Bio-Nanomaterials : designing materials inspired by nature /

• Κύριοι συγγραφείς: Pompe, Wolfgang (Συγγραφέας), Rödel, Gerhard (Συγγραφέας), Weiss, Hans-Jürgen (Physicist) (Συγγραφέας), Mertig, Michael (Συγγραφέας)
• Μορφή: Ηλ. βιβλίο
• Γλώσσα: English
• Έκδοση: Weinheim : Wiley-VCH, [2013]
• Θέματα: Biotechnology.; Nanotechnology.; Nanostructured materials > Synthesis.; Biomimicry.; SCIENCE > Biotechnology.; Nanobiotechnologie; Electronic books.

Πίνακας περιεχομένων:

• Machine generated contents note: 1.1. Case Studies
• 1.1.1. Nudeic Acids
• 1.1.2. Proteins
• 1.1.3. Carbohydrates
• 1.1.4. Lipids
• 1.2. Basic Principles
• 1.2.1. The Persistence Lengths of Biopolymer Chains
• 1.2.2. Equilibrium Shape of a Semiflexible Polymer Chain
• 1.2.3. The Load-Extension Diagram of a Semiflexible Polymer Chain
• 1.2.4. Cooperativity
• 1.2.5. Protein Folding
• 1.2.6. DNA Melting Transition
• 1.2.7. Biocatalytic Reactions
• 1.3. Bioengineering
• 1.3.1. Biointerfacing
• 1.3.2. DNA-Based Nanotechnology
• 1.3.2.1. Biomolecular Templates for Submicrometer Electronic Circuitries
• 1.3.2.2. DNA-Based Nanoprobes
• 1.3.3. Protein-Based Nanotechnology
• References
• 2.1. Case Study
• 2.2. Basic Principles
• 2.2.1.Complementary Interaction between Proteins and Ligands
• 2.2.2. Cooperative Protein-Ligand Interaction
• 2.2.3. The Enzyme-Linked Immunosorbent Assay
• 2.3. Engineering of Biomolecular Recognition Systems
• 2.3.1. Engineering of Protein-Based Bioaffine Materials
• 2.3.1.1. Interfacing Mechanisms of Proteins via Bioaffinity
• 2.3.2. Engineering of Sensing Biofunctionalized Materials
• 2.3.2.1. Design Principles of Biosensors
• 2.3.2.2. Integration of Sensing Biological Elements and Transducer Units
• References
• 3.1. Case Study
• 3.2. Basic Principles
• 3.2.1. The Cellular Mechanotransduction System
• 3.2.2. Mechanical Impact of the ECM on Cell Development
• 3.2.3. Influence of the Microenvironment Topology on the Cell Spreading and Development
• 3.3. Bioengineering
• 3.3.1. The Basic Approach and Goals
• 3.3.2. Tailored Surfaces for In Vitro Culturing of Cells
• 3.3.2.1.A Modular Polymer Platform for Mechanically Regulated Cell Culturing at Interfaces
• 3.3.2.2. Regulation of Cell Fate by Nanostructured Surfaces
• 3.3.3. Three-Dimensional Scaffolds for Tissue Engineering
• 3.3.4. Switchable Substrates and Matrices
• References
• 4.1. Case Studies
• 4.2. Basic Principles
• 4.3. Bioengineering
• References
• 5.1. Case Studies
• 5.2. Basic Principles
• 5.2.1. Preparation of Silica-Based Xerogels
• 5.2.2. Biological Properties of Silica-Based Biocers
• 5.3. Bioengineering
• 5.3.1. Bioactive Sol-Gel Coatings and Composites
• 5.3.2. Biocatalytic Sol-Gel Coatings
• 5.3.3. Bioremediation
• 5.3.4. Cell-Based Bioreactors
• 5.3.5. Silica-Based Controlled Release Structures
• 5.3.6. Patterned Structures
• 5.4. Silicified Geological Biomaterials
• References
• 6.1. Case Studies
• 6.2. Basic Principles
• 6.2.1. Precipitation
• 6.2.1.1. Thermodynamics of Mineralization
• 6.2.1.2. Kinetics of Mineralization
• 6.2.2. Phenomenology of Biomineralization
• 6.2.3. Basic Mechanisms in Biomineralization
• 6.2.4. Biologically Mediated Mineralization: the Competition between Inhibition and Growth
• 6.2.4.1. Effect of Polypeptides on Precipitate Habitus
• 6.2.4.2. The Formation of Metastable Polymorphs
• 6.2.5. Biologically Induced Mineralization: Role of the Epicellular Space and the Extracellular Polymeric Substances
• 6.2.6. Biologically Controlled Mineralization: Molecular Preorganization, Recognition, and Vectorial Growth
• 6.2.6.1. Intracellular Mineralization
• 6.2.6.2. Epi- and Extracellular Mineralization
• 6.2.7. Mineralization of Diatom Shells: an Example of Unicellular Hierarchical Structures
• 6.2.8. Mineralization of Bone: an Example of Multicellular Biomineralization
• 6.2.8.1. The Mesoscopic Architecture of Bone
• 6.2.8.2. Bone Remodeling and Bone Repair
• 6.2.8.3. The Nanoscopic Structure of the Extracelluar Matrix of Bone
• 6.2.8.4. The Polymer-Induced Liquid Precursor Process
• 6.2.8.5. Scale-Dependent Mechanical Behavior of Bone
• 6.2.9. Ancient Evidence of Biomineralization
• 6.2.9.1. Stromatolites: the Oldest Fossils by Biogenic Mineralization
• 6.3. Bioengineering
• 6.3.1. Bacteria-Derived Materials Development
• 6.3.1.1. Bio-Palladium: Biologically Controlled Growth of Metallic Nanoparticles
• 6.3.1.2. Biogenic Ion Exchange Materials
• 6.3.2. Bio-Inspired Design of Mineralized Collagen and Bone-Like Materials
• 6.3.2.1. Biomimetic Growth of Apatite-Gelatin Nanocomposites
• 6.3.2.2. Biomimetic Manufacturing of Mineralized Collagen Scaffolds
• 6.3.3. Biomimicking of Bone Tissue
• 6.3.3.1. Natural versus Synthetic Biopolymers for Scaffold Design
• 6.3.3.2. Protein-Engineered Synthetic Polymers
• 6.3.3.3. Protein-Engineered Collagen Matrices
• 6.3.4. Microbial Carbonate Precipitation in Construction Materials
• 6.3.5. The Potential of Biomineralization for Carbon Capture and Storage (CCS)
• References
• 7.1. Case Study
• 7.2. Basic Principles
• 7.2.1. Basic Phenomena of Self-Assembly and Self-Organization
• 7.2.2. Self-Assembly of Protein Filaments: the Cytoskeleton
• 7.2.3. Self-Assembly of 3-Sheets: the Amyloid Fibrils
• 7.2.4. Self Assembly of Two-Dimensional Protein Lattices: the Bacterial Surface Layers (S-Layers)
• 7.2.5. Self-Organized Structures of Lipids
• 7.2.6. Liquid Crystals
• 7.3. Bioengineering
• 7.3.1. In Vitro Self-Assembly of Large-Scale Nanostructured Biomaterials
• 7.3.2. Template-Directed Assembly of Artificial Nanopartides and Nanowires
• 7.3.3. Template-Free Directed Self-Assembly of Nanopartides
• References
• A.1. Fundamental Constants
• A.2. Table of SI Base Units
• A.3. Table of Derived Units
• A.4. Magnitudes
• A.4.1. Sizes
• A.4.2. Energies
• A.4.3. Rates and Diffusion Constants.