Advances in Atomic, Molecular, and Optical Physics, Volume 74 gives an overview on the latest evolutions in atomic, molecular, and optical physics, specifically promoting two important aspects of the field of ultrafast optics and strong fields. In particular, the book consists of a review over high harmonic generation (HHG) from thin-film samples, featuring experimental and theoretical studies of HHG from thin films in comparison to bulk crystals of the same materials and the specific interest in HHG from van der Waals materials and HHG studies at the 2D limit.
The second review concerns quantum computing technologies enabled studies of molecular processes using present-day devices, with applications in vibrational spectroscopy, electronic structure calculations, population transfer processes induced by a laser field, and interacting spin systems.
1. 1 Introduction - p. 48 2. 2 Summary on properties of transition metal dichalcogenides - p. 50 3. 3 Moiré excitons coexisting with charge-ordered states of doped electrons - p. 58 4. 4 Correlations between moiré excitons: The role of nonbosonic exciton statistics - p. 65 5. 5 Moiré excitons coexisting with spin-ordered states of doped electrons - p. 70 6. 6 Conclusion and outlook - p. 78 7. References - p. 81 8. Chapter Three: Phase-space methods for many-body quantum optics - p. 87 9. Abstract - p. 88 10. 1 Introduction - p. 88 11. 2 Phase-space methods: Key concepts - p. 90 12. 3 Phase-space formulation for spins - p. 101 13. 4 Phase-space methods for many-body quantum optics - p. 110 14. 5 Positive P representation - p. 135 15. 6 Summary and outlook - p. 144 16. Acknowledgments - p. 146 17. References - p. 151 18. Chapter Four: Paraxial fluids of light - p. 157 19. Abstract - p. 158 20. 1 Introduction and historical overview - p. 158 21. 2 Detailed theoretical framework - p. 164 22. 3 What is the dimension of the system? - p. 177 23. 4 Adimensionalization and comparison with cold atoms - p. 184 24. 5 Review of the experimental platforms - p. 186 25. 6 Experimental and numerical techniques for fluids of light - p. 200 26. 7 Recent experimental advances - p. 216 27. 8 Future directions and perspectives - p. 223 28. 9 Conclusion - p. 231 29. References - p. 232
Advances in Atomic, Molecular, and Optical Physics, Volume 74 gives an overview on the latest evolutions in atomic, molecular, and optical physics, specifically promoting two important aspects of the field of ultrafast optics and strong fields. In particular, the book consists of a review over high harmonic generation (HHG) from thin-film samples, featuring experimental and theoretical studies of HHG from thin films in comparison to bulk crystals of the same materials and the specific interest in HHG from van der Waals materials and HHG studies at the 2D limit.
The second review concerns quantum computing technologies enabled studies of molecular processes using present-day devices, with applications in vibrational spectroscopy, electronic structure calculations, population transfer processes induced by a laser field, and interacting spin systems.
1. 1 Introduction - p. 48 2. 2 Summary on properties of transition metal dichalcogenides - p. 50 3. 3 Moiré excitons coexisting with charge-ordered states of doped electrons - p. 58 4. 4 Correlations between moiré excitons: The role of nonbosonic exciton statistics - p. 65 5. 5 Moiré excitons coexisting with spin-ordered states of doped electrons - p. 70 6. 6 Conclusion and outlook - p. 78 7. References - p. 81 8. Chapter Three: Phase-space methods for many-body quantum optics - p. 87 9. Abstract - p. 88 10. 1 Introduction - p. 88 11. 2 Phase-space methods: Key concepts - p. 90 12. 3 Phase-space formulation for spins - p. 101 13. 4 Phase-space methods for many-body quantum optics - p. 110 14. 5 Positive P representation - p. 135 15. 6 Summary and outlook - p. 144 16. Acknowledgments - p. 146 17. References - p. 151 18. Chapter Four: Paraxial fluids of light - p. 157 19. Abstract - p. 158 20. 1 Introduction and historical overview - p. 158 21. 2 Detailed theoretical framework - p. 164 22. 3 What is the dimension of the system? - p. 177 23. 4 Adimensionalization and comparison with cold atoms - p. 184 24. 5 Review of the experimental platforms - p. 186 25. 6 Experimental and numerical techniques for fluids of light - p. 200 26. 7 Recent experimental advances - p. 216 27. 8 Future directions and perspectives - p. 223 28. 9 Conclusion - p. 231 29. References - p. 232
