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" Biotechnology Research and Applications "
edited by J. Gavora, D.F. Gerson, J. Luong, A. Storer, J.H. Woodley.
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BL
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| Record Number
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775525
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b595520
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| Main Entry
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edited by J. Gavora, D.F. Gerson, J. Luong, A. Storer, J.H. Woodley.
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| Title & Author
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Biotechnology Research and Applications\ edited by J. Gavora, D.F. Gerson, J. Luong, A. Storer, J.H. Woodley.
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| Publication Statement
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Dordrecht : Springer Netherlands, 1988
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| Page. NO
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(321 pages)
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| ISBN
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9400913710
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: 940107111X
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: 9789400913714
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: 9789401071116
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| Contents
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Agricultural Biotechnology --; Genetic Engineering of Rumen Bacteria for Improved Productive Efficiency in Ruminants --; Biotechnology Applied in Animal Vaccine Development and Production --; Applications of Biotechnology to the Diagnoses of Animal Diseases --; Toward Directed Fatty Acid Modification in Oilseeds --; Bioengineering and Bioprocessing --; Observation of a Passible Pause Mutant in the Synthesis and Expression of a Synthetic T4-Lysozyme Gene in E. Coli --; Engineering a Stable Protease --; Computer Applications in Fermentation Research --; Affinity Ultrafiltration for Purifying Specialty Chemicals --; Ammonium Concentration Control in Feb-Batch Fermentations for the Production of Biomass and Enzymes --; Liquid-Liquid Separations in Biotechnology --; The Influence of Bioreactor Design on the Production of High-Quality Polymers --; The Impact of Downstream Recovery Operations on Upstream Production Methods: Vertical Integration and Process Optimization --; Protease Inactivation during Downstream Processing --; The 'Cyclone Column' and Continuous Phased Culture --; Biosensors --; General Aspects of the Use of Sensors in Biotechnology with Special Emphasis on Cell Cultivation --; Receptor Modulated State-Switching of Lipid Membrane Biosensors --; A New Electrochemical Approach for Biosensor Design --; A Stable Enzyme Biosensor for Determination of Glucose --; Selective Biochemical Interactions of Acetylcholine Receptor on the Surface of an Optical Fibre --; The Construction and Application of a Nitrate Ion Sensitive FET (NO3 --; ISFET) --; Use of Protein Coatings on Piezoelectric Crystals for Assay of Gaseous Pollutants --; Biosensors Based on Thermistors and Semiconductors and their Use in Process Monitoring and Control --; Biosensors from Neuroreceptors; what can we Expect to Detect --; Biotechnology and Business --; What Constitutes Patentable Subject Matter in the Field of Biotechnology Invention --; Intellectual Property Protection for New Plant Varieties --; Issues Involving Biotechnology Transfer --; a Nightmare or Dream Come True --; Technology Transfer from University to Industry: Challenges and Opportunities --; Raising Capital --; Initial Investment to Public Issue, and Beyond.
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| Abstract
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Historically, ruminant animals have provided farmers with the ability to utilize marginal lands for the production of high quality food for human consumption. Ruminants are able to derive their nourishment from feeds that are not in themselves capable of meeting the nutritional needs of the animal. They do this by supporting in the rumen, which is a greatly enlarged region of the stomach which precedes the animals digestive system, a microbial fermentation system. This system partially degrades complex polysaccharides and provides to the animal not only the degradation products (chiefly volatile fatty acids), but also secondary microbial metabolites and microbial biomass (most importantly microbial protein, which can be synthetized from inorganic nitrogen sources). A ruminant animal is able to survive, if not thrive, on a diet containing only cellulose, a non-protein nitrogen source such as urea, and trace minerals. The capacity of the rumen to process low quality feeds is limited by factors such as rumen volume, the time required for digestion of these feeds in the rumen, and the ability of the animal to chew the feed. Hodern ruminant animals have been intensively selected for high production potential, but the limited capacity of the rumen fermentation means that this potential cannot be realized by feeding the animal low quality feeds. The high production potential of these animals can only be realized by feeding large amounts of readily digestible, high quality feeds such as oilseed meals and grains.
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| Subject
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Biotechnology.
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Chemistry.
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Morphology (Animals)
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| LC Classification
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TP248.E358 1988
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| Added Entry
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A Storer
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D F Gerson
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J H Woodley
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J Gavora
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J Luong
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