Berichte / Max-Planck-Institut fur Quantenoptik (Munchen); MPQ 327 (Garching, 2010). - ОГЛАВЛЕНИЕ / CONTENTS
Навигация

Архив выставки новых поступлений | Отечественные поступления | Иностранные поступления | Сиглы
ОбложкаOzawa A. Frequency combs in the extreme ultraviolet. - Garching: Max-Planck-Institut für Quantenoptik, 2010. - vi, 152 p.: ill. - (Berichte / Max-Planck-Institut für Quantenoptik (München); MPQ 327). - Bibliogr.: p.141-152.
 

Место хранения: 02 | Отделение ГПНТБ СО РАН | Новосибирск

Оглавление / Contents
 
1  Introduction ................................................. 9
   1.1  Short pulses and frequency combs ........................ 9
   1.2  Short pulses in dispersive materials ................... 13
   1.3  Generation of frequency combs .......................... 13
   1.4  Measurement of carrier envelope offset frequency ....... 15
   1.5  Applications of frequency combs ........................ 17
        1.5.1  A frequency reference for high precision
               spectroscopy .................................... 17
        1.5.2  Direct excitation with frequency comb ........... 23
   1.6  High precision spectroscopy of He+ ..................... 24
   1.7  Frequency conversion into the ultraviolet region ....... 29
2  XUV frequency comb generation with a femtosecond
   enhancement cavity .......................................... 31
   2.1  Introduction ........................................... 31
   2.2  High harmonic generation (HHG) ......................... 32
        2.2.1  Single atom response of HHG: perturbative
               regime .......................................... 32
        2.2.2  Single atom response of HHG: non-perturbative
               regime .......................................... 33
        2.2.3  Single atom response of HHG: numerical
               simulations ..................................... 40
        2.2.4  Other important remarks of high harmonic
               generation ...................................... 41
   2.3  Femtosecond enhancement cavity ......................... 43
        2.3.1  Femtosecond and continuous wave optical
               cavities ........................................ 43
        2.3.2  A basic model of a femtosecond cavity ........... 46
        2.3.3  The effect of intracavity dispersion ............ 57
   2.4  Experiments and results ................................ 59
        2.4.1  Positively chirped oscillator at 10 MHz
               repetition rate ................................. 59
        2.4.2  Enhancement cavity .............................. 60
        2.4.3  Locking of the cavity ........................... 61
        2.4.4  Dispersion management of enhancement cavity ..... 65
        2.4.5  High precision intracavity dispersion
               measurement ..................................... 68
        2.4.6  Designing chirped mirrors for high precision
               dispersion compensation ......................... 73
        2.4.7  Dispersion compensated broadband enhancement
               cavity .......................................... 78
        2.4.8  Intracavity high harmonic generation ............ 80
   2.5  Conclusion ............................................. 85
3  Non-collinear high harmonic generation (NCHHG) .............. 87
   3.1  Introduction ........................................... 87
        3.1.1  Current outcoupling methods ..................... 87
        3.1.2  New outcoupling methods ......................... 89
        3.1.3  Previous demonstrations of non-collinear high
               harmonic generation ............................. 94
        3.1.4  A simple picture of non-collinear high
               harmonic generation ............................. 95
   3.2  Experimental ........................................... 97
   3.3  Discussion of results .................................. 98
        3.3.1  NCHHG beam profiles ............................. 98
        3.3.2  Estimation of outcoupling efficiency ........... 100
        3.3.3  Systematic investigation of NCHHG .............. 101
   3.4  Numerical Simulation .................................. 103
        3.4.1  Discussion of results .......................... 107
   3.5  Conclusions ........................................... 113
   3.6  Future prospects ...................................... 114
4  High repetition rate cryogenic amplifier for femtosecond
   laser pulses ............................................... 117
   4.1  Introduction .......................................... 117
        4.1.1  Mode-locked oscillator with high average
               power .......................................... 117
        4.1.2  High repetition rate amplifier ................. 121
   4.2  Experiments and discussions ........................... 122
        4.2.1  Cryogenic Amplifier: setup ..................... 122
        4.2.2  Cryogenic Amplifier: Amplification results ..... 123
        4.2.3  Cryogenic Amplifier: Spectrum and pulse
               duration ....................................... 124
        4.2.4  Cryogenic Amplifier: White light generation
               in a bulk crystal .............................. 127
        4.2.5  Cryogenic Amplifier:   Phase noise of the
               carrier-envelope offset frequency after
               amplification .................................. 127
        4.2.6  Cryogenic Amplifier: Amplification of 200fs
               pulses ......................................... 129
        4.2.7  Peltier cooled amplifier ....................... 129
        4.2.8  Beam profiles .................................. 131
   4.3  Conclusions ........................................... 132
   4.4  Future prospects ...................................... 133
        4.4.1  Multi pass amplifier ........................... 133
        4.4.2  High power oscillator combined with high
               repetition rate amplifier ...................... 134
        4.4.3  Heat dissipation in the enhancement cavity ..... 135
        4.4.4  Coupling to the cavity ......................... 135
5  Future Prospects ........................................... 137
   5.1  Ytterbium-based systems ............................... 137
   5.2  Cavity-assisted high harmonic generation at shorter
        fundamental wavelengths ............................... 138
   5.3  Cavity-assisted high harmonic generation at
        extremely high repetition rates ....................... 139
   5.4  Other applications of femtosecond enhancement
        cavities .............................................. 139


Архив выставки новых поступлений | Отечественные поступления | Иностранные поступления | Сиглы
 

[О библиотеке | Академгородок | Новости | Выставки | Ресурсы | Библиография | Партнеры | ИнфоЛоция | Поиск]
  © 1997–2024 Отделение ГПНТБ СО РАН  

Документ изменен: Wed Feb 27 14:21:02 2019. Размер: 9,849 bytes.
Посещение N 1957 c 18.05.2010