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1  targeted, modify cell responses to spitting cobra venoms.
2                                              Cobra venom affected the formation of myotubes and induc
3  affected by both Indian Russell's viper and cobra venoms and offers insights into the potential caus
4 act with CTX A3, a major component of Taiwan cobra venom, by use of affinity chromatography, circular
5             Naja sputatrix (Malayan spitting cobra) venom contains 15% secretory PLA2 of its dry weig
6 rall, our systematic molecular dissection of cobra venom cytotoxicity provides insight into how we ca
7                                        While cobra venom decreased the viability, it did not largely
8                                   Rats given cobra venom factor (CoF) followed by a NTS shown to be c
9 epleting complement in chinchillas by use of cobra venom factor (CoVF) rendered two otherwise avirule
10                                              Cobra venom factor (CoVF) treatment, which depletes C3 a
11 562 alone (HAR model) or in combination with cobra venom factor (CVF) (DXR model).
12 r first hamster hearts had been surviving in cobra venom factor (CVF) + CyA-treated rats for 10 days,
13  administered the complement-depleting agent cobra venom factor (CVF) 24 hr before HI lesioning and e
14 nografts, the inhibition of complement using cobra venom factor (CVF) accelerates pulmonary xenograft
15 the graft aorta in combination with systemic cobra venom factor (CVF) administration to deplete compl
16  prevented by brief complement inhibition by cobra venom factor (CVF) and sustained T-cell immunosupp
17                   Surprisingly, injection of cobra venom factor (CVF) caused a profound and reproduci
18                                              Cobra venom factor (CVF) depletes complement and may the
19 anted heterotopically into rats treated with cobra venom factor (CVF) develop disease over 72 hours.
20 me of primary immunization by treatment with cobra venom factor (CVF) diminished serum anti-PPS14 con
21 dy sought to (i) investigate the efficacy of cobra venom factor (CVF) in preventing hyperacute reject
22                                              Cobra venom factor (CVF) induces lung injury through oxi
23 activation of complement by i.v. infusion of cobra venom factor (CVF) is known to be P-selectin depen
24  in vivo, because complement depletion using cobra venom factor (CVF) markedly reduced the efficacy o
25 y after systemic activation of complement by cobra venom factor (CVF) or after intrapulmonary deposit
26 or inhibited by intraperitoneal injection of cobra venom factor (CVF) or complement receptor-related
27 enografts was achieved using either CsA plus cobra venom factor (CVF) or CsA plus rapamycin.
28  depletion by treatment of athymic rats with cobra venom factor (CVF) partially reverses this effect.
29         Transient complement inhibition with cobra venom factor (CVF) plus daily and continuing cyclo
30                 Intraperitoneal injection of cobra venom factor (CVF) reduced C3 levels in the cornea
31 on of complement C3 or its inactivation with Cobra Venom Factor (CVF) result in impaired muscle regen
32 ell activation when it was preincubated with cobra venom factor (CVF) to deplete C3.
33 ing pulmonary xenograft dysfunction by using cobra venom factor (CVF) to deplete recipient complement
34                            Administration of cobra venom factor (CVF), 1 day before and at the time o
35 xplored by intraperitoneal injection of 35 U cobra venom factor (CVF), 24 hours before antibody injec
36 s B or D but did bind to immobilized C3b and cobra venom factor (CVF), a C3b analogue.
37 A/2 as islet allograft recipients as well as cobra venom factor (CVF), a complement blocker, treatmen
38 l plasma, with or without heat inactivation, cobra venom factor (CVF), or lipopolysaccharide plus int
39  groups: no therapy, daily administration of cobra venom factor (CVF), or splenectomy plus daily CVF.
40 (MMF), anti-CD40L monoclonal antibody (mAb), cobra venom factor (CVF), pig hematopoietic growth facto
41 as generated in vivo by infusion of purified cobra venom factor (CVF), thymocyte apoptosis was signif
42 ction process was further investigated using cobra venom factor (CVF), which systemically depleted th
43 ties, but had normal susceptibilities to the cobra venom factor (CVF)-dependent convertase.
44           Median graft survival was 62 hr in cobra venom factor (CVF)-treated controls versus 108 hr
45 respond to intravenous injection of purified cobra venom factor (CVF).
46 vation and depletion of complement (C) using cobra venom factor (CVF).
47  rats treated with cyclosporine (CsA) and/or cobra venom factor (CVF).
48 (GV) with the induction of lung injury using cobra venom factor (CVF); b) PLV-CVF group, animals rece
49 ion was significantly (p < 0.001) delayed by cobra venom factor (CVF; 11 +/- 8 h in four of five case
50 1 microg/mouse), we depleted complement with cobra venom factor (CVF; 7 U/mouse, intravenously [i.v.]
51                  A convertase assembled with cobra venom factor and Bb was decayed by DAF, albeit far
52 health and disease; for instance, the use of cobra venom factor and depletion of C3 provided the init
53  was inhibited by complement depletion using cobra venom factor and did not develop in C3(-/-) mice.
54 llowing systemic activation of complement by cobra venom factor and in the L-selectin-, P-selectin-,
55 eukostasis in mice systemically infused with cobra venom factor and intrapulmonary transendothelial m
56 term after transient complement depletion by cobra venom factor and T cell immunosuppression by cyclo
57 ic activation by the alternative pathway and cobra venom factor C3 convertases; and 4) for susceptibi
58                                              Cobra venom factor completely inhibited complement activ
59   This transient protection was abrogated by cobra venom factor depletion of complement from FcgammaR
60 C3(-/-) mice, and control mice injected with cobra venom factor developed pronounced corneal opacific
61                               Treatment with cobra venom factor did not affect survival, confirming t
62     Depletion of circulating complement with cobra venom factor eliminated, as expected, injury recor
63  after elastase perfusion, mice treated with cobra venom factor exhibited a mean aortic diameter of 9
64 t C3 in the periphery through treatment with cobra venom factor had a seizure rate comparable to that
65                                    Injecting cobra venom factor into wild-type mice activated the AP
66 e LPS injection, activation of complement by cobra venom factor led to significant elevation of serum
67                                       In the cobra venom factor model, sCR1sLex and sCR1[desLHR-A]sLe
68             In monkeys that received neither cobra venom factor nor dextran sulfate (group 1), there
69      The effect of complement depletion with cobra venom factor on porcine bone marrow cell (BMC) eng
70                       When compared with the cobra venom factor only group (GV-CVF 47 +/- 2 neutrophi
71 ated injury, either by the administration of cobra venom factor or soluble complement receptor I to t
72 diac transplants to survive long term (i.e., cobra venom factor plus cyclosporin A), inhibition of HO
73 nt depletion in CD55(-/-)CD59(-/-) mice with cobra venom factor prevented these effects.
74                         Decomplementation by cobra venom factor resulted in impaired entry of hepatoc
75                                 Injection of cobra venom factor resulted in prolongation of cardiac x
76 pig hearts transplanted into rats treated by cobra venom factor to avoid the hyperacute rejection.
77                       Treatment of mice with cobra venom factor to deplete complement had insignifica
78  block C4 and C3 split product binding or by cobra venom factor to trigger C3 consumption.
79 required for the protective effect of CRP as cobra venom factor treatment eliminated the effect of CR
80 ontributed to serum-induced dry eye disease, cobra venom factor was used to deplete complement activi
81 els, C3(-/-) mice and mice depleted of C3 by cobra venom factor were more susceptible to C. neoforman
82 is for the first clinical trial, except that cobra venom factor will be replaced by a clinically appr
83 type mice cotreated with the TLR ligands and cobra venom factor, a potent complement activator.
84 y experiments using serum with added EDTA or cobra venom factor, a protein that depletes C3.
85                             DAF did not bind cobra venom factor, implying that Bb decay is accelerate
86 i-T-cell and natural killer cell antibodies, cobra venom factor, medronate-liposomes, and 4 Gy of who
87  swine kidney, maintenance therapy comprised cobra venom factor, mycophenolate mofetil, and an anti-C
88  T-cell depletion, complement depletion with cobra venom factor, mycophenolate mofetil, anti-CD154 mo
89 scued in E8.5 Cmas-/- mice upon injection of cobra venom factor, resulting in exhaustion of the mater
90 hymocyte globulin, complement depletion with cobra venom factor, short courses of anti-CD154 mAb ther
91 epletion with ATG, complement depletion with cobra venom factor, short courses of cyclosporine, mycop
92 howed that pretreatment of C57BL/6 mice with cobra venom factor, which depleted serum of complement a
93  globulin, an anti-CD20 mAb (Rituximab), and cobra venom factor, with maintenance therapy based on bl
94 ubstituted with the corresponding segment of cobra venom factor, Xenopus, or trout C3 (chimeric C3s)
95 determined the C5-cleaving properties of the cobra venom factor-dependent C5 convertase (CVF, Bb) mad
96                    In contrast, zymosan- and cobra venom factor-induced AP complement activation, and
97                In the present study, we used cobra venom factor-induced decomplementation to investig
98 gammaR(-/-) mice, but not in C3(-/-) mice or cobra venom factor-treated mice.
99 rmal Lewis rats (complement-sufficient) with cobra venom factor-treated rats (complement-depleted).
100 rogenitor cells in marrow, were increased in cobra venom factor-treated recipients compared with simu
101  shock due to acute complement activation by cobra venom factor.
102 Sterne strain upon complement depletion with cobra venom factor.
103 en complement was depleted by treatment with cobra venom factor.
104 t participated in AP activation initiated by cobra venom factor.
105 Lewis rats, using intravenously administered cobra venom factor.
106  complement components via pretreatment with cobra venom factor.
107 pressure (PEEP) before the administration of cobra venom factor; d) CVF-PLV group, animals received p
108 ls received partial liquid ventilation after cobra venom factor; e) CVF-PEEP group, animals received
109  CVF-PEEP group, animals received PEEP after cobra venom factor; f) PLV only group, animals received
110 cal tissue damage caused by several spitting cobra venoms in murine models of envenoming.
111                                              Cobra venom-induced atrophy could not be reversed by sma
112 to the GP Ib thrombin-binding site or by the cobra venom metalloproteinase, mocarhagin, that hydrolyz
113 n Ib-IX-V complex, we utilized mocarhagin, a cobra venom metalloproteinase, to generate a fragment (H
114                                              Cobra venom (Naja kaouthia) contains a toxin called alph
115                        Phospholipase A2 from cobra venom (Naja naja atra) hydrolyzes carbonothioate p
116 xchange mass spectrometric evaluation of the cobra venom (Naja naja naja) group IA phospholipase A 2
117       Beta-cardiotoxin (B-CTX) from the king cobra venom (Ophiophagus hannah) was previously proposed
118                     Cardiotoxins (CTXs) from cobra venom show cytotoxicity toward several cell types.
119                             In Naja kaouthia cobra venom, we have earlier discovered a covalent dimer
120 ants of the group IA phospholipase A(2) from cobra venom were constructed and expressed in the methyl

 
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