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1                                              Allergen-specific Ab responses were subsequently boosted
2                                     However, allergen-specific analyses suggested increased risks of
3 in infants at high risk of peanut allergy is allergen specific and does not prevent the development o
4     When used, allergen mitigation should be allergen specific and include multiple allergen-specific
5                        No relevant change in allergen-specific and total IgE levels was observed in s
6                Atopy was determined based on allergen-specific and total IgE levels.
7 s was evaluated by immunoblotting using five allergen-specific antibodies and patients' serum followe
8                                   Almost all allergen-specific antibodies were mutated, and binding t
9                                              Allergen-specific antibodies were produced in rabbits us
10 ce-exposed but not shielded allergen induced allergen-specific antibodies, including IgE.
11                                              Allergen-specific antibodies, splenocyte cytokine produc
12 ted food allergies through the production of allergen-specific antibodies.
13 ion against allergen exposure in part due to allergen-specific antibodies.
14     Here, we investigated the association of allergen-specific antibody and T- as well as B-cell resp
15 fter 1 year of AIT, suggesting that dominant allergen-specific antibody clones remained as important
16                                              Allergen-specific antibody levels were measured in strep
17 296), the current study investigated the cat allergen-specific antibody responses.
18                          The dissociation of allergen-specific antibody, and B- and T-cell responses
19  polyclonal IgG with CD64-IgE Fc established allergen-specific artificial sera that showed comparable
20  characterize the IgE sequences expressed by allergen-specific B cells and track the fate of these B-
21 vides the first detailed characterization of allergen-specific B cells before and after bee venom tol
22                                              Allergen-specific B cells in patients responding to AIT
23 epitope specificity, and clonal diversity of allergen-specific B cells in patients with food allergy
24                       Long-term follow-up of allergen-specific B cells in terms of immunoglobulin iso
25  body IgE class switch recombination of food allergen-specific B cells occurs, and what processes are
26 rtoires identified additional members of the allergen-specific B-cell clones.
27             We sought to characterize peanut allergen-specific B-cell populations and the sequences a
28                                              Allergen-specific B-cell responses during 2 years of hou
29            Here, we defined the evolution of allergen-specific B-cell responses during epicutaneous s
30 t altering the capacity to induce functional allergen-specific blocking antibodies.
31 o induce a protective immunity consisting of allergen-specific blocking IgG antibodies and alteration
32                             The induction of allergen-specific blocking IgG antibodies represents an
33           Here, we compared the induction of allergen-specific blocking IgG in outbred guinea pigs wh
34  enterotoxins promote TH2 differentiation of allergen-specific CD4 conventional T (Tcon) cells and as
35  model of airway inflammation, we found that allergen-specific CD4 T cells survived longer than 70 da
36 formed multimodal immunomonitoring to assess allergen-specific CD4 T-cell properties in parallel with
37 llergy interaction more fully, parasite- and allergen-specific CD4(+) T cell responses in 12 subjects
38 ed with clinical benefit than alterations of allergen-specific CD4(+) T-cell or IgG responses.
39  found that successful immunotherapy induces allergen-specific CD4+ T cells to expand and shift towar
40                                   Five of 57 allergen-specific cells belonged to clones containing Ig
41                 Therefore, the assessment of allergen-specific cellular and humoral IgG1(+) immunity
42     Participants receiving placebo showed no allergen-specific changes.
43                                          The allergen-specific clones had increased persistence, high
44 eceptor (FcRN), and sensitized fetal MCs for allergen-specific degranulation.
45      Neutrophils can serve as APCs for local allergen-specific effector T cells in patients with alle
46 oped to enable the simultaneous detection of allergen-specific equine IgE in serum against a wide ran
47  Allergen-specific immunotherapy (AIT) is an allergen-specific form of treatment for patients sufferi
48 ization and disease progression; we analyzed allergen-specific germinal centers and IgG1(+) memory B
49  data provide a basis from which to evaluate allergen-specific human antibody repertoires in healthy
50         Support for the in vivo existence of allergen-specific human Breg cells comes from direct det
51                                     In vivo, allergen-specific human IgE level was strongly elevated
52                       To mimic unspecific or allergen-specific ICs, plates were coated with myeloma I
53 ulating IgE(+) and IgG(+) memory B cells and allergen-specific Ig levels.
54  crude allergen from jellyfish and evaluated allergen specific IgE antibody levels using ELISA.
55 es showed higher levels of jellyfish-derived allergen specific IgE than healthy control samples.
56 xpansion of TH 2 cells and the production of allergen specific IgE.
57 years, and sensitization ever was defined as allergen-specific IgE >/=0.35 kUA /l to common food and/
58  was conducted using standard procedures and allergen-specific IgE (asIgE) using ImmunoCAP((R)) .
59 mination at age 2 years to assess eczema and allergen-specific IgE (sIgE) and perform skin prick test
60 tisation tested by skin prick test and serum allergen-specific IgE (sIgE) display nasal reactivity up
61                              Serum total and allergen-specific IgE (sIgE) levels were measured by usi
62 gen specificity, 20% to 40% of children with allergen-specific IgE (sIgE) of 0.35 kU/L or greater had
63  a result of allergen proteins cross-linking allergen-specific IgE (sIgE) on the surface of mast cell
64 This fusion protein allowed the induction of allergen-specific IgE Ab responses without allergen-spec
65  complexes were formed with human monoclonal allergen-specific IgE and Bet v 1.
66                           The variability in allergen-specific IgE and IgG frequencies depends on exp
67                                              Allergen-specific IgE and IgG to 156 allergens was measu
68  the simultaneous determination of total and allergen-specific IgE and IgG, antibodies using an immun
69 -MAPS) to the simultaneous detection of food allergen-specific IgE and IgG4 , and compared it with Im
70 h recombinant allergens, and measurements of allergen-specific IgE and IgG4 antibodies were performed
71                                              Allergen-specific IgE and IgG4 were detected in parallel
72          Methylation biomarkers outperformed allergen-specific IgE and skin prick tests for predictin
73 cted by a model that includes levels of free allergen-specific IgE and their interaction with blockin
74 re was a good correlation between the sum of allergen-specific IgE and total cockroach IgE levels (r
75                                              Allergen-specific IgE antibodies are a hallmark of type
76  generation of allergen-specific T cells and allergen-specific IgE antibodies.
77 efit of ImmunoCAP is the obtained quantified allergen-specific IgE antibody level and the lack of int
78 llergies, it is not understood why total and allergen-specific IgE concentrations do not reproducibly
79                               Of 52 distinct allergen-specific IgE heavy chains from 8 allergic donor
80 have been successfully used for detection of allergen-specific IgE in patient sera.
81 izumab or placebo on the levels of total and allergen-specific IgE in patients with birch pollen alle
82 mented the short half-life of both total and allergen-specific IgE in serum.
83             The interaction of allergens and allergen-specific IgE initiates the allergic cascade aft
84                                              Allergen-specific IgE is the causative agent of allergic
85  the past 12 months, and at least 1 positive allergen-specific IgE level.
86                                              Allergen-specific IgE levels against seven common allerg
87 ells of allergic patients is correlated with allergen-specific IgE levels and determines allergen upt
88                 For control purposes, total, allergen-specific IgE levels and omalizumab-IgE complexe
89          Overall 48.8% of the population had allergen-specific IgE levels of 0.3 ISAC standardized un
90 tion of more cockroach allergens with higher allergen-specific IgE levels was associated with disease
91 uantiBRITE beads and compared with total and allergen-specific IgE levels, as well as with allergen-i
92  administration of allergen induced rises of allergen-specific IgE levels, whereas intranasal adminis
93 omalizumab did not enhance systemic total or allergen-specific IgE levels.
94 7 serum mediators, total IgE levels, and 130 allergen-specific IgE levels.
95 ian's diagnosis and symptoms but no positive allergen-specific IgE levels.
96                                              Allergen-specific IgE measurements and the clinical hist
97 ts model, we determined risks of transfer of allergen-specific IgE or IgG responses 24 months post-tr
98 evels of Ara h 2 in circulation but not with allergen-specific IgE or mucosal mast cell protease 1 le
99 LA-specific IgE was not linked to atopy, and allergen-specific IgE present in allergic patients did n
100           Repeated allergen encounter boosts allergen-specific IgE production and enhances clinical s
101                  Our data thus indicate that allergen-specific IgE production is boosted by allergen
102 -mediated food allergy through regulation of allergen-specific IgE production, FcepsilonR1-mediated M
103 at regulate the induction and maintenance of allergen-specific IgE production.
104 stem cell transplantation profoundly reduces allergen-specific IgE responses but also comes with a co
105                                  Analysis of allergen-specific IgE responses in birth cohorts with mi
106 IT over two weeks could sufficiently inhibit allergen-specific IgE responses in mice suffering OVA-in
107     Multiplex tests allow for measurement of allergen-specific IgE responses to multiple extracts and
108 undergoing stem cell transplantation, 94% of allergen-specific IgE responses were lost.
109  are involved in the immunological memory of allergen-specific IgE responses.
110                               Examination of allergen-specific IgE revealed plasma IgE from DOCK8-def
111       Enrollment eczema and enrollment serum allergen-specific IgE sensitization to 1 or more foods (
112  (CRD) has become an accepted tool to detect allergen-specific IgE sensitization towards hundreds of
113                                              Allergen-specific IgE test (ImmunoCAP((R))) showed absol
114 lunch was examined using a prick-prick test, allergen-specific IgE test (ImmunoCAP((R))), and provoca
115 gnose the cause of the symptoms, a component allergen-specific IgE test after the identification of t
116                                  Because the allergen-specific IgE test is insufficient to diagnose t
117                                              Allergen-specific IgE tests (ImmunoCAP ((R))) showed pos
118 a cells (PCs) provide a continuous source of allergen-specific IgE that is central to allergic respon
119                                              Allergen-specific IgE titers and sensitization profiles
120 n prick test (SPT) and by the measurement of allergen-specific IgE to dust mites and cockroach in pla
121                                   Binding of allergen-specific IgE to its high-affinity receptor Fcep
122 create models for statistical integration of allergen-specific IgE to peanut/tree nut allergens from
123 d humans with IgE to allergens, but not when allergen-specific IgE was absent or only low-affinity.
124  Two years post-transplantation, recipients' allergen-specific IgE was significantly linked to the pr
125 ema, including filaggrin-null mutations, and allergen-specific IgE were more common among those with
126 tibody gene sequencing and identification of allergen-specific IgE with combinatorial antibody fragme
127 CD4 and CD8 T cells, eosinophils, total IgE, allergen-specific IgE, and urinary cotinine were measure
128 bodies against Streptococcus pneumoniae, and allergen-specific IgE, as well as detailed immunophenoty
129 d to the number of FcepsilonRI occupied with allergen-specific IgE, as well as the dose and valency o
130  based on the immunological determination of allergen-specific IgE, but the tests in the market lack
131                                    Total and allergen-specific IgE, IgG and basophil sensitivity were
132                   This reduced GC responses, allergen-specific IgE, inflammation, pulmonary IL-13 and
133 lergen application induces rises of systemic allergen-specific IgE, we performed a double-blind place
134       Type I hypersensitivity is mediated by allergen-specific IgE, which sensitizes the high-affinit
135                                              Allergen-specific IgE-blocking IgG antibodies have been
136 rgic reaction, is dependent on high affinity allergen-specific IgE.
137 ith dysregulated type 2 immune responses and allergen-specific IgE.
138 l model for comparison to extract and marker allergen-specific IgE.
139 vation, and TH2 cytokine responses and serum allergen-specific IgE/IgG1 levels.
140  by intradermal testing or serum testing for allergen-specific IgE; crude extracts are the basis for
141 nts had positive test responses to 1 or more allergen-specific IgEs.
142  aeroallergen-specific IgE and corresponding allergen-specific IgG (sIgG) and associated immunophenot
143  in combination with LT from E. coli induced allergen-specific IgG antibodies blocking allergic patie
144                  These findings suggest that allergen-specific IgG antibodies can act to induce and s
145     This may explain why naturally occurring allergen-specific IgG antibodies do not protect against
146 body level and the lack of interference from allergen-specific IgG antibodies.
147 solution data regarding early development of allergen-specific IgG are needed.
148 with the aim to investigate whether maternal allergen-specific IgG can protect against IgE sensitizat
149         Animal models have demonstrated that allergen-specific IgG confers sensitivity to systemic an
150 n at 5 years of age had significantly higher allergen-specific IgG levels than nonsensitized children
151 directed against peptide epitopes and higher allergen-specific IgG levels were found in HDM allergics
152                                     Maternal allergen-specific IgG persisted in some children at 6 mo
153                                   Children's allergen-specific IgG production occurred at 6 months an
154                                         High allergen-specific IgG reactivity in the mother's plasma
155                                              Allergen-specific IgG reactivity profiles in mothers, co
156                                              Allergen-specific IgG was administered to mice undergoin
157 lergen exposure, human IgE memory resides in allergen-specific IgG(+) memory B cells.
158 sed regulatory T-cell function and increased allergen-specific IgG(4) , yet little is known about the
159 ught to determine whether SCIT induces nasal allergen-specific IgG(4) antibodies with inhibitory acti
160                                              Allergen-specific IgG, which served as a surrogate marke
161 s by adaptive immune mechanisms that involve allergen-specific IgG1 antibodies and plasma or regulato
162                       This process generated allergen-specific IgG1(+) germinal center B cells, serum
163 in from the egg white for sensitization, the allergen-specific IgG1(+) memory compartment predominant
164 ivity as well as a simultaneous detection of allergen-specific IgG4 , as a potential parameter for to
165      It is recommended to explore the use of allergen-specific IgG4 as a biomarker for compliance.
166                                   Detectable allergen-specific IgG4 could be determined only for low
167 unotherapy can stimulate somatic mutation of allergen-specific IgG4.
168 roup, P = .03) and a significant increase in allergen-specific IgG4.
169 h SCIT alone led to a sustained reduction in allergen-specific IL-4-producing cell counts (P < .01).
170  molecular compounds from pollen enhance the allergen specific immune response in the skin and nose.
171               In summary, we demonstrate non-allergen-specific immune network dysregulation in indivi
172 ted with characteristic modifications in the allergen-specific immune response, but a detailed synthe
173 lls can also contribute to the regulation of allergen-specific immune responses through other mechani
174 o comes with a considerable risk to transfer allergen-specific immune responses.
175 t of basophil sensitivity and an increase in allergen-specific immunoglobulin concentration.
176 ezing, skin prick test positivity (SPT), and allergen-specific immunoglobulin E (asIgE) after 3 years
177 fish and related allergens by skin prick and allergen-specific immunoglobulin E (IgE) (ImmunoCAP((R))
178  Hemisphere and is associated with increased allergen-specific immunoglobulin E (IgE) against a range
179 trate the detection of low concentrations of allergen-specific Immunoglobulin E (IgE) in human sera u
180  deterioration in asthma symptoms, change in allergen-specific immunoglobulin G4 (IgG4), change in as
181      9cRA signaling via RARalpha impacts the allergen-specific immunoglobulin response directly by th
182                                              Allergen specific immunotherapy has been shown to be the
183 icable, and easy to manufacture vaccines for allergen-specific immunotherapy (AIT) has been limited b
184  regulatory B (Breg) cell development during allergen-specific immunotherapy (AIT) has not been repor
185                                              Allergen-specific immunotherapy (AIT) induces specific b
186                                              Allergen-specific immunotherapy (AIT) is an allergen-spe
187 is is aimed mostly to relieve symptoms, only allergen-specific immunotherapy (AIT) is targeted to mod
188                                              Allergen-specific immunotherapy (AIT) is the only availa
189                                              Allergen-specific immunotherapy (AIT) is the only causal
190 ents from a double-blind, placebo-controlled allergen-specific immunotherapy (AIT) study indicated th
191                  It is still unclear whether allergen-specific immunotherapy (AIT) with birch pollen
192 ted to mannan (PM) are suitable vaccines for allergen-specific immunotherapy (AIT).
193 PIT) is proposed as an alternative route for allergen-specific immunotherapy (AIT).
194 ion at a global, allergome-wide level during allergen-specific immunotherapy (AIT).
195 ggest for the use as adjuvant and carrier in allergen-specific immunotherapy (ASIT).
196                       Recently, epicutaneous allergen-specific immunotherapy (EPIT) has proven effect
197                                 Epicutaneous allergen-specific immunotherapy (EPIT) is proposed as an
198                                   Sublingual allergen-specific immunotherapy (SLIT) intervention impr
199 tion with LT may be a promising strategy for allergen-specific immunotherapy against birch pollen all
200                                              Allergen-specific immunotherapy and biologic therapies t
201 lergic reactions are common in the course of allergen-specific immunotherapy and even occur with alle
202                        However, subcutaneous allergen-specific immunotherapy can also induce anaphyla
203                             To date, no safe allergen-specific immunotherapy for patients with peanut
204 common food hypersensitivities worldwide but allergen-specific immunotherapy for shellfish allergy is
205                                              Allergen-specific immunotherapy has shown promise for th
206                            New strategies in allergen-specific immunotherapy have also emerged, such
207  chromatin landscape were observed following allergen-specific immunotherapy in cT(FH) and T(FR) cell
208                                              Allergen-specific immunotherapy is a disease-modifying t
209                                 Subcutaneous allergen-specific immunotherapy is a standard route for
210                                  Efficacy of allergen-specific immunotherapy is often severely impair
211                                  The goal of allergen-specific immunotherapy is the induction of prot
212                                              Allergen-specific immunotherapy is the only curative tre
213                                              Allergen-specific immunotherapy is the only known therap
214                                              Allergen-specific immunotherapy may be considered in cas
215 othesis-driven approaches as contributing to allergen-specific immunotherapy outcomes, but understand
216 ought to evaluate the efficacy and safety of allergen-specific immunotherapy using 2 dose regimens of
217                                              Allergen-specific immunotherapy via the skin targets a t
218                                              Allergen-specific immunotherapy with depigmented HDM ext
219                                              Allergen-specific immunotherapy with SHAS-OVA as compare
220 ction of their increase during the course of allergen-specific immunotherapy, as well as their increa
221     To address these limitations, adjunctive allergen-specific immunotherapy, vaccines, and non-aller
222 an be used to monitor the blocking effect of allergen-specific immunotherapy-induced non-IgE antibodi
223  fusion proteins can enhance the efficacy of allergen-specific immunotherapy.
224 lergic patients during the build-up phase of allergen-specific immunotherapy.
225 epresent promising vaccines for birch pollen allergen-specific immunotherapy.
226 r tailored management and the development of allergen-specific immunotherapy.
227 interaction have impaired the development of allergen-specific inhibitors of allergic responses.
228 Instead, lifelong reactivity is conferred by allergen-specific long-lived memory B cells that repleni
229  in the peripheral blood and stool mucus and allergen-specific lymphocyte stimulation test.
230                The 100-year-old personalized allergen-specific management of allergic diseases has pa
231 ponses to subsequent allergen exposure in an allergen-specific manner, effectively preventing or reve
232 the"LOW"responders, four cases showed >/=10% allergen-specific maximum histamine release.
233 tent allergen exposure, we hypothesized that allergen- specific memory Th2 cells are present and the
234                  Altogether, we believe that allergen-specific memory T cells reside and function in
235 demonstrated a reduction in the frequency of allergen-specific (MHC II tetramer(+) ) CD4(+) T cells e
236 ld be allergen specific and include multiple allergen-specific mitigation strategies.
237 llergic sensitization, but whether these are allergen specific or increase susceptibility to poly-sen
238 omplex latent structure involving 7 age- and allergen-specific patterns in the COPSAC2000 birth cohor
239                    In high-risk populations, allergen-specific prophylaxis could protect from sensiti
240 e aimed to investigate whether both types of allergen-specific reactivity can coexist in the same ind
241 es (IgG-IC) via breast milk and induction of allergen-specific regulatory T (T reg) cells in offsprin
242 panding populations of naturally suppressive allergen-specific regulatory T cells (Tregs).
243 nd Th2 differentiation, and the induction of allergen-specific regulatory T cells, highlighting its p
244 ethods, we demonstrated the ability to model allergen-specific relationships with acceptable measures
245  has valuable clinical implications for many allergen-specific responses and more broadly for any ant
246 ating the rate of transfer or maintenance of allergen-specific responses in the context of stem cell
247 ve data to estimate the risk of transmitting allergen-specific responses via hematopoietic stem cell
248 ogical mechanisms underlying the boosting of allergen-specific secondary IgE Ab responses and the all
249                    Our results indicate that allergen-specific secondary IgE Ab responses can be boos
250 hich had been used for sensitization boosted allergen-specific secondary IgE responses without a dete
251 luded anaphylaxis scoring, quantification of allergen-specific serum IgE and IgG1 and of the mast cel
252 obe ameliorated asthma pathologies including allergen-specific serum IgE production, allergic lung an
253                                              Allergen-specific serum immunoglobulin E detection and q
254                                              Allergen-specific serum immunoglobulin E determination w
255 surements including positive SPT or elevated allergen-specific serum/plasma IgE levels.
256 sitive skin prick testing (SPT), or elevated allergen-specific serum/plasma immunoglobulin (Ig) E lev
257         This study presents a design of food allergen-specific sIgE inhibitors named covalent heterob
258 xposure, we assessed risk factors for atopy (allergen-specific skin prick test [SPT] reactivity and I
259           Recent studies have indicated that allergen-specific skin-resident memory T (T(RM)) cells p
260 epitope-derived peptide of Phl p 1 devoid of allergen-specific T cell epitopes, as recognized by BALB
261 oosted by repetitive B cell epitopes without allergen-specific T cell help by cross-linking of the B
262 f allergen-specific IgE Ab responses without allergen-specific T cell help.
263 secondary IgE responses without a detectable allergen-specific T cell response.
264                              Neutrophils and allergen-specific T cells accumulate in patients with al
265 lymphocytes and results in the generation of allergen-specific T cells and allergen-specific IgE anti
266                SEA promoted TH2 responses of allergen-specific T cells and asthma pathogenesis by act
267                   Transcriptomic analysis of allergen-specific T cells defined genes modulated in con
268 IgE complexes into B cells and activation of allergen-specific T cells depended on IgE binding to CD2
269 ced proliferation and cytokine production of allergen-specific T cells in vitro.
270 mportant role in controlling the activity of allergen-specific T cells through IgE-facilitated allerg
271 on by reducing the priming and activation of allergen-specific T cells, as well as the production of
272 unt of inhaled allergen is low, by expanding allergen-specific T cells.
273 C population, consistent with recruitment of allergen-specific T cells.
274   Circulating virus-specific T(H)1 cells and allergen-specific T(H)2 cells were precisely monitored b
275  virus-specific PD-1(+) T(H)1 cells, but not allergen-specific T(H)2 cells, were linked to worse lung
276  subjects versus controls, with synchronized allergen-specific T(H)2 expansion, and production of typ
277 c immunotherapy involves immunomodulation of allergen-specific T(H)2 responses and induction of IL-10
278                          Allergen uptake and allergen-specific T-cell activation in relation to CD23
279 gE levels and influences allergen uptake and allergen-specific T-cell activation.
280                                              Allergen-specific T-cell proliferation and cytokine prod
281 ort of peanut-allergic participants, we used allergen-specific T-cell sorting and single-cell gene ex
282      The marked increase in APC function for allergen-specific TC proliferation during allergic infla
283 ) ) cells expressed more CD200R than the non-allergen-specific Th2 (CD154(-) CRTh2(+) ) cells.
284 e, both PLA2denat -MB formulations decreased allergen-specific Th2 CD4 T-cell reactivity.
285                                              Allergen-specific TH2 cells most closely paralleled the
286                        Little is known about allergen-specific Th2 memory cells and their contributio
287 ligands IL-4 and IL-13 in the development of allergen-specific TH2 responses during the onset and chr
288 ver, mechanisms regulating acute and chronic allergen-specific TH2 responses in vivo remain incomplet
289 rmore, the development of disease as well as allergen-specific Th2 responses occurs despite deficienc
290 al (IN) nanoemulsion adjuvant that redirects allergen-specific Th2 responses toward Th1 and Th17 immu
291 en-specific immunotherapy, vaccines, and non-allergen-specific therapies (eg, monoclonal antibodies)
292      Beside avoidance, there is currently no allergen-specific therapy available.
293 of Immunity, Pepper and colleagues find that allergen-specific tissue-resident memory T cells are mai
294 er accounting for the ratio of component- or allergen-specific to total IgE can improve this predicti
295                              The fraction of allergen-specific/total IgE may be useful to predict pat
296  potential of laser-facilitated epicutaneous allergen-specific treatment.
297 ributes to the allergic response by reducing allergen-specific Treg cell and activating mast cell cou
298 33-stimulated ILC2s blocks the generation of allergen-specific Treg cells and favors food allergy.
299 ke phenotype, also found in peripheral-blood allergen-specific Treg cells of food-allergic children.
300                                 By expanding allergen-specific Tregs and reducing pro-inflammatory ef

 
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