bullet Advances in Optics: Reviews, Vol. 2

   (Open Access Book)


  Title: Advances in Optics: Reviews, Vol. 2, Book Series

  Editor: Sergey Y. Yurish

  Publisher: International Frequency Sensor Association (IFSA) Publishing

  Formats: paperback (print book) and printable pdf Acrobat (e-book) 358 pages

  Price: 110.00 EUR (shipping cost by a standard mail without a tracking code is included)

  Delivery time for print book: 7-17 days dependent on country of destination. Please contact us for priority (5-9 days), ground (3-8 days) and express (3-5 days) delivery options by e-mail

  Pubdate: 15 April 2018

  ISBN: 978-84-697-9437-1

  e-ISBN: 978-84-697-9438-8


  Creative Commons License



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 Advances in Optics: Reviews, Vol. 2, Book Series



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 Book Description



The Vol.2 is devoted to lasers and photonics, and contains 15 chapters written by 40 authors from 15 countries: Algeria, Australia, Canada, China, Ecuador, Finland, France, Germany, India, Mexico, Poland, Qatar, Spain, Turkey and USA.


The book has organized by topics of high interest. In order to offer a fast and easy reading of each topic, every chapter in this book is independent and self-contained. All chapters have the same structure: first an introduction to specific topic under study; second particular field description including sensing or/and measuring applications. Each of chapter is ending by complete list of carefully selected references with books, journals, conference proceedings and web sites.


‘Advances in Optics: Reviews’ Book Series is a comprehensive study of the field of optics, which provides readers with the most up-to-date coverage of optics, photonics and lasers with a good balance of practical and theoretical aspects. Directed towards both physicists and engineers this Book Series is also suitable for audiences focusing on applications of optics. A clear comprehensive presentation makes these books work well as both a teaching resources and a reference books. The book is intended for researchers and scientists in physics and optics, in academia and industry, as well as postgraduate students.







1. Laser Bending

1.1. Introduction
1.2. Laser Bending
1.2.1. Laser Bending Mechanisms
1.2.2. Numerical Simulation
1.2.3. Main Effect Factors
1.2.4. Optimization Laser Manufacture Parameters
1.3. Laser Preloaded Bending
1.3.1. Principle of Laser Preloaded Bending
1.3.2. Characteristics of Laser Preloaded Bending
1.3.3. Application of Laser Preloaded Bending
1.4. Conclusions


2. Coherent Beam Combining as an Approach to Extend Achievable Limits of Laser Systems

2.1. Introduction
2.2. Coherent Combining Approaches and Geometries
2.3. Efficiency of the Coherent Beam Combining
2.4. The Importance of the Filling Factor for the Far-Field Combining
2.5. Stabilization Approaches
2.6. State of the Art Achievements in the Coherent Beam Combining and Ongoing Projects
2.7. Conclusions


3. Ultrafast X-Ray Pump-Probe Investigation of Molecular Dynamics with Free Electron Laser Pulses

3.1. Overview
3.2. Design of the Soft X-Ray LCLS Split and Delay Apparatus
3.2.1. Working Principle of the XRSD Instrument
3.2.2. Technical Realization of the XRSD Instrumental Motion
3.2.3. Setting the Time Delays of the XRSD Instrument
3.3. Investigating Charge and Dissociation Dynamics in Methyl Iodide Using the XRSD Device
3.3.1. Background
3.3.2. Experiment and Analysis Method
3.3.3. Experimental Results Evolution of the Charge State Distribution Evolution of the Ion Kinetic Energy Distribution Discussion
3.4. Conclusion


4. Single-Shot Auto and Cross Correlation Schemes for Ultrashort Laser Pulse Measurement Using Random Nonlinear Crystals

4.1. Introduction
4.2. Second Harmonic Generation in Random Nonlinear Crystals
4.3. Auto-Correlation Scheme: Measurement of Ultrashort Pulse Temporal Duration and Chirp Parameter
4.3.1. Experimental Set-Up
4.3.2. Theoretical Model
4.3.3. Measurements of the Pulse Durations of the Order of 200 fs
4.3.4. Measurements of Pulse Durations and Chirp Parameter for Pulses Down to 30 fs
4.4. Transverse Single Shot Cross-Correlation Scheme: Laser Pulse Temporal Shape Measurement
4.5. Limitations of the Technique
4.6. Conclusions


5. Modeling the Interaction of Laser Beams with Plasma by using the FDTD Method

5.1. Introduction
5.2. Physical Models of Plasma
5.2.1. Linear Drude Model
5.2.2. Nonlinear Drude Model
5.3. FDTD Implementations of Models
5.3.1. Implementation of Linear Drude Model
5.3.2. Implementation of Nonlinear Drude Model
5.4. Numerical Laser Beam Generation
5.5. Numerical Examples and Results
5.5.1. Low-power Gaussian Laser Beam
5.5.2. High-power Gaussian Laser Beam
5.5.3. High-power Vortex Laguerre-Gaussian Laser Beam
5.6. Conclusions


6. Laser Separation and Recovery of Rare Earth Elements from Coal Ashes

6.1. Introduction
6.2. Laser Radiation Forces
6.3. Laser-Induced Motion of Particles
6.4. Laser Separation and Recovery of Rare Earth Elements from Coal Ashes
6.5. Experimental Observations
6.6. Conclusions


7. Relativistic Photoionization Driven by Short Laser Pulses

7.1. Introduction
7.2. Relativistic Strong-Field Approximation
7.2.1. Probability Amplitude of Ionization in the RSFA
7.2.2. Probability Amplitude of Ionization in the Saddle-Point Approximation
7.2.3. Laser Pulse and Its Characteristics
7.2.4. Approximate Solution to the Saddle-Point Equation
7.3. Spiral of Ionization in Momentum Space
7.3.1. Probability of Ionization along the Three-Dimensional Momentum Spiral
7.4. Energy Spectra of Photoelectrons
7.5. Energy-Angular Probability Distributions
7.6. Application: Generation of Single-Electron Wave Packets
7.7. Conclusions


8. Direct Femtosecond Laser Writing of Nonlinear Photonic Crystals

8.1. Quasi-Phase Matching and Nonlinear Photonic Crystals
8.2. Traditional Fabrication Methods of Nonlinear Photonic Crystals
8.2.1. Electric Field Poling
8.2.2. UV Light Poling
8.2.3. Other Poling Techniques
8.3. Direct Femtosecond Infrared Laser Writing of Ferroelectric Domain Patterns
8.4. Application of Femtosecond-Laser-Written Domain Patterns in Nonlinear Optics
8.5. Conclusions


9. Linearization of a LTE Radio-over-Fiber Fronthaul System based on Optimized Genetic Algorithm CPWL Models

9.1. Introduction
9.2. Proposed Models
9.2.1. Volterra Model
9.2.2. CPWL Model
9.2.3. Threshold Optimization with Genetic Algorithms
9.2.4. Computational Cost Overview Volterra Model CPWL Model GA-CPWL Model
9.3. Experimental Results without Optimization
9.3.1. Experimental Setup
9.3.2. RoF Modeling Results
9.3.3. DPD Identification Results
9.4. Experimental Results with Threshold Optimization
9.4.1. Experimental Setup
9.4.2. DPD Identification Results
9.5. Conclusions


10. Embedding the Photon with Its Relativistic Mass as a Particle into the Electromagnetic Wave

10.1. Introduction
10.2. Derivation of a Transverse Force Exerted on a Photon Propagating with an Electromagnetic Wave
10.3. Derivation of a Potential and a Schrödinger Equation Describing the Transverse Motion of the Photon
10.4. Verification of the Eqs. (10.9), (10.10) and (10.11) for the Case of the Plane, the Spherical, and the Gaussian Wave
10.5. Quantum Mechanical Computation of the Gouy Phase Shift for the Case of a Gaussian Wave
10.6. Ray Optics Confirmation of the Frequency ω┴ Describing the Transverse Motion of a Photon Moving with a Gaussian Beam
10.7. Snell's Law Derived from a Particle Picture
10.8. The Schrödinger Equation Describing the Transverse Quantum Mechanical Motion of a Photon in a Medium
10.9. Summary and Conclusions


11. Proposal of a Bidirectional Microwave Photonic Filter Architecture for Simultaneous Transmission of Digital TV Signal

11.1. Introduction
11.2. Operation Principle
11.3. Experimental Setup and Results
11.3.1. Bidirectional Frequency Response
11.3.2. Bidirectional Digital TV Signal Transmission
11.4. Conclusions


12. Integration of Vertical 1D Photonic Crystals and Photovoltaics

12.1. Background/Overview
12.1.1. Photovoltaics Need for Renewable Energy Current State of Solar Photovoltaics Optical Absorption Constraints in Thin Film Technologies Enhancing Light Absorption in Thin Films Improving the Optical Performance of PV Cells with Photonic Crystals
12.1.2. Photonic Crystals Historical Background Properties of Photonic Crystals
12.2. Designing 1D Photonic Crystal Reflectors for Thin-Film PV Cells
12.2.1. Fabricating Bragg Reflectors with TCOs and NPs Material Selection Transparent Conductive Oxides TCO/Nanoparticle Bi-Layers
12.2.2. The Bragg Stack as Selectively Transparent and Conductive Photonic Crystals The Optical Properties of STCPCs Electronic Behavior of STCPCs
12.2.3. Introducing Gratings to 1D Bragg Stacks for 1.5D Architecture
12.3. Integrating 1D Photonic Crystal Reflectors within Thin-Film PV Cells
12.3.1. Application in Silicon Photovoltaics Background on Micromorph Tandem Cell Selectively Transparent PCs in Micromorph Cells Background on Ultra-Thin Silicon Films Broadband 1D PCs on Single Layer Ultra-Thin Silicon
12.4. Photonic Crystals for Building Integrated PV Applications
12.4.1. The Need for Energy Self-Sufficiency in Buildings
12.4.2. The Use of 1D PCs in PV Cells Suitable for BIPV Applications
12.5. Conclusion and Future Potentialities


13. Crystal and Quasicrystal Lattice Solitons in NLSM Equation

13.1. Introduction
13.1.1. Definitions
13.1.2. Solitons in Lattices
13.1.3. NLS and NLSM Models with External Potentials
13.2. Numerical Methods
13.2.1. Spectral Renormalization Method
13.2.2. Stability Analysis
13.3. Crystal Lattice Solitons and Stability Analysis
13.3.1. Numerical Existence of Fundamental Solitons
13.3.2. Stability Analysis of Fundamental Solitons
13.3.3. Numerical Existence of Dipole Solitons
13.3.4. Stability Analysis of Dipole Solitons
13.4. Quasicrystal Lattice Solitons and Stability Analysis
13.4.1. Numerical Existence of Fundamental Solitons
13.4.2. Stability Analysis of Fundamental Solitons
13.4.3. Numerical Existence of Dipole Solitons
13.4.4. Stability Analysis of Dipole Solitons
13.5. Conclusion


14. Effect of Oxygen Substitution on the Optoelectronic Properties of the Ternary ZnSe1-xOx Alloy

14.1. Introduction
14.2. Computational Details
14.3. Results and Discussions
14.3.1. Electronic Properties
14.3.2. Optical Properties The Dielectric Function Refraction Index Absorption Coefficient
14.4. Conclusion


15. Characteristic Features of CuInS2 Thin Film Deposited by Various Methods/Post Deposition Treatments: A Review

15.1. Introduction
15.2. Characteristics of CuInS2 Deposited by Various Methods and Subjected to Post Deposition Treatments
15.3. Conclusion




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