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Integrate nanozyme synthesis, mechanism, and application with AI-driven design
Nanozymes-nanomaterials that mimic natural enzymatic activity-are advancing rapidly across biomedicine, environmental remediation, and energy conversion. Nanozymes: From Synthesis to Applications integrates fundamental principles, synthesis strategies, characterization techniques, and mechanistic insights into a single structured reference. Organized in four parts, it moves systematically from nanomaterial properties through engineering strategies, computational modeling, and real-world applications to address the field's full scope.
The book details applications in biosensors, therapeutics, pollutant degradation, fuel cells, and pesticide detection. It examines engineering strategies and computational modeling used to tailor nanozyme catalytic function for specific targets. Coverage of toxicity assessment, scalability challenges, and AI-assisted nanozyme design provides critical perspective on translating laboratory results into practical deployment across industrial and clinical settings.
Readers will also find:
Designed for materials scientists, biochemists, pharmaceutical chemists, medicinal chemists, biotechnologists, and electronics engineers, this reference connects nanozyme fundamentals with translational applications. Researchers and practitioners in pharmaceutical and biotechnological industries will find targeted guidance for advancing nanozyme development from laboratory characterization through scalable, application-ready systems.
Integrate nanozyme synthesis, mechanism, and application with AI-driven design
Nanozymes-nanomaterials that mimic natural enzymatic activity-are advancing rapidly across biomedicine, environmental remediation, and energy conversion. Nanozymes: From Synthesis to Applications integrates fundamental principles, synthesis strategies, characterization techniques, and mechanistic insights into a single structured reference. Organized in four parts, it moves systematically from nanomaterial properties through engineering strategies, computational modeling, and real-world applications to address the field's full scope.
The book details applications in biosensors, therapeutics, pollutant degradation, fuel cells, and pesticide detection. It examines engineering strategies and computational modeling used to tailor nanozyme catalytic function for specific targets. Coverage of toxicity assessment, scalability challenges, and AI-assisted nanozyme design provides critical perspective on translating laboratory results into practical deployment across industrial and clinical settings.
Readers will also find:
Designed for materials scientists, biochemists, pharmaceutical chemists, medicinal chemists, biotechnologists, and electronics engineers, this reference connects nanozyme fundamentals with translational applications. Researchers and practitioners in pharmaceutical and biotechnological industries will find targeted guidance for advancing nanozyme development from laboratory characterization through scalable, application-ready systems.
Atsiliepimai