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1 by using various techniques to achieve donor hyporesponsiveness.
2 enine (called 1V136) leads to subsequent TLR hyporesponsiveness.
3 ific memory cells is the cause of PS-induced hyporesponsiveness.
4 prolonged IL-12 treatment resulting in IL-12 hyporesponsiveness.
5 s largely abolishes IL-12 induction of IL-12 hyporesponsiveness.
6 leukin (IL)-10 overproduction, and CD4(+)Th1 hyporesponsiveness.
7 tivation, may play a role in adaptive immune hyporesponsiveness.
8 receptors (AR), as contributing to FL T cell hyporesponsiveness.
9 induction of the optimal level of macrophage hyporesponsiveness.
10 imary cause of hypoactivity, hypothermia and hyporesponsiveness.
11 and Thr399Ile) have been associated with LPS hyporesponsiveness.
12  suggesting that mature NK cells may acquire hyporesponsiveness.
13  (AMBP-1) appears to be responsible for this hyporesponsiveness.
14 une response signals to generate Ag-specific hyporesponsiveness.
15 ated with altered immune function, including hyporesponsiveness.
16 ytokine production, displaying a generalized hyporesponsiveness.
17 tivation, may play a role in adaptive immune hyporesponsiveness.
18 expression that is associated with iNKT cell hyporesponsiveness.
19 on to LV dysfunction through beta-adrenergic hyporesponsiveness.
20  the possible mechanism responsible for such hyporesponsiveness.
21 ylation of IRAK might all contribute to this hyporesponsiveness.
22 s analyzed with mechanisms of donor-specific hyporesponsiveness.
23  achieve stable chimerism and donor specific hyporesponsiveness.
24 e thymic tissue is able to induce xenogeneic hyporesponsiveness.
25 is in DBA/1 mice by induction of Ag-specific hyporesponsiveness.
26 sis (CML) assays demonstrated donor-specific hyporesponsiveness.
27  CD8(+) T cell response in a state of immune hyporesponsiveness.
28 L before LAM treatment abrogated LAM-induced hyporesponsiveness.
29 or B cells were required to induce iNKT cell hyporesponsiveness.
30 hus are unlikely to have a role in effecting hyporesponsiveness.
31 d potency of the Ag, were required to induce hyporesponsiveness.
32 dified immune cells and achieved immunologic hyporesponsiveness.
33 ther enteric glia are involved in epithelial hyporesponsiveness.
34  upon TCR stimulation and may lead to T cell hyporesponsiveness.
35 ted in human filariasis to understand immune hyporesponsiveness.
36 consisted of 36,450 patients; 1004 exhibited hyporesponsiveness.
37 on on protocol biopsy despite donor-specific hyporesponsiveness.
38 ion by inducing a state of peripheral T-cell hyporesponsiveness.
39          Oxidative stress can lead to T cell hyporesponsiveness.
40  tolerized mice exhibited xenodonor-specific hyporesponsiveness.
41 ls, which contributed to MDSC-induced T-cell hyporesponsiveness.
42 blocked at an immature stage associated with hyporesponsiveness.
43  state of active IL-10-mediated inflammatory hyporesponsiveness.
44 y response, followed by a secondary state of hyporesponsiveness, a so-called "tolerance." This hypore
45 -like T cell subset and indicate that T cell hyporesponsiveness, a state traditionally linked to tole
46 M receptors are responsible for producing AM hyporesponsiveness after hemorrhage.
47 rmine whether linezolid would reverse immune hyporesponsiveness after influenza infection in mice thr
48 key factor in the development of CD4+ T cell hyporesponsiveness after repeated parasite exposure invo
49 ed by lamina propria T cell (LPT) functional hyporesponsiveness after TCR engagement when compared wi
50 trategy of induction of alloantigen-specific hyporesponsiveness ("alloanergization") in donor bone ma
51 ures resulted in profound in vitro secondary hyporesponsiveness and 30-fold or greater protection fro
52 tosome infections are associated with T-cell hyporesponsiveness and a strong regulatory network.
53  renders them tolerogenic by inducing T-cell hyporesponsiveness and apoptosis.
54 eral T-cell compartment and exhibit profound hyporesponsiveness and decreased production of interleuk
55 This was associated with induction of T-cell hyporesponsiveness and enhanced T-cell apoptosis.
56 an the mean, respectively, the prevalence of hyporesponsiveness and hyper-responsiveness in these pat
57                                         When hyporesponsiveness and hyper-responsiveness to clopidogr
58                In addicted populations, both hyporesponsiveness and hyperresponsiveness of brain regi
59 nd in vitro, leading to Toll-like receptor 7 hyporesponsiveness and impaired IFN-alpha production.
60 odomain were previously associated with TLR4 hyporesponsiveness and increased susceptibility to bacte
61 pecific B cells in bone marrow, resulting in hyporesponsiveness and lack of long-term persistence of
62 mectomy on day -21, developed donor-specific hyporesponsiveness and maintained their cardiac grafts f
63 s that may be instrumental in general T-cell hyporesponsiveness and may contribute to the increased r
64  MF and DC is complex but contributes to the hyporesponsiveness and parasite persistence associated w
65 role in the cell-intrinsic program of T cell hyporesponsiveness and point to NR4A inhibition as a pro
66 ytokines and higher levels of erythropoietin hyporesponsiveness and poor clinical outcome, including
67 ith donor antigen resulted in donor-specific hyporesponsiveness and production of interleukin (IL)-10
68         AlloAg-pulsed Rapa DC induced T-cell hyporesponsiveness and promoted the generation of IL-10-
69 s resulted in secondary alloantigen-specific hyporesponsiveness and protection from graft-versus-host
70 These pigs developed in vitro donor-specific hyporesponsiveness and suppression.
71 ll defects may explain, in part, the vaccine hyporesponsiveness and susceptibility to bacterial infec
72       Our data demonstrate that KIR-mediated hyporesponsiveness and TGF-beta-mediated suppression are
73 ell subsets may provide a basis for antibody hyporesponsiveness and the limited effectiveness of 23vP
74 ulting in secondary mixed leukocyte reaction hyporesponsiveness and tolerance to alloantigen in vivo.
75 bal down-regulation of MHC-I induced NK cell hyporesponsiveness and tolerance to missing-self without
76              All demonstrated donor-specific hyporesponsiveness and were weaned from full-dose immuno
77 es that a soluble factor contributes to this hyporesponsiveness, and comparison of Peyer's patches an
78 e T and B cells, induction of cell-intrinsic hyporesponsiveness, and dominant regulatory cells mediat
79 ponses, induced stable GAD65-specific T cell hyporesponsiveness, and suppressed markedly control DC-i
80 e of memory B cells in 23vP-induced antibody hyporesponsiveness, and to identify the B-cell subtypes
81 nsiveness in vivo, but T cell depletion, not hyporesponsiveness, appears to be critical for anti-CD3
82 vestigations identified tumor-induced T-cell hyporesponsiveness as a form of clonal anergy, and they
83 -10 was observed to be critical in mediating hyporesponsiveness, as CD4+ cells from the sdLN of 4x mi
84 biasing iNKT cell Ags could induce iNKT cell hyporesponsiveness, as long as a minimum antigenic affin
85         CD4 T cells showed some hallmarks of hyporesponsiveness because TCR/CD28-mediated stimulation
86 ablishment of costimulation blockade induced hyporesponsiveness, but rather appears to be required fo
87 ent, all animals demonstrated donor-specific hyporesponsiveness by assays of direct alloresponse (cel
88 ic pathways are crucial for the induction of hyporesponsiveness by costimulation blockade.
89    Animals were monitored for donor-specific hyporesponsiveness by MLR and alloantibody determination
90 hese findings define the molecular basis for hyporesponsiveness by SHIP-deficient NK cells.
91                                       T-cell hyporesponsiveness can be caused by clonal anergy or ada
92 esponsiveness, a so-called "tolerance." This hyporesponsiveness can be induced by endotoxin stimulati
93                                   The immune hyporesponsiveness could be overcome if T cell help was
94                                  Ag-specific hyporesponsiveness could be reversed by the addition of
95 lymph node migratory capacity, induce T cell hyporesponsiveness, cross-present self-antigens to autor
96 rom, P<0.01), and equivalent beta-adrenergic hyporesponsiveness despite similar MI size.
97                                          The hyporesponsiveness did not depend on T or B lymphocytes,
98 falizumab may induce a unique type of T-cell hyporesponsiveness, directly induced by LFA-1 binding, w
99                                         This hyporesponsiveness does not involve CXCR4 modulation.
100 ed metabolic restrictions can mediate T cell hyporesponsiveness during cancer.
101  phosphorylation may be responsible for IL-6 hyporesponsiveness during sepsis.
102 forming growth factor (TGF)-beta in monocyte hyporesponsiveness during septic shock.
103 vent complications associated with secondary hyporesponsiveness during SIRS.
104                                  A window of hyporesponsiveness following influenza infection has bee
105 ied to the ease of measurement of lymphocyte hyporesponsiveness, has resulted in many attempts to und
106  receptor 4 (TLR4) associated with endotoxin hyporesponsiveness have decreased acute rejection over t
107 characterized in vitro as a pathway-specific hyporesponsiveness; however, this has not been demonstra
108  inhibits 1 degrees MLR and induces specific hyporesponsiveness in 2 degrees MLR, with both effects o
109 of many of the activated T cells, it induced hyporesponsiveness in a portion of the responding cells,
110 hibitor ARL 67156 partially overcomes T cell hyporesponsiveness in a subset of patient samples.
111 young and aged syngeneic hosts revealed that hyporesponsiveness in aged RTE was caused by a combinati
112 h in vivo CA treatment conferred Ag-specific hyporesponsiveness in BALB/c, NOD, DO11.10, and BDC-2.5
113 ect responsible for lipopolysaccharide (LPS) hyporesponsiveness in C3H/HeJ mice.
114 and the occurrence and severity of endotoxin hyporesponsiveness in children following elective cardia
115 imulatory molecules induce allogeneic T-cell hyporesponsiveness in coculture studies, mMDCs that expr
116 ction could partially account for the T cell hyporesponsiveness in filariasis.
117                            Thus, the beta-AR hyporesponsiveness in human HF is mediated in large part
118 tional variants in the gene confer endotoxin-hyporesponsiveness in humans.
119 ty of Nippostrongylus brasiliensis to elicit hyporesponsiveness in lymph node T cells.
120                              beta-adrenergic hyporesponsiveness in many cardiomyopathies is linked to
121 ot correlated with the development of T cell hyporesponsiveness in mixed lymphocyte culture.
122  bacterial components results in a status of hyporesponsiveness in otherwise reactive IEC.
123 ourse of the protocol, suggesting an adrenal hyporesponsiveness in participants with higher Pb concen
124 ajor mechanism underlying Ag-specific T cell hyporesponsiveness in patients with patent filarial infe
125                                  The overall hyporesponsiveness in skin from patients with background
126               Anergy is a state of long-term hyporesponsiveness in T cells that is characterized by a
127 en, with in vitro evidence of donor-specific hyporesponsiveness in the absence of donor macrochimeris
128 previously demonstrated profound Ag-specific hyporesponsiveness in the absence of NADPH oxidase-deriv
129  is not the main mechanism of donor-specific hyporesponsiveness in the direct pathway of allorecognit
130 patic DC induced alloantigen-specific T cell hyporesponsiveness in vitro, correlated with deficient T
131 ong-term acceptors maintained donor-specific hyporesponsiveness in vitro.
132 ed recovery of T cells and prolonged general hyporesponsiveness in vitro.
133 f both anti-CD3-induced T cell depletion and hyporesponsiveness in vivo, but T cell depletion, not hy
134                                       Immune hyporesponsiveness induced by 23vPPV in toddlers does no
135 istent with T cell anergy and similar to the hyporesponsiveness induced by administration of soluble
136 delivered siRNA prevented the development of hyporesponsiveness induced by repeated Ag stimulation in
137                                  The ensuing hyporesponsiveness is characterized by increases in both
138                          The reason for this hyporesponsiveness is decreased or polarized expression
139                                    The IL-12 hyporesponsiveness is dependent on IL-12 concentration,
140 ication of antiplatelet nonresponsiveness or hyporesponsiveness is highly test specific, and does not
141 eonatal immune cells; however, the degree of hyporesponsiveness is highly variable and depends on the
142                                    Chemokine hyporesponsiveness is imposed upon T cells within hours
143 n, but the mechanism underlying the frequent hyporesponsiveness is incompletely understood.
144 hrough activating receptors, suggesting that hyporesponsiveness is responsible for self-tolerance.
145 ining T cells, demonstrating that FLN T cell hyporesponsiveness is reversible.
146 cular signaling circuitry that enforces this hyporesponsiveness is undefined.
147                                          ESA hyporesponsiveness may be useful in identifying potentia
148                           Both tolerance and hyporesponsiveness occurred when the host was MHC I defi
149 plant recipients, donor-specific CD4+ T cell hyporesponsiveness occurs predominantly in CD4+ CD45RO+
150                            We found that the hyporesponsiveness of AlvMs to IL-4 depended upon the lu
151 ein TCR transgenic mice, and showed that the hyporesponsiveness of autoantigen-reactive T cells from
152              This process contributes to the hyporesponsiveness of CD4(+) effector T cells and accumu
153 d-type LYP for binding to CSK and results in hyporesponsiveness of CD4(+) T cells to antigen stimulat
154 ce was capable of reversing the inflammatory hyporesponsiveness of GF mice in sterile inflammatory in
155  FasL is thus critical for both deletion and hyporesponsiveness of H-Y-reactive CD8+ T cells during p
156 trate that costimulation blockade can induce hyporesponsiveness of host CD4 T cells recognizing alloa
157                       There was a reversible hyporesponsiveness of Ly49H(+) NK cells that extended to
158 M after CpG DNA pretreatment resulted in the hyporesponsiveness of macrophages that leads to the prot
159 CpG DNA/D-GalN-challenged mice is due to the hyporesponsiveness of macrophages to CpG DNA.
160 and ERK activation by acute alcohol leads to hyporesponsiveness of monocytes to LPS due to increased
161                                 We show that hyporesponsiveness of MUC1-Tg mice to this vaccine is a
162     However, signaling pathways that trigger hyporesponsiveness of phagocytes in clinically relevant
163  cross-linking FcgammaRIIA showed consistent hyporesponsiveness of platelets expressing the 276P/326Q
164 thways may partially underlie the documented hyporesponsiveness of PVN neurosecretory cells to certai
165 ortant new role for leptin in the anergy and hyporesponsiveness of regulatory T cells.
166  contrast to the partial clonal deletion and hyporesponsiveness of remaining T cells observed in CD28
167                                          The hyporesponsiveness of residual CD8+ T cells in mixed lym
168 ether this impairment may be associated with hyporesponsiveness of T cells to gamma-chain (gammac) cy
169 s demonstrate that the ex vivo proliferative hyporesponsiveness of Tgfb1(-/-) splenic lymphocytes is
170  insula during fear conditioning, as well as hyporesponsiveness of the dorsomedial prefrontal cortex
171 ermore, PLG formulation overcame an apparent hyporesponsiveness of the env DNA component in the combi
172 9H-activating receptor, which results in the hyporesponsiveness of the Ly49H(+) NK cell to stimulatio
173  that this cell-associated cytokine mediates hyporesponsiveness of the memory T cells in these microe
174 s responsible for the previously reported Ag hyporesponsiveness of these cells.
175 hods were used to estimate the effect of ESA hyporesponsiveness on allograft failure and all-cause mo
176 lls after primary antigen injection, and (2) hyporesponsiveness on reexposure to antigen.
177  was revealed by alloantigen-specific T-cell hyporesponsiveness on restimulation with the recipient i
178  receptor 4 (TLR4) associated with endotoxin hyporesponsiveness on the development of acute rejection
179 ion induces a state of donor-specific immune hyporesponsiveness or tolerance in some animal models.
180  administration of this TLR7 agonist induced hyporesponsiveness or tolerance to TLR2, -7, and -9 acti
181                                          The hyporesponsiveness partially dissipated without prolifer
182 ndependently of MHC-mediated inhibition, and hyporesponsiveness plays a role in self-tolerance of NK
183 cosal Ag exposure results in systemic T cell hyporesponsiveness, pre-existing systemic responses are
184 cytes pretreated with LPS exhibit a state of hyporesponsiveness, referred to as cross-tolerance, to b
185  marrow-derived cells could induce iNKT cell hyporesponsiveness, selective conditions, dependent on t
186  of corticosterone during a period of stress hyporesponsiveness suggest that these initial responses
187                    The nature of this T-cell hyporesponsiveness suggests that T-cell responses may be
188 ions have been associated with immunological hyporesponsiveness that can affect responses to unrelate
189  by Jagged-1 promotes a novel form of T cell hyporesponsiveness that differs from anergy, whereby pri
190 ate that human liver DCs promote immunologic hyporesponsiveness that may contribute to hepatic tolera
191      In contrast to the observed Ag-specific hyporesponsiveness, the Ly-6A.2 transgenic CD4+ T cells
192 ons in immune function, in particular immune hyporesponsiveness, there have been only few studies tha
193 ls coated with anti-CTLA-4 Ab induced immune hyporesponsiveness through suppression of proinflammator
194 ions with polysaccharide (PS) vaccines cause hyporesponsiveness through undefined mechanisms.
195  stimulation through TLR7 induces a state of hyporesponsiveness (TLR tolerance) in both human and mou
196  age, children given 23vPPV exhibited immune hyporesponsiveness to a micro-23vPPV (20%) challenge dos
197 sure of monocytes/macrophages to LPS induces hyporesponsiveness to a second challenge with LPS, a phe
198 ficient hematopoietic cells failed to induce hyporesponsiveness to activating receptor stimulation, b
199 arly one-third of patients (including 3 with hyporesponsiveness to activating signals and 1 with mark
200 8-deficient platelets, resulting in a global hyporesponsiveness to agonists that signal through SFKs,
201                    Recipients exhibit marked hyporesponsiveness to alloantigen in vitro.
202 tially acting as a barrier to attaining host hyporesponsiveness to an allograft.
203 y resembles resting memory cells, exhibiting hyporesponsiveness to anti-CD3 stimuli, lower proliferat
204            Patients with diabetes often show hyporesponsiveness to antiplatelet therapies, and it has
205         In aggregate, the data indicate that hyporesponsiveness to BCR cross-linking associated with
206 nsitivity, which contrasts with the vascular hyporesponsiveness to catecholamines.
207 of IRAK-1 was responsible for the macrophage hyporesponsiveness to CpG DNA.
208                                              Hyporesponsiveness to degranulation in NK cells was not
209                           Local and systemic hyporesponsiveness to dietary antigens, classically refe
210 s allogeneic T-cell responses and results in hyporesponsiveness to donor and third party alloantigens
211  to third party alloantigen, yet may promote hyporesponsiveness to donor antigen.
212                              The primary CTL hyporesponsiveness to donor B-LCL could not be reversed
213            In all animals assessed, in vitro hyporesponsiveness to donor hematopoietic cells persiste
214 ystemic insult is associated with subsequent hyporesponsiveness to endotoxin (as measured by ex vivo
215                                     Specific hyporesponsiveness to epitopes encoded in the peptide-Ig
216  overproduction of cytokines may account for hyporesponsiveness to erythropoietic therapy in patients
217 tients on hemodialysis with inflammation and hyporesponsiveness to ESA therapy.
218 a indicate that the gingival epithelial cell hyporesponsiveness to FimA is attributable to the lack o
219 -treated graft recipients transferred un- or hyporesponsiveness to hBPAG2 to other mice and demonstra
220 ajor factors determining human fetal NK cell hyporesponsiveness to HLA class I-negative target cells
221  under the prion promoter, results in immune hyporesponsiveness to human Abeta, in terms of both anti
222 sive locus and is associated with lymphocyte hyporesponsiveness to IL-12.
223          High phagocytic activity along with hyporesponsiveness to inflammatory insults and lack of a
224        Mechanistic studies revealed specific hyporesponsiveness to IRBP without immune deviation, no
225 f NF-kappaB ODN DC-treated animals exhibited hyporesponsiveness to islet antigens with low production
226  low expression of MIF may be predisposed to hyporesponsiveness to lipopolysaccharide and gram-negati
227 o-2 cell lines, is characterized by relative hyporesponsiveness to LPS and diminished expression of T
228  recurrent bacterial infections and profound hyporesponsiveness to LPS and IL-1, we previously identi
229 or exposure of 3E10/TLR2 cells to LPS led to hyporesponsiveness to LPS, LAM, and STF, indicating that
230 at in human monocytes, acute alcohol induces hyporesponsiveness to LPS, resulting in decreased TNF-al
231 atory and antimicrobial responses, including hyporesponsiveness to LPS.
232 lobulin; mTg) loaded multi-ligand DCs caused hyporesponsiveness to mTg challenge, suppression of auto
233 es augmented Foxp3(+) Treg cells and induced hyporesponsiveness to NOD-derived pancreatic beta-cell a
234 R1/2 signaling pathway may account for human hyporesponsiveness to OspA vaccination.
235 matic reactions (LARs) followed by bronchial hyporesponsiveness to peptide, inhibition of the allerge
236 ole or S-methyl-L-thiocitrulline reverts the hyporesponsiveness to phenylephrine and increases the va
237 dothelial dysfunction, including endothelial hyporesponsiveness to prototypical angiogenic growth fac
238 sess specific mechanisms of immunoregulatory hyporesponsiveness to repeated LPS exposure.
239 oped to overcome the T-independent response, hyporesponsiveness to repeated vaccination, and poor imm
240                                              Hyporesponsiveness to restimulation was not due to apopt
241                 However, BCR signal-mediated hyporesponsiveness to SDF-1 is associated with phosphory
242 main self-tolerant and exhibit a generalized hyporesponsiveness to stimulation through activating rec
243 anergy induction does not appear to abrogate hyporesponsiveness to stimulation.
244 ure of macrophages to LPS induces a state of hyporesponsiveness to subsequent challenge with LPS.
245 unity, and initial exposure to 3D-EC confers hyporesponsiveness to subsequent exposure to immunogenei
246                  LPS tolerance is a state of hyporesponsiveness to subsequent LPS challenge and is ac
247 robacterial LPS induces a state of transient hyporesponsiveness to subsequent LPS exposure, termed en
248 epeated exposure to a TLR agonist can induce hyporesponsiveness to subsequent TLR stimulation.
249 gand (FasL)-mediated apoptosis, resulting in hyporesponsiveness to subsequent vaccination.
250 KG mice have impaired T cell development and hyporesponsiveness to TCR stimulation, markedly reduced
251             Ptpra(-/-) fibroblasts exhibited hyporesponsiveness to TGF-beta, manifested by diminished
252         Decreased survival is accompanied by hyporesponsiveness to the B cell survival factor BLyS (a
253 ons induced by whole allergens and bronchial hyporesponsiveness to the peptides on the second injecti
254 y inhibits cell surface trafficking, confers hyporesponsiveness to TLR1 agonists, and protects agains
255  NFkappaB activity, absent p38 activity, and hyporesponsiveness to TLR2 and TLR4 agonists.
256                                          The hyporesponsiveness to TLR7 restimulation was associated
257 to LPS with down-regulation of MTP1, despite hyporesponsiveness to tumor necrosis factor-alpha signal
258 ut not two latter models, tumors induced CTL hyporesponsiveness to tumor-unrelated antigens.
259 gnals capable of inducing vasodilatation and hyporesponsiveness to vasoconstrictors in the splanchnic
260 s of nitric oxide synthase 1 blockade in the hyporesponsiveness to vasoconstrictors.
261 , and it is characterized by hypotension and hyporesponsiveness to vasoconstrictors.
262 ypotension, cardiac depression, and vascular hyporesponsiveness to vasopressor treatment.
263 and are not associated with the induction of hyporesponsiveness ("tolerance") in the skin or lung.
264 the frequency of Th1/Th17 cells, and induces hyporesponsiveness toward donor antigens.
265 al Th2 profile skewing and ex vivo recipient hyporesponsiveness toward donor-derived antigen as well
266 ontrast, prior implantation of 3D-EC induced hyporesponsiveness toward subsequent injection of EC-TCP
267 sful strategy to induce alloantigen-specific hyporesponsiveness towards stem cells in the CNS, which
268 ily kinase Lck is required to confer the BCR hyporesponsiveness typical of CD5+ B-1 cells and appears
269 specific activation receptors that result in hyporesponsiveness unless modulated by self-major histoc
270 bogluconate counteracted CD20 mAb-induced NK hyporesponsiveness, unveiling an unrecognized role for C
271 B cells, which in turn may contribute to the hyporesponsiveness upon BCR stimulation.
272 degrees MLR does not affect the induction of hyporesponsiveness upon restimulation.
273                            IL-10 induced LPS hyporesponsiveness using the same mechanisms, i.e., ubiq
274                        Hemorrhage-induced AM hyporesponsiveness was accompanied by the decreased expr
275                       The HSC-induced T-cell hyporesponsiveness was associated with enhanced T-cell a
276 al of CD4(+)CD25(+) T cells, indicating that hyporesponsiveness was due to anergy and not due to acti
277                                         This hyporesponsiveness was evident even in the presence of I
278                                     Th2 cell hyporesponsiveness was evident within 10 d of initiation
279                                      Such MC hyporesponsiveness was induced antigen-specifically and
280                                          The hyporesponsiveness was more pronounced in CD28(-/-) and
281 ith Ag-pulsed macrophages demonstrating that hyporesponsiveness was not due to a direct effect of H.
282                                         This hyporesponsiveness was not observed when the antigen was
283                       No evidence of mucosal hyporesponsiveness was observed after MACPS priming in t
284                        In functional assays, hyporesponsiveness was observed for TAP-deficient NK cel
285              In one animal, general in vitro hyporesponsiveness was observed, with subsequent death f
286                                          ESA hyporesponsiveness was primarily defined as a monthly ES
287                                       T-cell hyporesponsiveness was reversed by depleting CD25(+) cel
288                                              Hyporesponsiveness was reversed by exogenous interleukin
289 ents to induce durable GAD65-specific T cell hyporesponsiveness was reversed once the control of glyc
290                                         This hyporesponsiveness was spontaneously reversible after wi
291  investigate the neural basis of this stress hyporesponsiveness we examined the changes in the restra
292  cells (CD4/CD45RA ) and in vitro xenogeneic hyporesponsiveness were observed.
293 cine-zipper domain of Foxp3 causes a loss of hyporesponsiveness when compared with wild-type Foxp3 up
294 airway hyperresponsiveness (AHR), but caused hyporesponsiveness when initiated before i.p. sensitizat
295 K cells mimics IL-12 priming, inducing IL-12 hyporesponsiveness, whereas transfection of miR-132, -21
296 val, inducing a robust and transferable host hyporesponsiveness, while administration of an ACK2 (ant
297 characterized by profound Ag-specific T cell hyporesponsiveness with impaired IFN-gamma and IL-2 prod
298  prolonged incubation resulted in a state of hyporesponsiveness with no reactivation of the cells by
299 ssays in both groups revealed donor-specific hyporesponsiveness with vigorous third-party reactivity.
300 o a single dose (1x), results in CD4+ T cell hyporesponsiveness within the skin-draining lymph nodes

 
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