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El. knyga: Advances in Atomic, Molecular, and Optical Physics

Volume editor (Physics Department, University of Wisconsin, Madison, WI, USA), Volume editor (University of Michigan, Physics Department, Ann Arbor, USA), Volume editor (Universita di Pisa, Italy)

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Volume 55 of the Advances in Atomic, Molecular, and Optical Physics Series contains seven contributions, covering a diversity of subject areas in atomic, molecular and optical physics. In their contribution, Stowe, Thorpe, Pe’er, Ye, Stalnaker, Gerginov, and Diddams explore recent developments in direct frequency comb spectroscopy. Precise phase coherence among successive ultrashort pulses of a frequency comb allows one to probe fast dynamics in the time domain and high-resolution structural information in the frequency domain for both atoms and molecules. The authors provide a detailed review of some of the current applications that exploit the unique features of frequency comb spectroscopy and discuss its future directions. Yurvsky, Olshanii and Weiss review theory and experiment of elongated atom traps that confine ultracold gases in a quasi-one-dimensional regime. Under certain conditions, these quasi-one-dimensional gases are well-described by integrable one-dimensional many-body models with exact quantum solutions. Thermodynamic and correlation properties of one such model that has been experimentally realized are reviewed. DePaola, Morgenstein and Andersen discuss magneto-optical trap recoil ion momentum spectroscopy (MOTRIMS), exploring collisions between a projectile and target resulting in charged target fragments. MOTRIMS combines the technology of laser cooling and trapping of target atoms with the momentum analysis of the charged fragments that recoil from the target. The authors review the different MOTRIMS experimental approaches and the spectroscopic and collisional investigations performed so far. Safronova and Johnson give an overview of atomic many-body perturbation theory and discuss why extensions of the theory are needed. They present “all-order? results based on a linearized version of coupled cluster expansions and apply the theory to calculations of energies, transition matrix elements and hyperfine constants. Another contribution on atomic theory, authored by Fischer, explores the advantages of expanding the atomic radial wave functions in a B-spline basis. The differential equations are replaced by non-linear systems of equations and the problems of orthogonality requirements can be dealt with using projection operators. Electron-ion collisional processes are analyzed by Mueller, including descriptions of the experimental techniques needed to obtain cross section data and typical values for these cross sections. The present status of the field is discussed in relation to the detailed cross sections and rate coefficients that are needed for understanding laboratory or astrophysical plasmas. Finally, Duan and Monroe review ways to achieve scalable and robust quantum communication, state engineering, and quantum computation. Using radiation and atoms, ions, or atomic ensembles, they show that they can construct scalable quantum networks that are inherently insensitive to noise. Progress in experimental realization of their proposals is outlined.
  • International experts
  • Comprehensive articles
  • New developments


Volume 55 of the Advances Series contains seven contributions, covering a diversity of subject areas in atomic, molecular and optical physics. In their contribution, Stowe, Thorpe, Pe’er, Ye, Stalnaker, Gerginov, and Diddams explore recent developments in direct frequency comb spectroscopy. Precise phase coherence among successive ultrashort pulses of a frequency comb allows one to probe fast dynamics in the time domain and high-resolution structural information in the frequency domain for both atoms and molecules. The authors provide a detailed review of some of the current applications that exploit the unique features of frequency comb spectroscopy and discuss its future directions. Yurvsky, Olshanii and Weiss review theory and experiment of elongated atom traps that confine ultracold gases in a quasi-one-dimensional regime. Under certain conditions, these quasi-one-dimensional gases are well-described by integrable one-dimensional many-body models with exact quantum solutions. Thermodynamic and correlation properties of one such model that has been experimentally realized are reviewed. DePaola, Morgenstein and Andersen discuss magneto-optical trap recoil ion momentum spectroscopy (MOTRIMS), exploring collisions between a projectile and target resulting in charged target fragments. MOTRIMS combines the technology of laser cooling and trapping of target atoms with the momentum analysis of the charged fragments that recoil from the target. The authors review the different MOTRIMS experimental approaches and the spectroscopic and collisional investigations performed so far. Safronova and Johnson give an overview of atomic many-body perturbation theory and discuss why extensions of the theory are needed. They present “all-order results based on a linearized version of coupled cluster expansions and apply the theory to calculations of energies, transition matrix elements and hyperfine constants. Another contribution on atomic theory, authored by Fischer, explores the advantages of expanding the atomic radial wave functions in a B-spline basis. The differential equations are replaced by non-linear systems of equations and the problems of orthogonality requirements can be dealt with using projection operators. Electron-ion collisional processes are analyzed by Mueller, including descriptions of the experimental techniques needed to obtain cross section data and typical values for these cross sections. The present status of the field is discussed in relation to the detailed cross sections and rate coefficients that are needed for understanding laboratory or astrophysical plasmas. Finally, Duan and Monroe review ways to achieve scalable and robust quantum communication, state engineering, and quantum computation. Using radiation and atoms, ions, or atomic ensembles, they show that they can construct scalable quantum networks that are inherently insensitive to noise. Progress in experimental realization of their proposals is outlined.

• International experts
• Comprehensive articles
• New developments
Contributors ix
Direct Frequency Comb Spectroscopy
Matthew C. Stowe
Michael J. Thorpe
Avi Pe'er
Jun Ye
Jason E. Stalnaker
Vladislav Gerginov
Scott A. Diddams
Introduction and Historical Background
2(3)
Comb Control and Detection
5(7)
Direct Frequency Comb Spectroscopy
12(18)
Multi-Frequency Parallel Spectroscopy
30(8)
Coherent Control Applications
38(7)
Future Outlook
45(7)
Concluding Remarks
52(1)
Acknowledgements
52(1)
References
53(9)
Collisions, Correlations, and Integrability in Atom Waveguides
Vladimir A. Yurovsky
Maxim Olshanii
David S. Weiss
Introduction
62(2)
Effective ID World
64(21)
Bethe Ansatz and beyond
85(18)
Ground State Properties of Short-Range-Interacting 1D Bosons: Known Results and Their Experimental Verification
103(10)
What Is Special about Physics in 1D
113(12)
Summary and Outlook
125(1)
Acknowledgements
126(1)
Appendix: Some Useful Properties of the Hurwitz Zeta Function
126(1)
References
127(13)
Motrims: Magneto-Optical Trap Recoil Ion Momentum Spectroscopy
Brett D. DePaola
Reinhard Morgenstern
Nils Andersen
Introduction to Motrims
140(7)
Relative Total Electron Transfer Cross Sections
147(2)
Case Studies in Total Electron Transfer Collisions
149(12)
Case Studies of Differential Electron Transfer Cross Sections
161(11)
Probing Excitation Dynamics
172(8)
Future Applications
180(4)
Concluding Comments
184(1)
Acknowledgements
185(1)
References
185(7)
All-Order Methods for Relativistic Atomic Structure Calculations
Marianna S. Safronova
Walter R. Johnson
Introduction and Overview
192(2)
Relativistic Many-Body Perturbation Theory
194(4)
Relativistic SD All-Order Method
198(8)
Motivation for Further Development of the All-Order Method
206(3)
Recent Developments in the Calculations of Monovalent Systems: Non-Linear Terms and Triple Excitations
209(4)
Many-Particle Systems
213(6)
Applications of High-Precision Calculations
219(11)
Conclusion
230(1)
Acknowledgements
231(1)
References
231(5)
B-Splines in Variational Atomic Structure Calculations
Charlotte Froese Fischer
Introduction
236(2)
The Hartree--Fock Approximation
238(11)
Multiconfiguration Hartree---Fock Approximation
249(2)
B-Spline Theory
251(10)
B-Spline Methods for the Many-Electron Hartree--Fock Problem
261(14)
B-Spline MCHF Equations
275(13)
Conclusion
288(1)
Acknowledgements
289(1)
References
289(5)
Electron-Ion Collisions: Fundamental Processes in the Focus of Applied Research
Alfred Muller
Introduction
294(4)
Basics of Electron-Ion Collisions
298(21)
Experimental Access to Data
319(36)
Overview of Experimental Results on Free-Electron-Ion Collisions
355(42)
Conclusions
397(2)
Acknowledgements
399(1)
References
399(21)
Robust Probabilistic Quantum Information Processing with Atoms, Photons, and Atomic Ensembles
Luming Duan
Christopher R. Monroe
Introduction
420(1)
Quantum Communication with Atomic Ensembles
421(13)
Quantum State Engineering with Realistic Linear Optics
434(8)
Quantum Computation through Probabilistic Atom-Photon Operations
442(17)
Summary
459(1)
Acknowledgements
460(1)
References
460(5)
Index 465(8)
Contents Of Volumes In This Serial 473


Ennio Arimondo is Professor of Physics at the University of Pisa, Italy. In a a long research career, Professor Arimondo has been engaged in experimental and theoretical research related to laser spectroscopy, the interaction of radiation with matter, laser cooling and new phenomena of ultracold atomic gases. Professor Arimondo is a Fellow of the American Physical Society and of the Institute of Physics. He is editor of Conference and School Proceedings. Paul Berman is Professor of Physics at the University of Michigan. In a career spanning over 40 years, Professor Berman has been engaged in theoretical research related to the interaction of radiation with matter. Of particular interest is the identification of atom-field configurations which can result in qualitatively new phenomena. Professor Berman is a Fellow of the American Physical Society and the Optical Society of America. He is the co-author of a textbook, Principles of Laser Spectroscopy and Quantum Optics, published in2010 by Princeton University Press. Chun C. Lin is Professor of Physics at the University of Wisconsin Madison. He has been working in various areas of atomic and molecular physics for several decades. He received the American Physical Society Will Allis Prize for advancing the understanding of the microscopic behavior of ionized gases through his innovative and pioneering studies of excitation in electron and ion collisions with atomic and molecular targets” in 1996. He is a Fellow of the American Physical Society and has served as the Chair of the Division of Atomic, Molecular and Optical Physics in the American Physical Society (1994 1995).