## Problems in Laser PhysicsThere is hardly any book that aims at solving problems typically encountered in the laser field, and this book intends to fill the void. Following some initial exercises related to general aspects in laser physics (Chapt. 1), the subsequent problems are organized along the following topics: (i) Interaction of radiation with matter either made of atoms or ions, weakly interacting with surrounding species, or made of more complicated elements such as molecules or semiconductors (Chapters 2 and 3). (ii) Wave propagation in optical media and optical resonators (Chapters 4 and 5). (iii) Optical and electrical pumping processes and systems (Chapter 6): (iv) Continuous wave and transient laser behaviors (Chapters 7 and 8). (v) Solid-state, dye, semiconductor, gas and X-ray lasers (Chapters 9 and 10). (vi) Proper ties of the output beam and beam transformation by amplification, frequency conversion and pulse compression or expansion (Chapters 11 and 12). Problems are proposed here and solved following the contents of Orazio Svelto's Principles of Lasers (fourth edition; Plenum Press, New York, 1998). Whenever needed, equations and figures of the book mentioned above are currently used with an appropriate reference [e. g. , Eq. (1. Ll) of the book is referred to as Eq. (Ll. 1) of PL]. One can observe, however, that the types of problems proposed and discussed are of general validity and many of these problems have actually been suggested by our own long-time experience in performing theoretical and experimental researches in the field. |

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### Contents

I | 1 |

VI | 2 |

VII | 3 |

X | 4 |

XIV | 17 |

XV | 18 |

XX | 19 |

XXIV | 20 |

CXIX | 157 |

CXXII | 158 |

CXXV | 159 |

CXXIX | 160 |

CXXXII | 161 |

CXXXIII | 187 |

CXXXVII | 188 |

CXL | 189 |

XXVII | 21 |

XXX | 22 |

XXXIII | 47 |

XXXIV | 48 |

XXXVI | 49 |

XL | 50 |

XLV | 51 |

XLIX | 52 |

LI | 75 |

LII | 76 |

LVI | 77 |

LIX | 78 |

LXIII | 79 |

LXVIII | 80 |

LXIX | 105 |

LXXIV | 106 |

LXXVIII | 107 |

LXXXII | 108 |

LXXXV | 109 |

LXXXVIII | 110 |

XCII | 135 |

XCVI | 136 |

C | 137 |

CIII | 138 |

CVII | 139 |

CXI | 140 |

CXII | 155 |

CXVI | 156 |

CXLIV | 190 |

CXLVIII | 191 |

CLI | 192 |

CLIV | 215 |

CLVIII | 216 |

CLX | 217 |

CLXII | 218 |

CLXVI | 219 |

CLXIX | 220 |

CLXXII | 239 |

CLXXIII | 240 |

CLXXVIII | 241 |

CLXXXI | 242 |

CLXXXV | 255 |

CLXXXVI | 256 |

CXC | 257 |

CXCIII | 258 |

CXCVII | 259 |

CCI | 277 |

CCII | 278 |

CCV | 279 |

CCIX | 280 |

CCXI | 281 |

CCXIII | 282 |

CCXVI | 283 |

CCXIX | 284 |

### Other editions - View all

Problems in Laser Physics Giulio Cerullo,Stefano Longhi,Mauro Nisoli,Salvatore Stagira,Orazio Svelto Limited preview - 2012 |

### Common terms and phrases

ABCD matrix absorption coefficient active medium amplifier amplitude angle approximately Assuming atoms bandwidth beam waist broadening calculate cavity mode Consider constant corresponding cross section crystal current density diameter difficulty higher diffraction distance electric field electron emission cross-section equation expression fluence four-level laser frequency function FWHM gain medium gaussian beam He-Ne laser interferometer intersystem crossing laser beam laser cavity laser level laser transition lens linewidth logarithmic loss longitudinal modes longitudinally pumped loss per pass mode spot mode-locked modulation molecule Nd:YAG laser numerical values given obtain oscillating output coupler output coupling output power parameter peak phase phase-matching photon population inversion power at threshold previous problem propagation pulse duration pump efficiency pump rate Q-switching quantum radiative refractive index rotational saturation intensity second harmonic semiconductor single pass slope efficiency spontaneous emission spot size spot sizes stimulated emission thermal threshold pump power transverse upper laser level wave wavelength