Methods in Biotechnology – serie

This authoritative collection of basic and advanced protocols permits biotechnologists to use plants rather than single cell fermentation systems for expressing recombinant proteins. The protocols provide clear step-by-step instructions for the cloning, expression, and analysis of a wide variety of recombinant proteins in plants, and for the cloning of genes into a number of different plant species. The book also describes promising experimental techniques that will become increasingly important in the future, and includes techniques for the characterization of medically important proteins expressed in plants.

A cutting-edge collection of detailed, step-by-step techniques and protocols for constructing, evaluating, and using enzyme- and microbial-based biosensors. Ideal for novices starting research in their field or experienced researchers wanting to use a biosensor for a specific analytical measurement, the methods detailed here allow biochemists, analytical chemists, microbiologists, and engineers to successfully apply biosensor technology to their specific problems. The techniques include classical enzyme biosensors based on potentiometric, amperometric, conductimetric, optical, and thermal transducers, as well cell-based biosensors based on amperometric and optical transducers. A companion volume, Affinity Biosensors: Protocols and Techniques, by Rogers & Mulchandani, concentrates on cell- and affinity-based biosensors.

Leading researchers from around the world present their best genetic, chemical, and analytical techniques for studying specific pollutants and their remediation. Their expert procedures range widely from cell immobilization and screening to microbiological and analytical chemistry methods that are applied to such environmental pollutants as hydrocarbons, PAHs, PCBs, TBT, and heavy metals. These pathbreaking contributors have also included illuminating reviews and case studies intended to expand the useful range of the methods, and they discuss such major issues in bioremediation as the design and use of bioreactors, genetic manipulation, and the preparation and analysis of environmental samples.

It was our intention and goal to bring together m Biopestzcides Use and Delavery the latest advances in the science and technology of the evolving field of biopesticides In the context of crop protectton, btopesttcides are a key component of integrated pest management (IPM) programs, m which biopesticides are delivered to crops m inundative quantities, vs the mocu- tive approach, which is charactertstic of classical biological control. Although there are several definitions of biopesttcides m the literature, we chose to define them as either microbials themselves or products derived from microbials, plants, and other biological entities. In the developed, industrial countries, primarily in Western Europe and the United States, biopesticides are receiving more practical attention, smce they are viewed as a means to reduce the load of synthetic chemical pes- tides m an effort to provide for safer foods and a cleaner envtronment.In the developing countries, biopestictdes are viewed as having the potential to - ploit nattve resources to produce crop protection agents that would replace imported chemical pesticides and conserve much-needed hard currencies These trends are well represented by the dynamic growth of engineered crops expressing the delta-endotoxm insecticidal protem crystals of Bacillus thuringzenszs (B. t ) m corn, cotton, and potatoes and the development of - combinant B. t.

A cutting-edge collection of detailed, step-by-step techniques and protocols for constructing, evaluating, and using affinity-based biosensors. Ideal for novices starting research in their field or experienced researchers wanting to use a biosensor for a specific analytical measurement, the methods detailed here allow biochemists, analytical chemists, microbiologists, and engineers to successfully apply biosensor technology to their specific problems. The techniques include the use of antibodies and membrane receptors to construct optical, thermal, acoustic, and electrochemically based biosensors. Additional techniques involve antibodies, receptors, nucleic acids, liposomes, and eukaryotic cells. A companion volume, Enzyme and Microbial Biosensors: Protocols and Techniques, by Mulchandani & Rogers, concentrates on enzyme-biosensors.

Rajni Hatti-Kaul and her expert coauthors combine theory, methodology, and applications in a practical collection of easily reproducible protocols for bioseparations in aqueous two-phase systems (ATPS). The protocols range from established methods to cutting-edge techniques with potential biotechnological applications. Among the methods detailed are those for ATPS preparation and characterization, for partitioning applied to soluble molecules and particulates (including whole cells, membranes, and organelles), and for the isolation and purification of proteins - including a glimpse of large-scale handling of two-phase separations. Practical and informative, with its detailed guidelines allowing researchers to adapt specific systems to their own separation needs, Aqueous Two-Phase Systems: Methods and Protocols demonstrates the scope and utility of two-phase aqueous systems in both basic and applied research.

A compilation of modern hands-on methods using microbes and enzymes to produce and modify carbohydrates of potential and actual commercial value. These powerful methods enable both the expert and the beginner to generate polysaccharides, oligosaccharides, and carbohydrate-based surfactants by fermentation using enzymes. Additional techniques make it possible to produce derivatives of sugars, other oligosaccharides, and sugar derivatives using enzyme technology. Carbohydrate Biotechnology Protocols offers synthetic chemists, biochemists, fermentation technologists, and applied enzymologists cutting-edge techniques - many of them hitherto unavailable - that are cleaner and often less costly than available chemical alternatives.

Mohamed A. Desai and a team of experienced biotechnologists review both conventional and novel isolation techniques used in industrial applications for the downstream processing of protein molecules. These techniques include primary and secondary separations during the isolation of biomolecules, as well as unique laboratory-scale research methods from academia with a potential for scale-up. Also treated are various strands of the downstream biological process essential for a successful product license application, including both the validation of DSP stages, and the design and validation of viral clearance stages during the purification process. Downstream Processing of Proteins: Methods and Protocols provides scientists everywhere, but particularly in the biopharmaceutical and biotechnology industry, with a much-needed introduction to this critical technology.

Env1r0nmenta1 ha5 m1cr0610109y emer9ed an extreme1y act1ve, - and 1mp0rtant area 0f re5earch dur1n9 the few year5 and ha5 cha1- 1en9ed 50me 10n9-he1d 0f F0r examp1e, the num6er5 0f c010ny-f0rm1n9 un1t5 06ta1ned 0n a9ar med1a have way5 6een a55umed t0 ref1ect the num6er5 0f 6acter1a pre5ent any 91ven 5amp1e. H0wever, n0w kn0wn that many 6acter1a the 1a60rat0ry ad0pt unu5ua1 d0rmant 5tate5 when 5u6jected t0 the nutr1ent-1- c0nd1t10n5 1ted c0mm0n many ec05y5tem5, wh1ch, turn, make5 the5e 6- ter1a t0 cu1ture. 7h15 0ur current t0 cu1ture the va5t maj0r1ty 0f6acter1a kn0wn t0 re51de natura1 env1r0nment5. Kn0- ed9e 0f the pre5ence 0f 50me 5pec1e5 a natura1 env1r0nment can 6e 0f cru- 1mp0rtance, w1th part1cu1ar1y re5pect t0 detect10n 0f path09en1c 0r t0 m0n1t0r1n9 the fate and 0f man1pu1ated 9enet1ca11y 0r9an15m5 w1th1n ec05y5tem5. 7heref0re, there ha5 6een much eff0rt 9enerated t0 dev- new and n0ve1 meth0d5 f0r detect10n, and rec0very 0f cr00r9an15m5 fr0m natura1 ha61tat5. Centra1 t0 many 0f the5e meth0d5 ha5 6een the deve10pment and ap- 0f the techn14ue5 0f 610109y m01ecu1ar t0 env1r0nmenta1 09y. 7he5e have re5u1ted d1rect 0fm1cr061a1 6a5ed 0n DNA w1th0ut the need f0r any cu1ture.7here n0 d0u6t that w0u1d n0t have 6een w1th0ut the rev01ut10n c0mputer techn01- 09y that ha5 t0 the deve10pment 0f data6a5e5 acce55161e h19h1y 0f va5t am0unt5 0f 1nf0rmat10n. M01ecu1ar meth0d5 have 6een harne55ed and exp101ted a150 the deve10pment 0f meth0d5 that ena61e rap1d and aut0mated 0f m1cr00r9an15m5 fr0m natura1 env1r0nment5.

Experienced practitioners present detailed accounts of a wide variety of techniques using supercritical fluids. These range from the supercritical fluid extraction methods for numerous compounds to the ninhydrin staining of fingerprints on checks and banknotes - and from the detection of impurities in pharmaceuticals to a wide variety of applications throughout environmental and food science, and across analytical, clinical, and medicinal chemistry. Detailed step-by-step instructions enable users to apply these essential techniques successfully the first time and include modifications that permit their effective adaptation to novel experimental or process conditions. Versatile and comprehensive, Supercritical Fluid Methods and Protocols offers both novice and experienced investigators and laboratory analysts powerful tools that enable successful biological and bioprocess analyses and optimization today.

Expert laboratorians present a wide ranging set of detailed techniques for investigating the nature, products, and extent of the microorganisms involved in the manufacture and spoilage of foodstuff. The methods cover pathogenic organisms that cause spoilage, microorganisms in fermented foods, and microorganisms producing metabolites that affect the flavor or nutritive value of foods. Included in the section dealing with fermented foods are procedures for the maintenance of lactic acid bacteria, the isolation of plasmid and genomic DNA from species Lactobacillus, and the determination of proteolytic activity of lactic acid bacteria. A substantial number of chapters are devoted to yeasts, their use in food and beverage production, and techniques for improving industrially important strains. Comprehensive and timely, Food Microbiology Protocols is a gold-standard collection of readily reproducible techniques essential for the study of the wide variety of microorganisms involved in food production, quality, storage, and preservation today.

In Enzymes in Nonaqueous Solvents: Methods and Protocols, leading chemists, biochemists, biotechnologists, and process engineers summarize for the first time a wide range of methods for executing enzymatic transformations under nonaqueous conditions. Each method includes detailed step-by-step instructions for its successful completion, a list of materials, and ancillary notes that explain the scientific basis of the procedure, as well as troubleshooting. Also provided are a generic description of key reactions, advice on biocatalyst preparation, discussion of reaction conditions, and instructions on bioreactor design. Comprehensive and state-of-the-art, Enzymes in Nonaqueous Solvents: Methods and Protocols offers today's synthetic chemists, biochemists, and process engineers all the essential information needed to carry out enzymatic reactions in nonaqueous media, as well as to successfully scale up to production quantities.

A collection of readily reproducible techniques for determining most of the important factors governing microorganisms and their habitats. Presented in step-by-step detail, these cutting-edge methods range from those for the study of marine organisms, to those for investigating microorganisms occurring in groundwater, to the biodiversity of yeasts found in remote environments. The novel protocols for studying fermented milks are significant for investigators concerned with milk as an item of food for infants, small children, and even adults. Additional methods for the recovery and determination of nucleic acids and other compounds affecting, and affected by, microorganisms are given for certain enzymes produced by plant pathogens and for obtaining microbial species tolerant of such inhibitors as heavy metals.

The development of biotechnology over the last 20 years and particularly the use of recombinant DNA techniques are expanding the opportunities for human profit of living resources. Microbial Enzymes and Biotransformation provides practical experimental laboratory procedures for a wide range of enzymes and biotransformations mediated by microorganisms. In addition, it provides a step-by-step description of the most recent developments in applied biotechnological processes useful for screening, evolution, production, immobilization, and use of enzymes.

Enzymes and whole cells are able to catalyze the most complex chemical processes under the most benign experimental and environmental conditions. In this way, enzymes and cells could be excellent catalysts for a much more sustainable chemical industry. However, enzymes and cells also have some limitations for nonbiological applications: fine chemistry, food chemistry, analysis, therapeutics, and so on. Enzymes and cells may be unstable, difficult to handle under nonconventional conditions, poorly selective toward synthetic substrates, and so forth. From this point of view, the transformation—from the laboratory to industry—of chemical processes catalyzed by enzymes and cells may be one of the most complex and exciting goals in biotechnology. For many industrial applications, enzymes and cells have to be immobilized, via very simple and cost-effective protocols, in order to be re-used over very long periods of time. From this point of view, immobilization, simplicity, and stabilization have to be strongly related concepts. Over the last 30 years, a number of protocols for the immobilization of cells and enzymes have been reported in scientific literature. However, only very few protocols are simple and useful enough to greatly improve the functional properties of enzymes and cells, activity, stability, selectivity, and related properties.

A comprehensive collection of robust methods for the detection of pesticide compounds or their metabolites useful in food, environmental, and biological monitoring, and in studies of exposure via food, water, air, and the skin or lungs. The readily reproducible methods range from gas and liquid chromatography coupled to mass spectrometry detection and other classic detectors, to capillary electrophoresis and immunochemical or radioimmunoassay methods. The authors have focused on extraction and cleanup procedures, in order to develop and optimize more fullyautomated and miniaturized methods, including solid-phase extraction, solid-phase microextraction, microwave-assisted extraction, and on-line tandem liquid chromatography (LC/LC) trace enrichment, among others. The protocols offer step-by-step laboratory instructions, an introduction outlining the principles behind the technique, lists of the necessary equipment and reagents, and tips on troubleshooting and avoiding known pitfalls.

A collection of readily reproducible classic and emerging molecular methods for the laboratory isolation and identification of the pathogens, viruses, and parasites that cause food-borne disease. Among the pathogens covered are specific bacteria, including Salmonella spp, Campylobacter spp., Listeria spp., and Bacillus spp.;

Phytoremediation: Methods and Reviews presents the most innovative recent methodological developments in phytoremediation research, and outlines a variety of the contexts in which phytoremediation has begun to be applied. A significant portion of this volume is devoted to groundbreaking methods for the production of plants that are able to degrade, take up, or tolerate the effects of pollutants. Phytoremediation: Methods and Reviews adopts a multidisciplinary approach to the examination of principles and practices of phytoremediation, from molecular manipulation to field application.Parts I and II discuss detailed protocols for achieving several different goals of phytoremediation, including enhancing contaminant degradation, uptake, and tolerance by plants; exploiting plant diversity for phytoremedation; modifying contaminant availability; and experimentally analyzing phytoremediation potential. Parts III and IV examine a variety of progressive techniques for phytoremediation and explore their implementation and success on a global scale. This cutting-edge volume highlights the myriad of contexts in which phytoremediation can be applied, and energizes new research by describing ways in which barriers to success have been recently overcome.

Outstanding experts in the use of microorganisms as cell factories describe in step-by-step detail their best laboratory procedures for a wide range of processes and products mediated by microorganisms. The diverse chemicals and biochemicals produced can be used in human health, nutrition, and environmental protection, and include semisynthetic derivatives of cephalosporins, erythromycin, antitumor compounds, plasmids for gene therapy and DNA vaccination , L-lysine, Vitamins B2 and B12, the sweet-tasting protein thaumatin, the carotenoids s carotene and astaxanthin, the polysaccharide gellan, and bacteria-producing bacteria for sausage fermentation, and many more. Also illustrated are the uses of phenylacetyl-CoA catabolon for the enzymatic synthesis of penicillins, aromatic biotransformation, syntheses of novel bioplastics, biosensor design, and the synthesis of drug vehicles. This book offers laboratory and industrial scientists a wealth of readily reproducible techniques for the microbial generation of biochemical products serving human health, nutrition, and environmental protection.

Animal Cell Biotechnology: Methods and Protocols, Second Edition constitutes a comprehensive manual of state-of-the-art and new techniques for setting up mammalian cell lines for production of biopharmaceuticals, and for optimizing critical parameters for cell culture considering the whole cascade from lab to final production. The volume is divided into five parts that reflect the processes required for different stages of production. In Part I, basic techniques for establishment of production cell lines are addressed, especially transduction techniques, cells for gene therapy and antibody production. Part II addresses basic cultivation techniques, such as microcarrier culture and encapsulation.Part III covers cell characterization and analysis, including flow cytometric applications, NMR-based techniques, and biochemical and cytometric techniques. Part IV details cultivation techniques, such as disposable bioreactors, hollow fiber cell culture, fixed bed reactors, and configuration of bioreactors. Part V covers downstream techniques such as membrane filtration techniques, while Part VI describes special applications, including retroviral vectors.Animal Cell Biotechnology: Methods and Protocols, Second Edition provides a compendium of techniques for scientists in industrial and research laboratories that use mammalian cells for biotechnology purposes.

This authoritative collection of basic and advanced protocols permits biotechnologists to use plants rather than single cell fermentation systems for expressing recombinant proteins. The protocols provide clear step-by-step instructions for the cloning, expression, and analysis of a wide variety of recombinant proteins in plants, and for the cloning of genes into a number of different plant species. The book also describes promising experimental techniques that will become increasingly important in the future, and includes techniques for the characterization of medically important proteins expressed in plants.

A cutting-edge collection of detailed, step-by-step techniques and protocols for constructing, evaluating, and using enzyme- and microbial-based biosensors. Ideal for novices starting research in their field or experienced researchers wanting to use a biosensor for a specific analytical measurement, the methods detailed here allow biochemists, analytical chemists, microbiologists, and engineers to successfully apply biosensor technology to their specific problems. The techniques include classical enzyme biosensors based on potentiometric, amperometric, conductimetric, optical, and thermal transducers, as well cell-based biosensors based on amperometric and optical transducers. A companion volume, Affinity Biosensors: Protocols and Techniques, by Rogers & Mulchandani, concentrates on cell- and affinity-based biosensors.

Leading researchers from around the world present their best genetic, chemical, and analytical techniques for studying specific pollutants and their remediation. Their expert procedures range widely from cell immobilization and screening to microbiological and analytical chemistry methods that are applied to such environmental pollutants as hydrocarbons, PAHs, PCBs, TBT, and heavy metals. These pathbreaking contributors have also included illuminating reviews and case studies intended to expand the useful range of the methods, and they discuss such major issues in bioremediation as the design and use of bioreactors, genetic manipulation, and the preparation and analysis of environmental samples.

It was our intention and goal to bring together m Biopestzcides Use and Delavery the latest advances in the science and technology of the evolving field of biopesticides In the context of crop protectton, btopesttcides are a key component of integrated pest management (IPM) programs, m which biopesticides are delivered to crops m inundative quantities, vs the mocu- tive approach, which is charactertstic of classical biological control. Although there are several definitions of biopesttcides m the literature, we chose to define them as either microbials themselves or products derived from microbials, plants, and other biological entities. In the developed, industrial countries, primarily in Western Europe and the United States, biopesticides are receiving more practical attention, smce they are viewed as a means to reduce the load of synthetic chemical pes- tides m an effort to provide for safer foods and a cleaner envtronment.In the developing countries, biopestictdes are viewed as having the potential to - ploit nattve resources to produce crop protection agents that would replace imported chemical pesticides and conserve much-needed hard currencies These trends are well represented by the dynamic growth of engineered crops expressing the delta-endotoxm insecticidal protem crystals of Bacillus thuringzenszs (B. t ) m corn, cotton, and potatoes and the development of - combinant B. t.

A cutting-edge collection of detailed, step-by-step techniques and protocols for constructing, evaluating, and using affinity-based biosensors. Ideal for novices starting research in their field or experienced researchers wanting to use a biosensor for a specific analytical measurement, the methods detailed here allow biochemists, analytical chemists, microbiologists, and engineers to successfully apply biosensor technology to their specific problems. The techniques include the use of antibodies and membrane receptors to construct optical, thermal, acoustic, and electrochemically based biosensors. Additional techniques involve antibodies, receptors, nucleic acids, liposomes, and eukaryotic cells. A companion volume, Enzyme and Microbial Biosensors: Protocols and Techniques, by Mulchandani & Rogers, concentrates on enzyme-biosensors.

Rajni Hatti-Kaul and her expert coauthors combine theory, methodology, and applications in a practical collection of easily reproducible protocols for bioseparations in aqueous two-phase systems (ATPS). The protocols range from established methods to cutting-edge techniques with potential biotechnological applications. Among the methods detailed are those for ATPS preparation and characterization, for partitioning applied to soluble molecules and particulates (including whole cells, membranes, and organelles), and for the isolation and purification of proteins-including a glimpse of large-scale handling of two-phase separations. Practical and informative, with its detailed guidelines allowing researchers to adapt specific systems to their own separation needs, Aqueous Two-Phase Systems: Methods and Protocols demonstrates the scope and utility of two-phase aqueous systems in both basic and applied research.

A compilation of modern hands-on methods using microbes and enzymes to produce and modify carbohydrates of potential and actual commercial value. These powerful methods enable both the expert and the beginner to generate polysaccharides, oligosaccharides, and carbohydrate-based surfactants by fermentation using enzymes. Additional techniques make it possible to produce derivatives of sugars, other oligosaccharides, and sugar derivatives using enzyme technology. Carbohydrate Biotechnology Protocols offers synthetic chemists, biochemists, fermentation technologists, and applied enzymologists cutting-edge techniques-many of them hitherto unavailable-that are cleaner and often less costly than available chemical alternatives.

Mohamed A. Desai and a team of experienced biotechnologists review both conventional and novel isolation techniques used in industrial applications for the downstream processing of protein molecules. These techniques include primary and secondary separations during the isolation of biomolecules, as well as unique laboratory-scale research methods from academia with a potential for scale-up. Also treated are various strands of the downstream biological process essential for a successful product license application, including both the validation of DSP stages, and the design and validation of viral clearance stages during the purification process. Downstream Processing of Proteins: Methods and Protocols provides scientists everywhere, but particularly in the biopharmaceutical and biotechnology industry, with a much-needed introduction to this critical technology.

Env1r0nmenta1 ha5 m1cr0610109y emer9ed an extreme1y act1ve, - and 1mp0rtant area 0f re5earch dur1n9 the few year5 and ha5 cha1- 1en9ed 50me 10n9-he1d 0f F0r examp1e, the num6er5 0f c010ny-f0rm1n9 un1t5 06ta1ned 0n a9ar med1a have way5 6een a55umed t0 ref1ect the num6er5 0f 6acter1a pre5ent any 91ven 5amp1e. H0wever, n0w kn0wn that many 6acter1a the 1a60rat0ry ad0pt unu5ua1 d0rmant 5tate5 when 5u6jected t0 the nutr1ent-1- c0nd1t10n5 1ted c0mm0n many ec05y5tem5, wh1ch, turn, make5 the5e 6- ter1a t0 cu1ture. 7h15 0ur current t0 cu1ture the va5t maj0r1ty 0f6acter1a kn0wn t0 re51de natura1 env1r0nment5. Kn0- ed9e 0f the pre5ence 0f 50me 5pec1e5 a natura1 env1r0nment can 6e 0f cru- 1mp0rtance, w1th part1cu1ar1y re5pect t0 detect10n 0f path09en1c 0r t0 m0n1t0r1n9 the fate and 0f man1pu1ated 9enet1ca11y 0r9an15m5 w1th1n ec05y5tem5. 7heref0re, there ha5 6een much eff0rt 9enerated t0 dev- new and n0ve1 meth0d5 f0r detect10n, and rec0very 0f cr00r9an15m5 fr0m natura1 ha61tat5. Centra1 t0 many 0f the5e meth0d5 ha5 6een the deve10pment and ap- 0f the techn14ue5 0f 610109y m01ecu1ar t0 env1r0nmenta1 09y. 7he5e have re5u1ted d1rect 0fm1cr061a1 6a5ed 0n DNA w1th0ut the need f0r any cu1ture.7here n0 d0u6t that w0u1d n0t have 6een w1th0ut the rev01ut10n c0mputer techn01- 09y that ha5 t0 the deve10pment 0f data6a5e5 acce55161e h19h1y 0f va5t am0unt5 0f 1nf0rmat10n. M01ecu1ar meth0d5 have 6een harne55ed and exp101ted a150 the deve10pment 0f meth0d5 that ena61e rap1d and aut0mated 0f m1cr00r9an15m5 fr0m natura1 env1r0nment5.