http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-2.xsd
This book provides fundamental knowledge in the fields of attosecond science and free electron lasers, based on the insight that the further development of both disciplines can greatly benefit from mutual exposure and interaction between the two communities. With respect to the interaction of high intensity lasers with matter, it covers ultrafast lasers, high-harmonic generation, attosecond pulse generation and characterization. Other chapters review strong-field physics, free electron lasers and experimental instrumentation. Written in an easy accessible style, the book is aimed at gra.
Machine generated contents note: 1. Attosecond and XUV Physics: Ultrafast Dynamics and Spectroscopy -- 1.1. Introduction / Marc Vrakking -- 1.2. Emergence of Attosecond Science / Marc Vrakking -- 1.2.1. Attosecond Pulse Trains and Isolated Attosecond Pulses / Marc Vrakking -- 1.2.2. Characterization of Attosecond Laser Pulses / Marc Vrakking -- 1.2.3. Experimental Challenges in Attosecond Science / Marc Vrakking -- 1.2.4. Attosecond Science as a Driver for Technological Developments / Marc Vrakking -- 1.3. Applications of Attosecond Laser Pulses / Marc Vrakking -- 1.4. Ultrafast Science Using XUV/X-ray Free Electron Lasers / Marc Vrakking -- 1.5. Interplay between Experiment and Theory / Marc Vrakking -- 1.6. Conclusion and Outlook / Marc Vrakking -- References / Marc Vrakking -- 2. Ultrafast Laser Oscillators and Amplifiers / Marc Vrakking -- 2.1. Introduction / Uwe Morgner -- 2.2. Mode-Locking and Few-Cycle Pulse Generation / Uwe Morgner -- 2.3. High-Energy Oscillators / Uwe Morgner -- 2.4. Laser Amplifiers / Uwe Morgner -- References / Uwe Morgner -- 3. Ultrashort Pulse Characterization / Uwe Morgner -- 3.1. Motivation: Why Ultrafast Metrology? / Adam S. Wyatt -- 3.1.1. Ultrafast Science: High-Speed Photography in the Extreme / Adam S. Wyatt -- 3.2. Formal Description of Ultrashort Pulses / Adam S. Wyatt -- 3.2.1. Sampling Theorem / Adam S. Wyatt -- 3.2.2. Chronocyclic Representation of Ultrafast Pulses / Adam S. Wyatt -- 3.2.3. Space-Time Coupling / Adam S. Wyatt -- 3.2.4. Accuracy, Precision and Consistency / Adam S. Wyatt -- 3.3. Linear Filter Analysis / Adam S. Wyatt -- 3.4. Ultrafast Metrology in the Visible to Infrared / Adam S. Wyatt -- 3.4.1. Temporal Correlations / Adam S. Wyatt -- 3.4.2. Spectrography / Adam S. Wyatt -- 3.4.3. Sonography / Adam S. Wyatt -- 3.4.4. Tomography / Adam S. Wyatt -- 3.4.5. Interferometry / Adam S. Wyatt -- 3.5. Ultrafast Metrology in the Extreme Ultraviolet / Adam S. Wyatt -- 3.5.1. Complete Characterization of Ultrashort XUV Pulses via Photoionization Spectroscopy / Adam S. Wyatt -- 3.5.2. XUV Interferometry / Adam S. Wyatt -- 3.6. Summary / Adam S. Wyatt -- References / Adam S. Wyatt -- 4. Carrier Envelope Phase Stabilization / Adam S. Wyatt -- 4.1. Introduction / Vincent Crozatier -- 4.2. CEP Fundamentals / Vincent Crozatier -- 4.2.1. Time Domain Representation / Vincent Crozatier -- 4.2.2. Frequency Domain Representation / Vincent Crozatier -- 4.3. Stabilization Loop Fundamentals / Vincent Crozatier -- 4.3.1. Noisy Source / Vincent Crozatier -- 4.3.2. Noise Detection / Vincent Crozatier -- 4.3.3. Open-Loop Noise Analysis / Vincent Crozatier -- 4.3.4. Feedback / Vincent Crozatier -- 4.3.5. Closed-Loop Noise Analysis / Vincent Crozatier -- 4.4. CEP in Oscillators / Vincent Crozatier -- 4.4.1. Oscillators Peculiarities / Vincent Crozatier -- 4.4.2. CEP Detection / Vincent Crozatier -- 4.4.3. Actuation / Vincent Crozatier -- 4.5. CEP in Amplifiers / Vincent Crozatier -- 4.5.1. Amplifier Peculiarities / Vincent Crozatier -- 4.5.2. CEP Detection / Vincent Crozatier -- 4.5.3. Actuation / Vincent Crozatier -- 4.5.4. Feedback Results / Vincent Crozatier -- 4.5.5. Parametric Amplification / Vincent Crozatier -- 4.6. Conclusion / Vincent Crozatier -- References / Vincent Crozatier -- 5. Towards Tabletop X-Ray Lasers / Vincent Crozatier -- 5.1. Context and Objectives / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Pedro Velarde / Marta Fajardo / David Ros / Stephane Sebban -- 5.2. Choice of Plasma-Based Soft X-Ray Amplifier / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Pedro Velarde / Marta Fajardo / David Ros / Stephane Sebban -- 5.2.1. Basic Aspects of High Harmonic Amplification / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Pedro Velarde / Marta Fajardo / David Ros / Stephane Sebban -- 5.2.2. Basic Aspects of Plasma Amplifiers / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Pedro Velarde / Marta Fajardo / David Ros / Stephane Sebban -- 5.3. 2D Fluid Modeling and 3D Ray Trace / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Stephane Sebban / Marta Fajardo / David Ros / Pedro Velarde -- 5.3.1. ARWEN Code / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Pedro Velarde / Marta Fajardo / David Ros / Stephane Sebban -- 5.3.2. Model to Obtain 2D Maps of Atomic Data / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Pedro Velarde / Marta Fajardo / David Ros / Stephane Sebban -- 5.4. Bloch-Maxwell Treatment / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Pedro Velarde / Marta Fajardo / David Ros / Stephane Sebban -- 5.5. Stretched Seed Amplification / Eduardo Oliva / Thi Thu Thuy Le / Stephane Sebban / Philippe Zeitoun / David Ros / Pedro Velarde / Marta Fajardo -- 5.6. Conclusion / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Pedro Velarde / Marta Fajardo / David Ros / Stephane Sebban -- References / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Pedro Velarde / Marta Fajardo / David Ros / Stephane Sebban -- 6. Ionization in Strong Low-Frequency Fields / Philippe Zeitoun / Eduardo Oliva / Thi Thu Thuy Le / Pedro Velarde / Marta Fajardo / David Ros / Stephane Sebban -- 6.1. Preliminaries / Misha Ivanov -- 6.2. Speculative Thoughts / Misha Ivanov -- 6.3. Basic Formalism / Misha Ivanov -- 6.3.1. Hamiltonians and Gauges / Misha Ivanov -- 6.3.2. Formal Solutions / Misha Ivanov -- 6.4. Strong-Field Approximation / Misha Ivanov -- 6.4.1. Volkov Propagator and the Classical Connection / Misha Ivanov -- 6.4.2. Transition Amplitudes in the SFA / Misha Ivanov -- 6.5. Strong-Field Ionization: Exponential vs. Power Law / Misha Ivanov -- 6.5.1. Saddle Point Approximation and the Classical Connection / Misha Ivanov -- 6.6. Semiclassical Picture of High Harmonic Generation / Misha Ivanov -- 6.7. Conclusion / Misha Ivanov -- References / Misha Ivanov -- 7. Multielectron High Harmonic Generation: Simple Man on a Complex Plane / Misha Ivanov -- 7.1. Introduction / Misha Ivanov / Olga Smirnova -- 7.2. Simple Man Model of High Harmonic Generation (HHG) / Misha Ivanov / Olga Smirnova -- 7.3. Formal Approach for One-Electron Systems / Misha Ivanov / Olga Smirnova -- 7.4. Lewenstein Model: Saddle Point Equations for HHG / Misha Ivanov / Olga Smirnova -- 7.5. Analysis of the Complex Trajectories / Misha Ivanov / Olga Smirnova -- 7.6. Factorization of the HHG Dipole: Simple Man on a Complex Plane / Misha Ivanov / Olga Smirnova -- 7.6.1. Factorization of the HHG Dipole in the Frequency Domain / Misha Ivanov / Olga Smirnova -- 7.6.2. Factorization of the HHG Dipole in the Time Domain / Misha Ivanov / Olga Smirnova -- 7.7. Photoelectron Model of HHG: The Improved Simple Man / Misha Ivanov / Olga Smirnova -- 7.8. Multichannel Model of HHG: Tackling Multielectron Systems / Misha Ivanov / Olga Smirnova -- 7.9. Outlook / Olga Smirnova / Misha Ivanov -- 7.10. Appendix A: Supplementary Derivations / Olga Smirnova / Misha Ivanov -- 7.11. Appendix B: The Saddle Point Method / Olga Smirnova / Misha Ivanov -- 7.11.1. Integrals on the Real Axis / Misha Ivanov / Olga Smirnova -- 7.11.2. Stationary Phase Method / Olga Smirnova / Misha Ivanov -- 7.12. Appendix C: Treating the Cutoff Region: Regularization of Divergent Stationary Phase Solutions / Misha Ivanov / Olga Smirnova -- 7.13. Appendix D: Finding Saddle Points for the Lewenstein Model / Olga Smirnova / Misha Ivanov -- References / Misha Ivanov / Olga Smirnova -- 8. Time-Dependent Schrodinger Equation / Olga Smirnova / Misha Ivanov -- 8.1. Atoms and Molecules in Laser Fields / Armin Scrinzi -- 8.2. Solving the TDSE / Armin Scrinzi -- 8.2.1. Discretization of the TDSE / Armin Scrinzi -- 8.2.2. Finite Elements / Armin Scrinzi -- 8.2.3. Scaling with Laser Parameters / Armin Scrinzi -- 8.3. Time Propagation / Armin Scrinzi -- 8.3.1. Runge-Kutta Methods / Armin Scrinzi -- 8.3.2. Krylov Subspace Methods / Armin Scrinzi -- 8.3.3. Split-Step Methods / Armin Scrinzi -- 8.4. Absorption of Outgoing Flux / Armin Scrinzi -- 8.4.1. Absorption for a One-Dimensional TDSE / Armin Scrinzi -- 8.5. Observables
/ Armin Scrinzi -- 8.5.1. Ionization and Excitation / Armin Scrinzi -- 8.5.2. Harmonic Response / Armin Scrinzi -- 8.5.3. Photoelectron Spectra / Armin Scrinzi -- 8.6. Two-Electron Systems / Armin Scrinzi -- 8.6.1. Very Large-Scale Grid-Based Approaches / Armin Scrinzi -- 8.6.2. Basis and Pseudospectral Approaches / Armin Scrinzi -- 8.7. Few-Electron Systems / Armin Scrinzi -- 8.7.1. MCTDHF: Multiconfiguration Time-Dependent Hartree-Fock / Armin Scrinzi -- 8.7.2. Dynamical Multielectron Effects in High Harmonic Generation / Armin Scrinzi -- 8.8. Nuclear Motion / Armin Scrinzi -- References / Armin Scrinzi -- 9. Angular Distributions in Molecular Photoionization / Armin Scrinzi -- 9.1. Introduction / Danielle Dowek / Robert R. Lucchese -- 9.2. One-Photon Photoionization in the Molecular Frame / Robert R. Lucchese / Danielle Dowek -- 9.3. Methods for Computing Cross-Sections / Danielle Dowek / Robert R. Lucchese -- 9.4. Post-orientation MFPADs / Robert R. Lucchese / Danielle Dowek -- 9.4.1. MFPADs for Linear Molecules in the Axial Recoil Approximation / Danielle Dowek / Robert R. Lucchese -- 9.4.2. MFPADs for Nonlinear Molecules in the Axial Recoil Approximation / Robert R. Lucchese / Danielle Dowek.
Note continued: 9.4.3. Breakdown of the Axial Recoil Approximation Due to Rotation / Danielle Dowek / Robert R. Lucchese -- 9.4.4. Breakdown of the Axial Recoil Approximation Due to Vibrational Motion / Robert R. Lucchese / Danielle Dowek -- 9.4.5. Electron Frame Photoelectron Angular Distributions / Robert R. Lucchese / Danielle Dowek -- 9.5. MFPADs from Concurrent Orientation in Multiphoton Ionization / Robert R. Lucchese / Danielle Dowek -- 9.6. Pre-orientation or Alignment, Impulsive Alignment / Robert R. Lucchese / Danielle Dowek -- 9.7. Conclusions / Robert R. Lucchese / Danielle Dowek -- References / Robert R. Lucchese / Danielle Dowek -- 10. High-Order Harmonic Generation and Attosecond Light Pulses: An Introduction / Robert R. Lucchese / Danielle Dowek -- 10.1. Early Work, 1987-1993 / Anne L'Huillier -- 10.2. Three-Step Model, 1993-1994 / Anne L'Huillier -- 10.3. Trajectories and Phase Matching, 1995-2000 / Anne L'Huillier -- 10.4. Attosecond Pulses 2001 / Anne L'Huillier -- 10.5. Conclusion / Anne L'Huillier -- References / Anne L'Huillier -- 11. Strong-Field Interactions at Long Wavelengths / Anne L'Huillier -- 11.1. Theoretical Background / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.1.1. Keldysh Picture of Ionization in Strong Fields / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.1.2. Classical Perspectives on Postionization Dynamics / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.1.3. High-Harmonic Generation / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.1,4. Wavelength Scaling of High-Harmonic Cutoff and Attochirp / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.1.5. In-situ and RABBITT Technique / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.2. Mid-IR Sources and Beamlines at OSU / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.2.1. 2-p.m Source / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara -- 11.2.2. 3.6-p.m Source / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.2.3. OSU Attosecond Beamline / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.3. Strong-Field Ionization: The Single-Atom Response / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.4. High-Harmonic Generation / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.4.1. Harmonic Cutoff and Harmonic Yield / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.4.2. Attochirp / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.4.3. In-situ Phase Measurement / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.4.4. RABBITT Method / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 11.5. Conclusions and Future Perspectives / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- References / Manuel Kremer / Cosmin I. Blaga / Louis F. DiMauro / Pierre Agostini / Stephen B. Schoun / Anthony D. DiChiara -- 12. Attosecond Dynamics in Atoms / Manuel Kremer / Cosmin I. Blaga / Anthony D. DiChiara / Stephen B. Schoun / Pierre Agostini / Louis F. DiMauro -- 12.1. Introduction / Francesca Calegari / Giuseppe Sansone / Matteo Lucchini / Mauro Nisoli -- 12.2. Single-Electron Atom: Hydrogen / Giuseppe Sansone / Francesca Calegari / Mauro Nisoli / Matteo Lucchini -- 12.3. Two-Electron Atom: Helium / Giuseppe Sansone / Francesca Calegari / Matteo Lucchini / Mauro Nisoli -- 12.3.1. Electronic Wave Packets / Giuseppe Sansone / Francesca Calegari / Mauro Nisoli / Matteo Lucchini -- 12.3.2. Autoionization: Fano Profile / Giuseppe Sansone / Matteo Lucchini / Francesca Calegari / Mauro Nisoli -- 12.3.3. Two-Photon Double Ionization / Giuseppe Sansone / Francesca Calegari / Mauro Nisoli / Matteo Lucchini -- 12.4. Multielectron Systems / Giuseppe Sansone / Francesca Calegari / Matteo Lucchini / Mauro Nisoli -- 12.4.1. Neon: Dynamics of Shake-Up States / Giuseppe Sansone / Francesca Calegari / Mauro Nisoli / Matteo Lucchini -- 12.4.2. Neon: Delay in Photoemission / Giuseppe Sansone / Matteo Lucchini / Francesca Calegari / Mauro Nisoli -- 12.4.3. Argon: Fano Resonance / Giuseppe Sansone / Francesca Calegari / Matteo Lucchini / Mauro Nisoli -- 12.4.4. Krypton: Auger Decay / Francesca Calegari / Giuseppe Sansone / Matteo Lucchini / Mauro Nisoli -- 12.4.5. Krypton: Charge Oscillation / Giuseppe Sansone / Francesca Calegari / Mauro Nisoli / Matteo Lucchini -- 12.4.6. Xenon: Cascaded Auger Decay / Giuseppe Sansone / Matteo Lucchini / Francesca Calegari / Mauro Nisoli -- References / Francesca Calegari / Giuseppe Sansone / Matteo Lucchini / Mauro Nisoli -- 13. Application of Attosecond Pulses to Molecules / Giuseppe Sansone / Francesca Calegari / Matteo Lucchini / Mauro Nisoli -- 13.1. Attosecond Dynamics in Molecules / Franck Lepine -- 13.2. State-of-the-Art Experiments Using Attosecond Pulses / Franck Lepine -- 13.2.1. Ion Spectroscopy / Franck Lepine -- 13.2.2. Electron Spectroscopy / Franck Lepine -- 13.2.3. Photo Absorption / Franck Lepine -- 13.3. Theoretical Work / Franck Lepine -- 13.3.1. Electron Dynamics in Small Molecules / Franck Lepine -- 13.3.2. Electron Dynamics in Large Molecules / Franck Lepine -- 13.4. Perspectives / Franck Lepine -- 13.4.1. Molecular Alignment and Orientation / Franck Lepine -- 13.4.2. Electron Delocalization between DNA Group Junction / Franck Lepine -- 13.4.3. Similar Dynamics in Water and Ice / Franck Lepine -- 13.4.4. More / Franck Lepine -- 13.5. Conclusion / Franck Lepine -- References / Franck Lepine -- 14. Attosecond Nanophysics / Franck Lepine -- 14.1. Introduction / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.2. Attosecond Light-Field Control of Electron Emission and Acceleration from Nanoparticles / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.2.1. Imaging of the Electron Emission from Isolated Nanoparticles / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.2.2. Microscopic Analysis of the Electron Emission / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.3. Few-Cycle Pump-Probe Analysis of Cluster Plasmons / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.3.1. Basics of Spectral Interferometry / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / Mark I. Stockman / Frederik Submann / Ulf Kleineberg / Thomas Fennel / and Matthias F. Kling / Eckart Ruhl -- 14.3.2. Oscillator Model Results for Excitation with Gaussian Pulses / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I.
Stockman -- 14.3.3. Spectral Interferometry Analysis of Plasmons in Small Sodium Clusters / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.4. Measurements of Plasmonic Fields with Attosecond Time Resolution / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.4.1. Attosecond Nanoplasmonic Streaking / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.4.2. Regimes of APS Spectroscopy / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.4.3. APS Spectroscopy of Collective Electron Dynamics in Isolated Nanoparticles / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman.
Note continued: 14.4.4. Attosecond Nanoscope / Sergey Zherebtsov / Soo Hoon Chew / Mark I. Stockman / Eckart Ruhl / Sarah L. Stebbings / Thomas Fennel / and Matthias F. Kling / Frederik Submann / Ulf Kleineberg -- 14.4.5. Experimental Implementation of the Attosecond Nanoscope / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.5. Nanoplasmonic Field-Enhanced XUV Generation / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.5.1. Tailoring of Nanoplasmonic Field Enhancement for HHG / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.5.2. Generation of Single Attosecond XUV Pulses in Nano-HHG / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 14.6. Conclusions and Outlook / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / Mark I. Stockman / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / and Matthias F. Kling -- References / Frederik Submann / Sarah L. Stebbings / Sergey Zherebtsov / Soo Hoon Chew / and Matthias F. Kling / Eckart Ruhl / Ulf Kleineberg / Thomas Fennel / Mark I. Stockman -- 15. Strong-Field Interactions at EUV and X-Ray Wavelengths / Soo Hoon Chew / Mark I. Stockman / Eckart Ruhl / Ulf Kleineberg / Sergey Zherebtsov / and Matthias F. Kling / Frederik Submann / Sarah L. Stebbings / Thomas Fennel -- 15.1. Introduction / Artem Rudenko -- 15.2. Experimental Background / Artem Rudenko -- 15.2.1. What Is a Strong Field? / Artem Rudenko -- 15.2.2. Basic Parameters of Intense High-Frequency Radiation Sources / Artem Rudenko -- 15.2.3. Detection Systems / Artem Rudenko -- 15.3. Atoms and Molecules under Intense EUV Light / Artem Rudenko -- 15.3.1. Two-Photon Single Ionization of Helium / Artem Rudenko -- 15.3.2. Few-Photon Double Ionization of Helium and Neon / Artem Rudenko -- 15.3.3. Multiple Ionization of Atoms / Artem Rudenko -- 15.3.4. EUV-Induced Fragmentation of Simple Molecules / Artem Rudenko -- 15.4. EUV Pump-EUV Probe Experiments / Artem Rudenko -- 15.4.1. Split-and-Delay Arrangements and Characterization of the EUV Pulses / Artem Rudenko -- 15.4.2. Nuclear Wave Packet Imaging in Diatomic Molecules / Artem Rudenko -- 15.4.3. Isomerization Dynamics of Acetylene Cations / Artem Rudenko -- 15.5. Experiments in the X-Ray Domain / Artem Rudenko -- 15.5.1. Multiple Ionization of Heavy Atoms: Role of Resonant Excitations / Artem Rudenko -- 15.5.2. Multiphoton Ionization of Molecules Containing High-Z Atoms / Artem Rudenko -- 15.6. Summary and Outlook / Artem Rudenko -- References / Artem Rudenko -- 16. Ultraintense X-Ray Interactions at the Linac Coherent Light Source / Artem Rudenko -- 16.1. Introduction / Linda Young -- 16.1.1. Comparison of Ultrafast, Ultraintense Optical, and X-Ray Lasers / Linda Young -- 16.1.2. X-Ray Atom Interactions / Linda Young -- 16.2. Atomic and Molecular Response to Ultraintense X-Ray Pulses / Linda Young -- 16.2.1. Nonresonant High-Intensity X-Ray Phenomena / Linda Young -- 16.2.2. Resonant High-Intensity X-Ray Phenomena / Linda Young -- 16.3. Ultrafast X-Ray Probes of Dynamics / Linda Young -- 16.4. Characterization of LCLS Pulses / Linda Young -- 16.5. Outlook / Linda Young -- References / Linda Young -- 17. Coherent Diffractive Imaging / Linda Young -- 17.1. Introduction / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.2. Far-Field Diffraction / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.2.1. Optical Point of View / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.2.2. Born Approximation / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.2.3. Resolution / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.2.4. Comments on the Approximations / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.3. Source Requirements / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.3.1. Coherence / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.3.2. Signal-to-Noise Ratio / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.3.3. Dose / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.3.4. Different XUV Sources Comparison / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.4. Solving the Phase Problem / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.4.1. Oversampling Method / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.4.2. Basics on Iterative Phasing Algorithms / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.4.3. Implementations of Phase Retrieval Algorithms / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.5. Holography / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.5.1. Fourier Transform Holography / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.5.2. HERALDO / Willem Boutu / Hamed Merdji / Betrand Carre -- 17.6. Conclusions / Willem Boutu / Hamed Merdji / Betrand Carre -- References / Willem Boutu / Hamed Merdji / Betrand Carre.
edited by Thomas Schultz, Marc Vrakking.
Includes bibliographical references at the end of each chapters and index.