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1 ustry to perform the quality control of this dairy product.
2 modified according to the fat content of the dairy product.
3 loited to increase the functionality of this dairy product.
4 ort on quantification of pepsin diffusion in dairy product.
5 oducts, vegetables and fruits as well as for dairy products.
6 ne (6-MP) in the evening and without food or dairy products.
7 DNA) regions amplified on DNA extracted from dairy products.
8 developed for the analysis of Salmonella in dairy products.
9 ntrations and qualitative characteristics of dairy products.
10 protocols and microbial complexity of these dairy products.
11 eus from other bacteria that can be found in dairy products.
12 ially useful for detection of milk origin in dairy products.
13 tion and investigation of the fatty acids in dairy products.
14 ncentration and determination of melamine in dairy products.
15 ection of plant oil adulteration in milk and dairy products.
16 epared with the same mixes; (iii) commercial dairy products.
17 ped niosomes are suitable additives in these dairy products.
18 n demonstrated in the past but primarily for dairy products.
19 gnificantly impact on the nutritive value of dairy products.
20 Food records provided information on dairy products.
21 preparations to provide two novel functional dairy products.
22 sumption practices that are high in meat and dairy products.
23 ade in small-scale farms and in 57 fermented dairy products.
24 flammatory drugs (NSAIDs) in bovine milk and dairy products.
25 othelial function compared with conventional dairy products.
26 schemes and farming systems producing niche dairy products.
27 tic residues frequently detected in milk and dairy products.
28 in olive oil with fish/seafood and fermented dairy products.
29 ics residues frequently detected in milk and dairy products.
30 trating the ongoing hazards of unpasteurized dairy products.
31 ferentiate porcine and bovine gelatin in the dairy products.
32 for the determination of NSAIDs in milk and dairy products.
33 threshold of </=5.5 per thousand for organic dairy products.
34 total dairy products and sparse for types of dairy products.
35 ics residues frequently detected in milk and dairy products.
36 determination of aflatoxin M(1) in milk and dairy products.
37 s a major cause of digestive discomfort from dairy products.
38 ogether for the determination of melamine in dairy products.
39 ploited to modulate health-promoting fats in dairy products.
40 icillium commune and Mucor racemosus in four dairy products.
41 structure but has not been widely applied to dairy products.
42 t is also used to sterilize the packaging of dairy products.
43 may assist reverse engineering of a range of dairy products.
44 owering of immunity in consumers of meat and dairy products.
45 tial marker to monitor the hygienic level of dairy products.
46 ent milk-clotting agent in the production of dairy products.
47 eic acids (CLA) than conventionally produced dairy products.
48 cids in a typical Western diet that includes dairy products.
49 he highest with the lowest quintile of total dairy products: 1.01; 95% CI: 0.83, 1.34; P-trend = 0.92
52 ges promoted on starch performance from both dairy products addition, at higher level tested (25%): a
53 ables, fruits, legumes, cereals, fish, meat, dairy products, alcohol, and the monounsaturated-to-satu
54 lactose from the diet either by eliminating dairy products altogether or substituting lactose-free a
55 ssfully detected in the gelatin added to the dairy products analyzed, revealing that the detection of
58 antly associated with more servings from the dairy product and the meat, eggs, nuts, and beans food g
60 ve.We studied associations between intake of dairy products and all-cause mortality with an emphasis
61 y, we evaluated 14:0, which is obtained from dairy products and beef, and also endogenously synthesiz
63 etermination of lactate is also important in dairy products and beverages to access their quality.
64 nalysis of prospective studies on intakes of dairy products and calcium and prostate cancer risk.
68 ormed after plasminolysis of genuine WB milk/dairy products and comigrates in IEF with B gamma2-CN.
69 stigate the prospective association of total dairy products and different dairy subtypes with inciden
70 tive was to describe the association between dairy products and direct measures of glycemic status in
72 fully applied to the determination of Tyr in dairy products and fermented drinks with good recoveries
73 aric acid, a saturated fatty acid present in dairy products and fish, inhibits Piezo1 activation and
75 and a C18 isomer found from ruminant-derived-dairy products and meat) on endothelial NF-kappaB activa
77 reduction in hedonic responses to sweetened dairy products and reduced calorific intake, particularl
78 ort a positive association between intake of dairy products and risk of cardiovascular disease (i.e.,
80 , but the evidence is inconclusive for total dairy products and sparse for types of dairy products.
81 The associations between the consumption of dairy products and the risk of hip fracture are less wel
82 association between other specific types of dairy products and the risk of type 2 diabetes and adjus
85 n between intakes of dairy products, low-fat dairy products, and cheese and risk of type 2 diabetes.
87 on of DNA of cow, goat, sheep and buffalo in dairy products, and for quantification of cow DNA in the
89 rition, especially increased intake of milk, dairy products, and other animal proteins during differe
90 diet rich in fruits, vegetables, and low-fat dairy products, and reduced in saturated fat and cholest
93 ight patients were not tolerating almost all dairy products, and there was a high rate of completion
95 nistration should be in a fasted state, with dairy products, antacids, or multivitamins avoided for >
105 olesterol, like meats, egg yolk and high-fat dairy products, are associated with increased CVD risk.
107 ial enzyme for the deterioration of milk and dairy products, as well as a candidate for industrial ap
108 r knowledge regarding the health benefits of dairy products, as well as improved monitoring for food
110 f bovine (B) milk in water buffalo (WB) milk/dairy products based on concomitant isoelectric focusing
112 by dietary components such as meat, fish and dairy products, but only a few studies have compared uri
113 ted in the literature to quantify lactose in dairy products, but the official method of analysis is b
114 approach for the determination of Cr(III) in dairy products by microwave assisted extraction, complex
115 e peptide profile and bioactive potential in dairy products, by increasing the protein content and us
117 e consumption of lactose-containing milk and dairy products can lead to the development of various ga
118 for protein-rich foods, especially meat and dairy products, causing concern about the impact this ma
119 er the ingestion of two solid and isocaloric dairy products (cheese) based either on whey or on casei
120 ), and a higher combined intake of fermented dairy products (cheese, yogurt, and thick fermented milk
121 e the concentrations of some heavy metals in dairy products, collected from five industrial regions i
122 ion studies that have assessed the impact of dairy product consumption (ie, milk, yogurt, and/or chee
125 vious observational studies of self-reported dairy product consumption and stroke risk have reported
130 ated the association of long-term changes in dairy product consumption with subsequent risk of T2D am
131 C-reactive protein, IL-6, or TNF-alpha after dairy product consumption, whereas the other 4 studies s
135 A profiles and UK milk fat intakes, milk and dairy products contribute around one-third of the maximu
137 Strains naturally associated with meat and dairy products contribute towards specific textures and
140 visaged the incorporation of oleuropein into dairy products (cow's milk and yogurt) aiming to produce
141 .93 (0.87, 0.99; I(2) = 33%) per 400 g total dairy products/d (n = 12), 0.98 (0.94, 1.03; I(2) = 8%)
142 1 (0.86, 0.96; I(2) = 40%) per 200 g low-fat dairy products/d (n = 9), 0.87 (0.72, 1.04; I(2) = 94%)
143 8 (0.94, 1.03; I(2) = 8%) per 200 g high-fat dairy products/d (n = 9), 0.91 (0.86, 0.96; I(2) = 40%)
144 y condition (+4 servings conventional nonfat dairy products/d) and isocaloric no-dairy condition (+4
148 troversy persists on the association between dairy products, especially milk, and cardiovascular dise
150 ed into eight categories, namely, beverages, dairy products, fats and oils, fish and shellfish, grain
151 tamin D, sun exposure, vitamin D intake from dairy products, fatty fish consumption, smoking, body ma
152 valuated the protective effects of fermented dairy products (FDPs) in an infection model, using the m
153 To determine the origin of HAAs in milk and dairy products, firstly a chromatographic method was dev
154 igher intakes of fruits, vegetables, low-fat dairy products, fish and nuts, and lower consumption of
156 t diet containing SFA-reduced, MUFA-enriched dairy products for 12 wk showed beneficial effects on fa
158 intake of red meat, processed meat, high-fat dairy products, French fries, refined grains, and eggs.
161 as follows: meat and meat products, milk and dairy products, frozen and processed fruit and vegetable
162 scores for diversity within each food group (dairy products, fruits, vegetables, meat and alternative
163 ML concentration: beef, bacon>chicken > fish>dairy products>grain products>fruits/vegetables.
164 noconversion; however, higher consumption of dairy products had a 2-fold increased risk and may be a
168 Animal species identification of milk and dairy products has received increasing attention concern
169 ntext of dairy foods, particularly fermented dairy products, have neutral or inverse associations wit
171 with exposure to pesticides, consumption of dairy products, history of melanoma, and traumatic brain
172 within each food group, greater diversity in dairy products (HR 0.61 [0.45 to 0.81]), fruits (HR 0.69
173 ns and that the origins of traditional horse dairy products in eastern Eurasia are closely tied to th
175 IBD mothers, and further, that low intake of dairy products in IBD mothers is associated with reduced
179 ssure was increased after the removal of all dairy products in the no-dairy condition (54 +/- 1 to 56
180 at the solitary manipulation of conventional dairy products in the normal routine diet would modulate
182 olled trials (RCTs) has examined the role of dairy products in weight loss and maintenance of healthy
184 ically recommending the daily consumption of dairy products including maas (cultured milk) was introd
185 alternative method to authenticate milk and dairy products including PDO Feta cheese and to quantita
186 trients characteristic of animal (except for dairy) products, including arachidonic acid (standardize
189 observed in the highest quintile of high-fat dairy product intake (HR: 0.92, 95% CI: 0.86, 0.99).
191 ic review and dose-response meta-analysis of dairy product intake and the risk of type 2 diabetes.
192 nsistent findings on the association between dairy product intake and weight change and obesity.
197 tion of cheese intake and combined fermented dairy product intake with diabetes is suggested, which m
201 ated associations of calcium, vitamin D, and dairy product intakes before and after colorectal cancer
204 resence of bacteria such as Brucella spp. in dairy products is an immense risk to public health.
205 The high consumption of low-fat and nonfat dairy products is associated with reduced risk of high b
208 ectional studies suggest that consumption of dairy products is inversely associated with low-grade sy
209 ies indicate that the consumption of milk or dairy products is inversely related to incidence of CVD.
212 egetables, whole grains, low-fat or fat-free dairy products, lean protein sources, nuts, seeds, and l
213 present the food groups; fruits, vegetables, dairy products, legumes, offal, fish, and fortified infa
214 icant inverse association between intakes of dairy products, low-fat dairy products, and cheese and r
215 fish; low to moderate intake of poultry and dairy products; low intake of red and processed meat; an
218 ngs indicate that fatty acid modification of dairy products may have potential as a public health str
219 ome intervention studies have suggested that dairy products may influence body weight, but the result
221 ups of fruits, vegetables, legumes, cereals, dairy products, meat, and offal were analyzed by two LC-
224 egetables, meat and poultry, processed meat, dairy products, milk-based desserts, and starchy foods.
228 e the effect of a probiotic vs non-probiotic dairy product on symptoms in IBS with a constipation ele
229 supporting the beneficial effects of milk or dairy products on bone health show a significant inverse
232 d prostate cancer risk, but whether specific dairy products or calcium sources are associated with ri
233 can be achieved without eliminating meat or dairy products or increasing the cost to the consumer.
234 CI: 0.11, 0.64; Ptrend < 0.001) and low-fat dairy products (OR: 0.39; 95% CI: 0.16, 0.92; Ptrend = 0
235 gnificantly associated with more servings of dairy products (P = 0.001), whereas the risk allele at T
236 inverse associations were observed for total dairy products (P-nonlinearity < 0.0001), low-fat dairy
237 products (P-nonlinearity < 0.0001), low-fat dairy products (P-nonlinearity = 0.06), cheese (P-nonlin
238 importance of pottery vessels in processing dairy products, particularly in the manufacture of reduc
240 and vitamin D, are typically associated with dairy products, plant-based sources of these nutrients a
242 ela cheese, as well as on other high-quality dairy products prone to adulteration, contributing to th
243 (spermidine and spermine) in 112 samples of dairy products purchased in the Czech Republic, namely i
246 hildren through fortification of alternative dairy products results in significantly higher serum con
248 oil, but lower in saturated fat, meats, and dairy products, seems an ideal nutritional model for car
249 5) In conclusion, the nutritional values of dairy products should not be considered equivalent to th
253 k at high intake of high- but not of low-fat dairy products suggests that dairy fat partly could have
255 um and urine metabolomes during postprandial dairy product tests through the association between lact
256 adults consumed fewer vegetables, fruit, and dairy products than did food secure adults and had lower
259 likely to have lactose intolerance and avoid dairy products, the observed association might have been
261 rom environmental matrixes (soil + water) to dairy products through the food web (forage) by a combin
264 ate blends are used in food such as meat and dairy products to improve their texture and stability by
265 flammatory bowel disease (IBD) tend to avoid dairy products to minimize abdominal pain and diarrhea.
266 gate whether the solitary addition of nonfat dairy products to the normal routine diet was capable of
267 beneficial effects of probiotics and low-fat dairy products, to our knowledge, no study has compared
268 e present in readily detectable amounts in a dairy product unless it contains undeclared plant materi
273 ndividual dairy products nor intake of total dairy products was significantly associated with overall
275 at dairy products, but not intake of low-fat dairy products, was associated with less weight gain (P-
276 and >/=4 servings/day with <1 serving/day of dairy products were 0.95 (95% confidence interval (CI):
278 ducts, consumption of vegetables, fruits and dairy products were low compared to recommendations for
280 g); mean concentrations in meat and milk and dairy products were similar (1.43+/-7.21 ng/g and 1.35+/
281 sults suggest that short-term consumption of dairy products, whether low or regular in fat, has no ov
282 etabolite (2-hydroxyoestradiol) in different dairy products (whole and skimmed natural yogurt, a prob
283 ts indicate that high consumption of low-fat dairy products, whole grains, and vegetables in adolesce
285 ignificant association of consumption of any dairy product with mortality was found in the fully adju
287 f habitual consumption of total and types of dairy products with markers of metabolic risk and adipos
288 gated associations of consumption of various dairy products with mortality in the Italian cohort of t
290 k than the population mean replaced habitual dairy products with study products (milk, cheese, and bu
293 refined grains, nonjuice fruits, vegetables, dairy products) with odds of insomnia at baseline (betwe
294 t the high-saturated-fat content of full-fat dairy products would promote heart disease, recent meta-
295 e (RDA), through fortification of additional dairy products, would result in higher vitamin D status
299 strains isolated from traditional Mongolian dairy products (yogurt and fermented milk), and to inves
300 For adiposity, an increase in fermented dairy products [yogurt (total or low-fat) or low-fat che