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101 0 $aeng
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200 00$aAdvances in laser and optics research$hVolume 3 /$fWilliam T. Arkin, editor
205   $a1st ed.
210   $aNew York $cNova Science$dc2010
215   $a1 online resource (208 p.)
225 1 $aAdvances in Laser and Optics Research ;$vv.3
300   $aDescription based upon print version of record.
311   $a1-59033-855-3 
320   $aIncludes bibliographical references and index.
327   $aCONTENTS --  PREFACE --  ADVANCES IN COPPER LASER TECHNOLOGY:KINETIC ENHANCEMENT --  1. Introduction --  2. Background --  2.1. Role of Pre-Pulse Electron Density --  2.2. Engineering the Pre-Pulse Electron Density --  3. Operating Characteristics of KE-CVLs --  3.1. Output Power and Efficiency --  3.2. Pulse Rate Scaling of KE-CVLS --  3.3. Specific Average-Output Power Scaling --  3.4. Temporal Characteristics of KE-CVL Output --   3.5. Spatial Characteristics of KE-CVL Output  -- 3.6. High Beam Quality Operation of KE-CVLs --  4. Diagnostics of Kinetically Enhanced CVLs --  4.1. Copper Density Measurement --  4.2. Computer Modelling of KE-CVLs --  5. Operation of KE-CVLS in Oscillator-Amplifier Configuration --  6. High Power UV Generation from KE-CVLs --  MERGING QUANTUM THEORY INTO CLASSICALPHYSICS --  Abstract --  1. Introduction --  2. Comparison of Classical and Quantum Electrodynamics --  2.1. Modes of the Electromagnetic Waves --  2.2. Elementary Light-Matter Interaction in Classical Optics --  2.3. The Classical Zero Point Field --  2.4. The Zero Point Field and the Detection of Low Level Light --  2.5. Spontaneous Emission and Absorption: Einstein's Coefficients --  2.6. Mechanism of Emission and Absorption of a Photon --  2.7. Comparison of Quantum and Classical Electrodynamics --  3. Some Properties of Nonlinear Waves: The (3+0)D Solitons --  3.1. The Filaments of Light --  3.2. Perturbation of a Filament by a Magnetic Nonlinearity --    4. Tentative Setting of a Classical Theory Including the Important Quantum Results -- 4.1. Is Matter Made of Electromagnetic (3+0)D Solitons? --  4.2. Inserting the Quantum Calculation of Energies into the Classical Theory --  5. Conclusion --  A POSSIBLE SCENARIO FOR VOLUMETRICDISPLAY THROUGH NANOPARTICLE SUSPENSIONS --  STATISTICAL PROPERTIES OF NONLINEARPHASE NOISE --  1. Introduction --  2. Joint Statistics of Nonlinear Phase Noise and Electric Field --  2.1. Normalization of Nonlinear Phase Noise --  2.2. Series Expansion -- 2.3. Joint Characteristic Function --  3. The Probability Density Function of Nonlinear Phase Noise --  4. Some Joint Characteristic Functions --  4.1. Joint Characteristic Function of Nonlinear Phase Noise and Received Intensity --  4.2. Joint Characteristic Function of Nonlinear Phase Noise and Phase of Amplifier Noise --  5. Error Probability of DPSK Signal --  5.1. Phase Distribution --  5.2. Error Probability --  5.3. Approximation of Independence --  5.4. Numerical Results --  6. Compensation of Nonlinear Phase Noise --  6.1. Linear Compensation --    6.2. Nonlinear Compensation.
410  0$aAdvances in Laser and Optics Research
606   $aLasers$xResearch
606   $aOptics$xResearch
615  0$aLasers$xResearch.
615  0$aOptics$xResearch.
701   $aArkin$b William T$01641728
801  0$bMiAaPQ
801  1$bMiAaPQ
801  2$bMiAaPQ
906   $aBOOK
912   $a9910813776203321
996   $aAdvances in laser and optics research$93986036
997   $aUNINA