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1 creasing order of blackberry>black raspberry>blueberry.
2 ults highly comparable to that of commercial blueberry.
3 content of individual phytochemicals in ripe blueberries.
4 anthocyanin levels found in blackberries and blueberries.
5 s extracted and characterized from high-bush blueberries.
6 xidant capacity and texture of frozen/thawed blueberries.
7 f drying, on the rehydration kinetics of dry blueberries.
8 tent of the three groups of phenolics in the blueberries.
9   From these, 10 were previously reported in blueberries.
10  polyphenols present in one serving of fresh blueberries (73g) were delivered in just 1.4 g of bluebe
11                                              Blueberry ACN microcapsules were prepared from two wall
12 perm with the order Ericales (which includes blueberries and persimmons), was obtained with these dat
13                           Greater intakes of blueberries and strawberries were associated with slower
14 s antioxidant-rich berry diets, specifically blueberries and strawberries, countered the deleterious
15 Combined intake of 2 anthocyanin-rich foods, blueberries and strawberries, tended to be associated wi
16 ove the antioxidant properties of cranberry, blueberry and apple juices was evaluated for the formula
17 easured by FRAP assay of concentrated apple, blueberry and cranberry juice was increased by 40%, 34%,
18     LDL oxidation inhibition by concentrated blueberry and cranberry juice was increased up to 41% an
19 oybean flour (DSF) can sorb polyphenols from blueberry and cranberry juices while separating them fro
20  polyphenols (anthocyanins) from blackberry, blueberry and grumixama residues using combined ultrason
21                The hypoglycemic potential of blueberry and pomegranate juices was also studied.
22 d during the first 50min in presence of both blueberry and pomegranate juices, then a constant decrea
23 rosehip, chokeberry, hawthorn, blackcurrant, blueberry and rowanberry via different methods (ORAC, TR
24 nkle plants with virescence, and blackberry, blueberry, and raspberry plants displaying yellowing and
25                         The concentration of blueberry anthocyanins and total polyphenols eluted from
26 ion and juice dilution, the concentration of blueberry anthocyanins and total polyphenols sorbed to D
27 re intestinal absorption/bioaccessibility of blueberry anthocyanins under different digestive conditi
28  Although the flavonoid constituents of ripe blueberries are known, the molecular genetics underlying
29                                         Wild blueberries are rich in polyphenols and have several pot
30 at such supplements (strawberry, spinach, or blueberry at 14.8, 9.1, or 18.6 gm of dried aqueous extr
31 ing a one-time exposure to the novel odor of blueberry bars or cornnuts, in contrast to presentation
32  and quantified with HPLC-MS(n) in fruits of blueberry, bilberry, cranberry, lingonberry, eastern sha
33 rent soft fruits (strawberries, raspberries, blueberries, blackberries and currants) produced in a no
34 ar) and on 1500 samples of northern highbush blueberry (Bluecrop, Jersey, and Liberty) for hyperspect
35  new cultivars released from the New Zealand blueberry breeding programme and selected for the longes
36 as to develop a non-destructive approach for blueberry bruising detection and quantification.
37                                   Currently, blueberry bruising is evaluated by either human visual/t
38 ive to non-destructively detect and quantify blueberry bruising.
39   In conclusion, ABA delayed the ripening of blueberries, but did not affect total phenolic content,
40 onducted on 300 samples of southern highbush blueberry (Camellia, Rebel, and Star) and on 1500 sample
41 ised in powdered berry extracts of bilberry, blueberry, chokeberry, acai berry and cranberry by HPTLC
42               Anthocyanin-rich extracts from blueberry, chokeberry, black raspberry, red grape, and s
43 ne and 1, 2, 4, and 6 h after consumption of blueberry containing 766, 1278, and 1791 mg total bluebe
44                                              Blueberry decreased cell proliferation in HCC38, HCC1937
45                               Treatment with blueberry decreased phosphatidylinositol 3-kinase (PI3K)
46                                              Blueberries dehydrated by multi-stage microwave-assisted
47              New blueberry genotypes and bog blueberry demonstrated stronger antioxidant properties a
48 and for pomegranate and 1.7 per thousand for blueberry, demonstrating the potential hypoglycemic effe
49                                   Commercial blueberry-derived products represent important sources o
50  the best manufacturing procedure to prepare blueberry-derived products, well accepted by the consume
51 t, but not in the irradiated animals fed the blueberry diet.
52  strongest antioxidant capacity was found in blueberries dried using HACD at 90 degrees C+MWVD.
53 he performance of the radiated animals given blueberry extract did not differ from the radiated anima
54 investigated the chemopreventive activity of blueberry extract in triple-negative breast cancer cell
55 ity via ORAC, TRAP and HORAC assays, whereas blueberry extract was the most potent inhibitor of lipid
56 cterization of the antioxidant capacity of a blueberry extract while demonstrating that it had no per
57 , 10 g of tyrosine, and blueberry juice with blueberry extract.
58 present study, the chemoprotective action of blueberry extracts against cadmium toxicity was investig
59                                     Both the blueberry extracts and pure cyanidin exhibited protectiv
60                    Overall, spray drying the blueberry extracts complexed with protein proved to be a
61 f encapsulation on the release properties of blueberry extracts during simulated gastrointestinal dig
62                   The results imply that the blueberry extracts might be a potentially valuable food
63  Immunohistochemical analysis of tumors from blueberry-fed mice showed decreased activation of AKT an
64     Degradation of boscalid was studied in a blueberry field located in Concordia, Argentina, with fr
65  process and contribute to the regulation of blueberry flavonoid biosynthesis.
66                We investigated the impact of blueberry flavonoid intake on endothelial function in he
67                     Initially, the impact of blueberry flavonoid intake on flow-mediated dilation (FM
68 e very limited data regarding the effects of blueberry flavonoid intake on vascular function in healt
69 on, respectively) than those observed in the blueberry (FRAP: 10 +/- 2 and 19 +/- 3 muM FeSO4/gFW; TE
70 pressed sequence tag libraries from ripening blueberry fruit were constructed as a resource for gene
71  red raspberry, strawberry, sweet cherry and blueberry fruits produced in the subtropical areas of Br
72                                          New blueberry genotypes and bog blueberry demonstrated stron
73 he highest LP activity was found for Chilean blueberries (>95%) followed by calafate fruits (91.27%)
74                                    Brazilian blueberries had relatively high concentration of total p
75               Demand for and availability of blueberries has increased substantially over recent year
76                                              Blueberries have been extensively researched, but there
77                                              Blueberries have been recognized to possess protective p
78 f pterostilbene (PS), a natural component of blueberries, in preventing ocular surface inflammation u
79 r tested as sanitizing washes on lettuce and blueberries inoculated with food-borne bacterial biofilm
80                                              Blueberry intake acutely improves vascular function in h
81                                TIM-1 was fed blueberry juice (BBJ) or blueberry polyphenol-enriched d
82  of 2 g of tryptophan, 10 g of tyrosine, and blueberry juice with blueberry extract.
83 (McIlvaine buffer, pH=3.6, the typical pH of blueberry juice) during thermal (40-80 degrees C) and co
84 ) in Mcllvaine buffer (pH=3.6, typical pH of blueberry juice) was subjected to processing at isotherm
85 corbic acid (AA) and antioxidant capacity in blueberry, kiwi and orange juice.
86 amples, including mixed flavonoid standards, blueberry, mizuna, purple mustard, red cabbage, and red
87 emented with either spinach, strawberries or blueberries, nutritional sources of antioxidants, revers
88 n of anthocyanin monomeric isomers from wild blueberries of Lake Saint-Jean region (Quebec, Canada) w
89 exin (4), were isolated from the neotropical blueberry of Anthopterus wardii, a so-called "superfruit
90 tly better than of the radiated rats fed the blueberry or control diets.
91 vegetable extracts high in antioxidants (eg, blueberry or spinach extracts) might decrease the enhanc
92 ioxidant-rich berry diets, specifically a 2% blueberry or strawberry diet, fed for 8 weeks prior to r
93 ous research has shown that diets containing blueberry or strawberry extract can ameliorate the defic
94      Rats were placed on diets containing 2% blueberry or strawberry extract for 2 months prior to ex
95 l score averaging all 6 cognitive tests, for blueberries: p-trend = 0.014 and mean difference = 0.04,
96 d the stability and inactivation kinetics of blueberry peroxidase in model systems (McIlvaine buffer,
97 ese data illustrate the inhibitory effect of blueberry phytochemicals on the growth and metastatic po
98 ncreased dose dependently to </=766 mg total blueberry polyphenol intake, after which FMD plateaued.
99                           Partially purified blueberry polyphenol oxidase (PPO) in Mcllvaine buffer (
100       TIM-1 was fed blueberry juice (BBJ) or blueberry polyphenol-enriched defatted soybean flour (BB
101                                              Blueberry polyphenol-enriched DSF exhibited significant
102 erries (73g) were delivered in just 1.4 g of blueberry polyphenol-enriched DSF.
103                                              Blueberry polyphenol-rich extract was delivered to TIM-1
104  with 319, 637, 766, 1278, and 1791 mg total blueberry polyphenols and a control.
105                                  Spray dried blueberry polyphenols complexed with protein were protec
106 erry containing 766, 1278, and 1791 mg total blueberry polyphenols or a macronutrient- and micronutri
107                                              Blueberry polyphenols present in one serving of fresh bl
108 s confirmed DSF retained major cranberry and blueberry polyphenols remained intact.
109 ronutrient-matched control drink (0 mg total blueberry polyphenols).
110 ntation may alter the biological activity of blueberry polyphenols.
111 lon was used to investigate the breakdown of blueberry polyphenols.
112 ncreases at 1-2 and 6 h after consumption of blueberry polyphenols.
113 ur and soy protein isolate with aqueous wild blueberry pomace extracts, then spray drying, freeze dry
114 ore efficiently captured and stabilized wild blueberry pomace phytochemicals than other protein sourc
115 tion of anthocyanin-rich foods, particularly blueberries (pooled HR: 0.77 from a comparison of >/=2 s
116                                              Blueberry PPO showed a Km of 15mM and Vmax of 2.57 Delta
117 bene), a phytoalexin found in red grapes and blueberries, protects the cerebellar granule neurons aga
118 30 commercial dehydrated fruits (strawberry, blueberry, raspberry, cranberry, cherry, apple, grapefru
119  the extracts from grumixama, blackberry and blueberry, respectively.
120 , with seven "reported" hosts (blackberries, blueberries, sweet cherries, table grapes, peaches, rasp
121                     In vivo, the efficacy of blueberry to inhibit triple-negative breast tumor growth
122 eration (Ki-67 expression) were decreased in blueberry-treated mice, where apoptosis (caspase-3 expre
123                                              Blueberry treatment decreased the activity of matrix met
124 ultivars of Highbush and Rabbiteye Brazilian blueberries (Vaccinium corymbosum L. and Vacciniumashei
125                                              Blueberries (Vaccinium corymbosum L.) are a rich source
126  from bilberries (Vaccinium myrtillusL.) and blueberries (Vaccinium corymbosumL.); the bilberry extra
127  phytochemical content of southern high bush blueberries (Vaccinium darrowii).
128  first phytochemical examination of highbush blueberry (Vaccinium corymbosum) flowers, which yielded
129                                     Highbush blueberry (Vaccinium corymbosum) fruits contain substant
130 properties of juices of newly bred and known blueberry (Vaccinium corymbosum) genotypes and wild bog
131                                           In blueberry (Vaccinium spp.) fruits, the anthocyanins are
132 Vaccinium corymbosum) genotypes and wild bog blueberry (Vaccinium uliginosum) were evaluated by ABTS(
133                                        Three blueberry varieties ('Rocio', V2, and V3) were grown und
134          The degradation of boscalid in both blueberry varieties studied followed a first order rate
135 tical method for the residues of boscalid in blueberries was developed.
136  metastatic potential of MDA-MB-231 cells by blueberry was shown through inhibition of cell motility
137 d total flavonols content increased when the blueberries were grown under open-field conditions.
138 ic compounds and the antioxidant capacity of blueberries were not negatively affected by water restri
139                               In this study, blueberries were produced into purees comparing two homo
140                                          The blueberries were soaked in acidified ethanol, filtered,
141                            Four varieties of blueberries were used in the study, and it was found tha
142 und forms of blackberry, black raspberry and blueberry were identified and quantified using high-perf
143 nt fruit wines, chokeberry, blackcurrant and blueberry, were spray-dried using hydroxypropyl-beta-cyc
144 o non-meaningful combinations, such as "fast blueberry," when compared to the effects observed during
145              Levels of anthocyanin losses in blueberry wine microcapsules were much greater: 19.9% (H
146  intake of >/=2 servings of anthocyanin-rich blueberries/wk was associated with slower decline in FEV

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