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1 serum concentrations enhances the benefit of specific immunotherapy.
2 igens and allergic patients before and after specific immunotherapy.
3 ) suggests this molecule as prime target for specific immunotherapy.
4 native to conventional subcutaneous allergen-specific immunotherapy.
5 gation to improve the efficacy and safety of specific immunotherapy.
6 ased in allergic patients receiving allergen-specific immunotherapy.
7 sponses to allergens and successful allergen-specific immunotherapy.
8 immunopathology and the clinical efficacy of specific immunotherapy.
9 ecules of P pratense previously proposed for specific immunotherapy.
10 ies, and have implications for diagnosis and specific immunotherapy.
11 prescribed routes for administering allergen-specific immunotherapy.
12 unctive therapy in conjunction with allergen-specific immunotherapy.
13 e gun has emerged as an important form of Ag-specific immunotherapy.
14 evaluated as immunogens to implement active specific immunotherapy.
15 nfiltrating T(reg) cells could enhance tumor-specific immunotherapy.
16 are distinguished by their susceptibility to specific immunotherapy.
17 a stratification factor targeted for active-specific immunotherapy.
18 boosting the patient's immune response using specific immunotherapy.
19 dditional evaluation as a target for antigen-specific immunotherapy.
20 nomas and also serves as a target for active-specific immunotherapy.
21 e assessment, antigen discovery, and antigen-specific immunotherapy.
22 that would normally escape killing by MART-1-specific immunotherapy.
23 malignancies and may be a target for antigen-specific immunotherapy.
24 vely, a tumor-associated antigen for active, specific immunotherapy.
25 d management and the development of allergen-specific immunotherapy.
26 solation of immunogenic antigens and antigen-specific immunotherapy.
27 otential targets for the induction of active specific immunotherapy.
28 is very important for the design of antigen-specific immunotherapy.
29 prostate cancers, is a potential target for specific immunotherapy.
30 can be used as potential targets for active-specific immunotherapy.
31 has been shown to be suppressed in allergen-specific immunotherapy.
32 and improved the efficacy of the checkpoint-specific immunotherapy.
33 allergen tolerance induction during allergen-specific immunotherapy.
34 ation that may serve as a target for TI Treg-specific immunotherapy.
35 d to the improvement of diagnosis as well as specific immunotherapy.
36 manipulated ex vivo, enables Ag- or patient-specific immunotherapy.
37 roteins can enhance the efficacy of allergen-specific immunotherapy.
38 tients during the build-up phase of allergen-specific immunotherapy.
39 promising vaccines for birch pollen allergen-specific immunotherapy.
40 kes Graves' disease a prime candidate for Ag-specific immunotherapy.
41 atitis, and malaria vaccines and in allergen-specific immunotherapy.
42 This is also the case for specific immunotherapy.
43 improve the efficacy and safety of allergen-specific immunotherapy.
44 itization and determine its role in allergen-specific immunotherapy.
45 agnosis and offer the possibility of antigen-specific immunotherapy.
46 be considered an important component for HDM-specific immunotherapy.
47 al failed to demonstrate clinical benefit of specific immunotherapy.
48 lergen-derived epitopes change over allergen-specific immunotherapy.
49 nding is one important mechanism of allergen-specific immunotherapy.
50 re anaphylaxis management plans and allergen-specific immunotherapy.
51 oinflammatory is important for the design of specific immunotherapies.
52 clinical trials of several specific and non-specific immunotherapies.
53 cytokines need to be explored to design more specific immunotherapies.
54 esis of PV, with implications for developing specific immunotherapies.
55 hich there is an unmet need for antigen (Ag)-specific immunotherapies.
56 ploited to develop in vivo imaging and islet-specific immunotherapies.
57 are a first step towards developing peptide-specific immunotherapies.
58 ze neoantigens for individualized neoantigen-specific immunotherapies.
59 ablished as a novel mechanism to escape CD19-specific immunotherapies.
62 linical and clinical studies as a target for specific immunotherapy against gastrointestinal adenocar
66 disease pathogenesis and test novel TSHR Ag-specific immunotherapies aimed at curing Graves' disease
67 sing therapeutic approaches such as allergen-specific immunotherapy (AIT) for allergic asthma and bio
70 nd easy to manufacture vaccines for allergen-specific immunotherapy (AIT) has been limited by the poo
76 ed mostly to relieve symptoms, only allergen-specific immunotherapy (AIT) is targeted to modify the n
84 To cure these allergic diseases, allergen-specific immunotherapy (AIT) represents the unique treat
85 a double-blind, placebo-controlled allergen-specific immunotherapy (AIT) study indicated that patien
86 alth care cost savings conferred by allergen-specific immunotherapy (AIT) to US children with allergi
87 m a double-blind placebo-controlled allergen-specific immunotherapy (AIT) trial using sublingual 300
89 sed to induce allergen tolerance in allergen-specific immunotherapy (AIT), although mechanistic side-
97 important implications for designing antigen-specific immunotherapies and identifying individuals tha
98 n is also crucial for the pursuit of antigen-specific immunotherapies and implementation of strategie
99 s the principle effector modality induced by specific immunotherapy and advances in antigen-carrier d
100 sources for refined prescription of allergen-specific immunotherapy and allergen avoidance diagnosis
104 appear to play an important role in allergen-specific immunotherapy and could be an attractive target
106 actions are common in the course of allergen-specific immunotherapy and even occur with allergy vacci
109 ected stage III melanoma administered active specific immunotherapy and low-dose interferon alfa-2b (
110 e findings support further development of E7-specific immunotherapy and strategies for up-regulation
111 allergic reactions, but advances in allergen-specific immunotherapy and the development of biologics
112 e articles focused on mechanisms of allergen-specific immunotherapy and the development of novel anti
113 Th response to K as a key step in designing specific immunotherapy and understanding the immunogenic
114 including the role of next-generation target-specific immunotherapies, and (3) provide a practical fr
115 me, identify patients likely to benefit from specific immunotherapies, and tailor combination immunot
116 ed since the first report describing antigen-specific immunotherapy (antigen-SIT) was published.
121 their increase during the course of allergen-specific immunotherapy, as well as their increased expre
125 phase III clinical trial of adjuvant active specific immunotherapy (ASI) with an autologous tumor ce
126 There are currently no approved antigen-specific immunotherapies (ASIs) for people with type 1 d
127 st in testing whether the success of antigen-specific immunotherapy (ASIT) for autoimmune diseases in
132 of the major fish allergen, parvalbumin, for specific immunotherapy based on mutation of the 2 calciu
133 pment of a vaccine for grass pollen allergen-specific immunotherapy based on two recombinant hypoalle
134 n conjugates are novel vaccines for allergen-specific immunotherapy being currently assayed in phase
138 time, direct evidence in humans that antigen-specific immunotherapy can target not only antigen-posit
139 for multiple rV-CEA immunizations in active-specific immunotherapy clinical protocols directed at CE
144 RNA lipoplex-based individualized neoantigen-specific immunotherapy designed from tumor-specific soma
145 een made through the development of allergen-specific immunotherapy encompassing 3 major forms of tre
148 of our third trial on epicutaneous allergen-specific immunotherapy (EPIT) will be presented and disc
150 ith mRNA isolated from tumor cells may allow specific immunotherapy even in cancers for which potent
151 effective immune modulator in several active-specific immunotherapy experimental protocols using eith
152 The seventh "Future of the Allergists and Specific Immunotherapy (FASIT)" workshop held in 2019 pr
153 that arise postvaccination and following Ag-specific immunotherapies for cancer and autoimmune disea
154 in using this phenomenon to develop antigen-specific immunotherapies for T cell-mediated autoimmune
156 tripartite strategy provided potent antigen-specific immunotherapy for an aggressive established tum
160 pened unprecedented opportunities for active specific immunotherapy for melanoma with synthetic pepti
163 od hypersensitivities worldwide but allergen-specific immunotherapy for shellfish allergy is not yet
169 this multi-component, plasmid-based antigen-specific immunotherapy holds potential for inducing self
176 TL clones are promising reagents for antigen-specific immunotherapy in BMT hosts, because they engraf
181 sents a useful immunogen to implement active specific immunotherapy in patients with melanoma, becaus
184 o induce immune deviation by mucosal peptide-specific immunotherapy in rheumatoid arthritis (RA) pati
185 ith malignant melanoma, vitiligo, and active-specific immunotherapy-induced depigmentation had signif
187 Induction of allergen tolerance through specific immunotherapy induces a specific expansion of t
213 Human studies demonstrated that allergen-specific immunotherapy (IT) represents an effective trea
216 iotics have not proved helpful, but allergen-specific immunotherapy may be disease modifying and ther
218 on the clinical development of products for specific immunotherapy of allergic diseases do not adequ
219 tes immunotolerance, as, for example, during specific immunotherapy of allergies, but it mediates tis
222 s a candidate vaccine for gene-based antigen-specific immunotherapy of CML and may serve as a paradig
228 en Bos d 9-specific B cells in oral allergen-specific immunotherapy (OIT) and in children spontaneous
230 t be helpful to evaluate the effect of birch-specific immunotherapy on pollen-associated food allergi
231 ng T(H)2 cells and the influence of allergen specific immunotherapy on the phenotype and function of
232 rameters influencing the efficacy of antigen-specific immunotherapy once diabetes is established, pla
234 riven approaches as contributing to allergen-specific immunotherapy outcomes, but understanding of ho
235 inistration of 25(OH)D in the context of OVA-specific immunotherapy reduced the allergic airway infla
237 he mechanistic underpinnings for compartment-specific immunotherapy-responsiveness and suggest that p
241 These findings suggest that adjuvant active specific immunotherapy should be considered after cytore
246 lay a critical role in subcutaneous allergen-specific immunotherapy (SIT) for atopic dermatitis (AD).
247 ating the role of CD4(+) T cells in allergen-specific immunotherapy (SIT) has been the absence of an
252 ere matched against an experimental allergen-specific immunotherapy (SIT) preparation containing Phl
253 cross-reacting molecules might hinder proper specific immunotherapy (SIT) prescription in polysensiti
255 he most effective treatment for allergies is specific immunotherapy (SIT), which involves the injecti
262 lar diagnosis of, and for the development of specific immunotherapy strategies against, wheat food al
263 y considerations for next-generation antigen-specific immunotherapies targeting autoimmune disease.
264 nhibited in standard NOD mice by autoantigen-specific immunotherapy targeting pathogenic CD8+ T-cells
265 00E) would suggest the feasibility of active specific immunotherapy targeting the mutation in these p
267 sed as a safer hypoallergenic alternative in specific immunotherapy than the pollen extracts used tod
268 er a promising path for developing DC subset-specific immunotherapies that cannot be provided by tran
269 In 18 patients treated by Bet v 1-fragment-specific immunotherapy, the effects of IgG antibodies sp
271 downregulated to some degree by conventional specific immunotherapy, this approach is only partially
272 providing a novel islet-targeted and antigen-specific immunotherapy to prevent and reverse clinical T
273 e alloislet transplantation represents an Ag-specific immunotherapy to resolve autoimmune diabetes in
274 e alloislet transplantation represents an Ag-specific immunotherapy to resolve autoimmune diabetes in
276 onitoring the therapeutic efficacy of active specific immunotherapy toward specific MAA-bearing melan
278 a function of seasonality, or as a result of specific immunotherapy treatment or varying disease seve
279 rine administration because current allergen-specific immunotherapy treatments are limited by adverse
280 evaluate the efficacy and safety of allergen-specific immunotherapy using 2 dose regimens of Bet v 1
281 -gamma: Antitumor immunity induced by active-specific immunotherapy (vaccination) required IFN-gamma,
282 dress these limitations, adjunctive allergen-specific immunotherapy, vaccines, and non-allergen-speci
289 aspects of various antigen-specific and non-specific immunotherapies, which could potentially preven
290 r lymphocyte depletion prior to oral antigen-specific immunotherapy will likely be required to impart
291 sion emphasizes the need to implement active specific immunotherapy with a combination of peptides pr
292 dies conducted on the efficacy and safety of specific immunotherapy with allergen extracts of fungi c
293 eive either 2 years of treatment with active specific immunotherapy with allogeneic melanoma lysates
299 efficacy and safety of subcutaneous allergen-specific immunotherapy with the use of depigmented polym
300 er-reactivity can be achieved using allergen-specific immunotherapy without significant reductions in