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Fatty acid protein

Synthesis of glycogen, fatty acids, protein, and nucleic acids does not occur in the RBC however, some lipids (eg, cholesterol) in the red cell membrane can exchange with corresponding plasma lipids. [Pg.612]

Biotin is involved in many carboxylation and decarboxylation reactions in carbohydrate, fatty acid, protein, and nucleic acid metabolism. Milk is a fairly good source of this vitamin, generally providing about 3/xg/100 g. Pasteurization has a minimal effect on the biotin content of milk. [Pg.368]

Naturally occurring fats contain small amounts of soluble minor consituents pigments (carotenoids, chlorophyll, etc.), sterols (phytosterols in plant fats, cholesterol in animal fats), vitamin A (from carotenes), vitamin D (calciferol), waxes (esters of long-chain alcohols and fatty acids), ethers, and degradation products of fatty acids, proteins, and carbohydrates. Most of these minor compounds are removed in processing, and some are valuable by-products. [Pg.169]

Macronutrients are carbohydrates (sugars and starches), fats (including essential fatty acids), proteins (including essential amino acids), and fiber. [Pg.69]

Petit, H.V., Tremblay, G.F., Tremblay, E., and Nadeau, P. 2002. Ruminal biohydrogenation of fatty acids, protein degradability, and dry matter digestibility of flaxseed treated with different sugar and heat combinations. Can. J. Anim. Sci. 82, 241-250. [Pg.90]

Natural Rubbers (NR). The chemical name for NR is polyisoprene, which is a homopolymer of isoprene. It has the cis-1,4 configuration. In addition, the polymer contains small amounts of non-rubber substances, notably fatty acids, proteins, and resinous materials that function as mild accelerators and activators for vulcanization. Raw materials for the production of NR must be derived from trees of the Hevea Brasiliensis species. NR is available in a variety of types and grades, including smoked sheets, air-dried sheets, and pale crepes. [Pg.32]

Acetyl-CoA is produced from fatty acids, proteins, and carbohydrates and is a central and major compound in intermediary metabolism. The mechanism of its formation from the degradation of fatty acids and proteins is discussed in Chaps. 13 and 15, respectively here, the means whereby carbohydrates form this most important molecule will be presented. The glycolytic pathway can yield pyruvate from all degradable sugars, and this can be converted to acetyl-CoA. Pyruvate enters the mitochondrial matrix and is the substrate for the multienzyme complex pyruvate dehydrogenase. [Pg.352]

Black PN, DiRusso CC. Transmembrane movement of exogenous long-chain fatty acids proteins, enzymes, and vectorial esterification. Microbiol. Mol. Biol. Rev. 2003 67 454-472. [Pg.889]

J. H. Schulman and M. Z. Dogan. Discussions Faraday Soc. 16, 158-70 (1954). Film pressure fatty acids, proteins on various salt solutions, applied to tanning. [Pg.435]

The stratum corneum is the outermost layer of the epidermis and has a thickness of 10-15 pm. It is the principal barrier for the transport of most solutes (except for very lipophilic compounds) across the skin. The stratum corneum is a continuous heterogeneous structure that consists of approximately 10-25 layers of closely packed dead keratinized cells (corneocytes) cemented together by intercellular lipids. The intercellular lipids in the stratum corneum are in the form of multiple lamellar bilayers composed mainly of ceramides, cholesterol, and fatty acids. Proteins in the stratum corneum are largely concentrated within the corneocytes as keratin fibrils. The transport of lipophilic compounds across the stratum corneum is related to the intercellular lipids (lipoidal or intercellular pathways). On the other hand, it is believed that the transport of polar and ionic compounds is related to pathways with aqueous properties (the polar or pore pathways) when the stratum corneum is under a hydrated state. ... [Pg.3843]

Let me sum up. A lot of magnesium enzymes are involved in energy production processes, and, many times, a phosphate-dominated molecule called ATP (adenosine triphosphate) and other cofactors are needed. Magnesium is also involved with enzymes in the metabolism of fatty acids, proteins, and carbohydrates. Magnesium is involved with heart health in the sense that it plays an important part in the interaction of... [Pg.108]

Riboflavin is a potent photosensitizer and catalyses a number of oxidative reactions in milk, e.g. fatty acids, proteins (with the formation of 3-methyl thiopropanal from methionine which is responsible for light-induced off-flavour) and ascorbic acid. Milk and dairy products should be protected from light by suitable packaging and exposure to UV light should be minimized. [Pg.132]

Alaiz, M., Hidalgo, F.J., and Zamora, R. 1998. Effect of initial slight oxidation on stability of polynnsatnrated fatty acid/protein mixtures under controUed atmospheres, JAOCS, 75, 1127-1133. [Pg.361]

Bands for S—H, P—H, C=N, and C=0 also appear in the NIR region. Water has several distinct absorption peaks at 1400, 1890,2700, and 2750 nm. These bands enable the determination of hydrocarbons, amines, polymers, fatty acids, proteins, water, and other compounds in a wide variety of materials. [Pg.287]

O—H, and N—H. These bands enable the quantitative characterization of polymers, chemicals, foods, and agricultural products for analytes such as water, fatty acids, proteins, and the like. In many cases, the use of NIR reflectance spectroscopy has been able to replace time consuming, classical wet chemical analyses, such as the Kjeldahl method for protein nitrogen and the Karl Fischer titration for water content. The NIR region has been used for qualitative studies of hydrogen bonding, complexation in organometallic compounds, and solute-solvent interactions because the NIR absorptions are sensitive to intermolecular forces. [Pg.288]

Holmes [74] has isolated a fatty-acid protein complex from human hair that appears to protect the hair during papain digestion (cell membrane complex). Analysis of this complex indicates 20 to 30% fatty acid (lipid material) and 60 to 70% protein, rich in the amino acid lysine. Holmes suggests that this substance is either epicuticle or a fraction of the epicuticle. To avoid confusion, this material should be called either cell membrane complex or a portion of the cell membrane complex, which consists of protein and lipid components. [Pg.81]

Currently microalgae are used as nutrition supplement in special applications like medium quality improvement or the coloring of foods, for example salmon with beta carotene. Nonalimentation appHcations of microalgae include biofertilizers from biochar and cosmetic ingredients for face and skin care [45]. For industrial processes, microalgae are a potential source for fatty acids, proteins, vitamins, and pigments. Recently, they are also discussed for the provision of biofuels [44]. [Pg.69]

A. flos-aquae grows naturally in Upper Klamath Lake, OR, USA. This cyanobacterium contains various nutrients including polyunsaturated fatty acids, protein, carotenoids, vitamins, and minerals and have therapeutic effects [32]. Dried Aphanizomenon cells contained 616 pg of B12 per 100 g when assayed using microbiological method [33]. However, the corrinoid compound purified from these dried cells was identified as pseudo-Bi2 [33]. [Pg.345]

Treatment stacking (Fig. 1) Fatty acid/protein (/ixnol/mg) (mC m P... [Pg.1769]

The oldest form of rubber is natural rubber. The basic elastomer of natural rubber is taken from the latex of the rubber tree (Hevea brasUiensis, Euphorbiacea family). Latex consists of carbohydrates, water, fatty acids, proteins and stearines. The complex composition of latex varies significantly with origin, seasrni, etc. This variation in composition is the main disadvantage when using this material in pharmaceutical products. [Pg.510]

Non-rubbers in the latex include fatty acid, protein, sterols, and esters these remain in the dry rubber. Trace elements include copper, manganese, iron, potassium, and magnesium. The proteins and fatty acids help in the vulcanization reaction. Slight variations in these properties can be expected because the non-isoprenic content will vary. [Pg.1039]

ChoiesteroMatty acid-llpoprotein Compiex H2O. Cholesterol fatty acid > protein... [Pg.7]

Science has found no magic or miracle foods. No one food is a preventive or cure-all for diseases. Foods are important because of their nutrient content and no single food can serve as the source of all the essential nutrients. For example, wheat germ is considered a health food because it is a good source of vitamin E, the B vitamins, calories, essential fatty acids, protein, fiber, and most minerals. However, it lacks calcium, vitamin A, and vitamin C. So, the best way in which to ensure that nutritional requirements are met is to eat a variety of foods from each of the major food groups. [Pg.532]

Also, NAD and NADP are involved in the synthesis of fatty acids, protein, and DNA. For many of these processes to proceed normally, other B-complex vitamins, including vitamin B-6, pantothenic acid, and biotin, are required. [Pg.766]

NAD and NAOP are also mvidved in the synthesis of fatty acids, protein, and DNA. [Pg.1070]

The pigment is prone to discoloration through oxidation in air (Woudhuysen-Keller and Woudhuysen, 1998). Ginm et al. (1999) have shown that the brown layers which form over time are oleresinous layers (copper oleates and copper proteinates), caused by the relative ease of extraction of copper(II) ions fiem verdigris by fatty acids, proteins and waxes present in the binding media or overlying varnishes. [Pg.284]


See other pages where Fatty acid protein is mentioned: [Pg.297]    [Pg.293]    [Pg.35]    [Pg.277]    [Pg.308]    [Pg.233]    [Pg.333]    [Pg.351]    [Pg.375]    [Pg.301]    [Pg.35]    [Pg.189]    [Pg.56]    [Pg.272]    [Pg.1768]    [Pg.315]    [Pg.586]    [Pg.211]    [Pg.3623]    [Pg.272]    [Pg.155]    [Pg.156]   


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Acyl carrier protein fatty acid synthetase

Acyl carrier protein, fatty acid synthase sequence

Adipocyte fatty acid binding protein

Fatty acid binding protein gene (FABP

Fatty acid biosynthesis acyl carrier protein

Fatty acid metabolism acyl carrier proteins

Fatty acid transport protein

Fatty acid transport protein 1 (FATP

Fatty acid-binding protein

Fatty acid-binding protein 3 (FABP

Fatty acid-binding proteins FABPs)

Fatty acid-binding proteins difference

Fatty acid-binding proteins figure

Fatty acid-binding proteins function

Fatty acid-binding proteins heart

Fatty acid-binding proteins intestine

Fatty acid-binding proteins liver

Fatty acid-binding proteins protein folding

Fatty acid-binding proteins structure

Fatty acid-transport protein, membrane

Fatty acids acyl carrier protein

Fatty acids, binding protein branched chain

Fatty acids, binding protein desaturation

Fatty acids, binding protein elongation

Fatty acids, binding protein metabolism, muscle

Fatty acids, binding protein odd-carbon

Fatty acids, binding protein oxidation

Fatty acids, binding protein synthesis, biotin

Fatty acids, binding protein transport, carnitine

Intestinal fatty acid binding protein (IFABP

Intestinal fatty acid-binding protein

Intestine, fatty acid-binding proteins difference

Intestine, fatty acid-binding proteins function

Intestine, fatty acid-binding proteins protein folding

Intestine, fatty acid-binding proteins structure

Lipids fatty acid-binding proteins

Liver-type fatty acid-binding protein

Protein fatty acid condensate

Protein hydrolysate fatty acid

Protein hydrolysate fatty acid condensates

Proteins and Fatty Acids

Soybean fatty acid protein

Sterol regulatory element-binding proteins fatty acid regulator

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