Harald Seitz – författare

Although the catalytic activity of nucleic acid enzymes is usually much slower than that of proteins, nucleic acid enzymes with comparable catalytic activity have been obtained using stringent selection processes.

Although the catalytic activity of nucleic acid enzymes is usually much slower than that of proteins, nucleic acid enzymes with comparable catalytic activity have been obtained using stringent selection processes.

With contributions by numerous experts

Individual organisms are de?ned by their genetic code. During development andasaresponsetoexternalstimulithegeneticinformationistranslated into awell-de?nedanswerresultingintheexpressionandmodi?cationofproteins. The processes that control protein-protein interactions (PPI) are presently mostly described in terms of individual protein-protein interactions. In vivo suchinteractions are partof complex molecular interaction networksthat are highlydynamicintimeandspace.Onthebasisofquantitative experiments, it would be possible to understand such complex biological systems leading to anunravelingofthesenetworksandallowingthemtobecaughtinquantitative and predictive models. This textbook illustrates the rise of a relatively new area of biology. The shifting of research from the structural assembly of cells and whole org- isms to metabolic diversity led to the beginning of interactomics. This ?eld hasarisenfromtheincreasingimportanceofmolecularbiologyandbioch- istry in basic research as well as in prognostics and prevention of diseases in connection withbiomarker development.The behavior, morphology, and response to stimuli in biological systems arepredetermined bytheinteractionsbetweentheircomponents.Theseint- actions, as we observe them now, are therefore shaped by genetic variations and selective pressure. With the understanding of molecular interactions the biologyisgettingeasier tosurvey.Thecharacterizationofproteininteractions cancontribute to the understanding ofmany processes in nature. Knowledgeofthedifferenttypesofbiologicalmacromoleculesandincre- ingnumbersofwholegenomicstudiesfacilitatetheelucidationofcellularp- cesses. Whether it is genomics, transcriptomics, proteomics, interactomics, or metabolomics, the full complement of genomic information at different levels can be compared between different organisms to reveal similarities or differences and even to provide consensus models.

This book covers trends in modern biotechnology. All aspects of this interdisciplinary technology, where knowledge, methods and expertise are required from chemistry, biochemistry, microbiology, genetics, chemical engineering and computer science, are treated. More information as well as the electronic version is available at springer.com.

Individual organisms are de?ned by their genetic code. During development andasaresponsetoexternalstimulithegeneticinformationistranslated into awell-de?nedanswerresultingintheexpressionandmodi?cationofproteins. The processes that control protein-protein interactions (PPI) are presently mostly described in terms of individual protein-protein interactions. In vivo suchinteractions are partof complex molecular interaction networksthat are highlydynamicintimeandspace.Onthebasisofquantitative experiments, it would be possible to understand such complex biological systems leading to anunravelingofthesenetworksandallowingthemtobecaughtinquantitative and predictive models. This textbook illustrates the rise of a relatively new area of biology. The shifting of research from the structural assembly of cells and whole org- isms to metabolic diversity led to the beginning of interactomics. This ?eld hasarisenfromtheincreasingimportanceofmolecularbiologyandbioch- istry in basic research as well as in prognostics and prevention of diseases in connection withbiomarker development.The behavior, morphology, and response to stimuli in biological systems arepredetermined bytheinteractionsbetweentheircomponents.Theseint- actions, as we observe them now, are therefore shaped by genetic variations and selective pressure. With the understanding of molecular interactions the biologyisgettingeasier tosurvey.Thecharacterizationofproteininteractions cancontribute to the understanding ofmany processes in nature. Knowledgeofthedifferenttypesofbiologicalmacromoleculesandincre- ingnumbersofwholegenomicstudiesfacilitatetheelucidationofcellularp- cesses. Whether it is genomics, transcriptomics, proteomics, interactomics, or metabolomics, the full complement of genomic information at different levels can be compared between different organisms to reveal similarities or differences and even to provide consensus models.

Integration in Bioanalysis: Technologies for Point-of-Care Testing, by Frank F. Bier, Soeren Schumacher Future of Medicine: Models in Predictive Diagnostics and Personalized Medicine, by Babette Regierer, Valeria Zazzu, Ralf Sudbrak, Alexander Kühn and Hans Lehrach A Highly Versatile Microscope Imaging Technology Platform for the Multiplex Real-Time Detection of Biomolecules and Autoimmune Antibodies, by Stefan Rödiger, Peter Schierack, Alexander Böhm, Jörg Nitschke, Ingo Berger, Ulrike Frömmel, Carsten Schmidt, Mirko Ruhland, Ingolf Schimke, Dirk Roggenbuck, Werner Lehmann, Christian Schröder Platform Technologies for Molecular Diagnostics near the Patient’s Bedside, by Soeren Schumacher, Christine Lüdecke, Eva Ehrentreich-Förster, Frank F. Bier Microfluidic Technology for Molecular Diagnostics, by Tom Robinson, Petra S. Dittrich Biosensors for Diagnostic Applications, by Friederike J. Gruhl, Bastian E. Rapp, Kerstin Länge Planar Protein Arrays in Microtiter Plates: Development of a New Format Towards Accurate, Automation-Friendly and Affordable (A3) Diagnostics, by Holger Eickhoff, Arif Malik

Integration in Bioanalysis: Technologies for Point-of-Care Testing, by Frank F. Bier, Soeren Schumacher Future of Medicine: Models in Predictive Diagnostics and Personalized Medicine, by Babette Regierer, Valeria Zazzu, Ralf Sudbrak, Alexander Kühn and Hans Lehrach A Highly Versatile Microscope Imaging Technology Platform for the Multiplex Real-Time Detection of Biomolecules and Autoimmune Antibodies, by Stefan Rödiger, Peter Schierack, Alexander Böhm, Jörg Nitschke, Ingo Berger, Ulrike Frömmel, Carsten Schmidt, Mirko Ruhland, Ingolf Schimke, Dirk Roggenbuck, Werner Lehmann, Christian Schröder Platform Technologies for Molecular Diagnostics near the Patient’s Bedside, by Soeren Schumacher, Christine Lüdecke, Eva Ehrentreich-Förster, Frank F. Bier Microfluidic Technology for Molecular Diagnostics, by Tom Robinson, Petra S. Dittrich Biosensors for Diagnostic Applications, by Friederike J. Gruhl, Bastian E. Rapp, Kerstin Länge Planar Protein Arrays in Microtiter Plates: Development of a New Format Towards Accurate, Automation-Friendly and Affordable (A3) Diagnostics, by Holger Eickhoff, Arif Malik