Register      Login
Crop and Pasture Science Crop and Pasture Science Society
Plant sciences, sustainable farming systems and food quality

Articles citing this paper

Synthesis of microbial protein in the rumen. II. A response to higher volatile fatty acids

ID Hume
21(2) pp.297 - 304


57 articles found in Crossref database.

Effect of Carbon-4 and Carbon-5 Volatile Fatty Acids on Growth of Mixed Rumen Bacteria In Vitro
Russell J.B., Sniffen C.J.
Journal of Dairy Science. 1984 67(5). p.987
Recent Developments in Ruminant Nutrition (1981)
THOMAS P.C., ROOK J.A.F.
Effects of Dietary-SCFA on Microbial Protein Synthesis and Urinal Urea-N Excretion Are Related to Microbiota Diversity in Rumen
Lu Zhongyan, Shen Hong, Shen Zanming
Frontiers in Physiology. 2019 10
Untersuchungen zur Prüfung des Futterwertes von Strohmaterialien im in vitro-System
Hasselmann L., Bergner H.
Archiv für Tierernaehrung. 1979 29(6). p.373
Effects of isovalerate on ruminal fermentation, urinary excretion of purine derivatives and digestibility in steers
Liu Q., Wang C., Huang Y. X., Dong K. H., Yang W. Z., Zhang S. L., Wang H.
Journal of Animal Physiology and Animal Nutrition. 2009 93(6). p.716
Tetrahydrofolate and other growth requirements of certain strains of Ruminococcus flavefaciens
Slyter L L, Weaver J M
Applied and Environmental Microbiology. 1977 33(2). p.363
Ruminal volatile fatty acids and ammonia in cattle grazing dry tropical pastures
Playne M. J., Kennedy P. M.
The Journal of Agricultural Science. 1976 86(2). p.367
The effect of cold exposure of sheep on digestion, rumen turnover time and efficiency of microbial synthesis
Kennedy P. M., Christopherson R. J., Milligan L. P.
British Journal of Nutrition. 1976 36(2). p.231
Microbial Ecology and Activities in the Rumen: Part I
Hobson P. N., Wallace R. J., Bryant Marvin P.
CRC Critical Reviews in Microbiology. 1982 9(3). p.165
The digestive tract and digestive function in the North American porcupine and beaver
Vispo Conrad, Hume Ian D.
Canadian Journal of Zoology. 1995 73(5). p.967
A note on the response of store lambs to iso-nitrogenous diets containing rapeseed meal or fish meal
Tan P. V., Bryant M. J.
Animal Science. 1991 52(2). p.395
Net Amino Acid Absorption in Steers Fed Alfalfa Hay Cut at Two Stages of Maturity
Sniffen C.J., Jacobson Don R.
Journal of Dairy Science. 1975 58(3). p.371
Variability and Potential of Seaweeds as Ingredients of Ruminant Diets: An In Vitro Study
de la Moneda Ana, Carro Maria Dolores, Weisbjerg Martin R., Roleda Michael Y., Lind Vibeke, Novoa-Garrido Margarita, Molina-Alcaide Eduarda
Animals. 2019 9(10). p.851
Complexes of urea and formaldehyde as non-protein nitrogen compounds in ruminant rations: A review
Makkar H.P.S., Lall D., Negi S.S.
Animal Feed Science and Technology. 1988 20(1). p.1
Effects of isobutyrate on rumen fermentation, lactation performance and plasma characteristics in dairy cows
Liu Q., Wang C., Yang W.Z., Zhang B., Yang X.M., He D.C., Zhang P., Dong K.H., Huang Y.X.
Animal Feed Science and Technology. 2009 154(1-2). p.58
Carbohydrate digestion and glucose supply in the gut of the ruminant
Sutton J. D.
Proceedings of the Nutrition Society. 1971 30(3). p.243
Supplementation of Dairy Cow Diets with Ammonium Salts of Volatile Fatty Acids
Peirce-Sandner S.B., Papas A.M., Rogers J.A., Sweeney T.F., Cummins K.A., Conrad H.R., Muller L.D.
Journal of Dairy Science. 1985 68(11). p.2895
Growth Factor Requirements of Ruminal Cellulolytic Bacteria Isolated from Microbial Populations Supplied Diets With or Without Rapidly Fermentable Carbohydrate
Slyter L. L., Weaver J. M.
Applied Microbiology. 1971 22(5). p.930
Effects of Feeding or Infusing Ammonium Salts of Volatile Fatty Acids on Ruminal Fermentation, Plasma Characteristics, and Milk Production of Cows
Klusmeyer T.H., Clark J.H., Vicini J.L., Murphy M.R., Fahey G.C.
Journal of Dairy Science. 1987 70(1). p.50
Influence of Urea, Biuret and Starch on Amino Acid Patterns in Ruminal Bacteria and Blood Plasma and on Nitrogen Balance of Steers Fed High Fiber Purified Diets
Slyter L.L., Oltjen R.R., Williams E.E., Wilson R.L.
The Journal of Nutrition. 1971 101(7). p.839
Microbial protein synthesis
Thomas P. C.
Proceedings of the Nutrition Society. 1973 32(2). p.85
The nutritive value of botanically defined mill fractions of barley
Knudsen K. E. Bach, Wolstrup J., Eggum B. O.
Zeitschrift für Tierphysiologie Tierernährung und Futtermittelkunde. 1984 52(1-5). p.182
Influence of nitrogen source on the fermentation of fibre from barley straw and sugarbeet pulp by ruminal micro-organismsin vitro
Ranilla M. J., Carro M. D., López S., Newbold C. J., Wallace R. J.
British Journal of Nutrition. 2001 86(6). p.717
Effect of supplementing a fibre basal diet with different nitrogen forms on ruminal fermentation and microbial growth in an in vitro semi-continuous culture system (RUSITEC)
Carro M. D., Miller E. L.
British Journal of Nutrition. 1999 82(2). p.149
Effect of forage to concentrate ratio in the diet on ruminal fermentation and digesta flow kinetics in sheep offered food at a fixed and restricted level of intake
Carro M. D., Valdés C., Ranilla M. J., González J. S.
Animal Science. 2000 70(1). p.127
Effects of Isoacids, Urea, and Sulfur on Ruminal Fermentation in Sheep Fed High Fiber Diets
Brondani A., Towns R., Chou K., Cook R.M., Barradas H.
Journal of Dairy Science. 1991 74(8). p.2724
Influence of protein fermentation and carbohydrate source on in vitro methane production
Vanegas J. L., González J., Carro M. D.
Journal of Animal Physiology and Animal Nutrition. 2017 101(5).
Quantitative studies of food protein degradation and the energetic efficiency of microbial protein synthesis in the rumen of sheep given chopped lucerne and rolled barley
Mathers J. C., Miller E. L.
British Journal of Nutrition. 1981 45(3). p.587
Recent Advances in Animal Nutrition – 1977 (1977)
THOMAS P.C., ROOK J.A.F.
In vitro ruminal fermentation and methane production of different seaweed species
Molina-Alcaide E., Carro M.D., Roleda M.Y., Weisbjerg M.R., Lind V., Novoa-Garrido M.
Animal Feed Science and Technology. 2017 228 p.1
Der Einfluß von formaldehydbehandeltem Kasein und Sojaschrot auf die mikrobiellen Protein‐Umsetzungen in den Vormägen und die Aminosäure‐Versorgung im Darm der Milchkuh1
Hagemeister H., Pfeffer E.
Zeitschrift für Tierphysiologie Tierernährung und Futtermittelkunde. 1973 31(1-5). p.275
Effect of quantity and source of rumen nitrogen on the efficiency of microbial protein synthesis in steers consuming tropical forage
Bowen M. K., Poppi D. P., McLennan S. R.
Animal Production Science. 2018 58(5). p.811
Effects of 2-methylbutyrate on rumen fermentation, ruminal enzyme activities, urinary excretion of purine derivatives and feed digestibility in steers
Wang C., Liu Q., Pei C.X., Li H.Y., Wang Y.X., Wang H., Bai Y.S., Shi Z.G., Liu X.N., Li P.
Livestock Science. 2012 145(1-3). p.160
Microbial Ecology and Activities in the Rumen: Part II
Hobson P. N., Wallace R. J., Bryant Marvin P.
CRC Critical Reviews in Microbiology. 1982 9(4). p.253
Effects of isobutyrate on rumen fermentation, urinary excretion of purine derivatives and digestibility in steers
Liu Qiang, Wang Cong, Huang YingXiang, Dong KuanHu, Wang Hao, Yang WenZhu
Archives of Animal Nutrition. 2008 62(5). p.377
Significance to the host of changes in fermentation activity
Thomas P. C., Clapperton J. L.
Proceedings of the Nutrition Society. 1972 31(2). p.165
Kikuyu (Pennisetum clandestinum) pasture for sheep. 2. Production and nutritional status of ewes with or without lupin (Lupinus albus) supplementation
Brand T. S., Franck F., Coetzee J.
New Zealand Journal of Agricultural Research. 1999 42(4). p.467
Use of tomato and cucumber waste fruits in goat diets: effects on rumen fermentation and microbial communities in batch and continuous cultures
SOTO E. C., KHELIL H., CARRO M. D., YAÑEZ-RUIZ D. R., MOLINA-ALCAIDE E.
The Journal of Agricultural Science. 2015 153(2). p.343
Production of volatile fatty acids in two species of wallaby and in sheep
Hume I.D.
Comparative Biochemistry and Physiology Part A: Physiology. 1977 56(3). p.299
Isoacids in ruminant nutrition: Their role in ruminal and intermediary metabolism and possible influences on performances — A review
Andries J.I., Buysse F.X., De Brabander D.L., Cottyn B.G.
Animal Feed Science and Technology. 1987 18(3). p.169
Ruminal fermentation and degradation patterns, protozoa population and urinary purine derivatives excretion in goats and wethers fed diets based on olive leaves1
Yáñez Ruiz D. R., Martín García A. I., Moumen A., Molina Alcaide E.
Journal of Animal Science. 2004 82(10). p.3006
Forage in Ruminant Nutrition (1990)
Urea supplementation compared with pretreatment. 1. Effects on intake, digestion and live-weight change by sheep fed a rice straw
Djajanegara A., Doyle P.T.
Animal Feed Science and Technology. 1989 27(1-2). p.17
Ruminal fermentation, microbial growth and amino acid flow in single-flow continuous culture fermenters fed a diet containing olive leaves
Molina-Alcaide E., Martín-García A. I., Moumen A., Carro M. D.
Journal of Animal Physiology and Animal Nutrition. 2010 94(2). p.227
Protein nutrition of growing lambs
Kempton T. J., Nolan J. V., Leng R. A.
British Journal of Nutrition. 1979 42(2). p.303
Determination of rumen microbial growth in vitro from32P-labelled phosphate incorporation
Van Nevel C. J., Demeyer D. I.
British Journal of Nutrition. 1977 38(1). p.101
Recent Developments in Ruminant Nutrition (1981)
BROSTER W.H., OLDHAM J.D.
Branched Chain Fatty Acids (Isoacids) And Valeric Acid For Ruminants12
Muller Lawrence D.
The Professional Animal Scientist. 1987 3(1). p.9
The relationship between rumen bacterial growth, intake of dry matter, digestible organic matter and volatile fatty acid production in buffalo (Bos bubalis) calves
Singh U. B., Verma D. N., Varma A., Ranjhan S. K.
British Journal of Nutrition. 1977 38(3). p.335
Influence of the pattern of peptide supply on microbial activity in the rumen simulating fermenter (RUSITEC)
Russi Juan P., Wallace R. John, Newbold C. James
British Journal of Nutrition. 2002 88(1). p.73
Quantitative studies on nitrogen metabolism in the bovine rumen
Mangan J. L.
British Journal of Nutrition. 1972 27(2). p.261
Efficiency of rumen microbial protein synthesis in cattle grazing tropical pastures as estimated by a novel technique
Bowen M. K., Poppi D. P., McLennan S. R.
Animal Production Science. 2017 57(8). p.1702
Effects of Canola Meal Treated with Acetic Acid on Rumen Degradation and Intestinal Digestibility in Lactating Dairy Cows
Khorasani G.R., Robinson P.H., Kennelly J.J.
Journal of Dairy Science. 1993 76(6). p.1607
Reassessment of Efficiency of Synthesis of Microbial Matter in the Rumen
Czerkawski J.W.
Journal of Dairy Science. 1978 61(9). p.1261
Determination of nitrogen requirement for microbial growth from the effect of urea supplementation of a low N diet on abomasal N flow and N recycling in wethers and lambs
Allen Sarah A., Miller E. L.
British Journal of Nutrition. 1976 36(3). p.353
Studies on the Activity of Rumen Protozoa: I. Role of Ammonium Ions and Free Amino Acids in the Regulation of Nitrogen Metabolism in Rumen protozoa*
Ahuja S. P., Sarmah T. C.
Zentralblatt für Veterinärmedizin Reihe A. 1979 26(6). p.482
Effect of either once or twice daily concentrate supplementation of wheat straw on voluntary intake and digestion in sheep
Castro T, Manso T, Mantecón A.R, Carro M.D
Small Ruminant Research. 2002 46(1). p.43

Committee on Publication Ethics


Abstract Export Citation Get Permission