| Description |
1 online resource |
| Series |
Lasers and electro-optics research and technology |
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Lasers and electro-optics research and technology series.
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| Contents |
HIGH POWER P-P LASERS; HIGH POWER P-P LASERS; Library of Congress Cataloging-in-Publication Data; CONTENTS; INTRODUCTION; PART 1. HIGH-POWER PULSE-PERIODIC LASERS FOR GENERATION OF PLASMA TORCHES; Chapter 1: 1.1. PRINCIPLES OF CONSTRUCTION OF COHERENT HIGH-POWER LASER SOURCES; 1.1.1. INTERFERENCE OF RADIATIONS FROM MANY PHASE-LOCKED SOURCES; 1.1.2. OPTICAL COUPLING; 1.1.3. TALBOT EFFECT; 1.1.4. COLLECTIVE MODES; 1.1.5. CONCLUSION; Chapter 2: 1.2. HIGH-FREQUENCY PULSE-PERIODIC LASERS; 1.2.1. SOLID-STATE LASERS; 1.2.2. CARBON DIOXIDE LASERS; 1.2.3. HIGH-FREQUENCY PULSE-PERIODIC REGIME |
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1.2.4. CONCLUSION1.2.5. DRAWINGS, PHOTOS AND DIAGRAMS; 1.2.6. REFERENCES; Chapter 3: 1.3. HIGH-FREQUENCY PULSE-PERIODIC DISK LASERS: ADVANTAGES AND PROSPECTS; 1.3.1. INTRODUCTION; 1.3.2. DISK AND FIBER LASERS; 1.3.3. DESIGN AND PHYSICAL FOUNDATIONS OF DISK LASER OPERATION; 1.3.4. LAWS OF SCALING OF DISK LASERS; 1.3.5. REGENERATIVE AMPLIFICATION OF PULSES; 1.3.6. PROSPECTS FOR SCALING THE POWER OF DISK LASERS; 1.3.7. CONCLUSION; Chapter 4: 1.4. HIGH-POWER SEMICONDUCTOR LASER DIODE STRUCTURES AND THEIR NEW APPLICATION; 1.4.1. INTRODUCTION |
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1.4.2. MAJOR TRENDS ON THE DEVELOPMENT OF PULSE-PERIODIC LASERS1.4.4. CONCLUSION; 1.4.5. FIGURES, PHOTOS AND SCHEMES; Chapter 5: 1.5. ELECTRICAL DISCHARGE PULSE-PERIODIC LASERS; 1.5.1. SELF-SUSTAINED VOLUME DISCHARGE FORMATION IN CO2 LASERS; 1.5.2. HIGH POWER WIDE APERTURE HF /DF LASERS; 1.5.3. CONCLUSION; 1.5.4. FIGURES; 1.5.5. REFERENCES; Chapter 6: 1.6. POWER OPTICS AND ITS NEW MANIFESTATIONS; 1.6.1. INTRODUCTION; 1.6.2. OPTICS OF HIGH-POWER LASERS; 1.6.3. POROUS STRUCTURES IN POWER OPTICS; 1.6.4. PURSUIT OF POWER OF SEMICONDUCTOR LASER STRUCTURES; 1.6.5. OPTICS BASED ON SILICON CARBIDE |
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1.6.6. CONCLUSION1.6.7. FIGURES; 1.6.8. REFERENCES; PART 2. MODELS OF PHYSICAL PROCESSES OF LASER PLASMA FORMATION; Chapter 7: 2.1. IONIZATION; 2.1.1. INFLUENCE OF THE RADIATION FLUX DENSITY ON THE ION FORMATION PROCESSES; 2.1.2. CHARGE DISTRIBUTION OF PARTICLES IN THE PLASMA TORCH; 2.1.3. INFLUENCE OF THE WAVELENGTH OF HEATING RADIATION ON THE IONIZATION PROCESS; 2.1.4. DEPENDENCE OF THE IONIZATION PROCESSES ON THE PLASMOID INITIAL SIZE; 2.1.5. IONIZATION PROCESSES AS FUNCTIONS OF THE AVERAGE VELOCITY OF THE PLASMA TORCH EXPANSION; 2.1.6. MECHANISMS OF ATOM IONIZATION IN THE PLASMA |
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2.1.7. SUMMARY ON THE IONIZATION PROCESSES IN THE LASER PLASMAChapter 8: 2.2. RECOMBINATION; 2.2.1. RECOMBINATION IN THE ENERGY DISTRIBUTIONS OF PARTICLES; 2.2.2. FORMATION OF THE CHARGE COMPOSITION; 2.2.3. CONTROL OF THE RECOMBINATION PROCESS; 2.2.4. ION CHARGE EXCHANGE; 2.2.5. MECHANISMS OF THE FORMATION OF NEGATIVELY CHARGED IONS IN THE LASER PLASMA; Chapter 9: 2.3. PROCESSES OF THE ACCELERATION OF THE PARTICLES IN THE LASER PLASMA; 2.3.1. HIGH-ENERGY MULTIPLY CHARGED POSITIVE IONS; 2.3.2. INFLUENCE OF THE ELECTRONS OF THE LASER TORCH ON THE ACCELERATION PROCESSES |
| Summary |
The goal of the book is to present the high-power high-frequency pulse periodic laser systems, which in the nearest time will find a lot of applications in the field of ecology, machinery, space engineering, nuclear technologies and many others. A laser-plasma generator of multiply charged ions produces a large number of heavy ions in the regime of short periodic pulses, which is needed for ion accelerators operating in the pulse periodic regime. The source of this type is also promising for effective use in the field of heavy-ion fusion, brittle materials figure cutting, oil films elimination |
| Bibliography |
Includes bibliographical references and index |
| Notes |
Description based on print version record |
| Subject |
High power lasers.
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TECHNOLOGY & ENGINEERING -- Mechanical.
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High power lasers
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| Form |
Electronic book
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| Author |
Silnov, Sergey M., author
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| LC no. |
2020687674 |
| ISBN |
9781631177729 |
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1631177729 |
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