Light robotics : structure-mediated nanobiophotonics /
Annotation
Clasificación: | Libro Electrónico |
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Autores principales: | , |
Formato: | Electrónico eBook |
Idioma: | Inglés |
Publicado: |
Amsterdam, Netherlands :
Elsevier,
2017.
|
Colección: | Nanophotonics Ser.
|
Temas: | |
Acceso en línea: | Texto completo |
Tabla de Contenidos:
- Cover; Title Page; Copyright page; Contents; List of Contributors; Biographies; Preface; Introduction; The book in brief; Outlook: challenges and opportunities; References; Part 1
- Elements of light robotics; Chapter 1
- Human gesture recognition for optical manipulation and its future nanobiophotonics applications; 1
- Optical tweezers basics; 1.1
- Optical tweezers; 1.2
- Optical gradient force; 1.3
- Practical setup; 1.4
- Forces; 2
- Measurement of position and force; 2.1
- Drag force method; 2.2
- Equipartition; 2.3
- Langevin method; 2.4
- Light deflection method
- 3
- System design and instrumentation of optical manipulation systems3.1
- System design; 3.2
- System implementation; 4
- Human interfaces; 4.1
- Software control of optical manipulation systems; 5
- Control with peripheral devices; 6
- 3D control; 6.1
- Gathering spatial information; 6.2
- Supplying 3D information; 7
- Haptics; 8
- Internet control-controlling systems remotely; 9
- Future directions; References; Chapter 2
- Laser-based assembler and microfluidic applications; 1
- Introduction in microfluidics; 1.1
- Definition, materials, and manufacturing; 1.2
- Light-based microfluidics
- 1.3
- Assembling of microstructures1.4
- Contents; 2
- Generation of microstructures with two-photon polymerization; 3
- Assembling techniques; 3.1
- Chemical bonding; 3.2
- Thermal and photothermal connection; 3.3
- Joining by polymerization; 3.4
- Interlocking connection; 4
- Applications for assembled microstructures; 4.1
- Optically controlled valves; 4.2
- Magnetic microrotor: Flow field determination and pumping; 4.2.1
- Assembling magnetic rotors with different shapes; 4.2.2
- Measuring the flow field; 4.2.3
- Directed fluid flow; 4.3
- Microrotor assembly using screw connection
- 5
- Conclusion and outlookReferences; Chapter 3
- Optomechanical microtools and shape-induced forces; 1
- Introduction and background; 2
- Theory; 2.1
- Introduction; 2.2
- Shape-induced optical forces; 2.2.1
- The Rayleigh regime; 2.2.2
- Force and torque calculation in the Mie regime; 2.2.3
- Equilibrium trapping of nonspherical particles; 2.2.4
- Nonequilibrium optical forces; 2.2.5
- Nonconservative forces in optical tweezers; 2.3
- Calibration of traps containing nonspherical particles; 2.3.1
- Trap stiffness; 2.3.2
- Trap stability criteria; 2.3.3
- Compound structures: microtools
- 3
- Experimental realizations3.1
- Microtool fabrication; 3.1.1
- In situ directed assembly of components; 3.1.2
- 2D photolithography; 3.1.3
- Direct laser writing; 3.1.4
- Naturally occurring microtools; 3.2
- 3D tracking; 3.3
- 3D optical control; 4
- Applications; 5
- Conclusions and future prospects; References; Chapter 4
- Optically driven rotating micromachines; 1
- Introduction; 2
- Optical angular momentum; 3
- Principles of design; 3.1
- The importance of symmetry; 3.2
- Discrete rotational symmetry with p = 2; 3.3
- Discrete rotational symmetry with p> 2
- 3.4
- No rotational symmetry (p = 1)