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Unique work on structure-based drug design, covering multiple aspects of drug discovery and development. Fully colored, many images, computer animations of 3D structures (these only in electronic form). Makes the spatial aspects of interacting molecules clear to the reader, covers multiple applications and methods in drug design. Structures by mode of action, no therapeutic areas. Of high relevance for academia and industrial research. Focus on gene technology in drug design, omics-technologies computational methods experimental techniques of structure determination multiple examples on mode of action of current drugs, ADME-tox properties in drug development, QSAR methods, combinatorial chemistry, biologicals, ribosome, targeting protein-protein interfaces.
Medicine. --- Pharmacy. --- Pharmacology. --- Pharmaceutical technology. --- Medicinal chemistry. --- Biomedicine. --- Biomedicine general. --- Pharmacology/Toxicology. --- Pharmaceutical Sciences/Technology. --- Medicinal Chemistry. --- Medicine/Public Health, general. --- Chemistry, Medical and pharmaceutical --- Chemistry, Pharmaceutical --- Drug chemistry --- Drugs --- Medical chemistry --- Medicinal chemistry --- Pharmacochemistry --- Pharmaceutical laboratory techniques --- Pharmaceutical laboratory technology --- Technology, Pharmaceutical --- Drug effects --- Medical pharmacology --- Clinical sciences --- Medical profession --- Chemistry --- Toxicology. --- Biochemistry. --- Biological chemistry --- Chemical composition of organisms --- Organisms --- Physiological chemistry --- Biology --- Medical sciences --- Chemicals --- Medicine --- Pharmacology --- Poisoning --- Poisons --- Technology --- Materia medica --- Human biology --- Life sciences --- Pathology --- Physicians --- Composition --- Toxicology --- Health Workforce --- Biomedicine, general. --- Chemotherapy --- Pharmacy --- Physiological effect
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In the next couple of years the human genome will be fully sequenced. This will provide us with the sequence and overall function of all human genes as well as the complete genome for many micro-organisms. Subsequently it is hoped, by means of powerful bioinformatic tools, to determine the gene variants that contribute to various multifactorial diseases and genes that exist in certain infectious agents but not humans. As a consequence, this will allow us to define the most appropriate levels for drug intervention. It can be expected that the number of potential drug targets will increase, possibly by a factor of 10 or more. Nevertheless, sequencing the human genome or, for that matter, the genome of other species will only be the starting point for the understanding of their biological function. Structural genomics is a likely follow-up, combined with new techniques to validate the therapeutic relevance of such newly discovered targets. Accordingly, it can be expected that in the near future we will witness a substantial increase in novel putative targets for drugs. To address these new targets effectively, we require new approaches and innovative tools. At present, two alternative, yet complementary, techniques are employed: experimental high-throughput screening (HTS) of large compound libraries, increasingly provided by combinatorial chemistry, and computational methods for virtual screening and de novo design. As kind of status report on the maturity of virtual screening as a technique in drug design, the first workshop on new approaches in drug design and discovery was held in March 1999, at Schloß Rauischholzhausen, near Marburg in Germany. More than 80 scientists gathered and discussed their experience with the different techniques. The speakers were invited to summarize their contributions together with their impressions on the present applicability of their approach. Several of the speakers followed this request which is summarized in this publication.
Drugs --- High throughput screening (Drug development) --- Ligand binding (Biochemistry) --- Design --- Computer simulation. --- Pharmacy. --- Chemistry. --- Computer Applications in Chemistry. --- Chemoinformatics. --- Chemical informatics --- Chemiinformatics --- Chemoinformatics --- Chemistry informatics --- Chemistry --- Information science --- Computational chemistry --- Medicine --- Materia medica --- Pharmacology --- Data processing --- High throughput testing (Drug development) --- HRS (Drug development) --- Drug development --- Pharmaceutical chemistry --- Binding, Ligand (Biochemistry) --- Biochemistry --- Dye-ligand affinity chromatography --- Radioligand assay --- Medicaments --- Medications --- Medicine (Drugs) --- Medicines (Drugs) --- Pharmaceuticals --- Prescription drugs --- Bioactive compounds --- Medical supplies --- Pharmacopoeias --- Chemotherapy --- Pharmacy
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Unique work on structure-based drug design, covering multiple aspects of drug discovery and development. Fully colored, many images, computer animations of 3D structures (these only in electronic form). Makes the spatial aspects of interacting molecules clear to the reader, covers multiple applications and methods in drug design. Structures by mode of action, no therapeutic areas. Of high relevance for academia and industrial research. Focus on gene technology in drug design, omics-technologies computational methods experimental techniques of structure determination multiple examples on mode of action of current drugs, ADME-tox properties in drug development, QSAR methods, combinatorial chemistry, biologicals, ribosome, targeting protein-protein interfaces.
General biochemistry --- Human biochemistry --- Hygiene. Public health. Protection --- Toxicology --- Pharmacology. Therapy --- Pathological biochemistry --- Clinical chemistry --- Human medicine --- klinische chemie --- medische chemie --- medische biochemie --- farmacologie --- biochemie --- biomedische wetenschappen --- gezondheidszorg --- multimedia --- toxicologie --- gentherapie --- moleculaire biologie
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"Das Buch ist uneingeschränkt allen Studierenden der Pharmazie, Chemie, Biologie und Biochemie als Lehrbuch zu empfehlen und darf ebenso wenig im Bücherregal des in der pharmazeutischen Industrie etablierten Wissenschaftlers fehlen." Pharmazeutische Zeitung Dieses von Hans-Joachim Böhm, Gerhard Klebe und Hugo Kubinyi begründete Lehrbuch richtet sich an Studenten der Pharmazie, Chemie und Biowissenschaften, aber auch an Quereinsteiger in Forschungs- und Entwicklungsabteilungen der Pharmazeutischen Industrie. Es wurde in der 1. Auflage mit dem Literaturpreis des Fonds der Chemischen Industrie ausgezeichnet, weil es sich "konzeptionell sehr stark von klassischen Lehrbüchern der pharmazeutischen Chemie abhebt, indem es den Weg zum neuen Arzneimittel in den Mittelpunkt des Inhaltes rückt und sehr stark multidisziplinär angelegt ist". Die komplett überarbeitete zweite Auflage ist an vielen Stellen neu geschrieben oder stark erweitert worden und damit wieder auf dem aktuellen Stand der Forschung. Der Gesamtstoff ist nach didaktischen Gesichtspunkten neu gegliedert und den Erfordernissen der Lehre angepasst. Der Bogen spannt sich dabei von der Geschichte der Arzneimittelforschung, den Wirkmechanismen der Arzneistoffe und den Methoden zur Leitstruktursuche und -optimierung über Strukturbestimmungsmethoden, Modelling, Moleküldynamik und QSAR-Methoden bis zum struktur- und computergestützten Design. Viele Fallbeispiele machen die Theorien und Verfahren anschaulich und nachvollziehbar. Ein neues Kapitel zu Screening-Technologien berücksichtigt moderne Ansätze des Fragment-Screenings unter Verwendung neuer biophysikalischer Verfahren. Die Störung von Protein-Protein-Wechselwirkungen als Konzept der Arzneistofftherapie wird diskutiert, und neue Überlegungen zur Optimierung von Arzneistoffen unter Berücksichtigung ihrer Bindungsprofile kommen zur Sprache. Das Kapitel zur Gentechnologie ist vor allem unter Einbeziehung der Erkenntnisse aus den Genomsequenzierungen und neuer Omics-Technologien stark erweitert worden. Die ADME-Tox-Eigenschaften von Wirkstoffen, heute bereits ein wichtiges Thema bei der Leitstruktursuche und Optimierung, werden in einem eigenen Kapitel diskutiert. Die Zahl der behandelten Zielstrukturen für die Arzneistofftherapie ist wesentlich erweitert worden. Insgesamt legt das Buch besonderen Wert auf die räumliche Struktur der interagierenden Moleküle und versucht zu erklären, warum ein bestimmter Wirkstoff in seiner Gestalt praktisch durch die Geometrie und den Wirkmechanismus des Zielproteins festgelegt wird. Die dem Buch beiliegende DVD mit zahlreichen interaktiven Molekülmodellen dient dem Ziel, dem Lernenden einen leichten Zugang zum räumlichen Verständnis der molekularen Strukturen und Interaktionen zu geben.
Pharmacy. --- Pharmacology. --- Chemistry. --- Pharmaceutical technology. --- Medicinal chemistry. --- Life sciences. --- Pharmacology/Toxicology. --- Chemistry/Food Science, general. --- Pharmaceutical Sciences/Technology. --- Medicinal Chemistry. --- Life Sciences, general.
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