Phytase inclusions of 500 and 2000 FTU/kg in maize-based broiler diets impact on growth performance, nutrient utilisation, digestive dynamics of starch, protein (N), sodium and IP6 phytate degradation in the gizzard and four small intestinal segments
暂无分享,去创建一个
[1] P. Plumstead,et al. Impacts of dietary calcium, phytate, and nonphytate phosphorus concentrations in the presence or absence of phytase on inositol hexakisphosphate (IP6) degradation in different segments of broilers digestive tract , 2016, Poultry science.
[2] P. Selle,et al. The Economic Feasibility of Elevated Phytase Inclusions in Maize-Based Broiler Diets , 2016 .
[3] P. Selle,et al. Standard phytase inclusion in maize-based broiler diets enhances digestibility coefficients of starch, amino acids and sodium in four small intestinal segments and digestive dynamics of starch and protein , 2015 .
[4] P. Selle,et al. Effects of 500 and 1000 FTU/kg phytase supplementation of maize-based diets with two tiers of nutrient specifications on performance of broiler chickens , 2015 .
[5] R. Greiner,et al. Performance of Seven Commercial Phytases in an in Vitro Simulation of Poultry Digestive Tract. , 2015, Journal of agricultural and food chemistry.
[6] E. Zeller,et al. Hydrolysis of phytate and formation of inositol phosphate isomers without or with supplemented phytases in different segments of the digestive tract of broilers , 2015, Journal of Nutritional Science.
[7] P. Selle,et al. Phytase supplementation of maize-, sorghum- and wheat-based broiler diets with identified starch pasting properties influences phytate (IP6) and sodium jejunal and ileal digestibility , 2014 .
[8] P. Selle,et al. Effects of phytase supplementation on growth performance, nutrient utilization and digestive dynamics of starch and protein in broiler chickens offered maize-, sorghum- and wheat-based diets , 2014 .
[9] M. Bedford,et al. Influence of superdoses of a novel microbial phytase on growth performance, tibia ash, and gizzard phytate and inositol in young broilers. , 2014, Poultry science.
[10] Anil . Kumar,et al. Effect of calcium level and phytase addition on ileal phytate degradation and amino acid digestibility of broilers fed corn-based diets. , 2014, Poultry science.
[11] W. Gerrits,et al. Improving digestive utilization of fiber-rich feedstuffs in pigs and poultry by processing and enzyme technologies: A review , 2012 .
[12] S. Dalsgaard,et al. Interactions of phytate and myo-inositol phosphate esters (IP1-5) including IP5 isomers with dietary protein and iron and inhibition of pepsin. , 2012, Journal of animal science.
[13] N. Cowieson,et al. Protein–phytate interactions in pig and poultry nutrition: a reappraisal , 2012, Nutrition Research Reviews.
[14] V. Ravindran,et al. Consequences of calcium interactions with phytate and phytase for poultry and pigs , 2009 .
[15] A. Cowieson,et al. Effect of diet containing phytate and phytase on the activity and messenger ribonucleic acid expression of carbohydrase and transporter in chickens. , 2008, Journal of animal science.
[16] J. W. Burton,et al. A simple and rapid procedure for phytate determination in soybeans and soy products , 2005 .
[17] H. Asemota,et al. DIGESTIVE AND ABSORPTIVE ENZYMES IN RATS FED PHYTIC ACID EXTRACT FROM SWEET POTATO (IPOMOEA BATATAS) , 2005 .
[18] M. Christman,et al. Influence of dietary calcium and phytase on phytate phosphorus hydrolysis in broiler chickens. , 2004, Poultry science.
[19] D. Sklan,et al. Nutrient transport in the small intestine: Na+,K+-ATPase expression and activity in the small intestine of the chicken as influenced by dietary sodium. , 2003, Poultry science.
[20] W. Bryden,et al. Total and phytate-phosphorus contents and phytase activity of Australian-sourced feed ingredients for pigs and poultry , 2003 .
[21] A. Therien,et al. Mechanisms of sodium pump regulation. , 2000, American journal of physiology. Cell physiology.
[22] C. Centeno,et al. Phytase and acid phosphatase activities in plant feedstuffs. , 2000, Journal of agricultural and food chemistry.
[23] H. Classen,et al. Phytase activity in the small intestinal brush border membrane of the chicken. , 1998, Poultry science.
[24] W. Bryden,et al. Measurement of endogenous amino acid losses in poultry. , 1993, British poultry science.
[25] B. Luttrell,et al. The biological relevance of the binding of calcium ions by inositol phosphates. , 1993, The Journal of biological chemistry.
[26] M. Mcdonald,et al. Effects of dietary calcium and available phosphorus concentration on digesta pH and on the availability of calcium, iron, magnesium and zinc from the intestinal contents of meat chickens. , 1991, British poultry science.
[27] P. A. Kemme,et al. Improvement of phosphorus availability by microbial phytase in broilers and pigs , 1990, British Journal of Nutrition.
[28] L. M. Potter. Bioavailability of phosphorus from various phosphates based on body weight and toe ash measurements. , 1988, Poultry science.
[29] M. Cheryan,et al. Calcium phytate: Effect of ph and molar ratio on in vitro solubility , 1983 .
[30] D. Ar,et al. Identification and properties of "phytate" in cereal grains and oilseed products. , 1975 .
[31] M. I. Davies,et al. Intestinal alkaline phosphatase and phytase of chicks: effect of dietary magnesium, calcium, phosphorus and thyroactive casein. , 1972, Poultry science.
[32] I. Kleinberg,et al. Effect of pH on calcium binding by phytic acid and its inositol phosphoric acid derivatives and on the solubility of their calcium salts. , 1971, Archives of oral biology.
[33] F. Hill,et al. Comparison of metabolizable energy and productive energy determinations with growing chicks. , 1958, The Journal of nutrition.