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Dairy products coffee

Ion-exclusion chromatography finds numerous applications for identification and determination of acidic species in complex matrix materials, such as dairy products, coffee, wine, beer, fruit juice, and other commercial products which can be quickly analyzed with minimal sample preparation before injection (usually only filtration, dilution, or centrifugation). Organic acid determination is also of great importance in biomedical research (e.g., physiological samples, in which most of the Krebs cycle acids (tricarboxylic acid cycle) are present). [Pg.872]

The intrinsic qualities of coconut oil make it very suitable for household culinary preparations, as frying oil, in non-dairy products, coffee whiteners and... [Pg.194]

The composition of dairy substitutes is highly variable and generally represents the least-cost formulation consistent with consumer acceptance of the product. These imitations invariably have lower fat and protein levels than the dairy products that they are made to resemble. The gross compositions of filled milk, meUorine, synthetic milk, sour cream, coffee whiteners, whipped toppings, and cheese are Hsted in Table 10. A comparison of the composition of certain dairy products and their substitutes is presented in Table 11. [Pg.443]

Trichloroethylene has been detected in dairy products (milk, cheese, butter) at 0.3-10 pg/kg (0.3-10 ppb), meat (English beef) at 12-16 ppb, oils and fats at 0-19 ppb, beverages (canned fruit drink, light ale, instant coffee, tea, wine) at 0.02-60 ppb, fruits and vegetables (potatoes, apples, pears, tomatoes) at 0-5 ppb, and fresh bread at 7 ppb (McConnell et al. 1975). Samples obtained from a food processor in Pennsylvania contained trichloroethylene concentrations of 68 ppb in plant tap water, 28 ppb in Chinese-style sauce,... [Pg.219]

Diet. Purine (cell nuclei)-rich foods should be avoided, e.g., organ meats. Milk, dairy products, and eggs are low in purines and are recommended. Coffee and tea are permitted since the meth-ylxanthine caffeine does not enter purine metabolism. [Pg.316]

Coffee and dairy products may decrease the absorption of oral zinc sulfate capsules and tablets... [Pg.1321]

That not all dairy products have the same effect on disease risk has been shown in a study from Finland. In this study, reported cream intake was surprisingly inversely related to ischemic stroke, while intakes of other dairy products were not (Larsson et al., 2009). Further analyses in the Rotterdam study revealed that milk and milk products (all kinds of milk, yogurt, coffee creamer, custard, curd, pudding, porridge, and cream) were inversely related to hypertension during follow-up, while high-fat dairy products (above 3.5% fat) were not (Engberink et al., 2009). [Pg.22]

An example of a product that has had styrene taint problems over the years has been dairy products such as coffee creamer and condensed milk packed in thermo-formed PS single serve portion pack containers holding 5-10 g of product. The high package mass and surface area ratio to product and high fat content of the product make this package/product system a challenging system to optimize. [Pg.431]

The fat content of cream products varies from about 10-50%. Products with a low, internationally not-yet standardized, fat content are coffee cream (>10% fat, Germany), half-and-half cream (>10.5% fat, USA), half cream (>12% fat, UK) or light cream (>12% fat, France). Traditional whipping cream has 30 to 40% fat, whereas double cream contains about 50% fat. Creams of high fat content are also essential ingredients in dairy or non-dairy products such as some fresh cheese varieties or... [Pg.365]

While flavor defects are the most likely result of lipolysis in dairy products, several other practical problems may arise from an elevated level of FFAs. The most common of these is lack of foaming of pasteurised milk for cappuccino-style coffee (IDF, 1987). Reduced efficiency of skimming of raw milk and reduced churning efficiency in cream may be associated with lipolysis, especially where excessive agitation or pumping causes damage to the milk fat globule membrane. [Pg.516]

Flavor preparations typical of particular varieties of cheese can be produced with the aid of lipases of appropriate specificities (Kilara, 1985). Such flavors are used in processed cheeses, dips and spreads (Jolly and Kosikowski, 1975b). Controlled lipolysis of milk fat is also used to produce creamy and buttery flavors for bakery and cereal products, confectionery (milk chocolate, fudge), coffee whiteners, and other imitation dairy products (Arnold et al., 1975 Fox, 1980 Kilara, 1985). [Pg.518]

Multidimensional techniques are regularly used in analytical assessments of measurement data relating to the levels of chemical elements in the quality control of animal and plant food products. Chemometric interpretations have been obtained for the following animal products meat and meat products [316-318], fish [319-321], seafood [25, 322-328], milk and dairy products [329-332] and honey [333-339]. Similar interpretations have been obtained for the following plant products rice [143], cereals [340], vegetables [140, 341-346], fruit and fruit preserves [347], tea [155, 348-350], coffee [13, 155, 351, 352], mushrooms [26], fruit juices [141], confectionery [21, 353], nuts [354], wine [355-358], beer [66, 359] and other alcoholic beverages [159, 360, 361]. [Pg.220]

Microparticulated Protein Simplesse Baked goods, milk/dairy products, salad dressings, frozen desserts, mayonnaise-type products, margarine-type products, coffee creamer, soups, sauces... [Pg.1889]

The analysis of natural compounds in foods is also assisted by the use of the purge and trap technique in methods for distinguishing strawberry varieties [100] the aroma of unprocessed foods including gherkin [101], durian [102], garlic [103] and meat [104-107] cheese [108,109] and other dairy products [110] tobacco, tea and coffee [111,112] and peanuts [112]. Food additives including sulphur dioxide [113,114] and food contaminants such as VOCs [115-126], have been recovered by PT, particularly from table-ready foods. Animal [127,128] and plant tissues [129,130] have also been subjected to PT for separation of volatile compounds. [Pg.125]

The most widely used flavour types for neutral dairy products are vanilla and chocolate. Caramel, butterscotch, coffee etc. are also being used. [Pg.546]

Potatoes have been found to deliver 18%, bread and pastry 16%, greens 14%, fruits 13%, dairy products 12%, sausage 8.8%, meat 7.6%, beer 3.6% (women 0.6%, men 6.6%) and juice 3.4% (women 4.3%, men 2.5%) of K to the dietary intake, while fish, eggs, jam, sugar, spread fat, coffee, tea, cola, lemonade and wine contribute insignificantly to potassium intake (Anke 2003). [Pg.532]

Products and Uses The newest artificial sweetener in beverage mixes, chewing gum, instant coffee, tea, dry dairy products, dry puddings, desserts, and table-top sweetener. Used as a nonnutritive sweetener (approximately 24% of the sweetener market). [Pg.35]

Products and Uses Artificial sweetener in beverages (carbonated and dry base), breath mints, cereals, chewable multivitamins, chewing gum, coffee (instant dry base), frozen stick confections, dairy product topping, fruit flavored drinks and ades, fruit juice based drinks, puddings, and tea. As a flavor enhancer, sugar substitute (approximately 71% of market). [Pg.51]

The calcium in food can complex with tetracycline to reduce its absorption. This is particularly notable with dairy products, which can reduce the absorption of the tetracyclines by up to 80%, thereby reducing or even abolishing their therapeutic effects. Doxyeyeline and minocycline are less affected by daily products (25 to 30% reduction). Orange juice and coffee do not interact with tetracycline. [Pg.347]


See other pages where Dairy products coffee is mentioned: [Pg.442]    [Pg.450]    [Pg.6]    [Pg.131]    [Pg.568]    [Pg.19]    [Pg.373]    [Pg.164]    [Pg.148]    [Pg.19]    [Pg.194]    [Pg.148]    [Pg.224]    [Pg.1264]    [Pg.264]    [Pg.181]    [Pg.914]    [Pg.1216]    [Pg.250]    [Pg.164]    [Pg.115]    [Pg.73]    [Pg.238]    [Pg.206]    [Pg.128]    [Pg.179]    [Pg.128]    [Pg.451]    [Pg.289]   
See also in sourсe #XX -- [ Pg.224 ]




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