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1 d for enhancing the functional attributes of amaranth.
2 ng the repeated independent domestication of amaranth.
3 udy evaluates the effect of DIC treatment on amaranth.
4 fibre content was 10% for quinoa and 11% for amaranth.
5 the existence of diverse replicons in Palmer amaranth.
6 bute to the super-grain status of quinoa and amaranth.
7 landscape map of the ancient pseudo-cereal, amaranth.
12 45 % pea protein isolate (PPI) enriched with amaranth (AF) and oat (OF) flours using high-moisture ex
13 thetic food dyes: Tartrazine, Sunset Yellow, Amaranth, Allura Red, Indigotine, and Brilliant Blue.
14 ork aimed to determine the fining ability of amaranth (Amaranthus caudatus L.) proteins (AP) in red w
16 ative analysis of orthologous genes in grain amaranth (Amaranthus hypochondriacus) and waterhemp (Ama
20 aboratory to predict the longevity of Palmer amaranth (Amaranthus palmeri) seeds in soil seedbank in
28 d of retaining proteins naturally present in amaranth and quinoa not only bolsters their nutritional
29 rate an alkaline isolation method to extract amaranth and quinoa starch from flour while retaining a
33 the processing treatments applied to quinoa, amaranth, and buckwheat and their applications into food
34 l composition and health benefits of quinoa, amaranth, and buckwheat are compared against wheat, maiz
39 ickpea, sorghum, quinoa, black rice, lentil, amaranth, brown rice, oat and white rice flours, using s
40 r percentages of late scaffold recoil in the Amaranth BRS at 3 months (Amaranth BRS=-10+/-16.1% versu
45 fold recoil in the Amaranth BRS at 3 months (Amaranth BRS=-10+/-16.1% versus Absorb BVS=10.7+/-13.2%;
46 (barley, rye, spelt, wheat) and gluten-free (amaranth, buckwheat, corn, quinoa, millet, oat, rice, te
47 r grains such as sorghum, millet, quinoa and amaranth can be alternatives to wheat and corn as ingred
48 As such, it was concluded that quinoa and amaranth can be used as alternative binders in sausage p
50 r zone for both Coomassie Brilliant Blue and Amaranth dyes; these values were 0.4 that required for t
51 07), Sunset Yellow (E110), Azorubine (E122), Amaranth (E123), Ponceau 4R (E124), Erythrosine (E127),
55 ith a nutraceutical consisting of spirulina, amaranth, flaxseed, and micronutrients augmented CT-IgA
56 (FPC), sesame protein concentrate (SPC), and amaranth flour (AF) to enhance the amino acid profiles.
62 ur gluten-free (chick pea, lupin, buckwheat, amaranth) flours were used to make yeast-leavened breads
63 is study increases the attractiveness of the amaranth genus as a food crop due to its strong diversit
68 tification of inhibitory DPPIV peptides from amaranth hydrolysates and the prediction of their bindin
69 nds are more frequently split in pressurized amaranth, Hylon VII, and waxy maize starch, while in sor
73 est that the 2,4-D resistance in KCTR Palmer amaranth is a nuclear inherited trait controlled by mult
81 itate, vitamin A-fortified rice, goat liver, amaranth leaves, or carrots or 2000 microg retinol equiv
83 hous poly-l-lactic acid-based BRS (APTITUDE, Amaranth Medical [AMA]) to Absorb (bioresorbable vascula
84 and, in vitro digestion of both red beet and amaranth microgreens produced a significant increase in
85 kwheat (CBPI), Tartary buckwheat (TBPI), and amaranth of A. hypochondriacus (AhPI) and A. caudatus (A
87 strointestinal digestion (SGD) of germinated amaranth on the release of antioxidant and anti-inflamma
88 mpkin seeds, egg yolk, carum, hazel nuts and amaranth) on the morphological and biochemical parameter
92 ighest inhibition of DPPIV was observed with amaranth peptides released after simulated gastrointesti
93 processing operations related to quinoa and amaranth phenolics for food and nutritional applications
95 ethod for the determination of 12 food dyes (Amaranth, Ponceau 4R, Carmine, Ponceau SX, Ponceau 3R, A
96 us (L. plantarum and L. helveticus) prepared amaranth protein hydrolysates, to determine the contribu
98 anged in tortilla chips, but the addition of amaranth protein isolate increased the hardness (16-36%)
99 of cookies and tortilla chips prepared using amaranth protein isolate is needed, the above results su
100 The effect of addition of amaranth flour and amaranth protein isolate to both a glucose/asparagine mo
101 , rheological and thermal characteristics of amaranth protein isolates (APIs) are reported in this st
103 d, the above results suggest that the use of amaranth protein may be an interesting way to both mitig
104 position and techno-functional properties of amaranth protein, including its solubility, emulsificati
106 ork was to analyse the hypotensive effect of amaranth protein/peptides on spontaneously hypertensive
108 %) and oil (185 %) binding capacities, while amaranth proteins exhibited higher solubility and foamin
109 perties play an important role in the use of amaranth proteins for formulating nanoparticle-based del
112 id bacteria proteases released peptides from amaranth proteins with ACE-inhibitory properties that we
113 inal digestion (SGID) of proteins present in amaranth quinoa and chia was evaluated using their bioac
114 ectively) We can conclude that proteins from amaranth, quinoa and chia may be a good source of antidi
115 specially anti-inflammatory, from germinated amaranth released by in vitro gastrointestinal digestion
117 to evaluate the ACE-I inhibitory activity of amaranth seed hydrolysates after fermentation with Enter
118 nd time-efficient tool for predicting Palmer amaranth seed longevity in natural soil seedbanks, offer
119 nhibitory capacity of peptides released from amaranth seed proteins after enzymatic digestion, agains
121 ocessed (such as wheat, rye, barley, quinoa, amaranth, soya, lentils, and rice) or processed (such as
122 encing of multiple accessions of three grain amaranth species and two wild relatives, shows that the
129 Study 2 selected 205 participants from the AMARANTH trial, which was terminated after futility anal
130 th liposomes loaded with soybean lunasin and amaranth unsaponifiable matter (UM + LunLip) and cell cy
132 imate-3-phosphate synthase (EPSPS) in Palmer amaranth was determined to be driven by an extrachromoso
134 ains (sorghum, millet, buckwheat, quinoa and amaranth) was used in brewing process, in gelatinized an
135 plants, and the mercury contents in lettuce, amaranth, water spinach, cowpea and rice samples were co
136 sorbitol spherulites containing the azo dye amaranth were analyzed in detail so as to correct a pers
138 amylopectin branch chain-length: (i) quinoa, amaranth, wheat (shorter chains); and (ii) sorghum, mill