Organic chemistry, Catalysis, Directed evolution, Enantioselective synthesis and Stereochemistry are his primary areas of study. Manfred T. Reetz has researched Catalysis in several fields, including Combinatorial chemistry and Denticity. His research integrates issues of Saturated mutagenesis, Enzyme, Kinetic resolution and Mutagenesis in his study of Directed evolution.
His Saturated mutagenesis research incorporates elements of Amino acid, Thermostability, Docking, Protein engineering and Computational biology. His Enantioselective synthesis research includes themes of Ligand, Enzyme catalysis, High-throughput screening and Transition metal. His research in Stereochemistry intersects with topics in Stereoisomerism, Mutant, Substrate, Phenylacetone monooxygenase and Stereoselectivity.
His main research concerns Organic chemistry, Catalysis, Directed evolution, Stereochemistry and Stereoselectivity. His Polymer chemistry research extends to Organic chemistry, which is thematically connected. The concepts of his Catalysis study are interwoven with issues in Combinatorial chemistry and Denticity.
His Directed evolution study combines topics from a wide range of disciplines, such as Saturated mutagenesis, Protein engineering, Enzyme, Mutagenesis and Computational biology. The various areas that Manfred T. Reetz examines in his Stereochemistry study include Amino acid, Monooxygenase, Regioselectivity, Desymmetrization and Substrate. His Hydroxylation research extends to the thematically linked field of Stereoselectivity.
Manfred T. Reetz focuses on Directed evolution, Stereochemistry, Saturated mutagenesis, Stereoselectivity and Protein engineering. His Directed evolution research incorporates themes from Amino acid, Catalysis, Enantioselective synthesis, Enzyme and Computational biology. His study with Catalysis involves better knowledge in Organic chemistry.
Manfred T. Reetz has researched Stereochemistry in several fields, including Monooxygenase, Cytochrome P450, Regioselectivity, Desymmetrization and Substrate. His Saturated mutagenesis study incorporates themes from Mutagenesis, Thermostability, DNA and Directed Molecular Evolution. Manfred T. Reetz has included themes like Kinetic resolution, Hydroxylation, Steric effects, Combinatorial chemistry and Cytochrome in his Stereoselectivity study.
His primary areas of study are Directed evolution, Saturated mutagenesis, Stereochemistry, Protein engineering and Enzyme. His Directed evolution research includes elements of Thermostability and Organic chemistry, Catalysis, Enantioselective synthesis, Stereoselectivity. The Catalysis study combines topics in areas such as Nanotechnology and Ligand.
His Saturated mutagenesis research is multidisciplinary, relying on both Amino acid, Regioselectivity, Desymmetrization, Combinatorial chemistry and Mutagenesis. His Stereochemistry study combines topics in areas such as Biocatalysis, Active site, Substrate, Directed Molecular Evolution and Cyclohexanone. Manfred T. Reetz combines subjects such as Motion, Monooxygenase, Synthetic biology and Rational design with his study of Protein engineering.
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Microbial lipases form versatile tools for biotechnology
Karl-Erich Jaeger;Manfred T Reetz.
Trends in Biotechnology (1998)
Bacterial Biocatalysts: Molecular Biology, Three-Dimensional Structures, and Biotechnological Applications of Lipases
K E Jaeger;B W Dijkstra;M T Reetz.
Annual Review of Microbiology (1999)
Size-Selective Synthesis of Nanostructured Transition Metal Clusters
Manfred T. Reetz;Wolfgang Helbig.
Journal of the American Chemical Society (1994)
Phosphane-Free Palladium-Catalyzed Coupling Reactions: The Decisive Role of Pd Nanoparticles.
Manfred T. Reetz;Elke Westermann.
Angewandte Chemie (2000)
Chelation or Non‐Chelation Control in Addition Reactions of Chiral α‐ and β‐ Alkoxy Carbonyl Compounds [New Synthetic Methods (44)]
Manfred T. Reetz.
Angewandte Chemie (1984)
Combinatorial and Evolution-Based Methods in the Creation of Enantioselective Catalysts.
Manfred T. Reetz.
Angewandte Chemie (2001)
Iterative saturation mutagenesis (ISM) for rapid directed evolution of functional enzymes
Manfred T Reetz;José Daniel Carballeira.
Nature Protocols (2007)
Lipases as practical biocatalysts
Manfred T Reetz.
Current Opinion in Chemical Biology (2002)
Biocatalysis in Organic Chemistry and Biotechnology: Past, Present, and Future
Manfred T. Reetz;Manfred T. Reetz.
Journal of the American Chemical Society (2013)
Efficient immobilization of lipases by entrapment in hydrophobic sol-gel materials.
Manfred T. Reetz;Albin Zonta;Jörg Simpelkamp.
Biotechnology and Bioengineering (2000)
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