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1 xides between fish muscle and liquid medium (soybean oil).
2 ited higher induction period than commercial soybean oil.
3 ntioxidant encapsulated by nano-emulsions in soybean oil.
4 lad dressings containing 0, 2, 4, 8, or 32 g soybean oil.
5 ty of gallates in the oxidative stability of soybean oil.
6 determined during the oxidation of stripped soybean oil.
7 amples between 35 pigs fed with 1.5% or 3.0% soybean oil.
8 m could be modulated by dietary inclusion of soybean oil.
9 pH with a 1:4 SL:XG mass ratio and 10 % v/v soybean oil.
10 on of dried Haematococcus pluvialis cells in soybean oil.
11 file and lower omega-6/omega-3 ratio than in soybean oil.
12 ract (OLE) encapsulated by nano-emulsions in soybean oil.
13 tive activity for acai seed extracts in bulk soybean oil.
14 EXT was not as effective as BHA or DHM in soybean oil.
15 ts, and vegetable oils, including canola and soybean oils.
16 red with 4% (w/v) of soy protein isolate and soybean oil (10 and 20%, v/v) were studied and compared
17 cted in rapeseed oils (3.7-1.4 mg/100 g) and soybean oils (2.6-1.4 mg/100 g), which contain less n3-P
18 supplemented with SO (n = 5 cows; unrefined soybean oil; 2.9% of DM) or FO (n = 5 cows; fish oil man
19 observed in the fatty acid methyl esters of soybean oil (3.86) based on hydroperoxides decomposition
21 multicomponent lipid emulsion containing 30% soybean oil, 30% medium-chain triglycerides, 25% olive o
22 type of fat used for cooking, subjects using soybean oil (52%) had higher amounts of both alpha- and
24 spholipid gum mesostructures formed in crude soybean oil after water degumming (WD) and enzymatic deg
26 ere fed a standard diet supplemented with 1% soybean oil alone or in combination with a low (15 mg/kg
28 eters) of the nanoemulsions compared to pure soybean oil and commercial soybean oil suggested that th
30 ly, the fatty acid compositions of olive and soybean oil and the algal species Chlamydomonas reinhard
34 Inchi oil (SIO) with different ratios of SO (soybean oil) and CO (corn oil) by nuclear magnetic reson
35 assay, by oxidative stability index (OSI) of soybean oil, and by analysis of antioxidant activity dur
36 ly hydrogenated oils and fats from palm oil, soybean oil, and crambe oil, by high-pressure homogeniza
37 l, and blends of soybean oil + dende oil and soybean oil + annatto seed oil) on the physicochemical p
41 istration of parenteral nutrition containing soybean oil-based and olive oil-based lipid emulsion res
46 he physical properties of soft fats, such as soybean oil-based interesterified fat, refined palm oil,
48 PN (VV-TPN) and compared with TPN containing soybean oil-based lipid emulsion (IL-TPN) and fish-oil-b
49 rition (PN), including fat administered as a soybean oil-based lipid emulsion (SOLE), is a life-savin
50 may relate to the proinflammatory effects of soybean oil-based lipid emulsions, the only Food and Dru
53 al of 100 patients were randomized to either soybean oil-based parenteral nutrition or olive oil-base
54 pids and lipid emulsions that are not purely soybean oil-based results in improved long-term outcomes
56 herol not only exerts a prooxidant effect on soybean oil but also modifies its oxidation pathway, aff
57 ow TFA) products from partially hydrogenated soybean oil by lipase-catalysed selective hydrolysis was
58 d 300 mg OLE during storage was evaluated in soybean oil by peroxide value, TBA value and rancimat th
59 had either no effect, or lowered the OSI of soybean oil by up to 25%, depending on the concentration
66 le standards was evaluated using a commodity soybean oil (CSO) oxidized at 60 degrees C from 0 to 15
67 ), 1 g encapsulated EPA/d plus 14.7 g liquid soybean oil/d (EPA group), and 1 g encapsulated soybean
68 bean oil/d (EPA group), and 1 g encapsulated soybean oil/d plus 14.7 g liquid SDA-enriched soybean oi
69 of 3 treatments for 12 wk: 1 g encapsulated soybean oil/d plus 14.7 g liquid soybean oil/d to be mix
70 ncapsulated soybean oil/d plus 14.7 g liquid soybean oil/d to be mixed in food (control group), 1 g e
74 , dende oil, annatto seed oil, and blends of soybean oil + dende oil and soybean oil + annatto seed o
75 n (0.42 % and 1.0 % w/v) and oil phase type (soybean oil, dende oil, annatto seed oil, and blends of
76 systems to recover bioactive compounds from soybean oil deodorizer distillate, was evaluated for the
79 rol were lowest after the consumption of the soybean-oil diet and semiliquid-margarine diet and highe
80 ds are responsible for the polymerization of soybean oil during frying and heating at 175 degrees C.
84 -free margarines from enzymatically modified soybean oil (EMSO) and mango kernel fat (MKF), and demon
85 porated into the expeller-pressed high oleic soybean oil (EPHOSO) oleogel and their antioxidative act
86 y; superficial structures of the polymerized soybean oil epoxidized acrylate were significantly affec
90 osity of palm stearin and fully hydrogenated soybean oil (FHSBO) mixtures to understand the stability
91 nanoparticles formed from fully hydrogenated soybean oil (FHSO) using a novel green method based on a
93 Soybean oil flavored with rosemary (ROS) and soybean oil flavored with thyme (THY) were subjected to
94 tion to single LOP, the addition of oxidised soybean oil for 24-144 h at 60 degrees C also increased
95 oreover, they could control the oxidation of soybean oil for approximately 10-15 days under accelerat
97 in sunflower oil at all temperatures, while soybean oil generated the highest furan concentration at
98 six commonly used fat/oils in India (refined soybean oil, groundnut oil, olive oil, rapeseed oil, cla
99 in the lipid-free group, 223 (49.5%) in the soybean oil group, 65 (14.4%) in the medium-chain trigly
100 ealed that polyphenol-enriched sunflower and soybean oils had higher overall acceptability than fresh
101 consumption of LA, which was primarily from soybean oil, has likely decreased tissue concentrations
103 acid soybean oil (LoSFA-SO), high-oleic acid soybean oil (HiOleic-SO), low-alpha-linolenic acid soybe
105 LA, consumption of stearidonic acid-enriched soybean oil (if and when it comes to the market), and th
106 l were evaluated as antioxidants in (i) bulk soybean oil, (ii) soybean oil liposomes and (iii) soybea
108 identify the replacement of authentic fat by soybean oil in butter cheese and that the developed mode
110 dose-response relation between the amount of soybean oil in salad dressing and the absorption of 1) c
118 unsaturated fats, especially linoleic acid, soybean oil is assumed to be healthy, and yet it induces
119 ed less insulin resistance than conventional soybean oil, it resulted in hepatomegaly and liver dysfu
120 D include restricting the dose of parenteral soybean oil lipid emulsion and/or replacing the soybean
121 is multifactorial in etiology, components of soybean oil lipid emulsions have been implicated in the
122 s antioxidants in (i) bulk soybean oil, (ii) soybean oil liposomes and (iii) soybean-oil/water emulsi
123 n oil (HiOleic-SO), low-alpha-linolenic acid soybean oil (LoALA-SO), or partially hydrogenated soybea
124 r soybean oil (SO), low-saturated fatty acid soybean oil (LoSFA-SO), high-oleic acid soybean oil (HiO
125 t, with two thirds of the fat contributed as soybean oil (<0.5 g of trans fatty acid per 100 g of fat
127 sed on which vegetable oils replace diverted soybean oil, market responses to coproducts, and the car
131 niversity Health System fully converted to a soybean oil/MCT/olive/fish oil lipid (4-OLE) from pure s
134 shown that linseed, rapeseed, sunflower, and soybean oils naturally contain spermidine and spermine (
135 ferent oils (n-dodecane, n-decane, n-octane, soybean oil, olive oil, tricaprylin) owing to the tricyc
136 crowaving, griddling and frying in olive and soybean oils) on nutritional composition (protein, miner
137 to common soybean and partially hydrogenated soybean oils, on cardiovascular disease risk factors.
138 of total FFA was maintained by coinfusion of soybean oil or lard oil (plus heparin), the more saturat
143 PUFA (975 mg of EPA and 650 mg of DHA) vs a soybean oil placebo matched for taste, smell, and appear
145 Here, we show that the genetically modified soybean oil Plenish, which came on the U.S. market in 20
146 n-coconut oil (saturated fats), conventional soybean oil (polyunsaturated fats) and a genetically mod
147 cyclic aromatic hydrocarbons (PAHs) in crude soybean oils produced in Brazil and to evaluate the infl
148 ure suggests mixed lipid emulsions (LE) with soybean oil reduction strategies may improve outcomes.
151 The production of hexanal and 2-hexenal in soybean oil samples was maximal for extracts obtained at
156 ruit rind using sunflower seed oil (SFO) and soybean oil (SBO) as solvents through ultrasound extract
157 palm stearin (PS), palm kernel oil (PKO) and soybean oil (SBO) at certain proportions were formulated
158 d 3 had increasing amounts of algae-meal and soybean oil (SBO) at the expense of FO; diet 4 consisted
159 in palm olein (POo), cocoa butter (COB), and soybean oil (SBO) on liver fat concentration in healthy
161 er subjects consumed the diets enriched with soybean oil, semiliquid margarine, soft margarine, short
162 new method for the quantitative analysis of soybean oil (SO) and sunflower oil (SFO) as adulterants
166 nergy as fat, of which two-thirds was either soybean oil (SO), low-saturated fatty acid soybean oil (
167 ve oil, and 15% fish oil (SMOF) with that of soybean oil (SO)-based lipid emulsion on intrahepatocell
169 ned to receive 1 of 5 different LEs: S [100% soybean oil (SO)], MS [50% medium-chain triglycerides (M
171 (MAG) on the oxidative stability of stripped soybean oil (SSO) and on the antioxidative effectiveness
173 andomized, double-blind, placebo-controlled (soybean oil) study was conducted to examine the effect o
174 compared to pure soybean oil and commercial soybean oil suggested that these W/O nanoemulsions restr
176 r after subjects consumed the unhydrogenated soybean oils than after they consumed the Hydrog-SO diet
179 as to evaluate the ability of SDA-containing soybean oil to increase the omega-3 index [erythrocyte e
180 Potato peel extracts were able to stabilize soybean oil under accelerated oxidation conditions, mini
182 cient models.Across the entire 0-32-g range, soybean oil was linearly related to the chylomicron AUC
186 mulsions of aqueous solutions of glycerol in soybean oil were made and subjected to a temperature inc
192 ared via solvent-thermal treatment of edible soybean oil, which generated glycerol-based polymer as a
193 higher oxidative stability compared to pure soybean oil while three nanoemulsions even exhibited hig
194 bean oil lipid emulsion and/or replacing the soybean oil with a parenteral fish-oil lipid emulsion or
195 The NMR study after the reaction of oxidized soybean oil with acetyl chloride clarified assignments o
196 ify 25 volatiles in oxidized CSO and low-ALA soybean oil with an average relative standard deviation
198 of selectively bred and genetically modified soybean oils with altered fatty acid profiles, relative
200 applied to (i) simulated data, (ii) classify soybean oils with respect to expiration date, and (iii)