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1 ature inverted-repeat transposable elements (MITEs).
2  regulation of immune response to house dust mite.
3 hogen enhances reproduction of the parasitic mite.
4 only studied airway allergen, the house dust mite.
5 ates a swift and accurate kick to remove the mite.
6 line and after sensitization with house dust mite.
7  increasing sum of specific IgE to cat/grass/mite.
8  such as Alternaria alternata and house dust mite.
9  1 allergens, group 2 allergens, or both) in mite.
10 tory challenge with an extract of house dust mite.
11 inst staple food antigens but not house dust mites.
12  local allergic rhinitis (LAR) to house dust mites.
13 on the beetle in the presence and absence of mites.
14 n a well-studied experimental system of soil mites.
15 are transmitted by the larvae of trombiculid mites.
16 f genes involved in xenobiotic metabolism in mites.
17 t for the host shift in native macrodinychid mites.
18 ape, which involves two generalist predatory mites.
19 ially high among rotifers, oligochaetes, and mites.
20 stent fitness benefits of breeding alongside mites.
21 organs for chemical defense in most oribatid mites.
22 , while symbiotic bacteria prevailed in prey mites.
23 and functionality compared to the classified MITEs.
24                                 We show that mites: 1) cause beetles to reduce the antibacterial acti
25   Four longitudinal trajectories emerged for mite: (1) no/low sensitization; (2) group 1 allergens; (
26 IT in children/adults allergic to house dust mite (10 trials), grass pollen or other inhalants.
27 he prevalence of sensitization to house dust mite (-4.3%; 95% CI, -6.0% to -2.6%) and cat (-2.1%; 95%
28 mothy grass/birch, (3) molds, (4) house dust mites, (5) peanut/wheat flour/mugwort, (6) peanut/soybea
29                         We found that when a mite (a parasitic pest for Drosophila) touches the wing
30 monstrating that DWV, vectored by the Varroa mite, adversely affects humoral and cellular immune resp
31 ce with Aspergillus fumigatus and house dust mite allergen and compared the effects on airway eosinop
32  NC/Nga mice were sensitized with house dust mite allergen and treated topically with HOCl hydrogel b
33  of IgE responses differed between grass and mite allergen components, with temporal differences (ear
34                                         Dust mite allergen exposure modifies the estimated effect of
35 ith asthma are modified by the level of dust mite allergen exposure.
36        In addition, we discuss of house dust mite allergen extracts as a prototypical complex extract
37   A genome-wide interaction analysis of dust mite allergen level and lung function was performed in a
38 ificant interaction effect on FEV1 with dust mite allergen level in PRGOAL (interaction P = 3.1 x 10(
39 ed with FEV1 in children exposed to low dust mite allergen levels, but negatively associated with FEV
40 ve been no genome-wide G x E studies of dust mite allergen on asthma-related phenotypes.
41     Diverse factors contribute to house dust mite allergenicity through the activation of innate immu
42 r Phl p 1 from grass pollen (26.5%), group 2 mite allergens (18.2%), Bet v 1 from birch pollen (16.3%
43 nce enzyme immunoassays recognizing domestic mite allergens (DM), Fel d 1, Can f 1, and Mus m 1.
44                          House dust contains mite allergens as well as bacterial products such as lip
45  assayed with a set of 178 peptides spanning mite allergens group Der p 1, 2, 23 and Der f group 1 an
46 IgE specific for staple foods and house dust mite allergens in DOCK8-deficient patients and healthy c
47  MS-based analyses confirmed the presence of mite allergens recorded by IUIS in D. pteronyssinus and
48 rmer synergizes with LPS and grass pollen or mite allergens to enhance the Toll-like receptor 4-media
49 antage of the prevailing enzymatic nature of mite allergens, we have developed a broad-spectrum bioch
50 or a small percentage of the IgE response to mite allergens, which is dominated by Der p 1 and Der p
51 es for mAb and IgE Ab recognition in group 1 mite allergens.
52 ownregulation in a mouse model of house dust mite allergic airway inflammation.
53 tribute to the clinical status of house dust mite-allergic patients.
54 d and reduces the CPT reaction in house dust mite-allergic patients.
55   Specifically, for patients with house dust mite allergies, which are often underestimated and diffi
56 e TNPT were randomized to receive placebo or mite allergoid SCIT 6667, 20 000, 50 000 or 100 000 AUeq
57                                      In this mite allergoid SCIT dose finding study in HDM-induced AR
58             The safety and tolerability of a mite allergoid subcutaneous allergen immunotherapy (SCIT
59 containing carbamylated monomeric house dust mite allergoids was to determine the most effective and
60 r-old Prevention and Incidence of Asthma and Mite Allergy (PIAMA) cohort.
61 of current allergic rhinitis (AR) related to mite allergy and asthma were based on yearly interviews
62 Dutch Prevention and Incidence of Asthma and Mite Allergy birth cohorts.
63 centrated in the transposition activities of MITEs among different ecotype accessions within a specie
64              This unique association between mite and bee persists due to the evolution of low Varroa
65 ic prevalence of sensitization to house dust mite and cat did not differ between year-of-birth cohort
66 s of sensitization, especially to house dust mite and cat, after the age of 20 years.
67         Here we find that extracts from dust mite and cockroach induce sustained Ca(2+) elevations in
68 hinitis, focusing on responses to house dust mite and grass.
69 many different biological systems, including mite and insect cuticles, pollen grains, fungal spores,
70 tease and major allergen from the house dust mite and is associated with allergic rhinitis and allerg
71                                              Mite and mold sensitization was low.
72 evere as the degree of sensitization to dust mite and mouse increase.
73 nificantly reduced risk of SPT reactivity to mite and other perennial allergens, and maternal ascaria
74 erved when considering specific IgE to grass/mite and symptoms on exposure to pollen/dust.
75 ved between specific IgE levels to cat/grass/mite and the risk of symptoms on each allergen-related e
76 measurement of allergen-specific IgE to dust mites and cockroach in plasma.
77 s including insect allergens from house dust mites and cockroaches contribute to allergic inflammator
78                     The interactions between MITEs and homologous genes across 19 accessions provided
79 he lack of toxic agents that are specific to mites and not to the host honey bee.
80  a reduction in SPT reactivity to house dust mites and perennial allergens.
81 e of 7 with asthma, atopy (grass, house dust mite, and cat skin prick test) and atopic vs. non-atopic
82 enge with Alternaria alternata or house dust mite, and secretion of IL-33 and activation of subsequen
83 ergies (e.g. grass and ragweed pollens, dust mites, and cat) and those that induce life-threatening a
84 hSP-D) has been shown to suppress house dust mite- and Aspergillus fumigatus-induced allergic inflamm
85        Through comparison with the potential MITEs annotated in Repbase, the widely used eukaryotic r
86                 After exposure to house dust mite antigen, Zbtb46-negative CD64(+) inflammatory cells
87  was also intranasally exposed to house dust mite antigen.
88  sensitized differed by study group for four mite antigens: Dermatophagoides farinae (Der-f1, Der-f2)
89                                              Mites are frequent ant symbionts, yet the exact nature o
90   In contrast, internally deleted sequences (MITEs) are preferred substrates of mariner transposition
91 ature inverted repeat transposable elements (MITEs) are prevalent in eukaryotic genomes, including pl
92 ature inverted repeat transposable elements (MITEs) are prevalent in eukaryotic genomes.
93 munities in populations of predator and prey mites, as well as the occurence of potential acaropathog
94  we test the novel hypothesis that P. carabi mites assist burying beetles in clearing the carcass of
95 e and fitness consequences for the beetle of mite-associated changes to the bacterial community on th
96 ability favored the coexistence of predatory mites at a low density of the intraguild prey.
97 ces the proportion of children sensitized to mites at age 18 months.
98                                  Exposure to mites at age 6 and 18 months was assessed by measuring D
99 l patients have IgEs to allergens present in mite bodies and feces.
100 rovince, where no previous incidence of this mite borne disease had been reported.
101 ualism between burying beetles and P. carabi mites, but more work is needed to understand the functio
102 empel-Ziv complexity algorithm to filter out MITE candidates with low complexity, and utilizes the po
103 ific IgE to common aeroallergens (house dust mite, cat, and grass) and total IgE levels were measured
104  underwent skin prick testing for house dust mite, cat, grasses and moulds.
105 re also decreased in the lungs of house dust mite-challenged ERp57-deleted mice.
106 2-fold in pulmonary epithelium of house dust mite-challenged mice.
107                                      Several mites' characteristics, such as their protective morphol
108                                        These mites complete their development on a single host, sucki
109                                   House dust mite concentrations varied across cohorts.
110             With the exception of integrated mite control implemented during the 1980s, pest control
111 , 80.7% of them were previously unclassified MITEs, demonstrating a different genomic distribution an
112 Es on a genome-wide scale than other popular MITE detection tools.
113 e conventional string matching algorithms in MITE detection, adopts the Lempel-Ziv complexity algorit
114  crucial in supporting the idiosyncrasies of mite detoxification and will further support the expandi
115                                  Chelicerate mites diverged from other arthropod lineages more than 4
116 ergenic components of timothy grass and dust mite during childhood.
117 nd TH2 polarization, as seen in a house dust mite exposure model.
118 promoted allergic TH responses to house dust mite exposure.
119 t in both the ovalbumin (OVA) and house dust mite extract (HDM) murine models of respiratory inflamma
120 xposed to allergens (ovalbumin or house dust mite extract) to decipher in vivo the implication of Rac
121 ce following acute challenge with house dust mite extract.
122  robust approach to assess the complexity of mite extracts and highlights the critical importance of
123 program CD-HIT to cluster similar MITEs into MITE families.
124 the significance of the phoretic stage, when mites feed on adult bees for a few days, is not clear.
125 onfirming a unique habit in the evolution of mite feeding strategies and suggesting that the entire g
126 ing leafrollers, mealybugs, leafhoppers, and mites for improved phytosanitary performance, and contri
127 n, it is not clear whether the preference of mites for nurses observed in the laboratory also happens
128 geography of hosts predicted the lineages of mites found on them; 27% of the total molecular variance
129 e climate discourages cockroach, fungal, and mite growth and (2) dander allergens are known to be pre
130                                   House dust mites have been implicated in the etiology and exacerbat
131  gene expression suggests that migrations of MITEs have no detectable effect on the expression level
132                               The house dust mite (HDM) allergen Der p 13 could be a lipid-binding pr
133 ield study, sublingual tablets of house dust mite (HDM) allergen extracts (STG320) were efficacious i
134 ous CD4(+) T cells specific for a house dust mite (HDM) allergen form and function.
135 y and efficacy of challenges with house dust mite (HDM) allergen in the Fraunhofer allergen challenge
136 eding sensitization to the common house dust mite (HDM) allergen remains to be elucidated.
137                                   House dust mite (HDM) allergens are a common cause of allergy and a
138                  Upon inhalation, house dust mite (HDM) allergens are deposited at the nasal and oral
139         Mice were sensitized with house dust mite (HDM) allergens from days 3, 15, or 60 after birth.
140 aled that IgE from crustaceans or House dust mite (HDM) allergic patients showed cross-reactivity to
141 py (AIT) lack recommendations for house dust mite (HDM) allergy.
142 ld-type mice were challenged with house dust mite (HDM) and infected with RV1B to determine lung infl
143 were challenged over 3 weeks with house dust mite (HDM) antigen.
144 that Streptococcus pneumoniae and house dust mite (HDM) bear similar phosphorylcholine (PC) epitopes.
145 g antigen (SEA) immunization, and house dust mite (HDM) challenge without affecting cytotoxic T lymph
146 of airborne allergens such as the house dust mite (HDM) effectively activates both innate and adaptiv
147 through the intranasal route with house dust mite (HDM) extract derived from Dermatophagoides pterony
148 lphaT-catenin knockout mice and a house dust mite (HDM) extract model of atopic asthma, with assessme
149 were intranasally challenged with house dust mite (HDM) extract or PBS five days per week for four we
150 s of intranasal administration of house dust mite (HDM) extract.
151 h prolonged i.n exposure to crude house dust mite (HDM) extract.
152 d DNA damage responses induced by house dust mite (HDM) in vivo and in vitro.
153 nfirmed in reporter assays and in house-dust-mite (HDM) induced AAI and primary human bronchial epith
154                  Sensitization to house dust mite (HDM) is a risk factor for the development of aller
155 luated in the ovalbumin (OVA) and house dust mite (HDM) murine models.
156           Mice were sensitized to house dust mite (HDM) or cockroach at day 0, treated with IL-6R inh
157  challenged with saline, DEPs, or house dust mite (HDM) or DEP+HDM.
158                                As house dust mite (HDM) sensitization is dependent on TLR4 and HDM De
159 lammation was induced following a house dust mite (HDM) sensitization protocol.
160 he last 8 weeks of treatment in 2 house dust mite (HDM) SLIT-tablet trials (n = 1768).
161 olled, randomized clinical trial, house dust mite (HDM) sublingual AIT was found to be efficacious in
162                               The house dust mite (HDM) sublingual allergen immunotherapy (SLIT) tabl
163                               The house dust mite (HDM) sublingual immunotherapy (SLIT) tablet (MK-82
164 hallenged with ovalbumin (OVA) or house dust mite (HDM), and accessed for TH2 inflammation.
165 to common human allergens such as house dust mite (HDM), in the absence of additional adjuvants, infl
166 o environmental antigens, such as house dust mite (HDM), often leads to T helper 2 (Th2) cell-driven
167    Exposure to allergens, such as house dust mite (HDM), through the skin often precedes allergic inf
168 24) was predicted to be active in house dust mite (HDM)- and helminth-elicited Il4(gfp+)alphabeta(+)C
169 e were assessed in sera from 1302 house dust mite (HDM)-allergic patients living in various areas.
170 ng induced by DCs is critical for house dust mite (HDM)-driven allergic airway inflammation (AAI) in
171 herapeutic efficacy of SAHM1 in a house dust mite (HDM)-driven asthma model.
172 1c promotor) to acute and chronic house dust mite (HDM)-driven asthma models.
173  address the role of B cells in a house dust mite (HDM)-driven TH2-high asthma mouse model.
174 mice were evaluated in a model of house dust mite (HDM)-induced AAI.
175 nd cytokine production to prevent house dust mite (HDM)-induced airway inflammation and remodeling.
176 immune responses in patients with house dust mite (HDM)-induced airways disease.
177 s and in response to DEP-enhanced house dust mite (HDM)-induced allergic airway inflammation.
178  several dosages in patients with house dust mite (HDM)-induced allergic rhinoconjunctivitis (ARC) us
179 nasal epithelium of patients with house dust mite (HDM)-induced AR and in an HDM-induced murine model
180 nfiltration, protecting mice from house dust mite (HDM)-induced asthma or Leishmania major infection.
181                          OVA- and house dust mite (HDM)-induced murine asthma models were used in thi
182 timulatory effects of IL-1beta on house dust mite (HDM)-induced release of thymic stromal lymphopoiet
183 s been developed for treatment of house dust mite (HDM)-induced respiratory allergic disease.
184  investigate the role of TPL-2 in house dust mite (HDM)-mediated allergic airway inflammation.
185 histosoma mansoni or the allergen house dust mite (HDM).
186 , transcriptome and microbiome of house dust mites (HDM) has shown that Staphylococcus aureus (S. aur
187                                   House dust mites (HDM) may serve as carriers of bacteria responsibl
188 lls, BEAS-2B, directly exposed to house dust mites (HDM) resulted in enhanced DNA damage, as measured
189   The most frequent allergens are house dust mites (HDM), which act in vivo on the bronchial epitheli
190                                   House dust mite/HDM atopy patch test/APT elicits positive reactions
191 s dominated by a single allergen (house dust mite; HDM).
192   Twenty-three adults allergic to house dust mites (HDMs) (M+) and 15 nonsensitive, nonallergic (M-)
193 ntries demonstrate sensitivity to house dust mites (HDMs).
194 dance with an asthma exacerbation to receive mite-impermeable (active group) or control (placebo grou
195            To evaluate the use of house dust mite-impermeable bedding and its impact on severe asthma
196                                              Mite-impermeable encasings are effective in reducing the
197 ergen was present in 17.2% and to house dust mite in 8.7%.
198  allergen levels of dog, cat, and house dust mite in bed dust samples at 1 year.
199 (Blo t) mite species is considered a storage mite in temperate climate zones and an important source
200 0) showed evidence for interaction with dust mite in the Childhood Asthma Management Program (P = .02
201 es of allergic asthma provoked by house dust mite in vivo.
202 ive analysis by characterizing and comparing MITEs in 19 Arabidopsis thaliana accessions.
203                             Control of these mites in beehives is a challenge in part due to the lack
204 ensive and accurate genome-wide detection of MITEs in various eukaryotic genomes can improve our unde
205                            We also find that mites increase bacterial diversity and richness on the c
206         Experimental acute canine house dust mite-induced AD lesions exhibit an activation of innate
207                            During house dust mite-induced airway allergy, rEos features remained unch
208 A-HSP65 and CpG/CFP downregulated house dust mite-induced allergic airway inflammation via distinct p
209 to the airways of mice undergoing house dust mite-induced allergic response.
210 -finding study, 131 patients with house dust mite-induced allergic rhinoconjunctivitis were randomize
211 of NP-CpG could prevent and treat house dust mite-induced allergy by modulating immunity directly in
212 ne responses were dispensable for house dust mite-induced endoplasmic reticulum stress and airways fi
213 ed, subjected to an ovalbumin- or house dust mite-induced experimental asthma protocol.
214                             Peanut- and dust mite-induced expression of TH2 cytokines was reduced in
215   Blockade of Runx2 inhibited the house dust mite-induced goblet cell differentiation with a 75% redu
216 mice into WT recipients increases house dust mite-induced Th2/Th17 inflammation in the airway.
217 t-generation sequencing, we investigated how mites influence the bacterial communities on the carcass
218 e molecular structure of (particularly) dust mite, insect and mould allergens in dogs and horses, res
219 clustering program CD-HIT to cluster similar MITEs into MITE families.
220          Our results suggest that the Varroa mite is a highly adapted parasite for honey bees.
221                                         Dust mite is a known risk factor for asthma morbidity.
222 agnosis and immunotherapy of allergy against mites is based on complex extracts from large-scale cult
223 pa) to reproduce, the fitness benefit to the mites is not immediate but delayed.
224 ddresses the interactions between the varroa mite, its environment, and the honey bee host, mediated
225 nd, together with other (non-haematophagous) mites, lack a gene encoding haem oxygenase.
226 ur data indicate that exposure to house dust mite markedly reduces Sema3E expression in mouse airways
227 ng rat, mouse, cockroach, cat, dog, and dust mites, measured in dust samples collected from inner-cit
228 xperimental asthma (ovalbumin and house dust mite); miRNAs deregulated in both models were further te
229                                              Mite, mouse, cat, and dog allergens were mostly higher i
230            Mechanical stimuli that mimic the mites' movement evoke a similar kicking behavior.
231  fitness, although due to the fact that each mite must find a second host (a pupa) to reproduce, the
232 ely, comprehensively, and efficiently detect MITEs on a genome-wide scale than other popular MITE det
233           Finally, analysis of the impact of MITEs on gene expression suggests that migrations of MIT
234  induced in mice using intranasal house dust mite or aerosol ova-albumin challenge, and chloroquine o
235                                 The oribatid mite Oribatula tibialis uses the cyanogenic aromatic est
236  kicking response against invading parasitic mites over their wing margin with ultrafast speed and hi
237 et can compensate the deleterious effects of mite parasitization.
238  pests, beet army worm or two-spotted spider mites; pesticidal efficacy exceeded that of commercial f
239  will further support the expanding field of mite-plant interactions.
240          Burying beetles also carry phoretic mites (Poecilochirus carabi complex), which breed alongs
241 s, extracts, and allergen mixtures including mites, pollen, drugs, and food.
242 esent in all samples from predatory and prey mite populations (core OTUs): the intracellular symbiont
243                          We show that Varroa mites prefer nurses over both newly emerged bees and for
244 cal method for the standardization of native mite products.
245 he direct transmission route that the Varroa mite provides.
246 ic airway inflammation induced by house dust mites, pulmonary function and cytokine profiles in Htr4-
247                            A total of 343485 MITE putative sequences, including canonical, diverse an
248 tly different between the microbiota of prey mites reared with and without N. cucumeris.
249 e (ie, ABC) had significantly higher risk of mite-related AR and asthma than unsensitized participant
250 us molecules, which in turn predicts current mite-related AR and current/future asthma.
251 rom Aspergillus fumigatus and the house dust mite, resulting in an asthma-like pathology characterize
252 ldren and correlated with IgE levels to dust mite, ryegrass, and fungi but not cat, ragweed, or food
253     Kairomones are used at all stages of the mite's life cycle, and the exploitation of bees' brood p
254 miochemicals regulating crucial steps of the mite's life cycle.
255 ens; (3) group 2 allergens; and (3) complete mite sensitization.
256 dermatitis skin lesions with high house dust mite sensitization.
257 286 (mean age, 7.7 yr; male sex, 65.8%) were mite sensitized, and 284 were randomized (146 to the act
258                                        Among mite-sensitized children across all populations and at d
259                                We randomized mite-sensitized children with asthma (ages 3-17 yr) afte
260 ings are effective in reducing the number of mite-sensitized children with asthma attending the hospi
261              Within the entire population of MITEs sequences, 80.7% of them were previously unclassif
262                    Generally, myrmecophilous mites show adaptations for dispersal through phoresis, b
263 nged with a bacterial disease or a parasitic mite, similar to bees selected using a phenotype-based a
264  availability of genomic resources for other mite species has allowed researchers to study the lineag
265                The Blomia tropicalis (Blo t) mite species is considered a storage mite in temperate c
266 ens (ie, grass, olive/ash pollen, house dust mites), specific IgE did not show marked differences bet
267                                              Mite-specific AIT should rely upon a mixture of D. ptero
268 opulations and at different ages, house dust mite-specific IgG/IgE ratios (but not IgG4/IgE ratios) w
269 t to diagnose, the efficacy of SQ house dust mite sublingual immunotherapy tablets has been demonstra
270 nt with SQ (standardised quality) house dust mite sublingual tablet for 1 year resulted in a decrease
271 day (from 11% [placebo] to 5% [SQ house dust mite sublingual tablet]) and an increased probability of
272 ay (from 16% [placebo] to 34% [SQ house dust mite sublingual tablet]).
273 eared predators are fed with factitious prey mites such as Tyrophagus putrescentiae.
274 ooccurrence of hosts and parasites in spider mites (Tetranychidae), a globally distributed group of p
275  an acaricide resistant strain of the spider mite Tetranychus urticae upon exposure to synergists suc
276          The study of the two-spotted spider mite, Tetranychus urticae, for which a high-quality Sang
277 on as the I1017F mutation reported in spider mites that confers etoxazole resistance.
278  200-fold increase of relative pad area from mites to geckos.
279 ation of Dermatophagoides farinae house dust mites to sensitized atopic dogs.
280 inst the progression of IgE sensitization to mites toward AR and asthma.
281 essions provided a fine source for analyzing MITE transposition activities and their impacts on genom
282          Neoseiulus cucumeris is a predatory mite used for biological control of arthropod pests.
283  multifactorial syndrome, with the parasitic mite Varroa destructor and the associated deformed wing
284 for honey bees challenged with the parasitic mite Varroa destructor associated to the Deformed Wing V
285                           The ecto-parasitic mite Varroa destructor has transformed the previously in
286 (DWV) and infestation with the ectoparasitic mite Varroa destructor have been linked to colony collap
287 eformed wing virus (DWV) and its vector, the mite Varroa destructor, are a major threat to the world'
288 y Iflaviridae, together with its vector, the mite Varroa destructor, is likely the major threat to th
289                                   The varroa mite, Varroa destructor, is a devastating ectoparasite o
290                                   The Varroa mite, Varroa destructor, is an acarine ecto-parasite on
291 ccount for the remarkable importance of this mite-virus interaction in the induction of honey bee col
292 ic sensitization to cat, dog, and house dust mites was diagnosed longitudinally using skin prick test
293 to certain allergens (cockroach, mouse, dust mite) was significantly associated with enhanced cytokin
294 rching for a specific toxic target of varroa mites, we investigated two closely related neuropeptider
295 , parental hay fever, and higher exposure to mites were associated with a broader polymolecular IgE s
296 From 2009 to 2013, 60 small animals and 2250 mites were collected in the vicinity of the school.
297        Moreover, a significant proportion of MITEs were found located in the last exon of genes besid
298 tal bacteria were more abundant in predatory mites, while symbiotic bacteria prevailed in prey mites.
299 tMITE has been shown to find known and novel MITEs with a complete structure and full-length copies i
300 y caused by sensitization against house dust mites with a nearly complete penetrance of the allergen,

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