce
41 we identify the membrane-associated protein Annexin A1 (ANXA1) as an interactor of LGN in mammary ep
42 scle injury and repair, herein we identified annexin A1 (AnxA1) as the extracellular trigger of macro
55 e glucocorticoid anti-inflammatory messenger annexin A1 (ANXA1) is expressed in brain microvascular e
56 ytosis, to clear phagocytic apoptotic cells; annexin A1 (Anxa1) is key to efferocytosis, but its role
59 The widely-expressed Ca(2+)-binding protein annexin A1 (ANXA1) is present in the nuclear envelope lu
61 In this work, we demonstrate that endogenous annexin A1 (ANXA1) is released as a component of extrace
68 tes the potential therapeutic treatment with annexin A1 (AnxA1) to induce cardiac repair after MI.
71 ion leads to cell surface externalization of Annexin A1 (AnxA1), an effector of endogenous anti-infla
73 at is activated by an endogenous FPR ligand, annexin A1 (ANXA1), and its cleavage product Ac2-26, whi
75 ALX/FPR2, which is activated by the protein annexin A1 (ANXA1), found in high abundance in inflammat
76 of the endogenous anti-inflammatory protein Annexin A1 (AnxA1), we investigated further this possibl
77 rtain anti-inflammatory molecules, including annexin A1 (ANXA1), which is an important mediator of gl
86 two of these proteins, aminopeptidase-P and annexin A1, as selective in vivo targets for antibodies
87 how that, coincident with a resealing event, annexin A1 becomes concentrated at disruption sites.
88 ntering through a disruption locally induces annexin A1 binding to membranes, initiating emergency fu
91 Moreover, we show, for the first time, that annexin A1-dependent inhibition of adrenocorticotrophin
93 follow-up study, we report that exposure of annexin A1 during secondary necrosis coincided with prot
96 Thus, altogether our findings indicate that annexin A1 externalization and its proteolytic processin
97 trol levels, and recently we could show that annexin A1 externalization during secondary necrosis pro
98 culture supernatants of secondary necrotic, annexin A1-externalizing cells induced chemoattraction o
99 nd mouse experimental systems to identify an annexin A1-formyl peptide receptor 1 (ANXA1-FPR1) bidire
102 d DMF induce secretion of the 33-kDa form of annexin A1 from murine bone marrow-derived macrophages,
105 f these lipids as well as by peptides (e.g., annexin A1), has been shown to be one of the receptors i
106 Pharmacological treatment with recombinant annexin A1 (hrANXA1) or reversion from a high-fat high-s
108 sis, and the previously known properties for annexin A1 in immune cells and inflammation, this study
111 ious finding of pro-angiogenic functions for annexin A1 in vascular endothelial cell sprouting, wound
113 eported the structure of full-length porcine annexin A1 including the N-terminal domain in the absenc
116 d inflammation, this study hypothesized that annexin A1 is a key functional player in tumor developme
120 en tumors from annexin A1 wild type mice and annexin A1 knockout mice and found a list of genes that
122 f an N-terminally truncated version of human annexin A1 lacking the first 32 amino acid residues (PDB
124 carbonylation and subsequent degradation of annexin A1 may play a role in endothelin-mediated cell g
125 nd treatment with FPR agonists: AnxA1Ac2-26 [Annexin A1 mimetic peptide (Ac-AMVSEFLKQAWFIENEEQEYVQTVK
127 rs Mcm5 and Brd4, phosphoinositide-3-kinase, annexin A1, mucosa-associated lymphoid tissue lymphoma t
128 peptide competitor, and a dominant-negative annexin A1 mutant protein incapable of Ca2+ binding all
129 tial of 2 proresolving endogenous mediators, annexin A1 N-terminal derived peptide (AnxA1Ac2-26) and
130 t implications for the inhibitory actions of annexin A1 on exocytosis in other endocrine and immune c
131 t to characterize the mechanism of action of annexin A1 on exocytosis using the release of adrenocort
133 lease from cells expressing either wild-type annexin A1 or mutant forms, we show a critical involveme
136 comprises a small bioactive peptide from the annexin A1 protein grafted into a sunflower trypsin inhi
139 We also show that this 4-OI- and DMF-driven annexin A1 secretion is NRF2-dependent and that other me
140 CA1, which has previously been implicated in annexin A1 secretion, is required for this process in ma
141 , mRNA level of HIF-1alpha, GPx, SOD1, SOD2, annexin-A1, SOCS3, IL-1RA, IL-1beta, IL-1R1, IL-1R2, TNF
142 he proapoptotic phospholipid-binding protein Annexin A1 that link early prostate development to early
143 ribution of FPR2 and its proresolving ligand annexin A1 to atherosclerotic lesion formation is largel
145 N tumor-associated self Ags (TAA) and to the Annexin A1 tumor vascular Ag, even in mice in which aner
146 ine genes that included GPCR11, cadherin 11, annexin A1, vimentin, lactate dehydrogenase B (upregulat
148 ated NF-kappaB signaling by interacting with annexin A1, which further induced Lys63-linked and Met1-
149 Fenton reaction-dependent manner, including annexin A1, which promotes apoptosis and suppresses cell
150 ared the gene expression between tumors from annexin A1 wild type mice and annexin A1 knockout mice a