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Molecular Biology development

Morphologists postulated for many years that the transfer of information from DNA to protein involves a form of nuclear RNA that migrates from nucleus to cytoplasm. This hypothesis found some concrete support as molecular biology developed. At first, it was found that a small fraction of bacterial RNA has a base composition identical to DNA in bacteria infected with T phage. The synthesis of DNA-depend-ent RNA was demonstrated in bacterial preparations and in mammalian nuclei. Triphosphate ribosides (UTP, GTP, CTP, and ATP) are required precursors for the synthesis of the new polynucleotide. Double-stranded DNA serves as a template in the reaction, and an RNA polymerase catalyzing the polymerization of the ribonucleotide was partially purified from both the bacterial and mammalian systems. [Pg.118]

In Biosynthesis of the Photosynthetic Apparatus Molecular Biology, Development and Regulation. [Pg.111]

Many biochemical databases with sophisticated topics have been developed for solving various problems. Since 1996 the first issue of each journal volume of Nucleic Acid Research has been reserved for the presentation of molecular biology databases [28]. A comprehensive catalog on the Internet is DBCAT, currently listing 511 databases [29, 30). [Pg.260]

Jones G, P Willett, R C Glen, A R Leach and R Taylor 1997. Development and Validation of a Geneti Algorithm for Flexible Docking. Journal of Molecular Biology 267 727-748. [Pg.739]

Analytical instruments play an increasingly important role in modern analytical chemistry. The trend is not limited in chemistry but in all phases of natural science and technology, as one easily can watch in rapid progresses in molecular biology, nano-materials technology, and the related bio-medical reseai ch. Instiaimental developments can now even be a determining factor in the advancement of science itself. [Pg.23]

The World Wide Web has transformed the way in which we obtain and analyze published information on proteins. What only a few years ago would take days or weeks and require the use of expensive computer workstations can now be achieved in a few minutes or hours using personal computers, both PCs and Macintosh, connected to the internet. The Web contains hundreds of sites of Interest to molecular biologists, many of which are listed in Pedro s BioMolecular Research Tools (http // www.fmi.ch/biology/research tools.html). Many sites provide free access to databases that make it very easy to obtain information on structurally related proteins, the amino acid sequences of homologous proteins, relevant literature references, medical information and metabolic pathways. This development has opened up new opportunities for even non-specialists to view and manipulate a structure of interest or to carry out amino-acid sequence comparisons, and one can now rapidly obtain an overview of a particular area of molecular biology. We shall here describe some Web sites that are of interest from a structural point of view. Updated links to these sites can be found in the Introduction to Protein Structure Web site (http // WWW.ProteinStructure.com/). [Pg.393]

Since the early 1970s a panel convened by the International Union of Pure and Applied Chemistry and the International Union of Biochemistry and Molecular Biology has been working to formulate recommendations for carbohydrate nomenclature that meet developing needs of research and electronic data handling, while retaining links to the established literature base on carbohydrates. The realization of these endeavors is presented here in the final document Nomenclature of Carbohydrates, which provides a definitive reference for current researchers, both in the text version and in the version accessible on the World Wide Web (http //www.chem.qmw.ac.uk/iupac/2carb/), where amendments and revisions are maintained. [Pg.504]

The commercialization of developments in biotechnology will require a new breed of chemical engineer, one with a solid foundation in the life sciences as well as in process engineering principles. This engineer will be able to bring iimovative and economic solutions to problems in health care delivery and in the large-scale implementation of advances in molecular biology. [Pg.31]

The antiviral strategies discussed earlier as well as all antiviral drugs available to date are based on the principles of conventional chemotherapy. However, recent discoveries and developments in molecular biology have opened perspectives for alternative approaches of intervention. [Pg.17]

There are several aspects of different environmental stresses that either have common features or the plant responses or adaptations to those stresses may have common components or indicate general principles. It is an objective of this volume to identify such features where they exist so as to help in the development of stress-tolerant crop plants by making the best use of the newer techniques of molecular biology. Particular examples will be discussed in more detail in succeeding chapters. [Pg.5]

Several attempts were made to apply nanostructures made of DNA or proteins to the development of alternative computation or computer memory. The concept of DNA computing was developed as an alternative computation approach based on information and data stored as sequenced DNA nucleotides and DNA-specific hybridization and elongation as a means to reach the answer or solution to a problem. Available tools of molecular biology were employed to identify and analyze the results [66-68]. This multistage computation is based on the assumption that solutions can be sought in parallel, thus compensating for the relatively slow processing time. [Pg.468]

The 1980s saw many important developments in the scientific disciplines that underpin the use of protein crystallography in the pharmaceutical and biotechnology industries. Molecular biology and protein chemistry methods... [Pg.287]


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See also in sourсe #XX -- [ Pg.36 ]




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