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1 ntrol (LFC; 25% total fat, 10% from olive or canola oil).
2 rent trend aimed at replacing olive oil with canola oil.
3 leate, which behaved in a similar fashion to canola oil.
4 action of edible vegetable oils particularly canola oil.
5 ntly improved frying performance compared to canola oil.
6 oxidative deterioration compared to original canola oil.
7 ical evidence for changes in EFA content for canola oil.
8 rapid determination (45s) of erucic acid in canola oil.
9 of Fe(CUDB)(2) was found to be 2.8 mg/mL in canola oil.
10 ternal aqueous phase on the stabilization of canola oil.
11 s such as vinegar, and omega-3-rich fish and canola oils.
13 s had little effect on polymorphism, whereas canola oil accelerated the form II-to-III-to-IV transiti
14 ated soybean oils, compared with soybean and canola oils, adversely altered the lipoprotein profile i
17 by enzymatic transesterification, exploring canola oil and naturally occurring antioxidants such as
18 ither a low-carbohydrate vegan diet, high in canola oil and plant proteins, or a vegetarian therapeut
19 eriod, the amount of HNE detected in regular canola oil and the fortified sample was at 5.7 and 2.5mu
21 ntrol (HFC; 37% total fat, 10% from olive or canola oil); and 4) low-fat control (LFC; 25% total fat,
22 er oil; 14 h after cocoa utter, coconut oil, canola oil, and menhaden oil (eicosapentaenoic acid); an
25 of alpha-linolenic acid in soy and rapeseed (canola) oils, are thought to have cardioprotective effec
27 rade vegetative oils (Coconut oil, Corn oil, Canola oil, Avocado oil, Sunflower oil, Olive oil, and S
28 bjective of the present study was to prepare canola oil based vitamin E nanoemulsions by using food g
29 trated the combination of black pepper and a canola oil-based emulsion synergistically enhanced carot
30 ND) group increased intakes of whole grains, canola oil, berries, and fish, whereas the control diet
31 y examines the co-extrusion encapsulation of canola oil by alginate, with an antioxidant (quercetin)
32 xicity, leading, for example, development of Canola oil (Canadian oil low in erucic acid) from rapese
33 0 g/3000 kcal) in beverages: 1) conventional canola oil (Canola; n-9 rich), 2) high-oleic acid canola
35 d OHE, respectively) on thermal stability of canola oil (CO) and high oleic sunflower oil (HOSO) duri
36 virgin olive oil (EVOO), peanut oil (PO) and canola oil (CO), and compared for diverse chemical compo
38 o with added magnesium (0, 200, 400mg/L) and canola oil/coffee creamer, at varying bile extract (1 or
39 o not support a beneficial effect of chronic canola oil consumption on two important aspects of AD pa
40 esidual tocopherol and hydroxynonenal (HNE), canola oil containing the formulated antioxidant was twi
41 ive or not receive supplemental arginine and canola oil (containing both omega-3 and omega-9 fatty ac
42 A (6 mug retinyl palmitate/g body weight) or canola oil (control), both containing 1.8 muCi of [(3)H]
44 oncentration of zinc in various edible oils (canola oil, corn oil, hazelnut oil, olive oil, and sunfl
46 c acid reactive substances (TBARS) values in canola oil during 14 days of 50 degrees C storage were n
48 1) vegetable salad (control), (2) salad with canola oil emulsion (COE), (3) salad with black pepper (
53 hich substituted omega-3-fatty-acid-enriched canola oil for the traditionally consumed omega-9 fatty-
54 eived 5 1-g capsules of KS oil or a control (canola oil) for 8 wk and crossed over to another treatme
56 ed in flaxseed oil (FXCO) or high-oleic acid canola oil (HOCO) compared with a Western diet (WD) and
57 s against a panel of fat-soluble vitamins in canola oil, identifying a sensor which responds to beta-
58 Consumption of CanolaDHA, a novel DHA-rich canola oil, improves HDL cholesterol, triglycerides, and
59 ever, no data are available on the effect of canola oil intake on Alzheimer's disease (AD) pathogenes
61 Dietary supplementation with L-arginine and canola oil is a safe, inexpensive, and unique treatment,
62 acid from safflower oil, linolenic acid from canola oil, lauric acid from coconut oil, and palmitic a
63 purpose, the pseudoternary phase diagrams of canola oil/lecithin:n-propanol/water microemulsions in t
64 50 g fat from high-oleic acid safflower and canola oils (monounsaturated fatty acid; MUFA), MUFA + 3
65 ng DPPH activity and antioxidant activity in canola oil of a compound or a mixture of compounds are n
66 venging activity and antioxidant activity in canola oil of alpha-terpinene, BHT (butylated hydroxytol
68 diets were enriched with corn oil (omega-6), canola oil (omega-3 and omega-9), fish oil (omega-3) or
69 d the effect of chronic daily consumption of canola oil on the phenotype of a mouse model of AD that
70 ALA intake (equivalent to one tablespoon of canola oil or 0.5 ounces of walnut) was associated with
71 nolenic acid (ALA; MUFA + ALA) from high-ALA canola oil, or MUFA + 4.0 g both eicosapentaenoic acid (
75 S/MS method was applied to freshly extracted canola oil samples as well as commercially available can
76 s a novel method to determine erucic acid in canola oil samples by using Raman spectroscopy and chemo
81 ow as 5% of lard and beef tallow spiked into canola oil, thus illustrating possible applications in I
85 ed extract at 1500 ppm during the storage in canola oil was investigated and compared to unencapsulat
88 oil, a high oleic acid canola cultivar, and canola oil were evaluated as replacers of fish oil at th
89 a oil (Canola; n-9 rich), 2) high-oleic acid canola oil with docosahexaenoic acid (CanolaDHA; n-9 and
90 nflower oil (SFO), and a mixed seed oil (SFO/canola oil) with added dimethylpolysiloxane (SOX) or nat