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1 vestigation examined if combined efficacy of cell proliferative ability of rhEpo along with the neuro
2 heir viability and caused an increase in the cells' proliferative ability.
3  we show here that they displayed a range of cell-proliferative abnormalities, including decreased bo
4 l mechanisms by producing anti-apoptotic and cell proliferative actions.
5 f treatment, reduction of colonic epithelial cell proliferative activity (P<.05), reduction in size o
6 labeling index (PCLI) is a measure of plasma cell proliferative activity and is an important prognost
7 155 expression required for maintaining Treg cell proliferative activity and numbers under nonlymphop
8 specific suppression of ex vivo anti-donor T-cell proliferative activity and reductions in interferon
9 broblasts and fibroblasts may limit T-helper cell proliferative activity in the gut and, thus, might
10 gradation time in vivo; reduced sensitized T-cell proliferative activity in vitro; reduced IL-2, IFN-
11 ganisms, and IgG anti-rSEC neutralized the T-cell proliferative activity of native SEC.
12 in-binding motif that serves to regulate the cell proliferative activity of the paracrine hormone, an
13                          This suppression of cell proliferative activity was attenuated by N-acetyl c
14 testinal secretion and intestinal epithelial cell proliferative and apoptotic homeostasis.
15 as negatively associated with HBV-specific T-cell proliferative and CD8 responses during treatment, e
16                          HBV core-specific T-cell proliferative and CD8 responses were more vigorous
17  draining lymph node cells were tested for T cell proliferative and cytokine responses against the di
18 , marked reductions in OVA-specific CD4(+) T cell proliferative and cytokine responses in spleen and
19 tory T cells (CD4(+)CD25(hi)FoxP3(+)), and T-cell proliferative and cytokine responses to anti-CD3/CD
20                       Second, in vitro CD4 T-cell proliferative and cytokine responses to HIV-specifi
21 ed to undetectable levels and increases in T cell proliferative and cytokine responses to microbial a
22                                            T-cell proliferative and cytokine-producing capacities wer
23                       At day 30, antidonor T-cell proliferative and cytotoxic responses and both comp
24       However, SAHA had no effect on donor T cell proliferative and cytotoxic responses to host antig
25 y diminished capacity to induce allogeneic T-cell proliferative and cytotoxic responses.
26 ice possessed reduced splenic OVA-specific T cell proliferative and delayed-type hypersensitivity res
27 of donor-reactive CD4(+) T cells uncouples T cell proliferative and effector cytokine production from
28 as associated with an enhanced Ag-specific T cell proliferative and functional response.
29 urified recombinant Mtb39A elicited strong T-cell proliferative and gamma interferon responses in per
30  epitopes elicited potent effector/memory Th cell proliferative and IFN-gamma responses, including th
31 at the plasma membrane, effects of PLSCR1 on cell proliferative and maturational responses may also r
32 eptor, and apoptotic) and adaptive (CD4(+) T-cell proliferative and memory interleukin 17A) responses
33                 SiLAT1 and JPH203 suppressed cell proliferative and migratory and invasive abilities
34 bovine heart PDC (bPDC) in adjuvant showed T-cell proliferative and mixed Th1/Th2 cytokine secretory
35  Significant levels of OVA-specific CD4(+) T cell proliferative and OVA-induced Th1- and Th2-type cyt
36 Significant levels of PspA-specific CD4(+) T cell proliferative and PspA-induced Th1- and Th2- type c
37 rimeric G protein signaling is important for cell-proliferative and glucose-sensing signal transducti
38 onal for either MCP-1 or CCR2 had suppressed cell-proliferative and Th1 responses following oral admi
39 nthetic gene that encodes for 12 B cell, 6 T cell proliferative, and 3 cytotoxic T lymphocyte epitope
40 oantibody formation, clinical, histologic, T cell proliferative, and cytokine responses were evaluate
41                              Further, high T-cell-proliferative- and delayed-type hypersensitivity re
42 tients with measurable lymphoma, 8 mounted T-cell proliferative anti-Id responses, and 4 had clinical
43 sistent with the observed phenotype of tumor cell proliferative arrest and death and endothelial cell
44 ed activities of PTEN are required for stalk cells' proliferative arrest.
45 , we tested responses in an immunoblot and T-cell proliferative assay to distinguish type 1 diabetic
46                                            T-cell proliferative assays and cytokine assays using lymp
47 replication did not depend on differences in cell proliferative capabilities, cell surface expression
48 uman keratinocyte migration while preserving cell proliferative capability.
49 8 microM) and CD71 (IC50; 1.6 microM), and T-cell proliferative capacities measured by proliferating
50 owth factor (EGF)-induced cell migrative and cell proliferative capacities, as reported previously.
51 mportant contributor to sarcoidosis CD4(+) T-cell proliferative capacity and clinical outcome.
52 igating immune function in NOD2(-/-) mice, T cell proliferative capacity and IL-2 production were not
53 at p16 is the primary determinant of the NHP cell proliferative capacity and that hTERT is required f
54 how that age-dependent changes in supporting cell proliferative capacity are due in part to changes i
55 th impairment of resident cardiac progenitor cell proliferative capacity associated with altered cano
56 that T cells completed, no change in the per cell proliferative capacity of the remaining Ag-specific
57 method of extending telomeres and increasing cell proliferative capacity without risk of insertional
58  of plasma LPS in vivo significantly alter T cell proliferative capacity, monocyte cytokine release,
59 in and determined the effects of acrolein on cell proliferative capacity, senescence-associated beta-
60 ), evidence of thymopoiesis, and sustained T-cell proliferative capacity.
61 -regulated kinases (ERK1/2), it mediates the cell-proliferative, cell-growth, and survival-promoting
62  IHH, and bFGF) failed to rescue endothelial cell proliferative control but collectively promoted vas
63  transcriptional activity and enrolls Hox in cell proliferative control.
64 rrelated with down-regulation of TNF-induced cell-proliferative (COX-2 and cyclin D1) and antiapoptot
65   Thereafter, mycobacterial Hsp65-specific T cell proliferative, cytokine, and antibody responses wer
66     Furthermore, T(reg) removal eradicates T-cell proliferative defects and reverses T(H)2 cytokine s
67                                            T cell proliferative defects induced by sTat in vitro can
68 racellular isoAsp proteins associated with T cell proliferative defects of MRL autoimmune mice.
69 fore constitute a new therapeutic target for cell proliferative diseases such as atherosclerosis.
70 e (PNP) and that human PNP is a target for T-cell proliferative diseases.
71 a systemic survey to exclude systemic plasma cell proliferative diseases.
72 ) multiple myeloma is an asymptomatic plasma-cell proliferative disorder associated with a high risk
73 significance (MGUS) is a premalignant plasma-cell proliferative disorder associated with a life-long
74  NSG recipients, but produced a monoclonal T-cell proliferative disorder similar to T-ALL.
75 ignificance (MGUS) is an asymptomatic plasma cell proliferative disorder with a lifelong risk of prog
76 kemia (pPCL) is a rare and aggressive plasma cell proliferative disorder with a very poor prognosis a
77                                       Plasma cell proliferative disorders are frequently associated w
78  and mutations in DNMT3A correlate with mast cell proliferative disorders in humans, the role of DNA
79 and its analogues may be useful for treating cell proliferative disorders such as cancer.
80 ith extrahepatic manifestations (diabetes, B-cell proliferative disorders, depression, cognitive diso
81  persons with lymphoproliferative and plasma cell proliferative disorders, suggesting presence of sha
82  activated T-cells, making it a target for T-cell proliferative disorders.
83 t-chain amyloidosis, or other related plasma-cell proliferative disorders.
84    This assay has prognostic value in plasma cell proliferative disorders.
85 ted organs and tissues of patients with mast cell proliferative disorders.
86  a fluorescent dye to dissect and quantify T cell proliferative dynamics in vivo.
87             However, the casual link between cell proliferative effects during liver regeneration and
88 n signaling pathway, we hypothesize that the cell proliferative effects of hamartin and tuberin are p
89 in-Barr virus (EBV) oncogenes exert potent B cell proliferative effects.
90  of Rev-erbalpha in vivo augmented satellite cell proliferative expansion and regenerative progressio
91 , resulting either in activation-dependent T cell proliferative expansion and survival or in the acce
92 epletion abrogated antigen-specific CD8(+) T cell proliferative expansion, transforming subclinical c
93 surrogate light chain (SLC), signals pre-BII-cell proliferative expansion.
94 nding that METT-10 functions to inhibit germ-cell proliferative fate, despite promoting mitotic cell
95 rm line to inhibit the specification of germ-cell proliferative fate.
96           Conventional paradigm ascribes the cell proliferative function of the human oncoprotein mou
97 vity and the expression of antiapoptotic and cell-proliferative gene products.
98 e we adapt a dye dilution assay for tracking cell proliferative history through mass cytometry and un
99  generated high-titer immunoglobulin G and T-cell proliferative immune responses against CEA.
100 nsfectants had fewer vessels and lower tumor cell proliferative indices than tumors in the other grou
101 cient mice displayed a relative reduction in cell proliferative indices, as well as increased tumor n
102 a are the first to reveal that the target of cell proliferative inhibitory action of OGF in human HNS
103  with controls, patients with CHB had weak T-cell proliferative, interferon gamma, and interleukin 10
104 ich is characterized by complex, endothelial cell-proliferative lesions of lung precapillary arteriol
105 c potential of tumor cells by increasing the cell proliferative, migratory, and invasive capacities.
106 ion of the epithelium through stimulation of cell proliferative, migratory, and wound healing respons
107 patients mounted either humoral (n = 4) or T-cell-proliferative (n = 4) responses to the MsIg compone
108                        Here, we examined the cell proliferative, neurogenic, and behavioral effects o
109                              We examined the cell proliferative, neurogenic, and behavioral effects o
110 furcated mechanisms of signaling to a common cell proliferative pathway.
111 is removed, rebound activation of MET-driven cell proliferative pathways and tumor growth may occur,
112 ry is linked to tumor suppression as well as cell-proliferative pathways and that the reestablishment
113  the mast cell compartment results in a mast cell proliferative phenotype in mice, demonstrating that
114 tandard transplantation conditions, the stem cell proliferative potential is not compromised during h
115 rmis is due to slowing of the epidermal stem cell proliferative rate.
116 lating their BCRs well before a detectable B cell proliferative region appeared at the follicle base.
117 ld increase in the median p24-induced CD4+ T-cell proliferative response and a 57% increase in the nu
118  of E4 and E1 had little impact on the CD4 T-cell proliferative response and cytolytic activity of CD
119 creased its effectiveness in costimulating T cell proliferative response and early IL-2 production in
120                       The in vitro splenic T cell proliferative response and induction of IFN-gamma t
121 ells, B cells, or natural killer cells, or T-cell proliferative response compared with interferon bet
122 kground resulted in a dramatically reduced B cell proliferative response following IgM ligation, char
123 Our results suggest that the inhibition of T cell proliferative response in microgravity culture is a
124  of GFAP filament assembly and inhibition of cell proliferative response in Muller glia.
125 ptophan (1-mT) results in increased CD4(+) T-cell proliferative response in PBMCs from HIV-infected p
126  developmental abnormality in the epithelial cell proliferative response in those mice.
127 eta fusion cells failed to induce a strong T cell proliferative response in vitro, mainly due to the
128 ally, both internalization of CD26 and the T cell proliferative response induced by CD26-mediated cos
129          The results suggest that a strong T-cell proliferative response is induced upon rechallenge
130                  The prevention of a myeloma cell proliferative response resulting from inhibition of
131 d of infected individuals, inhibited human T cell proliferative response through interaction with the
132                           In addition, the T-cell proliferative response to allogeneic LC-derived mDC
133 f T-cell tolerance was assessed by splenic T-cell proliferative response to antigen at 5 weeks.
134 wild-type C57BL/6 mice and had an enhanced T cell proliferative response to bovine CII.
135  EGF-like growth factor (HB-EGF) in the beta-cell proliferative response to glucose, a beta-cell mito
136                                        The T-cell proliferative response to HBcAg did not differ betw
137 ne viral load or CD4+ T cell count and the T cell proliferative response to HIV-1 Gag.
138 iency only partially reduced the naive CD8 T cell proliferative response to IL-15/IL-15Ralpha complex
139 as associated with a significantly reduced T cell proliferative response to mycobacterial Hsp65, whic
140 RS-1 nor IRS-2 overexpression induced a beta-cell proliferative response to TGF-alpha/EGF.
141 cretion and were unable to induce a normal T cell proliferative response to TT.
142  detected by inhibition of the Ag-specific T cell proliferative response upon Ag presentation by IFN-
143 ability to transduce CLL cells, a vigorous T-cell proliferative response was obtained using cells tra
144 ed subsets of lymphocytes and quantitative T-cell proliferative response were assessed in an explorat
145 and/or SRL both in vitro (by inhibiting of T-cell proliferative response) and in vivo (by inhibiting
146                  Despite a compensatory beta-cell proliferative response, beta-cell mass progressivel
147    Human HSCs did not stimulate allogeneic T-cell proliferative response, indicating that they are no
148 cells, and elicits a robust TLR9-dependent B cell proliferative response.
149 also abolishes primary mitogen-induced liver cell proliferative response.
150 g a significant HER-2/neu protein-specific T-cell proliferative response.
151 , that generated a low-level but clear-cut T cell proliferative response.
152 s nor everolimus could inhibit the CD4CD28 T-cell proliferative response.
153       Although we found both a high CD4(+) T cell-proliferative response and TH2 cytokines production
154 mg/kg APAP, these changes plus a potentiated cell-proliferative response are necessary for protection
155 munization, respectively), in increases in T cell-proliferative response to HPV-16 L1 VLPs (P<.001).
156 rosis, but had no inhibitory effect on the T cell-proliferative response to myelin basic protein (MBP
157  sole class II molecule generated a robust T cell-proliferative response when primed with peptide 2 o
158 amma, TNF-alpha, and IL-6 in the augmented T cell-proliferative response.
159  dose levels of vaccine, peptide-specific, T-cell proliferative responses (n = 3) and/or DTH response
160 dendritic cell responses (flow cytometry), T-cell proliferative responses (thymidine incorporation),
161 nges paralleled reduced IL-2 secretion and T cell proliferative responses after TCR-CD28 stimulation
162 onstruct produced antibodies and exhibited T-cell proliferative responses against core or envelope.
163                           The frequency of T-cell proliferative responses against VP2 was significant
164 ignificantly increased autoantigen-induced T cell proliferative responses along with greater numbers
165 characterized by antigen-specific impaired T cell proliferative responses and a distinct pattern of c
166 e treated with recombinant Map had reduced T cell proliferative responses and a significantly reduced
167 mpared with Ab positivity, we assessed the T-cell proliferative responses and Ab responses (islet cel
168 raft histopathology as well as anti-HLA-A2 T-cell proliferative responses and anti-HLA-A2 antibody de
169                                            B-cell proliferative responses and differentiation to immu
170              Allogeneic C3H/HeJ (C3H; H2k) T-cell proliferative responses and generation of cytotoxic
171                                            T-cell proliferative responses and immunoglobulin G antibo
172 ration of T-regulatory cells that suppress T-cell proliferative responses and induce tolerance.
173 insight into how TNF may inhibit endothelial cell proliferative responses and modulate angiogenesis i
174  significant levels of OVA-specific CD4(+) T cell proliferative responses and OVA-induced IFN-gamma a
175 n, significant levels of OVA-specific CD4+ T cell proliferative responses and OVA-induced IL-4 and IL
176          In the mucosa, both Peyer's patch T cell proliferative responses and OVA-specific fecal IgA
177                              In contrast, Th cell proliferative responses and secretion of cytokines
178 lsed DC can induce both E7-specific CD4(+) T-cell proliferative responses and strong CD8(+) CTL respo
179               Ex vivo grass antigen-driven T-cell proliferative responses and the frequency of IL-4(+
180             The results suggest that HHV-8 T cell proliferative responses are common in HIV-negative
181 llergen-driven IL-4(+) CD4(+) T cells, and T-cell proliferative responses are detectable in the perip
182 present on the surface of donor DCs, donor T cell proliferative responses are generated only in respo
183                                            T-cell proliferative responses are inhibited during the er
184                        HIV-1-specific CD4+ T cell proliferative responses are not measurable in most
185 as negatively associated with HBV-specific T-cell proliferative responses at both time points.
186 y positions induced enhanced specific CD4+ T cell proliferative responses at lower peptide concentrat
187 eneic MLRs between DCs and T cells reduced T cell proliferative responses but did so less efficiently
188                      Suppression of CD4(+) T cell proliferative responses by both CD25(+) and CD25(-)
189 e formation prior to the induction of full T cell proliferative responses by concurrent indirect Ag p
190 ory T cells that more efficiently suppress T cell proliferative responses by mixed leukocyte reaction
191 s showed enhanced suppressive activity for T cell proliferative responses compared with freshly isola
192 d activation of beta-catenin, and epithelial cell proliferative responses during C. rodentium infecti
193 284, 295-314, and 305-324) elicited strong T-cell proliferative responses from all strains of mice wh
194 re, both the magnitude of p24-induced CD4+ T-cell proliferative responses from CD8-depleted PBMC and
195                     These p24-induced CD4+ T-cell proliferative responses from CD8-depleted PBMC were
196 emonstrated CMV-specific CD4(+) and CD8(+) T cell proliferative responses from PBMC, with CD4(+)IFN-g
197       Interestingly, most HCV-specific CD4 T-cell proliferative responses in AA patients were unaccom
198                   HIV-1 Ag-specific CD4(+) T cell proliferative responses in human subjects with adva
199 the CTLp frequency, anti-NP Ab titers, and T cell proliferative responses in mice that were injected
200 f-life becomes apparent during analyses of T cell proliferative responses in mice, particularly when
201 epitope, peptide 5 (P5), stimulates strong T cell proliferative responses in subjects with delayed (D
202 rtial BAFF neutralization rescues aberrant B cell proliferative responses in such mice.
203 nd TILN immunization induced specific CD4+ T cell proliferative responses in the iliac lymph nodes, w
204             Like C1q, HCV core can inhibit T-cell proliferative responses in vitro.
205 sing of DC to efficiently trigger specific T-cell proliferative responses in vitro.
206 nization with this construct elicited CD4+ T cell proliferative responses in vivo.
207                                     CD4(+) T-cell proliferative responses indicative of breakdown of
208                           CMX-13 inhibited T cell proliferative responses induced by Con A and alloan
209                       The peripheral blood T cell proliferative responses induced by topo I and in vi
210                 Peripheral blood mononuclear cell proliferative responses of 25 controls and 10 patie
211                                            T cell proliferative responses of B6.129S1-IL-12rb2(tm1Jm)
212 nd inguinal lymph nodes, without affecting T cell proliferative responses or levels of anticollagen a
213 anergy to recall antigens and lower (<70%) T-cell proliferative responses than controls after activat
214 lowered serum autoantibody levels, reduced T cell proliferative responses to AChR, and an expansion i
215 immunocompromised, with reduced polyclonal T cell proliferative responses to alloantigen, defined pep
216 17 receptor (R):Fc fusion protein inhibits T-cell proliferative responses to alloantigens and prolong
217 m four different colonies side-by-side for T-cell proliferative responses to an expanded panel of aut
218                                            T cell proliferative responses to diabetes-associated Ags
219  We compare changes in lymphocyte subsets, T cell proliferative responses to disease-associated targe
220 iltration into grafts but not with altered T-cell proliferative responses to donor stimulators.
221                      The induction of CD4+ T cell proliferative responses to eight synthetic peptides
222 iding sufficient help to allow optimal CD8 T cell proliferative responses to exosomal protein.
223 /- --> F1 chimeras were also able to mount T-cell proliferative responses to foreign antigens equal t
224 rst, neither APC type was able to initiate T cell proliferative responses to full-length native Topo
225                                  The human T cell proliferative responses to GA were HLA class II DR-
226 nd untreated MS patients exhibit prominent T cell proliferative responses to GA.
227  kinase proto-oncogene, reportedly modulates cell proliferative responses to growth factors, contract
228                                            T-cell proliferative responses to HER-2/neu peptides and i
229            It has been suggested that CD4+ T cell proliferative responses to HIV p24 Ag may be import
230 elper lymphocytes, manifested by increased T cell proliferative responses to HIV-1 Gag and recall ant
231                                 A range of T-cell proliferative responses to HPV-11 VLP were observed
232 ever, it has been difficult to demonstrate T cell proliferative responses to human insulin in IDDM pa
233           Their peripheral blood mononuclear cell proliferative responses to immunogen stimulation 4
234 in, saliva IgA binding to insulin, or CD4+ T-cell proliferative responses to insulin were observed in
235 nd saliva IgA binding to insulin, and CD4+ T-cell proliferative responses to insulin.
236 of 25 tested persons made antigen-specific T cell proliferative responses to L2E7, and peripheral blo
237 fter the transplantation of thymus tissue, T-cell proliferative responses to mitogens developed in fo
238                  All 7 survivors developed T-cell proliferative responses to mitogens of more than 10
239 L-12 significantly increased PBMC and CD4+ T cell proliferative responses to p24 Ag in HIV-infected,
240                                            T cell proliferative responses to purified HHV-8 were meas
241 granule precursor cells and enhances granule cell proliferative responses to Sonic hedgehog.
242 oavailability facilitated the induction of T cell proliferative responses to suboptimal stimuli.
243 ventilatory acclimatization and carotid body cell proliferative responses to sustained hypoxia.
244                                            T-cell proliferative responses to synthetic peptides demon
245 acrophages and DCs directly regulate human B-cell proliferative responses to T-cell-independent stimu
246                                    Primary T cell proliferative responses to TCR ligation plus CD28 c
247   Eleven of the 21 patients also developed T cell proliferative responses to the homologous self-Ag.
248                                        CD4 T cell proliferative responses to the pneumococcal protein
249 s, inhibition of SIV replication, and CD4+ T cell proliferative responses to three of the extracellul
250                                            T cell proliferative responses to topo I were detected in
251 w also had a reduced capacity to stimulate T cell proliferative responses to tubercle bacillus Ag 85.
252 lidated linear discriminant analysis using T cell proliferative responses to two regions of Tri r 2 (
253 lity to enhance anti-CD3-stimulated CD4(+) T cell proliferative responses via B7-1 and B7-2.
254 endritic cells (DCs) to induce Ag-specific T cell proliferative responses was significantly reduced c
255 ti-IgM- and anti-CD40 plus anti-Ig-induced B cell proliferative responses were decreased in BXD2-Aicd
256 ll as anti-HLA-A2 antibody development and T cell proliferative responses were determined at days +5,
257  delayed-type hypersensitivity and splenic T cell proliferative responses were examined, Peyer's patc
258                                     Overall, cell proliferative responses were influenced by both the
259 oy islet tissue in vivo though spontaneous T-cell proliferative responses were observed in prediabeti
260                                            T cell proliferative responses were seen with all encephal
261    Furthermore, specific CD4(+) and CD8(+) T cell proliferative responses were significantly increase
262    These data suggest that Ply induces CD4 T cell proliferative responses with production of IFN- gam
263 on of innate immune responses and adaptive T cell proliferative responses, along with only transient
264 ides containing these sequences stimulated T cell proliferative responses, although less intensely th
265 pecific intrahepatic and peripheral CD4(+) T cell proliferative responses, and cytokines (enzyme-link
266 globulin A (IgA)- and IgG-secreting cells, T-cell proliferative responses, and gamma interferon secre
267 n of maturation markers, IL-12 production, T cell proliferative responses, and IFN-gamma production.
268         They elicited only weak allogeneic T-cell proliferative responses, and repeated stimulation i
269  enhancement in anti-CD3-stimulated CD4(+) T-cell proliferative responses, and this proliferation was
270 timulatory activity for primary and memory T-cell proliferative responses, but this was substantially
271  induced a rapid increase in NK activity, NK cell proliferative responses, generation of lymphokine-a
272 mmaRIIB only modestly affected initial CD4 T cell proliferative responses, suggesting that FcgammaRII
273 h specific impairment of ex vivo antidonor T cell proliferative responses, which was not reversed by
274 ccompanied by diminished antigen-specific, T-cell proliferative responses.
275 or antibody binding and induction of human T-cell proliferative responses.
276 mparable levels of IL-2 and IL-4 and similar cell proliferative responses.
277 al blood lymphocytes and better priming of T-cell proliferative responses.
278 ergic subjects but did not change in vitro T-cell proliferative responses.
279 mia was not associated with an increase in T cell proliferative responses.
280 ted in a significant enhancement of T-helper cell proliferative responses.
281 t spleen APC in vitro leads to normal CD4+ T cell proliferative responses.
282  involved in the ability of FDC to inhibit T-cell proliferative responses.
283 ory mediators, and failed to induce robust T cell proliferative responses.
284  by significant adaptive CD4(+) and CD8(+) T cell proliferative responses.
285 e potency of APCs and boost mitogen-driven T-cell proliferative responses.
286 ncreasing cholesterol efflux suppressed stem cell proliferative responses.
287  the regulation of activated CD4(+) T-helper cell proliferative responses; blocking this interaction
288 , protective GSH is more abundant, and where cell-proliferative responses are better able to sustain
289                             Suppression of T cell-proliferative responses during malaria has been att
290                                   However, B cell-proliferative responses induced by stimulation of t
291 nt than untreated DCs in driving syngeneic T cell-proliferative responses to staphylococcal enterotox
292  a significant increase in PBLs, but T and B cell-proliferative responses were not consistently enhan
293 terized by a lack of virus-specific CD4(+) T-cell-proliferative responses, but strong responses have
294 e absence of strong HIV-1-specific, CD4(+) T-cell-proliferative responses, yet the mechanism underlyi
295 ture DCs were used to stimulate allogeneic T cells, proliferative responses were dampened (approximat
296 n, a G12/13-stimulated pathway implicated in cell proliferative signaling.
297 ortant effects on cell cycle progression and cell proliferative signaling.
298       A differential proteomic analysis of B cell proliferative states, similar to previous transcrip
299 nd, burn injury alone caused a substantial T-cell proliferative suppression at 2 days postburn in bot
300  that can become a potential target for beta-cell proliferative therapies.

 
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