Recommended quote for this post:
Tyurin A.V., Zhukov S.A., Akhmerov A. Yu. Three-dimensional holographic optical elements based on new microsystems. Monograph. – Primedia eLaunch,Boston, USA, 2024. – 320 p.
TABLE OF CONTENTS
| Introduction | 7 |
| CHAPTER 1. MANUFACTURE TECHNOLOGY, PROPERTIES AND SPECTRAL SENSITIZATION OF EMULSIONS CONTAINING MICROSYSTEMS "NON-SILVER NUCLEAR – SILVER HALIDE SHELL" | 11 |
| 1.1. Obtaining emulsions containing microsystems "non-silver
core – silver halide shell". |
11 |
| 1.2. Production of emulsion with microsystems "core CaF2 – shell AgBr ". | 20 |
| 1.2.1. Synthesis of nuclei CaF2 in water-gelatin medium. | 20 |
| 1.2.2. The method of building AgBr shell on the CaF2 nucleus. | 28 |
| 1.3.Spectral sensitization of emulsions containing “core CaF2–shell AgBr” microsystems. | 29 |
| 1.3.1.The dependence of the spectral sensitization of the microsystem “core CaF2 – shell AgBr” from the size of the core. | 33 |
| 1.3.2.Dependence of spectral sensitization microsystems "core – silver halide shell" from the structure of the nucleus. | 48 |
| Chapter 2. Thermo- and photochemical transformations in monolithic CGS
composition As-S. |
62 |
| 2.1. The mechanism of charge carrier transfer in the CGS composition As-S. | 64 |
| 2.2. Photoelectric studies of thermally stimulated transformations in CGS composition As-S. | 82 |
| 2.2.1. The mechanism of generation of nonequilibrium carriers in CGS of As2S3 composition. | 83 |
| 2.2.2. Temperature and lux-ampere characteristics of stationary photoconductivity and photocurrent kinetics in As2S3. | 87 |
| 2.2.3. The specifics of recombination processes in As2S3. | 93 |
| 2.2.4. Jump photoconductivity in composition samples As-S with excess sulfur. | 106 |
| 2.3. Photochemical transformations in As2S3. | 116 |
| 2.3.1. Influence of optical radiation on stationary photoconductivity and photocurrent kinetics in glass As2S3. | 116 |
| 2.3.2.Features of the photo-enlightenment effect in glassy As2S3. | 124 |
| 2.3.3. Study of nonstationary photoconductivity in the process of photochemical reaction on glass As2S3. | 130 |
| 2.3.4. Discussion of the results and the proposed model of photochemical transformations in glassy arsenic trisulfide. | 135 |
| Chapter 3. APPLICATION OF PHOTOCHEMICAL TRANSFORMATIONS IN THE “CORE CaF2 –SHELL AgBr" MICROSYSTEM, CGS AND AHC FOR HOLOGRAPHIC RECORDING OF THREE-DIMENSIONAL TRANSMISSION HOLOGRAMS | 146 |
| 3.1. Formation of three-dimensional transmitting diffraction gratings based on "core CaF2– shell AgBr" microsystems | 146 |
| 3.2.Holographic recording of three-dimensional transmitting diffraction gratings in monolithic CGS and AHC at elevated temperatures. | 154 |
| 3.2.1. Spatial stabilization system of interference pattern. | 155 |
| 3.2.2. Methods for determining the parameters of a three-dimensional transmitting amplitude-phase diffraction grating. | 157 |
| 3.2.2.1. The method of separate determination of the average absorption, amplitude and phase modulations and their phase shift when recording a three-dimensional transmitting diffraction grating. | 159 |
| 3.2.2.2. Method for determination of spectral change of average absorption, amplitude and phase modulation of three-dimensional transmitting diffraction grating. | 169 |
| 3.2.2.3. Methods for determining the effective thickness and spectral selectivity of a three-dimensional transmitting amplitude-phase diffraction grating. | 172 |
| 3.2.3. Holographic record in monolithic CGS composition As-S. | 175 |
| 3.2.4. Holographic record in additively colored AHCs. | 194 |
| 3.3. Scattering effect in a three-dimensional transmitting diffraction grating. | 214 |
| Chapter 4. Optoelectronic devices based on three-dimensional TRANSMISSION Diffraction structures | 225 |
| 4.1. Device for amplitude modulation and phase-amplitude conversion of light wave. | 226 |
| 4.2. Optoelectronic devices for measuring linear displacements in the nanometer range. | 234 |
| 4.2.1. Contact method for measuring linear displacements in the nanometer range. | 235 |
| 4.2.2. Non-contact method of measuring linear displacements in the nanometer range. | 241 |
| 4.3.Multichannel spectroradiometer and light divider with controlled ratio of separated beams in the range 0÷1. | 250 |
| 4.4. Optoelectronic devices for measuring angular displacements and sighting. | 253 |
| 4.4.1. Optoelectronic devices for measuring angular displacements in one coordinate. | 253 |
| 4.4.2. Optoelectronic devices for sighting in two coordinates. | 266 |
| 4.5. Registration and reproduction of light beams with topological defects. | 274 |
| CONCLUSION | 281 |
| Reference | 283 |