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1 ies in fermented dairy products (yoghurt and cheese).
2 ifferences in chemical compositions of Tulum cheese.
3 cal tool for assay development of nisin A in cheese.
4 oped to classify product categories for this cheese.
5 time (0-180 days) for the different types of cheese.
6 cal, chemical and textural properties of Ras cheese.
7 etermination of nisin A in all four types of cheese.
8  irradiation treatment of different types of cheese.
9 nd to evaluate its use in the coating of Ras cheese.
10 uring ripening in comparison to the uncoated cheese.
11  eprinomectin, ivermectin and moxidectin) in cheese.
12 determine the authenticity of this Brazilian cheese.
13 o the production of a potentially functional cheese.
14  food structures e.g. processed and analogue cheese.
15 trains for their influence in the flavour of cheese.
16 uality parameters of spreadable goat Ricotta cheese.
17 et gelation is used to produce many types of cheese.
18 n hard cheese, specifically Grana Padano PDO cheese.
19 ation process with the aim of producing soft cheese.
20 hich are derived from cooked meat, oils, and cheese.
21 onouncedly improve the shelf-life of Ricotta cheese.
22 ent in pasture plants, was found in milk and cheese.
23 yridine, which were newly identified in blue cheese.
24 aggregated beta-sheet structure and a firmer cheese.
25  secondary structure and the resulting cream cheese.
26 partially-replaced products being offered as cheese.
27 or the prolongation of shelf life of Ricotta cheese.
28  for the manufacture of yogurt and specialty cheeses.
29 strains as an alternative to the traditional cheeses.
30 read occurrence of Vibrio in surface-ripened cheeses.
31 hnique for detecting the authenticity of PDO cheeses.
32 se of animal rennet in the production of PDO cheeses.
33  representative sample set of characteristic cheeses.
34                           The consumption of cheese, a food potentially rich in microbial diversity,
35               The effect of yoghurt and curd cheese additions on pasting properties, starch digestibi
36 an be used for forensic detection of ricotta cheese adulteration and, if properly validated, to provi
37  ability for the direct assay of TYR in blue cheese, aged cheese, Egyptian pickled cottage cheese, an
38  to observe the microstructure of Mozzarella cheese and assess the protein and lipid distribution wit
39 e determination of the target metabolites in cheese and bacterial culture samples.
40 ol, butane-2,3-diol, and propane-1,3-diol in cheese and bacterial cultures was developed.
41 espectively, measuring red species for milk, cheese and beer (4.9-5.5% error; 4.8-6.3% RSD; n = 5); a
42 sterol concentrations were similar after the cheese and butter diets but were significantly higher th
43 dy suggest that the consumption of SFAs from cheese and butter has similar effects on HDL cholesterol
44                                              Cheese and butter intake was associated with a higher ri
45 pact of consuming equal amounts of SFAs from cheese and butter on cardiometabolic risk factors.In a m
46 recovery of catechin compared to IC added in cheese and catechin added in all the matrices in in vitr
47 (13)C peak at 16ppm obtained for the control cheese and cheeses containing encapsulated polyphenols (
48  and carbon isotopic ratios ((13)C/(12)C) of cheese and extracted casein were corroborated through st
49   Lb. plantarum is an incidental organism in cheese and its presence is unpredictable.
50     Moreover, dairy products (yoghurt, white cheese and kefir) contained kynurenine ranging from 30.3
51 uffalo mozzarella cheese, one goat crescenza cheese and one artisanal cured ricotta cheese, were able
52 e needed for successful acidification of the cheese and proteolytic strains like Lactobacillus helvet
53 ial effects against E. coli were observed in cheese and pumpkin, whereas the highest migration of bot
54 sin A in cream cheese, mascarpone, processed cheese and ripened cheese without the need for matrix-ma
55 a (LAB) strains were isolated from Feta-type cheese and were screened for probiotic potential in a se
56 ther children with CMA could tolerate yogurt/cheese and whether a patient's IgE and IgG4-binding patt
57                                          CAM cheese and whey could be added-value products.
58  to quantitate fenbendazole residues in Feta cheese and yoghurt made from spiked and incurred ovine m
59  contrast, fermented dairy products, such as cheese and yogurt, generally show inverse associations.
60 semi-skimmed yoghurt, 30 g reduced-fat (30+) cheese, and 250 mL semiskimmed milk and buttermilk.
61 and 8 h after the meal.Cheddar cheese, cream cheese, and butter induced similar increases in triglyce
62 ry fat provided from firm cheese, soft cream cheese, and butter on the postprandial response at 4 h a
63 k (total or by fat content), fermented milk, cheese, and butter were tested with the use of Cox propo
64 al dairy products with study products (milk, cheese, and butter) to achieve a high-fat, high-dairy is
65 hard pressed, semipressed, soft, blue, fresh cheese, and cheese from the farm).
66 rsely associated with consumption of yogurt, cheese, and eggs, although the associations with yogurt
67 rove the quality and consistency of eye-type cheese, and in particular to avoid development of undesi
68 heese, aged cheese, Egyptian pickled cottage cheese, and pickled herring.
69  (VFR); seafood and noodle (SfN); and pasta, cheese, and processed meat (PCP).
70       An increase in full-fat milk, high-fat cheese, and total high-fat dairy was associated with gre
71  0.0003 which was independent of the type of cheese, and which might be due to free radicals from the
72 lk samples were processed into ripened model-cheeses, and analyzed by near-infrared-spectrometry (NIR
73 served when using a comparable non-fat model cheese ( approximately 0.1-20 mum(2) s(-1)).
74 at compose a set of four lyophilized Mexican cheese aqueous soluble extracts, each with a controlled
75 ontribute to batch to batch variation in the cheese aroma characteristics.
76 ity, texture profile, and fatty acids of the cheeses as a function of the flavor enhancer added.
77 nd 7 log colony-forming units (CFU) g(-1) of cheese at the 1st and 28th days of storage, respectively
78 ftertaste and are also harder to form into a cheese ball.
79  the muscle synthesis in elderly people with cheese based on whey proteins rather than those based on
80  of two solid and isocaloric dairy products (cheese) based either on whey or on caseins, by using pig
81 t attributes can distinguish between Cheddar cheese batches after 56 days.
82                                              Cheese batches which have lower transverse relaxation va
83 dure for accurate quantitation of Nisin A in cheese becomes available.
84 ein and lipid distribution within individual cheese blocks.
85 round 30% for yoghurt bread and 38% for curd cheese bread, was obtained, resulting in medium to low (
86 es included in the validation were hazelnut, cheese, broccoli, and pork.
87 re higher in GST-cheese in comparison to PBT-cheese but total FAAs were lower.
88 nt factors impacting eye growth in semi-hard cheese, but yet has scarcely been investigated in litera
89  (total, full fat, and reduced fat), yogurt, cheese, butter, and dairy calcium consumption with morta
90 constraints required a shift away from beef, cheese, butter, and snacks toward plant-based foods and
91 nuated compared with that induced by cheddar cheese (change from baseline: +14% compared with +42%; P
92  from baseline: +24%; P = 0.002) and cheddar cheese (change from baseline: +16%; P = 0.0004).
93 he triglyceride response caused by the cream cheese (change from baseline: +44%) was significantly gr
94 respectively, was analysed in food matrices (cheese, chicken breast and pumpkin and melon) and in vit
95 ction of "free" aqueous phase present in the cheese, closely which is linked to cheese-making technol
96 omic procedure based on loading of B/WB milk/cheese CN extracts on a hydroxyapatite column, in situ t
97 ealth factors, like smoking, alcohol intake, cheese consumption and average systolic blood pressure,
98                                              Cheese consumption at 18 months of age was quantified in
99  4%, 18%) lower T2D risk, whereas increasing cheese consumption by >0.5 serving/d was associated with
100                 We aimed to evaluate whether cheese consumption is associated with allergic diseases.
101 ons were performed to evaluate the effect of cheese consumption on atopic dermatitis (AD), food aller
102 rately lower risk of T2D, whereas increasing cheese consumption was associated with a moderately high
103  high-fat dairy (total, butter, and high-fat cheese) consumption was positively associated [e.g., 0.0
104 oducts [yogurt (total or low-fat) or low-fat cheese] consumption was associated with a lower increase
105                               The whey-based cheese contained 25% more leucine than Mozzarella, howev
106 at 16ppm obtained for the control cheese and cheeses containing encapsulated polyphenols (catechin or
107 ilar, however, the spectrum was narrower for cheeses containing free polyphenols.
108                                  Regular-fat cheese contains a high amount of saturated fat.
109 its, fried products, ready-cooked meals, and cheese contributed to shifts within microbiota compositi
110  a firm cheese (young cheddar), a soft cream cheese (cream cheese), or butter (control) incorporated
111  and 2, 4, 6, and 8 h after the meal.Cheddar cheese, cream cheese, and butter induced similar increas
112                 The study aimed at producing cheese curd from CAM using a recombinant camel chymosin.
113 of extracts, and technological properties of cheese curds.
114                                   Coating of cheese decreased the weight and moisture losses but didn
115 l substrates, i.e. pork ham, turkey ham, and cheese, demonstrated that 10 of the known fungisporin-re
116        The complex microflora of traditional cheese depends on the cheese types (e.g., homemade renne
117 n=29; follow-on formula, baby porridge, curd cheese dessert) and dietary supplements (n=15), both spe
118                                          The cheese diet increased serum LDL-cholesterol concentratio
119 The additional 2% of energy from SFAs in the cheese diet was replaced by n-6 PUFAs in the other diets
120     LDL-cholesterol concentrations after the cheese diet were lower than after the butter diet (-3.3%
121                                 The milk and cheese diets increased triglycerides compared with the c
122               The present study proposed the cheese differentiation, according to geographical produc
123 verse causality cannot totally be ruled out, cheese diversity at 18 months had a protective effect ag
124 uality parameters of spreadable goat Ricotta cheese during storage (7 degrees C/7 days) was evaluated
125 s constituted the main chemical class of the cheeses during ripening (mean abundances of these were 5
126           The incidence of hypertension, or "cheese effect", which is associated with a large dietary
127 ted food samples (beef, chicken, fish, milk, cheese, egg, rice, rice-based products, wheat flour, cor
128 s: beef steak, butter, canned tuna, catfish, cheese, eggs, french fries, fried chicken, ground beef,
129 the direct assay of TYR in blue cheese, aged cheese, Egyptian pickled cottage cheese, and pickled her
130  consumption of low-fat milk and regular-fat cheese enriched in gamma-aminobutyric acid (GABA) influe
131 associations between green tea catechins and cheese fat components.
132 profile suggests that encapsulation protects cheese fat from interaction with catechins.
133 pening cultures beyond their contribution to cheese flavor production.
134                      The calibrated range in cheese for all analytes was very broad, from 0 to 1000mg
135           Physicochemical properties of soft cheese from cultured CAM were 51.89%, 15.62%, 20.21% and
136 , semipressed, soft, blue, fresh cheese, and cheese from the farm).
137        The study is the first report on soft cheeses from CAM (cultured and non-cultured) using a rec
138 ive to volatiles produced by five widespread cheese fungi.
139 as applied to 59 samples of Grana Padano PDO cheese: galactose showed the highest concentration and v
140 s promising natural preservers in foodstuffs cheese, given the preservation of key parameters and the
141 ss at low pH likely contributed to increased cheese hardness.
142 ty to fermented milk products such as yogurt/cheese has not been previously evaluated.
143 gin (PDO) Mozzarella di Bufala Campana (MBC) cheese has promoted the development of simple, fast and
144  [95% CI, 0.89-0.98] per 100-g/d increment), cheese (HR, 0.92 [95% CI, 0.86-0.98] per 30-g/d incremen
145 sed during ripening of a traditional Italian cheese, identifying parameters that could be modified to
146 of total FFA and total OA were higher in GST-cheese in comparison to PBT-cheese but total FAAs were l
147 s) during ripening of raw sheep's milk Tulum cheeses in goat's skin bag (GST) or plastic barrel (PBT)
148                             Yoghurt and curd cheese incorporations (6% up to 25% w/w) promoted consid
149 nally enhanced or functional products by the cheese industry has created new approaches that partiall
150 lk intake (HR: 0.90; 95% CI: 0.86, 0.94) and cheese intake (HR: 0.93; 95% CI: 0.91, 0.96) were negati
151                                              Cheese intake was associated with 16% lower all-cause mo
152  all-cause mortality, and fermented milk and cheese intakes are associated with lower all-cause morta
153 d decay of free radicals in six varieties of cheese, irradiated (0-4 kGy) in an electron accelerator,
154                                              Cheese is a suitable matrix to deliver probiotic strains
155  substituting yogurt or reduced-fat milk for cheese is associated with a lower risk of T2D.
156                                              Cheese is one of the most widely consumed food products
157 biomes on 2 bacteria (Escherichia coli and a cheese-isolated Pseudomonas psychrophila).
158  digestion and higher microbial diversity in cheeses led to a more diverse peptidome after simulated
159 intermingled cell types, with complex 'Swiss-cheese'-like morphologies and distinct functions.
160                                          The cheeses made using CpCP3 showed higher moisture content
161             The sensory analysis showed that cheeses made with CpCP3 had high acceptance index (>80%)
162 erful predictors, for the traditional salted cheese mainly, due to the direct influence of the local
163 o select lyophilized flowers (A) for further cheese making process.
164  one generally used for milk clotting during cheese making, and exhibited a satisfactory stability ov
165 nt in the cheese, closely which is linked to cheese-making technology and ripening stage.
166  species that produced the raw materials for cheese manufacturing (milk).
167  is one of the major challenges faced by the cheese manufacturing industry.
168 thermophilus ACA DC 0022, used in Greek Feta cheese manufacturing, was purified.
169 andard for determination of nisin A in cream cheese, mascarpone, processed cheese and ripened cheese
170 )) in the moisture and protein components of cheese matrices and the influence of changing pH, salt a
171  simulated gastrointestinal environment, the cheese matrix modulates dairy fat digestion.
172 P = 0.0004).This study demonstrates that the cheese matrix modulates the impact of dairy fat on postp
173 However, to our knowledge, the impact of the cheese matrix on postprandial lipemia in humans has not
174 een tea catechins and milk fat globules in a cheese matrix were investigated using solid-state magic
175 d catabolism and significantly increases the cheese maturation rate.
176 ion of dairy products, especially yogurt and cheese, may reduce the risk of overall and CVD mortality
177 effluents were similar after each of the two cheese meals, differences in gastric emptying would not
178     Papers cited herein mainly concern milk, cheese, meat and honey.
179 re appeared to be key factors affecting both cheese microstructure and properties.
180 from microfiltration gel faster than regular cheese milk that contains higher amounts of native whey
181 fee, green tea and milk) and foods (yoghurt, cheese, natto, tofu, fish, small whole fish, vegetables
182 k, and 3) 1 daily serving of 31% fat cheddar cheese naturally enriched in GABA.
183 tive diffusion coefficients in soft and hard cheese of a group of dextrans (10-500 kDa) were found to
184                                       Coalho cheese of Ceara and the Jaguaribe region of Brazil has b
185 actobacillus plantarum isolates from Stilton cheese on aroma profiles of milk fermentation was examin
186  the impact of higher bacterial diversity in cheese on protein hydrolysis during simulated human dige
187 and cow milk samples, one buffalo mozzarella cheese, one goat crescenza cheese and one artisanal cure
188  significantly greater with butter than with cheese only among individuals with high baseline LDL-cho
189                In contrast, SFAs from either cheese or butter have no significant effects on several
190 in SFAs (12.4-12.6% of calories) from either cheese or butter; a monounsaturated fatty acid (MUFA)-ri
191  may be related to the diversity of consumed cheeses (OR = 0.64 [0.48-0.85] per cheese type, P = 0.00
192  (young cheddar), a soft cream cheese (cream cheese), or butter (control) incorporated into standardi
193 eat with 100 kcal/d from fatty fish, yogurt, cheese, or eggs was associated with ~20% lower risk of I
194 ng much softer materials such as human hair, cheese, or potatoes.
195 kase, an Austrian artisanal washed-rind hard cheese, over 160 days of ripening.
196 application of VitC, in situ, in Indian soft cheese (paneer) when applied as a coating.
197 local mobility and structural homogeneity of cheeses' peptide segments in the solid-state as a functi
198 quid, vapor, and semisolid (e.g., hydrogels, cheese) phases.
199 rt from the buffalo-cow yoghurt and goat-cow cheese, precision of the measurements was found to be be
200                                      Cheddar cheese predicted to develop into different quality class
201 ting with PSEO, particularly at 3%, improved cheese preservation by reducing the weight loss, preserv
202  Mozzarella di Bufala Campana (MBC) is a PDO cheese produced from whole buffalo milk in specific regi
203 may contribute in the wider use of rennin in cheese production and other biotechnological application
204  in presence and absence of salt, simulating cheese production and ripening.
205 velop a new process for continuous Feta-type cheese production using a biocatalyst consisting of immo
206 ect of variation in acid gel pH during cream cheese production was investigated.
207 To elucidate the impact of Brevibacterium on cheese production, we analysed the genomes of three chee
208 ial are attractive properties for the use in cheese production.
209 e widespread use of the enzyme in industrial cheese production.
210 e for evaluating the authenticity of PDO MBC cheese products.
211 alysis modes and the secondary structures of cheese proteins determined.
212 s generated by the action of peptidases upon cheese proteins were separated by reverse-phase HPLC to
213 high in sodium" products (in savory spreads, cheeses, ready-to-eat meals, soups, and sausages; from 7
214  leaves provided antioxidant activity to the cheeses, reduced the moisture, and preserved the unsatur
215 associations with red and processed meat and cheese reflect causality, but they were consistent with
216                                              Cheese represents one of the most complex food matrices,
217 production, we analysed the genomes of three cheese rind isolates, L261, S111, and S22.
218             We used the notoriously volatile cheese rind microbiome to identify bacteria responsive t
219 e impacts of 8 different fungi isolated from cheese rind microbiomes on 2 bacteria (Escherichia coli
220 ese results suggest that HGT is prevalent in cheese rind microbiomes, and that identification of gene
221 sferred genes within a model microbiome, the cheese rind.
222 e acquisition, and are widely distributed in cheese rinds in both Europe and the US.
223 previously sequenced bacterial isolates from cheese rinds, we identified over 200 putative horizontal
224  how volatiles may impact the development of cheese rinds.
225 ghts the importance of Brevibacterium as key cheese ripening cultures beyond their contribution to ch
226 ative genomic analysis showed that important cheese ripening enzymes are conserved among the genus Br
227 c properties of this molecule in relation to cheese ripening have rarely been investigated.
228 bacterium harbors many members important for cheese ripening.
229 esponsible for hydrolysis of proteins during cheese ripening.
230 l - of biochemical phenomena responsible for cheese ripening.
231 ed for food processing, e.g., to control the cheese-ripening process.
232 t SFS technique is applicable on yoghurt and cheese samples as it's a less destructive and a less cos
233              PLS models used for yoghurt and cheese samples showed that detection limits of adulterat
234             Farming-system authentication on cheese samples was less efficient than on milk, but stil
235 ol, butane-2,3-diol, and propane-1,3-diol in cheese samples were 0.26, 0.02, and 0.11mgkg(-1), respec
236 ive was used for the film coating of Ricotta cheese samples.
237 d method robustness was checked on 10 random cheese samples.
238 alm oils present in white and ultra-filtered cheese samples.
239 chloroform (CH) method was carried out on 24 cheese samples.
240 ologic and laboratory evidence confirmed the cheese sauce as the outbreak source.
241 rnia was caused by consumption of commercial cheese sauce dispensed at a gas station market.
242 ates from 4 patients were closely related to cheese sauce isolates by whole-genome high-quality singl
243                                          The cheese sauce was likely locally contaminated, although t
244 No other botulism cases associated with this cheese sauce were reported elsewhere in the United State
245 set, where 8 reported consuming a commercial cheese sauce.
246 detected from each patient and from leftover cheese sauce.
247 Remarkably, the ESR spectra of all untreated cheeses showed only one singlet signal with a g-factor o
248 seline values) in consumption of beef, pork, cheese, snacks, and butter and increased consumption (>1
249 d the impact of dairy fat provided from firm cheese, soft cream cheese, and butter on the postprandia
250 gh local rigidity of peptides within ripened cheese soluble fractions could partially explain the obs
251 eographical provenance, of each investigated cheese specialties while, for species discrimination (co
252 t to species (cow, sheep) of two traditional cheese specialties, (salty and ripened), produced in Tra
253 e quantification of low sugar levels in hard cheese, specifically Grana Padano PDO cheese.
254 serve as thermo indicators, which warn about cheese storage at an unacceptable temperature.
255 s use is mandatory for the production of PDO cheeses such as Parmigiano Reggiano and Grana Padano.
256  2% TiO(2)-NPs eliminated mold growth on the cheese surface.
257 hen on various food matrices (wine, chicken, cheese, tea), repeating already published experiments.
258        The gel microstructure was denser and cheese texture firmer, as the pH decreased from pH 5.0 t
259 irds looked more at a tool moving a piece of cheese that was not in contact than one that was in dire
260 ases affecting the quality of most semi-hard cheeses, the thermodynamic properties of this molecule i
261 t, as this parameter affects proteins in the cheese, their secondary structure and the resulting crea
262 ococcus faecalis 2/28, isolated from artisan cheese, to release biopeptides from whey proteins.
263  consumed cheeses (OR = 0.64 [0.48-0.85] per cheese type, P = 0.002; OR = 0.55 [0.33-0.92], P = 0.02,
264 roflora of traditional cheese depends on the cheese types (e.g., homemade rennets).
265 ening of Formaggetta, a commercial semi-hard cheese typical of Liguria, an Italian region, providing
266  the simultaneous evaluation of these MLs in cheese using HPLC and fluorescence detection.
267 o identify discriminant compounds in 17 blue cheese varieties.
268 imated in baby food commodities (meat, fish, cheese, vegetable and fruit).
269  serving/d of yogurt or reduced-fat milk for cheese was associated with a 16% (95% CI: 10%, 22%) or 1
270   The consumption of 1 serving of butter and cheese was associated with a higher risk of diabetes, wh
271  systolic blood pressure, and consumption of cheese was inversely associated with serum non-high-dens
272 east and oregano extract) on probiotic Prato cheese was investigated after 1, 30, and 60 d of refrige
273             For instance, the consumption of cheese was negatively associated with Akkermansia mucini
274 Significant losses (p < 0.05) for Nisin A in cheese was observed one week later.
275 , the triglyceride response induced by cream cheese was significantly attenuated compared with that i
276  infrared (S-FTIR) microspectroscopy and the cheese was softer.
277  on the bacterial and oxidative stability of cheese was studied during refrigerated storage.
278 ecular mobility of the carbon species in the cheeses was measured by a wide-line separation technique
279 asei K5 strain, recently isolated from Greek cheese, was evaluated as potential sourdough bread start
280 to propose novel observables for lyophilized cheese water soluble extracts that could be partially as
281 cal, and physical characteristics of the Ras cheese were assessed during ripening in comparison to th
282  Twenty-two samples of bovine and non-bovine cheeses were analyzed.
283 on-PDO mozzarella, particularly when non-PDO cheeses were made outside the MBC reference area.
284                                     Full-fat cheeses were manufactured containing free catechin or fr
285 ing simulated human digestion, Raclette-type cheeses were produced from raw or heat treated milk, wit
286                                          The cheeses were: QS - with culture Start, composed by Lacto
287 cenza cheese and one artisanal cured ricotta cheese, were able to detect all expected species in addi
288 he identification of these macromolecules in cheese whey and the detection of adulteration of milk wi
289                                          CAM cheese whey had 48.94% and 76.80% of the fat and protein
290 ed in reasonable yield and purity from sheep cheese whey in one streamlined process.
291  and beta-lactoglobulin (beta-lg) present in cheese whey is difficult on SDS-PAGE due to their close
292 was the most abundant free fatty acid in the cheeses, which followed by cis-9-octadecenoic, octadecan
293 g and interrupted 7-0 Vicryl sutures without cheese-wiring.
294                                      Coating cheese with film containing 2% TiO(2)-NPs eliminated mol
295 m reduction and the supplementation of Prato cheese with probiotic cultures may be an effective alter
296                   The impacts of coating Ras cheese with the prepared bionanocomposite on weight loss
297 se, mascarpone, processed cheese and ripened cheese without the need for matrix-matched calibration b
298                 Cultured CAM afforded higher cheese yield (8.75%) than non-cultured CAM (3.34%).
299 nd mineral compositions of the curds and the cheese yields obtained by using Calotropis procera extra
300  food products (bread, beer, red wine, white cheese, yoghurt, kefir and cocoa powder).
301 fast, subjects ingested 33 g fat from a firm cheese (young cheddar), a soft cream cheese (cream chees

 
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