Nanorobots represent a nanoscale device where proteins such as DNA, carbon nanotubes could act as motors, mechanical joints, transmission elements, or sensors. When these different components were assembled together they can form nanorobots with multi-degree-of-freedom, able to apply forces and manipulate objects in the nanoscale world. Design, Modeling and Characterization of Bio-Nanorobotic Systems investigates the design, assembly, simulation, and prototyping of biological and artificial molecular structures with the goal of implementing their internal nanoscale movements within nanorobotic systems in an optimized manner. …mehr
Nanorobots represent a nanoscale device where proteins such as DNA, carbon nanotubes could act as motors, mechanical joints, transmission elements, or sensors. When these different components were assembled together they can form nanorobots with multi-degree-of-freedom, able to apply forces and manipulate objects in the nanoscale world. Design, Modeling and Characterization of Bio-Nanorobotic Systems investigates the design, assembly, simulation, and prototyping of biological and artificial molecular structures with the goal of implementing their internal nanoscale movements within nanorobotic systems in an optimized manner.
1. Introduction. 2. Current State-Of-The-Art On Nanorobotic Components And Design. 2.1. Introduction. 2.2. Nanorobotics device structures. 2.3. Virtual Reality Techniques for Bio-nanotechnology Design. 2.4. Modeling and Characterization Methods. 2.5. Conclusion. 3. Methodology Of Design And Characterization Of Bionano- And Nanorobotic Devices. 3.1. Introduction. 3.2. Design and characterization methodology of biological nanodevices. 3.3. Co-prototyping of nanorobotic structures. 3.4. Conclusion. 4. Design And Computational Analysis Of Bio-Nanorobotic Structures. 4.1. Introduction. 4.2. Characterization of protein-based nanosprings. 4.3. Multiscale Design and Modeling of Protein-based Nanomechanisms. 4.4. DNA nanorobotics. 4.5. Design and Computational Analysis of a Linear Nanotube Servomotorusing DNA Actuation. 4.6. Multiscale platform as application for drug delivery characterization. 4.7. Conclusion. 5. Characterization And Prototyping Of Nanostructures. 5.1. Introduction. 5.2. Characterization of NEMS based on linear bearings. 5.3. Design of rotatory nanomotors based on head to head nanotubesn shuttles. 5.4. Attogram mass transport and vaporization through carbon nanotube. 5.5. Conclusion. 6. Conclusion and future prospects.
1. Introduction. 2. Current State-Of-The-Art On Nanorobotic Components And Design. 2.1. Introduction. 2.2. Nanorobotics device structures. 2.3. Virtual Reality Techniques for Bio-nanotechnology Design. 2.4. Modeling and Characterization Methods. 2.5. Conclusion. 3. Methodology Of Design And Characterization Of Bionano- And Nanorobotic Devices. 3.1. Introduction. 3.2. Design and characterization methodology of biological nanodevices. 3.3. Co-prototyping of nanorobotic structures. 3.4. Conclusion. 4. Design And Computational Analysis Of Bio-Nanorobotic Structures. 4.1. Introduction. 4.2. Characterization of protein-based nanosprings. 4.3. Multiscale Design and Modeling of Protein-based Nanomechanisms. 4.4. DNA nanorobotics. 4.5. Design and Computational Analysis of a Linear Nanotube Servomotorusing DNA Actuation. 4.6. Multiscale platform as application for drug delivery characterization. 4.7. Conclusion. 5. Characterization And Prototyping Of Nanostructures. 5.1. Introduction. 5.2. Characterization of NEMS based on linear bearings. 5.3. Design of rotatory nanomotors based on head to head nanotubesn shuttles. 5.4. Attogram mass transport and vaporization through carbon nanotube. 5.5. Conclusion. 6. Conclusion and future prospects.
1. Introduction. 2. Current State-Of-The-Art On Nanorobotic Components And Design. 2.1. Introduction. 2.2. Nanorobotics device structures. 2.3. Virtual Reality Techniques for Bio-nanotechnology Design. 2.4. Modeling and Characterization Methods. 2.5. Conclusion. 3. Methodology Of Design And Characterization Of Bionano- And Nanorobotic Devices. 3.1. Introduction. 3.2. Design and characterization methodology of biological nanodevices. 3.3. Co-prototyping of nanorobotic structures. 3.4. Conclusion. 4. Design And Computational Analysis Of Bio-Nanorobotic Structures. 4.1. Introduction. 4.2. Characterization of protein-based nanosprings. 4.3. Multiscale Design and Modeling of Protein-based Nanomechanisms. 4.4. DNA nanorobotics. 4.5. Design and Computational Analysis of a Linear Nanotube Servomotorusing DNA Actuation. 4.6. Multiscale platform as application for drug delivery characterization. 4.7. Conclusion. 5. Characterization And Prototyping Of Nanostructures. 5.1. Introduction. 5.2. Characterization of NEMS based on linear bearings. 5.3. Design of rotatory nanomotors based on head to head nanotubesn shuttles. 5.4. Attogram mass transport and vaporization through carbon nanotube. 5.5. Conclusion. 6. Conclusion and future prospects.
1. Introduction. 2. Current State-Of-The-Art On Nanorobotic Components And Design. 2.1. Introduction. 2.2. Nanorobotics device structures. 2.3. Virtual Reality Techniques for Bio-nanotechnology Design. 2.4. Modeling and Characterization Methods. 2.5. Conclusion. 3. Methodology Of Design And Characterization Of Bionano- And Nanorobotic Devices. 3.1. Introduction. 3.2. Design and characterization methodology of biological nanodevices. 3.3. Co-prototyping of nanorobotic structures. 3.4. Conclusion. 4. Design And Computational Analysis Of Bio-Nanorobotic Structures. 4.1. Introduction. 4.2. Characterization of protein-based nanosprings. 4.3. Multiscale Design and Modeling of Protein-based Nanomechanisms. 4.4. DNA nanorobotics. 4.5. Design and Computational Analysis of a Linear Nanotube Servomotorusing DNA Actuation. 4.6. Multiscale platform as application for drug delivery characterization. 4.7. Conclusion. 5. Characterization And Prototyping Of Nanostructures. 5.1. Introduction. 5.2. Characterization of NEMS based on linear bearings. 5.3. Design of rotatory nanomotors based on head to head nanotubesn shuttles. 5.4. Attogram mass transport and vaporization through carbon nanotube. 5.5. Conclusion. 6. Conclusion and future prospects.
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