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1 the presence of blocking Abs to FcgammaR and complement receptor.
2 fects B lymphocytes through their CD21 (CR2) complement receptor.
3 be eliminated by microglial cells expressing complement receptors.
4 sulting in vesicle recognition by macrophage complement receptors.
5  Ig receptors (FcRgammaI and FcgammaRIII) or complement receptors.
6 sonization and binding of these complexes to complement receptors.
7 , FcgammaRIV, the inhibitory FcgammaRIIB and complement receptors.
8 ility of bound C3 fragments to interact with complement receptor 1 (CD35) on the membrane of human er
9 psonized particles become immune adherent to complement receptor 1 (CR1 or CD35) on human erythrocyte
10 ly lack the third component of complement or complement receptor 1 (CR1) and CR2 developed increased
11  levels of E-bound Abs, reduced E-associated complement receptor 1 (CR1) and decay-accelerating facto
12                                              Complement receptor 1 (CR1) expressed on the surface of
13                                Clustering of Complement Receptor 1 (CR1) in the erythrocyte membrane
14                                              Complement receptor 1 (CR1) is an Alzheimer's disease (A
15                                              Complement receptor 1 (CR1) on human erythrocytes (Es) a
16 ng protein-like homologue 4 (PfRh4) binds to complement receptor 1 (CR1) to mediate entry of malaria
17 veral receptors, including sialic acid (SA), complement receptor 1 (CR1), and basigin.
18 omplement-regulatory proteins, in particular complement receptor 1 (CR1), are important in the pathog
19  regulators decay-accelerating factor (DAF), complement receptor 1 (CR1), factor H, and C4-binding pr
20 iated with unusual deposits located near the complement receptor 1 (CR1)-expressing podocytes.
21  to phagocytes by human erythrocytes bearing complement receptor 1 (CR1).
22 immune complexes via erythrocytes expressing complement receptor 1 (CR1).
23 native LDL and acetylated LDL (acLDL) to the complement receptor 1 (CR1).
24 D55), membrane cofactor protein (MCP, CD46), complement receptor 1 (CR1, CD35) and viral molecules su
25 r primates are unique among mammals in using complement receptor 1 (CR1, CD35) on red blood cells (RB
26                During this process, RBCs use complement receptor 1 (CR1, CD35) to bind circulating co
27 ce or absence of blocking Abs to CD23, CD32, complement receptor 1 (CR1, CD35), and/or CR2 (CD21) was
28           The primary identified function of complement receptor 1 (CR1/CD35) on primate erythrocytes
29 , membrane cofactor protein (MCP; CD46), and complement receptor 1 (CR1; CD35).
30 ility of a human recombinant soluble form of complement receptor 1 (sCR1) to inhibit complement-media
31 ned approach was augmented by adding soluble complement receptor 1 (sCR1) to the perfusate in one fur
32 tabilized C3bBb and perturbed C3b binding to complement receptor 1 but did not perturb binding to fac
33 the recognition of deposited C3 fragments by complement receptor 1 even when the absolute number of C
34 -tetanus toxoid antibody levels, erythrocyte complement receptor 1 expression, and lymphocyte prolife
35 ynonymous SNP, rs6691117 (Val-->IIe), in the complement receptor 1 gene (CR1) was associated with ESR
36 s functions analogously to human erythrocyte complement receptor 1 in its role to traffic immune comp
37 up had a progressive increase in erythrocyte complement receptor 1 levels compared with baseline (P =
38                                              Complement receptor 1 levels on erythrocytes (ECR1) toge
39 o evaluate new therapeutic targets employing complement receptor 1 peptide homologues and the antimac
40 the functional analogue to human erythrocyte complement receptor 1 with a role that is distinct from
41  negative complement regulators Factor H and complement receptor 1 with C3b.
42  factors, such as decay accelerating factor, complement receptor 1, and factor H, which directly inte
43 tors, such as factor H, C4b-binding protein, complement receptor 1, and membrane cofactor protein.
44  on host cells by the complement system, and complement receptor 1-like protein y (CRRY) is an import
45 for the rodent complement regulatory protein complement receptor 1-related gene/protein y (Crry) (Crr
46                                              Complement receptor 1-related gene/protein y (Crry) and
47          Decay-accelerating factor (DAF) and complement receptor 1-related gene/protein y (Crry) are
48 In a model system in which RBCs deficient in complement receptor 1-related gene/protein y (Crry) are
49                                              Complement receptor 1-related gene/protein y (Crry) in r
50 of either decay-accelerating factor (DAF) or complement receptor 1-related gene/protein y (Crry) on m
51 e in vivo, using the C3 convertase inhibitor complement receptor 1-related gene/protein y (Crry)-Ig,
52 lement inhibition with complement receptor 2-complement receptor 1-related protein y (CR2-Crry, an in
53            We found that loss of polarity of complement receptor 1-related protein y (Crry) in the tu
54 ow that deleting the C3 convertase regulator complement receptor 1-related protein y (Crry) induces m
55              IL-17 differentially suppressed complement receptor 1-related protein y expression in ai
56 lement-regulatory protein (CRP) (CD55, CD46, complement receptor 1-related protein y/CD46) expression
57 se Cfh as the functional surrogate for human complement receptor 1.
58 C3 fragments on the organism from binding to complement receptor 1.
59 eraction of C3b with Factor B, Factor H, and complement receptor 1.
60 tibodies to block P. falciparum invasion via complement receptor 1.
61  mediated by NTS-DBL1alpha interactions with complement receptor 1.
62                                   Studies in complement receptor 1/2 (CR1/CR2)-deficient mice showed
63 g WNV infection in complement (C) 3(-/-) and complement receptor 1/2(-/-) mice.
64  complexes (ICs) from noncognate B cells via complement receptors 1 and 2 (CD35 and CD21, respectivel
65 d alone, an effect requiring the presence of complement receptors 1 and 2 (CR1/2).
66                           Cr2, which encodes complement receptors 1 and 2 (CR1/CR2; CD35/CD21), is a
67 abeling of FDC reticula with FDC-M1 and anti-complement receptors 1 and 2 was preserved, indicating t
68                         The level of FDC-M1, complement receptors 1 and 2, FcgammaRII, and FDC-M2 on
69 lly depleted of complement, or deficient for complement receptors 1 and 2, were also susceptible to s
70  mice deficient in C3 or in CD21/CD35 (i.e., complement receptors 1 and 2; CR1/CR2) were immunized wi
71                                      Soluble complement receptor-1 (20 mg/kg) was administered intrap
72 on with (99m)Technecium-labelled recombinant complement receptor 2 ((99m)Tc-rCR2), which specifically
73 ctivation through coengagment of the BCR and complement receptor 2 (CD21).
74 rough the interaction between complement and complement receptor 2 (CR2 [CD21]).
75 of complement component C3d with B or T cell complement receptor 2 (CR2 or CD21) is a link between in
76 inant mouse protein composed of domains from complement receptor 2 (CR2) and FH (CR2-FH) in two model
77 consisting of the iC3b/C3d-binding region of complement receptor 2 (CR2) and the inhibitory domain of
78 mia-reperfusion (IR)-induced damage requires complement receptor 2 (CR2) for generation of the approp
79 receptor(s), we found that App1 does bind to complement receptor 2 (CR2) in a dose-dependent manner.
80 eraction between complement fragment C3d and complement receptor 2 (CR2) is a key aspect of complemen
81 ntains the AP-inhibitory domain, linked to a complement receptor 2 (CR2) targeting fragment that bind
82 nking an iC3b/C3dg-binding fragment of mouse complement receptor 2 (CR2) to a mouse complement-inhibi
83 cantly enhanced when linked to a fragment of complement receptor 2 (CR2), a receptor that targets C3
84                           We discovered that complement receptor 2 (CR2), classically known as a core
85       A positional candidate gene at 1q32.2, complement receptor 2 (CR2), is also a candidate in the
86 le of inhibiting the interaction of C3d with complement receptor 2 (CR2), which plays an important ro
87                           The interaction of complement receptor 2 (CR2)--which is present on B cells
88 , targeted complement inhibition with either complement receptor 2 (CR2)-Crry (blocks all pathways at
89                                              Complement receptor 2 (CR2)-Crry inhibits complement act
90                   We investigated the use of complement receptor 2 (CR2)-Crry, a complement inhibitor
91                                              Complement receptor 2 (CR2, CD21) is a cell membrane pro
92                                              Complement receptor 2 (CR2/CD21) is part of the B-cell c
93 nt that can facilitate the coligation of the complement receptor 2 (CR2/CD21) with the BCR via C3dg/A
94  that mediates attachment to B cells through complement receptor 2 (CR2/CD21).
95                                              Complement receptor 2 (CR2; CD21) is a membrane-bound re
96               The C3-binding domain of human complement receptor 2 (CR2; CD21) was linked to the comp
97 ect of a recombinant AP inhibitor containing complement receptor 2 and factor H (CR2-fH) on CAIA in m
98 ed in the lung and occurred independently of complement receptor 2 and Fcgamma receptors, but was dep
99 that contains the iC3b/C3d binding region of complement receptor 2 linked to the inhibitory region of
100                 GT-/- mice were crossed with complement receptor 2 loci knockout mice to generate dou
101 via complement protein 3d and antigen to the complement receptor 2 signaling complex.
102 potential HIV-binding molecules FcRgammaIII, complement receptor 2, and various complement components
103 3) deficiency and complement inhibition with complement receptor 2-complement receptor 1-related prot
104                                              Complement receptor 2-deficient (Cr2(-/-)) mice are resi
105                                              Complement receptor 2-negative (CR2/CD21(-)) B cells hav
106 21/35(-/-) mice, deficient in CD21 and CD35 (complement receptors 2 and 1, respectively), were infect
107 omplement component C3 (C3d) and the modular complement receptor-2 (CR2) is important for cross-linki
108     rHDL attenuated the amount of CC-induced complement receptor 3 (CD11b/CD18) expression on monocyt
109                  Ab blockade of the integrin complement receptor 3 (CD11b/CD18) significantly inhibit
110 e is dependent on beta-glucan recognition by complement receptor 3 (CD11b/CD18), but not Dectin-1, or
111 ement activation resulted in upregulation of complement receptor 3 (CD11b/CD18), leading to phagocyto
112 dition to the I-domain, the beta(2) integrin complement receptor 3 (CR3) (CD11b/CD18) contains a lect
113 gested that beta2 integrin receptors such as complement receptor 3 (CR3) and 4 (CR4) may act as novel
114                                              Complement receptor 3 (CR3) and CD36 have been suggested
115       Interestingly, we also found that both complement receptor 3 (CR3) and dectin-1 play a crucial
116 ggestive of binding to the lectin domains of complement receptor 3 (CR3) and dectin-1.
117                              A role for both complement receptor 3 (CR3) and Fcgamma receptors in upt
118                          Among AM receptors, complement receptor 3 (CR3) and FcRgamma are the most co
119 ized C albicans was found to be dependent on complement receptor 3 (CR3) and the signaling proteins p
120                                              Complement Receptor 3 (CR3) and Toll-like Receptor 2 (TL
121 s also unaffected in mice deficient in C3 or complement receptor 3 (CR3) but was almost completely ab
122       Neisseria gonorrhoeae can engage human complement receptor 3 (CR3) directly or through surface-
123                Small molecule antagonists to complement receptor 3 (CR3) have been widely sought, but
124     The macrophage mannose receptor (MR) and complement receptor 3 (CR3) have historically been consi
125 ls (HPCs) and the role of complement (C) and complement receptor 3 (CR3) in BM injury/repair.
126 we uncovered a novel role for the microglial complement receptor 3 (CR3) in the regulation of soluble
127  with the complement C3dg, can interact with complement receptor 3 (CR3) on activated monocytes, thus
128 ion resulted in reduced bacterial binding to complement receptor 3 (CR3) on the surface of murine mac
129 ial for beta2-induced accumulation of Rho at complement receptor 3 (CR3) phagosomes.
130                                              Complement receptor 3 (CR3), a genetic variant of which
131 ecifically iC3b production and engagement of complement receptor 3 (CR3), had a significant impact on
132 ophages isolated from mannose receptor (MR), complement receptor 3 (CR3), MyD88, Toll-like receptor 4
133 ional and oligomeric states: the BCR and the complement receptor 3 (CR3), on murine splenocytes, puri
134 identified complement receptor CRIg, but not complement receptor 3 (CR3), rescued DAF/Crry-deficient
135                      These receptors include complement receptor 3 (CR3), used by promastigotes, and
136 ially binds an inactive form of the integrin complement receptor 3 (CR3), using a site outside of its
137 ed a phagocytic marker, via interaction with complement receptor 3 (CR3).
138 cytic cells, including the beta(2) integrin, complement receptor 3 (CR3).
139 rior studies indicated the ability of Abs to complement receptor 3 (CR3, CD11b/CD18) to suppress the
140 D209), Dectin-1, Toll-like receptors (TLRs), complement receptor 3 (CR3, CD11b/CD18), nucleotide olig
141  C. albicans mediated by the beta2 integrin, complement receptor 3 (CR3, CD11b/CD18, alphaMbeta2).
142 hers HPCs via the inserted (I) domain of HPC complement receptor 3 (CR3, CD11b/CD18, Mac-1).
143                                              Complement receptor 3 (CR3; also called CD11b/CD18), a b
144  the fimbriae of P. gingivalis interact with complement receptor 3 (CR3; CD11b/CD18) in monocytes/mac
145 been shown to function via the iC3b-receptor complement receptor 3 (CR3; CD11b/CD18) thereby enhancin
146  neutrophil opsonic receptors, FcgammaRs and complement receptor 3 (Mac-1) to cellular cytotoxic resp
147                We have shown previously that complement receptor 3 and Akt kinase play important role
148 roglial phagocytosis stimulated by fAbeta or complement receptor 3 and argue that this may, in part,
149 modulation of TLR8 signaling was mediated by complement receptor 3 and led to enhanced infection.
150 roduce a new picture of Fcgamma receptor and complement receptor 3 intracellular signaling have been
151 ae allowed P. gingivalis to exploit the TLR2/complement receptor 3 pathway for intracellular entry, i
152 oglia-specific phagocytic signaling pathway, complement receptor 3(CR3)/C3.
153  ITGAM encodes the integrin CD11b, a part of complement receptor 3, a novel candidate gene implicated
154 ly, attributable to failure to interact with complement receptor 3, although not with TLR2.
155 egrin (CD11b/CD18), macrophage-1 antigen, or complement receptor 3, as a cellular receptor for leukoc
156 ound to depend on beta-glucan recognition by complement receptor 3, require Fn and ERK but not ROS, a
157 MN with C5a led to upregulation of activated complement receptor 3, resulting in enhanced complement
158 complement receptor 3, resulting in enhanced complement receptor 3-dependent PMN-ADCC against tumor c
159 mma receptor internalization pathway but not complement receptor 3-dependent uptake, which is control
160                          CyaA penetrates the complement receptor 3-expressing phagocytes and ablates
161                              CyaA penetrates complement receptor 3-expressing phagocytes and catalyze
162 Furthermore, overexpressing stathmin reduces complement receptor 3-mediated phagocytosis and cellular
163 o inhibited by blocking Abs directed against complement receptor 3.
164 1 in macrophages that lack mannose receptor, complement receptors 3 and 4, type A scavenger receptor,
165 g, attributed to diminished AM expression of complement receptor-3 (CR3), which is exploited by P. gi
166 e desialylated neurites was mediated via the complement receptor-3 (CR3; CD11b/CD18).
167         CD11c/CD18 (alphaXbeta2, p150/95, or complement receptor 4, CR4) is a monocyte/macrophage-enr
168 s integrin-mediated phagocytosis through the complement receptor alpha(M)beta(2).
169  coexpressed with CD18 to form the Mac-1/CR3 complement receptor and adhesion molecule.
170                  Using a fusion protein of a complement receptor and an IgG Fc fragment, therapeutic
171 3bBb).C3) interferes with the interaction of complement receptors and C3b.
172 possible effects of ANE on the expression of complement receptors and Fc receptors were examined usin
173 activation did not promote infection through complement receptors and inhibited anti-H IgG-mediated e
174 is by macrophages is strongly dependent upon complement receptors and upon serum with intact compleme
175 entiates among the contributions from Fc and complement receptors, and provides a tool for estimating
176  receptors and in conditions of FcgammaR and complement receptor blockage with specific Abs.
177 in 8 (aqp8), adrenomedullin receptor (admr), complement receptor C1qR-like (crl), scavenger receptor
178   All measures were reversed by blocking C3a complement receptor (C3aR), alternative complement pathw
179 ional roles for both C5a receptors, that is, complement receptor C5a (C5aR) and C5a receptor-like 2 (
180                            Mice deficient in complement receptor C5a did not show increased MMP-9 act
181 d an intimate crosstalk between TLR2 and the complement receptor C5aR and can contribute to the persi
182                        Crosstalk between the complement receptor C5aR and FcgammaRIIa on neutrophils
183 deficient in complement factor 5 (C5) or the complement receptor C5aR mounted robust IL-17A responses
184                            Engagement of the complement receptor C5aR on neutrophils induces expressi
185 CXCR2 and CCR2 as targets for HlgAB, and the complement receptors C5aR and C5L2 as targets for HlgCB.
186       However, the distinct roles of the two complement receptors C5aR1 and C5aR2 in bone has to date
187 uman phagocytes through interaction with the complement receptors C5aR1 and C5aR2.
188 brane movement impedes the clustering of the complement receptor CD11b/CD18 on PMNs and, in turn, dec
189 the viral envelope glycoprotein gp350 to the complement receptor CD21.
190  radiation bone marrow-chimeric mice lacking complement receptors CD21 and CD35 on stromal cells elic
191                                 Mice lacking complement receptors CD21/35 partially resist terminal p
192 ts function in B cell activation through the complement receptors CD21/35.
193                   These results suggest that complement receptors CD21/CD35 are important in maintena
194                                 In addition, complement receptors (CD21 and CD35) on B cells cooperat
195 binding of complement-tagged antigens to the complement receptor, CD21, and to the BCR.
196  human T cells, autocrine stimulation of the complement receptor CD46, and specifically its intracell
197 t inhibitor linked to a C3 binding region of complement receptor (CR) 2 were prepared and characteriz
198        Follicular dendritic cells (FDCs) and complement receptor (Cr)1 and complement receptor (Cr)2
199 lls (FDCs) and complement receptor (Cr)1 and complement receptor (Cr)2 are important for the generati
200                            Notably, blocking complement receptor (CR)3 significantly reduced Aspergil
201  complement-decorated pathogens with various complement receptors (CR) on phagocytes.
202                               Complement and complement receptors (CR) play a central role in immune
203                                              Complement receptors (CR), CR3 (CD11b), and CR4 (CD11c)
204                  Cr2(-/-) mice, deficient in complement receptors (CR)1 and CR2, demonstrate defects
205 terium kansasii enter macrophages, using the complement receptors CR1, CR3, CR4, and the mannose rece
206                 Our new results suggest that complement receptors CR1/2, CR3, and CR4 all play import
207 n, but not murine, erythrocytes also present complement receptor (CR1), which binds Ad5 in the presen
208 NE significantly inhibited the production of complement receptors (CR1, CR3, and CR4) and Fc receptor
209 otypes resulted from polymorphisms in the C3 complement receptor Cr2 gene.
210 ulating humoral immunity largely through the complement receptor CR2, which forms a coreceptor on B c
211 hagocytosis, altered the distribution of the complement receptor CR3 (CD11b/CD18), enhanced the intra
212                                          The complement receptor CR3 (CD11b/CD18, Mac-1) mediates the
213     Inhibition of C1q, C3, or the microglial complement receptor CR3 reduces the number of phagocytic
214 cteria from the mannose receptor (MR) to the complement receptor CR3, the scavenger receptor A (SRA),
215                 Host immune cells use type 3 complement receptors (CR3) to regulate excess TNF-alpha
216 ing or gene ablation of the newly identified complement receptor CRIg, but not complement receptor 3
217                                              Complement receptors (CRs) CD21 and CD35 form a corecept
218  the individual roles of the alphavbeta5 and complement receptors (CRs) in the phagocytosis and induc
219                              B cells express complement receptors (CRs) that bind activated fragments
220                                              Complement receptors (CRs), expressed notably on myeloid
221 ptors (FcRs; FcR, Fc receptor) and the other complement receptors (CRs), mediate binding and ingestio
222       B cells captured immune complexes by a complement receptor-dependent mechanism from macrophage
223                                      CRIg, a complement receptor expressed on macrophages, binds to C
224 ly, deficiency of CRIg, CR3, and other known complement receptors failed to prevent Crry-deficient er
225 y result from reduction of the expression of complement receptors, Fc receptors, and F-actin formatio
226                                Expression of complement receptors, Fc receptors, and F-actin in ANE-t
227                                     gC1qR, a complement receptor for C1q, plays a pivotal role in the
228        Integrin alpha(X)beta(2) functions as complement receptor for iC3b and mediates recognition an
229 hages (M/M(Phi)s) through interaction with a complement receptor gC1qR.
230  is substantiated by studies indicating that complement receptor genes are within major susceptibilit
231                                          The complement receptor Ig (CRIg) is selectively expressed b
232                     The CD21/35 proteins are complement receptors implicated in controlling and inter
233 tosis involves ingestion through both Fc and complement receptors in the absence of complement.
234 reactive antibodies, we examined the role of complement receptors in the production of alphaGal-speci
235 ocytic index was caused by interference with complement receptor ingestion as a consequence of satura
236 t role in clearing particles in circulation, complement receptors involved in this process have yet t
237 m, via inhibition of Toll-like receptor- and complement receptor-mediated activation.
238 by the alternative pathway of complement via complement receptor-mediated erythrophagocytosis in the
239 , we examined the role of SP-A in modulating complement receptor-mediated phagocytosis.
240 ved MPhi, we now identify CD11b as the major complement receptor mediating MPhi adherence to the larv
241         These mechanisms are mediated by the complement receptor of immunoglobulin family (CRIg).
242 e was recently independently identified as a complement receptor of the Ig superfamily (CRIg) and was
243  a targeted complement inhibitor, comprising complement receptor of the Ig superfamily (CRIg) fused w
244                                            A complement receptor of the Ig superfamily (CRIg) is expr
245 rophages characterized by high expression of complement receptor of the Ig superfamily (CRIg), a rece
246 SPECT/muCT) imaging using Nanobodies against complement receptor of the Ig superfamily (CRIg), found
247 lated with disease protection, including the complement receptor of the immunoglobulin superfamily (C
248         Previously, we have shown that human complement receptor of the immunoglobulin superfamily (C
249 pture of bacteria-platelet-complexes via the complement receptor of the immunoglobulin superfamily, C
250 the identification and characterization of a Complement Receptor of the Immunoglobulin superfamily, C
251 tulated that surface-bound C3 interacts with complement receptors on alloreactive T cells or on antig
252 nsported into B cell follicles by binding to complement receptors on B cells.
253       We evaluated the expression of several complement receptors on cDCs and confirmed that cDCs tha
254 otein, resulting in enhanced phagocytosis by complement receptors on human alveolar macrophages.
255 lement complex and lowered the expression of complement receptors on monocytes in whole blood in resp
256  platelets and erythrocytes engage different complement receptors on tissue macrophages in vivo.
257 on the particle surface serve as targets for complement receptors present on phagocytic cells.
258 tic index but increased phagocytosis through complement receptors rapidly compensated for this effect
259 ment and neurodegeneration, we asked whether complement receptors regulate neurogenesis.
260 m of the mouse membrane complement inhibitor complement receptor-related gene y (Crry) fused to the I
261 eal injection of cobra venom factor (CVF) or complement receptor-related gene y (Crry)-Ig, a potent C
262                                              Complement receptor-related gene/protein y (Crry) is a c
263 nhibition of C3 by overexpression of soluble complement receptor-related protein y in an AD mouse mod
264 hanism and the possible involvement of other complement receptors remain unclear.
265 igated whether App1 would also bind to other complement receptor(s), we found that App1 does bind to
266 zing complement regulator derived from human complement receptor type 1 (APT070) and then subjected t
267 (tPA) to a monoclonal antibody (mAb) against complement receptor type 1 (CR1) expressed primarily on
268                                              Complement receptor type 1 (CR1) is a membrane receptor
269                                        Human complement receptor type 1 (CR1, CD35) is a type I membr
270 4) on the merozoite surface interacting with complement receptor type 1 (CR1, CD35) on the erythrocyt
271              The extracellular domain of the complement receptor type 1 (CR1; CD35) consists entirely
272 retreated with C1 inhibitor (n=5) or soluble complement receptor type 1 (n=6) at unchanged flow condi
273 ndertaken to determine whether soluble human complement receptor type 1 (TP10), a potent inhibitor of
274 l was significantly prolonged in the soluble complement receptor type 1 group (36 min, CI: 26-46) (P<
275     A structural comparison between Crry and complement receptor type 1 indicated that the domain arr
276 resence of a cofactor such as factor H (fH), complement receptor type 1, membrane cofactor protein, o
277                                        Human complement receptor type 2 (CD21) is the cellular recept
278                                        Human complement receptor type 2 (CR2 and CD21) is a cell memb
279                 The interactions between the complement receptor type 2 (CR2) and the C3 complement f
280  complement regulator (SCR) domains, whereas complement receptor type 2 (CR2) has 15 SCR domains and
281 the Epstein-Barr virus glycoprotein gp350 by complement receptor type 2 (CR2) is critical for viral a
282  short complement regulator (SCR) domains of complement receptor type 2 (CR2) that bind to complement
283 protein containing the C3d-binding region of complement receptor type 2 (CR2) was then conjugated to
284 irst two short consensus repeats (SCR1-2) of complement receptor type 2 (CR2, CD21) and C3d in soluti
285                                              Complement receptor type 2 (CR2, CD21) forms a tight com
286                                              Complement receptor type 2 (CR2, CD21) is a cell surface
287                                              Complement receptor type 2 (CR2, CD21) is a cell surface
288 therapeutic fusion protein linking the human complement receptor type 2 (CR2/CD21) C3 fragment (C3fra
289                                        Human complement receptor type 2 (CR2/CD21) is a B lymphocyte
290                                              Complement receptor type 2 (CR2/CD21) is essential for t
291                                              Complement receptor type 2 (CR2/CD21), in association wi
292 d and inactivated C3b, which are ligands for complement receptor type 2 (CR2/CD21), the aim of the cu
293              C3dg adducts of Ag can coligate complement receptor type 2 (CR2; CD21) and the B cell Ag
294 s that is recognized by Mphi, purified human complement receptor type 3 (CR3, CD11b/CD18) was used to
295 the complement C3 activation product iC3b to complement receptor type 3 (the iC3b receptor) on antige
296 ar the CD11b/CD18 beta2 integrin heterodimer complement receptor type 3/Mac-1.
297  with an alphaI domain, alpha(X)beta(2), the complement receptor type 4.
298  (MCP), decay accelerating factor (DAF), and complement receptors type 1 (CR1) and 2 (CR2).
299 e the antibody response in mice deficient in complement receptor types 1 and 2 (CR1 and CR2) has rais
300       To further characterize complement and complement receptors, we have identified a role for C3 i

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