- Acknowledgements
- Aeration
- Aerobes and Effluents
- Anaerobic Digestion
- Analysis of Recombinants
- Annelidic conversion AC
- Applications
- Applying Composting to Waste Management
- Aquatic Phyto Systems APS
- Barriers to uptake
- Basic Principles of Genetic Engineering
- Bioenergy
- Biofilters
- Biological
- Biological Control
- Biosensors
- Biosubstitutions
- Biotechnology and Waste
- Biotechnology Selection
- Biowaste to ethanol
- Case Study 21 Environmental Health Laboratory Middlesborough England
- Case Study 51 Oil Bioremediation Texas USA
- Case Study 61 Mollusc Biofilters Rhode Island USA
- Case Study 91 Engineered Salt Tolerance Rehovot Israel
- Cellulose Ion Exchange Media
- Centralised composting
- Chemical
- Chemistry
- Classifying Pollution
- Clean Technology
- Cloning vectors
- Closing Remarks - 2 3 4 5 6 7 8 9 10
- Composting
- Concentration and containment
- Contaminated Land and Bioremediation
- Contents
- Derived Biofuels Methane biogas
- Desulphurisation of coal and oil
- Diffused air systems
- DNA for transfer
- Ease of control
- Effluent treatment
- Endomycorrhizae
- Environmental Biotechnology
- Enzymes solutions and equipment
- Essential Features of Biological Treatment Systems
- Ethanol fermentation
- Eutrophic fermentation EF
- Factors Affecting the use of Bioremediation
- Foreword
- Fundamentals of Biological Intervention
- Genetic Manipulation
- Genetically Manipulated Organisms
- Glycolysis
- Home composting
- Hydraulic Containment
- Hyperaccumulation
- In Situ and Ex Situ Techniques
- In situ techniques
- Integrated Agricultural Applications
- Integrated Approach
- Intensive and Extensive Technologies
- Introduction to Biotechnology
- Invessel
- Leather industry
- Loading rate
- Low noise
- Macromolecules description and degradation
- Macrophyte Treatment Systems MaTS
- Manipulation of Bacteria by Genetic Engineering
- Mechanical aeration systems
- Metabolic Pathways of Particular Relevance to Environmental Biotechnology
- Metabolism
- Microbes and Metabolism
- Microbial diversity
- Microbial pesticides
- Modalities and local influences
- Moisture content
- Nutrient Film Techniques NFT
- Organic loadings
- Organic Phytoremediation
- Other Biotechnologies
- Other options
- Photosynthesis and the Basis of Phytotechnology
- Physical
- Phytodegradation
- Phytoextraction
- Phytostabilisation
- Phytovolatilisation
- Plant pathogens
- Plant Selection
- Plantmicrobe interactions
- Pollution and Pollution Control
- Pollution Control
- Pollution Control Strategies Dilution and dispersal
- Pollution Detection
- Practical Applications to Pollution Control
- Preface
- Process Changes
- Process disruption
- Process Integration
- Process selection and integration
- Production of Cellular Energy
- Pure Oxygen Systems
- Recombinant Bacteria
- Recombinant Viruses
- Recombinant Yeast
- References - 2 3 4 5 6
- Reporter genes
- Rhizodegradation
- Rhizofiltration
- Semiochemical agents
- Septic tank
- Short rotation coppicing
- Simple biosubstitutions
- Site monitoring for biotechnological applications
- Sludge Disposal
- Solidificationvitrification
- Symbiotic nitrogen fixation
- TCA cycle
- Terrestrial Phyto Systems TPS
- Textile industry
- The carbon sink or energy crop question
- The composting process
- The dark reactions
- The digestion process
- The engineered solution
- The genetic blueprint for metabolic capability
- The Immobilisation Degradation or Monitoring of Pollutants from a Biological Origin
- The light reactions
- The Market for Environmental Biotechnology
- The Nature of Biowaste
- The Nitrogen Cycle
- The players
- The Pollution Environment
- The Role of Environmental Biotechnology
- The Rotating Biological Contactor
- The Scope for
- The Suitability of Bioremediation
- The Way Ahead
- Thermal
- Training Manipulation of Bacteria Without Genetic Engineering
- Transformation of plants
- Transgenic Plants
- Trickling Filters
- Use of remediation techniques
- Using Biological Systems
- Waste Management
- Wholeorganism approaches
- Xenobiotics and Other Problematic Chemicals