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図書
G. Schudt-Weitz, I. Strell ; Herausgeber, K.-H. Hellwege und A.M. Hellwege
出版情報: Berlin ; Tokyo : Springer, 1985  2 v. ; 28 cm
シリーズ名: Landolt-Börnstein Zahlenwerte und Funktionen aus Naturwissenschaften und Technik, Neue Serie / Gesamtherausgabe, K.-H. Hellwege ; Gruppe 3 . Kristall- und Festkörperphysik ; Bd. 10. Ergänzng zu Bd. 3/5. Tail a-b
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The references are presented below the abstract of each pdf-document to allow cross-reference linking / Group V:
Title Page, Preface
Introductory material
Landolt-Bornstein
Title Page
Group III: Condensed Matter / Landolt-Börnstein ; H. Fischer0:
Group II: Molecules and Radicals
Contributors
Preface
Geophysics / 2:
Authors / Volume 16:
Notations, constants, and general relations / J. DemaisonVolume 2:
Astronomical instruments
Ferroelectrics and Related Substances
Molecular Constants Mostly from Microwave, Molecular Beam, and Electron Resonance Spectroscopy
Magnetic properties of 3d, 4d and 5d elements, alloys and compounds
Introduction / 6:
Magnetic properties of rare earth elements, alloys and compounds
Geophysics of the Solid Earth, the Moon and the Planets
General introduction
Non-Oxides / 1.1:
Subvolume A
Diamagnetic Molecules / M. Hantel ; W. Huttner1.1 - 1.4:
Ocean waves / Subvolume A:
List of space group symbols for various settings
See Vol.19A
2.3 See Vol.19D1
See Vol.19D1
Title Page, Contributors, Preface
Nucleon nucleon scattering / J.R. Morton
Optical telescopes
3d elements / D. Griller
Alphabetical list of frequently used prototypes / 6.1:
General remarks / H. Kraus1.5:
List of symbols and abbreviations / L. Magaard2.4:
List of syrnbols and abbreviations
2.5 See Vol.19D2
The earth in the planetary system (See Vol. 2A) / H.R. Kirchmayr
Alloys and compounds of 3d elements with main group elements / K.F. Preston ; H. Paul ; J.J.M. FranseI:
Total cross sections / C.-D. Schonwiese2.6:
Solar telescopes
The earth in the planetary system
Carbon-centered radicals: Radical-radical reactions
Literature covered and selection of data / L.A. Mysak1.5.1:
See Vol.19E1
Tables / E. Burzo ; R. Gersdorf1.3:
Elements / G. Zibold
Constants of diamagnetic molecules / 2.7:
Properties of the solid earth
Inorganic radicals
Nonconjugated carbon radicals
AgAlCdS - CuTeYb (See Vol.14B1) / H. WänkeI A:
Climate definition
Total and integrated cross sections for pp, pd and dd scattering / P. Morin2.1 - 2.4:
Photoelectric photometry
Classification and basic features
Arrangement of tables and data / 11.1:
Compounds of rare earth elements and 3d elements
Seismicity and the interior of the earth (See Vol. 2A)
Ti, V, Cr, Mn / 1.1.2:
DyErTe - HoPrS / 6.2:
3d elements and Cu, Ag or Au
Borides
lntroduction / 2.4.1:
Origin of the earth in the solar system / I B:
Qualitative definitions of climate / W. Rosenthal1.1.1.1:
Compounds of rare earth elements and Be, Mg, Zn, Cd or Hg / 4:
See Vol.19B
Total and integrated cross sections for neutrons on protons and nuclei / 3.1:
Photographic emulsions
Self-reactions
HoS - PTeU
Abbreviations and units used for presenting the data / 11.2:
Heat flow and temperature distribution in the earth's interior / 2.7.1:
Definition of ferroelectrics and antiferroelectrics / 1.1.3:
Ti / E. Tiemann ; E. Groten
Carbides
Alkyl radicals / 2.4.1.1:
Wind waves and swell / I C:
PaS - TeZr
The climate system / 1.5.1.2:
Dipole moments / 5:
Total cross sections of antiprotons on protons and deuterons / 1.2.1:
Spectrometers and spectrographs
Cross reactions
Indexes / 6.2.0:
General / 2.7.1.1:
Oceanic and continental heat-flow data / 2.6.1:
Remarks on some fundamental concepts and quantities / 1.6:
Survey
The motion of the earth
V
Definition of the various kinds of magnetism
Hydrides
Hydrogen-centered radicals / 2.4.1.2:
Primary alkyl radicals
List of symbols / I D:
Figures
Crystallography and metallurgy / 1.5.1.2.1:
Oceanic heat flow data (See Vol. 2A)
Differential cross sections and polarization parameters for elastic pp, pd and dd scattering / 1.2.2:
Optical high resolution methods
Relative rate constants
References for 2 and 3 (See Vol.14B1) / 6.2.1:
List of symbols and units / 11.4:
Phase diagrams. Crystal structure / 2.7.1.2:
Symbols and units / 2.2.1.2:
Abbreviations, notation and units
Cr
Spin-glass behaviour and micromagnetism
Diatomic molecules / 2.4.1.3:
Lithium-centered radicals / D.S. Chapman
Noncyclic secondary alkyl radicals
Alphabetical index of mineral and common names / J.P. LorandI E:
References for 11 / 1.5.1.2.2:
Magnetism
Differential cross sections for elastic pp scattering at low momenta / 2.6.2:
X-ray and gamma-ray instruments
Diatomic molecules: Rotational and related constants
List of universal constants / 6.2.2:
Survey of contents / G. Wlodarczak2.7.2:
Mn / 2.3:
Diamagnetism
Climate models (See Vol.4C2)
Continental heat flow data
Beryllium-centered radicals
Noncyclic tertiary alkyl radicals
Carbon-centered radicals: Radical-molecule addition reactions / I F:
The deterministic description of a linear plane wave, its energy and momentum density / 1.1.1.5:
RX compounds / 1.5.1.2.3:
Differential cross sections for elastic pp scattering at high momenta / 2.4.1.3.1:
Infrared techniques
The present global surface climate (See Vol.4C2) / 2.0:
Glossary of general abbreviations
Linear molecules / 2.7.3:
Publications on ferroelectrics / 1.9:
Units and definitions
References for 1.1.1
Paramagnetism
Units / 14:
Boron-centered radicals
Monocyclic alkyl radicals
Linear molecules: Rotational and related constants / II:
The energy density spectrum
Differential cross sections for elastic pd and dd scattering / 1.5.1.2.4:
Radio astronomical receiver systems
Tables of nuclear quadrupole interaction parameters / M.B. Stearns6.2.4:
Data
Orbital motion of the earth
Ferromagnetism
Definitions / 2.7.4:
Carbon-centered radicals
Polycyclic alkyl radicals
Methyl radical
Surface waves in deep water
Specific Surfaces Climates / 1.5.1.2.5:
Symmetric top molecules / 6.4:
Polarization parameters for elastic pp scattering / 2.2.1.2.2:
Positions and time determination, astronomical constants
Oxides (See Vol.16A)
Fe, Co, Ni
Introductory remarks / 6.2.5:
Symmetric top molecules: Rotational and related constants / 2.4.1.3.3:
Primary parameters of the earth's rotational motion in space
Antiferromagnetism / 1.1.2.1:
Measurements / J. Vogt
Nitrogen-centered radicals
σ-electronic carbon radicals
Inorganic crystals other than oxides
Other acyclic hydrocarbon radicals
Surface waves in shallow water
Scope of consideration / 1.5.1.2.6:
Differential cross sections and polarization parameters for np elastic and charge exchange scattering / 2.7.5:
Determination of astronomical latitude and longitude
Nuclear constants of quadrupolar elements / 6.2.6:
Forced nutation / 1.3.0:
Metamagnetism / 1.1.2.2:
X-rich compounds
Continental heat flow literature / 2.4.2:
Oxygen-centered radicals
Vinyl-type radicals
SbSI family
Cycloalkyl radicals
References for 6.2
Physical principles generally governing Specific Surfaces Climates / 1.5.1.3:
Time determination / 2.7.6:
Asymmetric top molecules: Rotational and related constants / 15:
Phase diagrams, lattice constants and elastic moduli
Ratios of nuclear quadrupole moments of isotopic nuclides / 14.3:
J. Demaison
The rotation of the earth / 1.3.1:
Remarks and relations concerning various quantities / D. Olbers1.1.2.3:
Continental heat flow results / 2.4.2.1:
Fluorine-centered radicals
Aryl radicals
HCl family
Inorganic molecules
Cumyl radical
Tables of differential elastic np cross sections (including charge exchange scattering) at low energies / 1.5.1.3.1:
The system of astronomical constants
Paramagnetic properties / 16:
Values of <$$> for the valence states of some neutral atoms / 14.4:
Quadrupole coupling constants / 2.7.7:
Methane, ethane, propane derivatives / 1.3.2:
Tidal dissipation
Internal gravity waves / 1.1.2.4:
Curie-Weiss law
Global heat flow
Sodium-centered radicals
Acyl radicals
NaNO2 family
Alkyl radicals containing heteroatoms
References for 14 / 6.3.0:
Ternary compounds
Differential elastic np cross sections at high energies / 2.4.2.2:
The solar system
Aliphatic molecules with double and triple carbon-bonds / 17:
Spontaneous magnetization, magnetic moments and high-field susceptibility
Atomic quadrupole coupling constants of some elements
The Celestial Ephemeris Pole / 2.7.8:
List of symbols and indices / 1.1.2.5:
Magnetization
References for 2.2.1.2
Magnesium-centered radicals
References for 3.1 and 3.2
KNO3 family
Elemento-organic compounds
Phenyl radicals
References for 2.7 / 6.3.1:
Differential np charge exchange cross sections at high energies / 2.2.2:
The sun
Magnetocrystalline anisotropy constants / 18:
Sternheimer antishielding factor for atoms, free ions and ions in crystals
Radioactive heat production in the continental crust (See Vol. 2A) / 2.8:
Elements with two or three internal rotors / A. Berndt1.3.4:
Bibliography for 1.2
Arrott plots / 1.1.2.6:
Climate variations
Aluminum-centered radicals / H. Oesterreicher2.4.2.3:
PbHPO4 family
Vinyl and acyl radicals
Polarization parameters of elastic np scattering / E.A. Lubimova6.3.2:
The quiet sun
Saturated cyclic compounds / 19:
Magnetostriction coefficients
Transition frequencies between nuclear quadrupole energy levels
Carbon radicals with conjugated &pi-systems / K. Oesterreicher
Observational techniques / 1.1.2.7:
Magnetic anisotropy
Silicon-centered radicals
KDP (KH2PO4) family / 4.1:
Unsaturated cyclic and aromatic compounds
Aromatic radical cations
Temperature profiles in the earth's interior / 6.3.3:
Differential cross sections and polarization of elastic (anti-p)p scattering / 1.2.13:
Solar activity
Form factors, densities and magnetic moments / 20:
Eigenvalues for the nuclear quadrupole resonance spectra for I = 5/2
Compounds based on rare earth elements and B
Seismicity and the interior of the earth / 2.4.2.4:
Space-time scales / 1.1.2.8:
High-frequency properties
Information sources
Phosphorus-centered radicals / F.D. Stacey2.8.1:
(NH4)2SO4 family / 4.2:
Polymer radicals / 2.1.1:
The planets and their satellites / 6.3.4:
Hyperfine fields, isomer shifts and relaxation time / G. Schneider21:
Eigenvalues for the nuclear quadrupole resonance spectra for I = 7/2
Binary rare earth borides
Radicals with 3 conjugated π-electrons
Equations of motion / A.L.J. Beckwith1.4.1:
Hall resistivity
Remarks on statistical problems
Heat transport in the earth's interior / 2.10:
Sulfur-centered radicals
NH4HSO4 family / 4.2.1:
Mechanical data of the planets and satellites / 6.3.5:
Seismicity / 22:
Spin wave properties
Eigenvalues for the nuclear quadrupole resonance spectra for I = 9/2
Allyl and deuterated allyl radicals
Carbon-centered radicals: Fragmentation and rearrangement reactions / 1.4.2:
Kinematics of linear small-scale waves / 1.1.2.10:
Remarks on some concepts of metallurgy
History of paleoclimate and neoclimate before the modern interval
Electrical properties of the earth's interior
Chlorine-centered radicals
(NH4)3H(SO4)2 family / 4.2.2:
Linear and symmetric top moleculesJ. Demaison
General features of the data / 6.3.6:
Physics of the planets and satellites
g factors and ferromagnetic resonance properties / 23:
Nuclear quadrupole resonance data
Alkyl-substituted allyl radicals / U. Schmucker
Spectral models / 1.4.3:
Quenched bulk alloys
History of neoclimate since the modern interval (1659 AD)
Potassium-centered radicals / 2.4.2.6:
NH4LiSO4 family / 4.2.3:
Table of differential cross sections for elastic (anti-p)p scattering / 6.3.7:
Small bodies in the solar system
Asymmetric top molecules / 24:
Fermi surfaces, band structures, exchange energies and electron spin polarizations
Depth distribution of the electrical conductivity
Allyl radicals containing F, Cl, Br
Fragmentation reactions / 1.4.4:
Spectral dynamics / 1.1.2.12:
Quench-condensation
Overview of the northern hemisphere temperature variations
Calcium-centered radicals / 2.8.1.3:
Langbeinite-type family / 4.2.4:
Table of polarization parameters for elastic (anti-p)p scattering / 6.3.8:
The asteroids (minor planets)
Geometric and dynamic source parameters / 25:
Optical constants, magneto-optic Kerr or Faraday effect
Resonance data tables
Hindered rotation / 2.4.2.7:
Allyl radicals containing O
Rearrangement reactions / 1.4.5:
References for 6.3 / 1.1.2.13:
Annealing
Spectral overview of the northern hemisphere temperature variations
Scandium-centered radicals / 2.8.2:
Lecontite (NaNH4SO4·2H2O) family / 4.2.5:
Errata
References for 1.4 / 1.5.1.4.4:
Meteors and meteorites
Radiation pattern and source mechanisms / 26:
Index of substances (See Vol.13E)
Specific heat, resistivity, magnetoresistance, Hall coefficients, Seebeck coefficients and thermal conductivity
Deuterium / W. Zahel
Allyl radicals containing S
Ageing / 3.3.3:
Summary of possible causes of climate variations
Vanadium-centered radicals / 2.3.1.2:
Alum (NH4Fe(SO4)2·12H2O) family / 4.2.6:
Symmetric top rnolecules / 1.5.1.4.5:
Kaon nucleon elastic and charge exchange scattering / 1.2.20:
Comets
Seismic source spectrum and magnitude / 27:
References for 1.1.2
Astronomical tides
Lithium
Derivation of apparent resistivity estimates from experimental electric and electromagnetic data / 2.8.1.5:
Allyl radicals containing N and P
Cold working / 3.3.4:
Cobalt-centered radicals / 2.3.1.3:
GASH (C(NH2)3Al(SO4)2·6H2O) family / 4.2.7:
Linear and symmetric top molecules
Survey of data / 1.5.1.5:
Interplanetary dust and zodiacal light
The spatial distribution of earthquake foci / 28:
Alloys between 3d elements
Beryllium
Inversion of electromagnetic response estimates
Allyl radicals containing Si, Ge, and Sn
Surveys / 3.3.5:
Glossary
Copper-centered radicals / 2.3.1.4:
LiH3(SeO3)2 family / 4.2.8:
Interplanetary particles and magnetic field / D. Bonnenberg1.5.1.6:
Seismic return period and earthquake statistics / 29:
The tide-generating potential
Boron
Asymmetric top rnolecules / 2.4.2.9:
Principle constraints of interpretation
Methylene allyl radicals
3d transition elements with Cu / K.A. Hempel3.4:
References for 15
Zinc-centered radicals / 2.8.2.1:
Colemanite (Ca2B6O11·5H2O) / 4.2.9:
Tables of total cross sections of (K+-)p and (K+-)d scattering / 1.5.1.7:
Abundances of the elements in the solar system
Macroseismic effects / 30:
The tidal dynamical equations / H.P.J. Wijn
- 9 Nitrogen / D. Etling
Magnetic constants
General notes on response data and models in figures and tables of subsection 2.3.1
Iminoallyl radicals
3d transition elements with Ag / A. Dubrulle3.5:
Gallium-centered radicals / 10:
Tables of differential cross sections for elastic (K+-)p scattering / 4.2.10:
Chronology of the solar system
K4Fe(CN)6·3H2O family
Earthquake prediction
Alloys between Fe, Co or Ni
Time dependence of the tidal field of motion
The Planetary Boundary Layer (PBL)
Oxygen
The electrical resistivity in the continental crust / 2.8.2.2:
Phenyl- and aryl-substituted allyl radicals
Comprehensive index (See Vol.2C)
3d transition elements with Au / 31:
RNi compounds / 16.1:
Germanium-centered radicals / 2.3.1.7:
Diatomic rnolecules / 4.2.11:
Tables of differential cross sections for charge exchange scattering / 1.2.25:
SC(NH2)2
C-C bonds
References for 2.1.1
Phase diagrams, lattice parameters
Open ocean tides
Sodium
The electrical resistivity of the mantle from observations on continents / 2.9.2:
Aza-allyl and phospha-allyl radicals
References for 1.5.1 / 32:
Arsenic-centered radicals / W. HUTtner16.2:
C-Si and C-Ge bonds / 4.2.12:
Tables of polarizations in elastic (K+-)p scattering / G. Müller1.5.2:
N(CH3)4HgCl3 family
Magnetic properties
Co-oscillating tides
The vertical structure of the PBL
Magnesium
The resistivity of crust and mantle beneath oceans
Semicyclic allyl radicals
C-O bonds / 33:
Selenium-centered radicals / W. Zürn1.2.1.2.1:
References for 2 / 4.2.13:
Cu(HCOO)2·4H2O
C-S and C-Se bonds
Vertical distribution of tidal currents
3d elements and Be, Mg, Zn or Hg
Theoretical basis
Aluminum
References for 2.3.1 / 2.8.2.4:
Cyclopropenyl radicals
Seismic waves and free oscillations / 34:
Bromine-centered radicals / 1.2.1.2.2:
C-N and C-P bonds / 4.2.14:
DSP (Ca2Sr(CH3CH2COO)6) family / V. Haak2.1.2.0:
Hyperfine magnetic fields, isomer shifts
References for 6.4
Alloys and compounds of 3d elements with Be
The surface layer
Sulfur
Isocyclic allyl radicals
Other bonds / 35:
Krypton-centered radicals / 1.2.1.2.3:
Index of substances (See Vol.19D3) / E. Mittelsteadt4.2.15:
Anomalies of the electrical conductivity in the earth's crust and upper mantle
CH2ClCOONH4 family / 1.2.29:
Spin waves
Alloys and compounds of 3d elements with Mg
The Planetary Boundary Layer
Chlorine
Heterocyclic allyl radicals / 2.8.2.5:
Body waves / 36:
Rubidium-centered radicals / 1.2.1.2.4:
Upwelling regions / 4.2.16:
Chlorine (See Vol.20B)
TGS ((NH2CH2COOH)3·H2SO4) family / 1.2.30:
Atomic magnetic moment, magnetic moment density, g and g' factor
Alloys and compounds of 3d elements with Zn or Hg / 7.1:
Observations in the PBL
Potassium - Rubidium (See Vol.20B)
Bicyclic and tricyclic allyl radicals / 2.3.2.1:
Surface waves / 37:
Zirconium - Bismuth (See Vol.20C) / 1.2.1.2.5:
Strontium-centered radicals
NH2CH2COOH·AgNO3 / 4.2.17:
Spontaneous magnetization, Curie temperature
References for 1.5.2 / 7.2:
Modelling of the PBL
Diagrams of NQR frequencies and related properties (See Vol.20C)
References to further papers concerning ESR studies on allyl radicals / 2.3.2.2:
Free oscillations / 38:
Yttrium-centered radicals / 1.2.1.2.6:
Open ocean upwelling zones / 4.2.18:
Representation of experimental data / J.G. Booth
(NH2CH2COOH)2·HNO3 / 1.2.32:
High-field susceptibility
Allenyl (propargyl) radicals / 7.3:
Diagrams / 39:
Niobium-centered radicals / 2.4.2.16:
Coastal upwelling / 4.2.19:
3d elements and B, Al, Ga, In or TI
Resolution and reliability / 4.3:
(NH2CH2COOH)2·MnCl2·2H2O / 1.2.33:
References for 2.1.2
Magnetocrystalline anisotropy
References for chapter 4 / 7.4:
References to further papers concerning ESR studies on allenyl radicals / 2.3.2.4:
Rhodium-centered radicals / 40:
References
References for 7 / A.M. Dziewonski
Structure formulas (See Vol.20C)
Selection of anomalies / 2.8.2.8:
(CH3NHCH2COOH)3·CaCl2 / 1.2.34:
Appendix: Additions to Chapter 2 Index of substances (See Vol.14B)
Magnetostriction
References for 16 / 8:
Radicals with 5 conjugated π-electrons / 2.4.2.17:
Indexes (See Vol.20C) / D.L. Anderson ; G. Koslowski41:
Silver-centered radicals
3d-B alloys and compounds / 4.3.1:
Presentation of results
Rochelle salt (NaKC4H4O6·4H2O) family / 1.2.35:
Magnetomechanical properties, elastic moduli, sound velocity
Index of gross molecular formulas / 1.5.3.3:
Pentadienyl radicals / 2.8.2.9:
Structure, elastic and rheological properties and density of the earth's interior / 42:
Ice in the ocean / 1.2.1.2.10:
Cadmium-centered radicals / 2.4.2.18:
3d-Al alloys and compounds / 4.3.2:
Index of substance names
List of compiled conductivity anomalies
LiNH4C4H4O6·H2O family / 1.2.36:
Thermomagnetic properties, thermal expansion coefficient, specific heat, Debye temperature, thermal conductivity
Pentadiinyl radicals / 1.5.3.3.1:
Index of CAS registry numbers / 1.2.1.2.11:
Indium-centered radicals
Miscellanea / 4.3.3:
Sc-Al / 2.1.3.1:
Errata (See Vol.20C)
Description of anomalies
Galvanomagnetic properties / 1.2.37:
Corrections (See Vol.31B) / 1.5.3.3.2:
Semicyclic pentadienyl radicals / 2.4.2.19:
The Gross Earth Data Set
Structure of sea ice / 1.2.1.2.12:
Tin-centered radicals
Miscellaneous crystals (including oxides) and polymers / 4.3.4:
Ti-Al / 2.1.3.2:
References for 2.3.2
Magneto-optical properties / 1.2.38:
Cyclopentadienyl radicals / 1.5.3.3.3:
The earth model
Salinity of sea ice / 1.2.1.2.13:
Composition of the earth's interior (See Vol. 2A) / 2.4.2.20:
Antimony-centered radicals
Liquid crystals and related liquids / 4.3.5:
V-Al / 2.1.3.3:
Ferromagnetic resonance properties / 1.2.39:
Tides of the earth (See Vol. 2A) / 1.5.3.3.4:
References to further papers concerning ESR studies on cyclopentadienyl radicals
Thermophysical properties of sea ice / 1.2.1.3:
Tellurium-centered radicals
Cr-Al / 4.3.6:
Gravity field and figure of the earth (See Vol. 2A) / 2.8.2.11:
References for 2.1.3 / 1.2.40:
References for 1.2.1
Cyclohexadienyl radicals / 1.5.3.3.5:
Elastic properties and deformation of sea ice / 2.1.4:
References for 2.4
Iodine-centered radicals
Mn-Al / C. Prodehl ; K. Adachi4.3.7:
Magnetic field of the earth
References to further papers concerning ESR studies on cyclohexadienyl radicals / A. Chelkowski1.2.41:
Strength of sea ice
Xenon-centered radicals
Structure of the earth's crust and upper mantle / 4.3.8:
Alloys between Ti, V, Cr or Mn
Fe-Al / 8.6:
Compounds of rare earth elements and 4d or 5d elements / 2.8.2.12:
Pyryl radicals
Ice cover characteristics of the world ocean
Sources of the geomagnetic field / 2.5.1:
Cesium-centered radicals
Co-Al / 4.3.9:
References to further papers concerning ESR studies on pyryl radicals / 4.1.1:
References for 8
External part of the earth's magnetic field / 2.5.2:
Barium-centered radicals
Procedure of interpretation / 4.3.10:
V-Ti
Ni-Al / 9:
Pseudoternary compounds / H.G. Gierloff-emden4.1.2:
Survey of compounds and properties
Thiapyryl radicals
Internal part of the earth's magnetic field / 2.8.3.1:
Lanthanum-centered radicals
Main features of continental and oceanic crustal structure / 4.3.11:
Cr-Ti
3d-Ga compounds
Coastal oceanography / 4.1.3:
Compounds with transition metal substitution / 1.5.3.4.1:
Pyridinyl radicals
Spherical harmonics in geomagnetism / 9.1:
Tungsten-centered radicals
Presentation of individual results / 4.3.12:
Cr-V
Sc-Ga
References for 2.5
Definitions and spatial extensions / 4.1.4:
Compounds with rare earth metal substitution / 1.5.3.4.2:
References to further papers concerning ESR studies on pyridinyl radicals
References for 4.1 / 9.2:
Gold-centered radicals
Main features of the structure of the lower lithosphere and asthenosphere / 4.3.13:
Mn-Ti
Ti-Ga
Classification of coasts / 1.2.47:
References for 2.8 / 1.5.3.4.3:
Phosphorinyl radicals
Magnetic field on the surface and the interior of the earth / 9.3:
Mercury-centered radicals
References for 2.1.4 / 4.4:
Mn-V
V-Ga
The high-energy environment of the coastal zone / 1.2.48:
Radicals with 7 conjugated π-electrons / W. Bosum1.5.3.4.4:
Thallium-centered radicals / 9.4:
Mn-Cr / 4.4.1:
Cr-Ga
Compounds of rare earth elements and Al, Ga, In or Tl
The shore as the interaction zone of sea and land / R. Pucher1.2.49:
Heptatrienyl radicals / 1.5.3.4.5:
Lead-centered radicals / H. Roeser9.5:
Mn-Ga / 4.4.2:
Wave effects on coasts / 1.2.50:
Cycloheptatrienyl radicals / 1.5.3.4.6:
Alloys of Fe, Co or Ni and Ti, V, Cr or Mn / R. Von Herzen
Crustal anomalies and their cause / 9.6:
Bismuth-centered radicals
Fe-Ga / 4.4.3:
Tide effects on coasts / 4.2.1.0:
Cyclooctatrienyl radicals / 1.5.3.4.7:
Oceanic heat flow data
Ytterbium-centered radicals / 9.7:
Co-Ga / 4.4.4:
Estuaries and lagoons as coastal water bodies / 4.2.1.1:
Benzyl radicals / 1.5.3.4.8:
Fe-Ti
Definition of the crustal anomalies / 9.8:
References for 1.2
Ni-Ga / 4.4.5:
References for 2.9
Coastal lagoons / 4.2.1.2:
Benzyl-type radicals containing heterocyclic 6 π-electron ring systems / A. V.Zelewsky1.5.3.4.9:
Western and South Pacific
Fe-V
Layout and execution of geomagnetic surveys / 9.9:
Cu-Ga / 4.4.6:
River discharge affecting coastal waters / C. Daul4.2.1.3:
Bicyclic benzyl-type radicals derived from indanone and phthalide / 1.5.3.5:
Northeast and Central Pacific
Fe-Cr
Compounds of rare earth elements and C, Si, Ge, Sn or Pb / 9.10:
Data handling
3d-In alloys and compounds / 4.4.7:
Radicals in metal complexes / 2.10.1:
Chemical and biological effects on the coastal zone
References to further papers concerning ESR studies on benzyl radicals / 1.5.3.5.1:
East Pacific
Fe-Mn
Interpretation methods / 9.11:
Sc-In / 4.5:
Climatologic-meteorologic effects on coasts. Oceanic-atmospheric coupled systems / 2.10.2:
Radicals with 9 conjugated π-electrons / 1.5.3.5.2:
North Atlantic
Co-Tl
Magnetic anomalies of the continental crust / 9.12:
Mn-In / 4.5.1:
Sea level change and the coastal zone / 2.10.3:
Cyclooctatetraenylmethyl / 1.5.3.5.3:
South Atlantic
Co-V
Marine magnetic anomalies / 9.13:
Ni-In / 4.5.2:
Complexes of group IIa: Mg, Ca, Sr, Ba / 2.10.4:
References for 9
Indenyl and related radicals / 1.5.3.6:
Indian Ocean
Co-Cr
References for 2.10
Economic aspects
3d-Tl alloys and compounds / 4.5.3:
Complexes of group IIIb: B, Al, Ga, In / 4.2.1.8:
alpha-Hydronaphthyl and related radicals / 1.5.3.7:
Marginal Seas
Co-Mn
Bibliography for 4.2.1
References for 1.5.3 / 4.5.4:
Complexes of group IVb: Ge, Sn, Pb
Cyclohexadienyl-type radicals derived from indole and carbazole
References for 2.2.1.1
Ni-Ti
Complexes of group Vb: Sb / 4.5.5:
Continental heat flow data (See Vol. 2B)
Magnetic and electric fields due to electromagnetic induction by external sources
beta-Hydronaphthyl and related radicals / 2.2.5:
Ni-V
Complexes of group IIIa: Y, La, Lu / L. Rybach4.2.2.0:
Quinolinyl and related radicals / 2.2.6:
Ni-Cr
Radioactive heat production in the continental crust / 4.2.2.1:
Complexes of group IVa: Ti / 1.2.3.12:
Basic observations and theoretical concepts
Cyclohexadienyl-type radicals derived from anthracene and phenanthrene and related to hydro-naphthyl / 2.2.7:
Temperature profiles in the earth's interior (See Vol. 2B)
Ni-Mn
Complexes of group Va: V / 4.2.2.2:
Heat transport in the earth's interior (See Vol. 2B)
Response functions for induced magnetic and electric fields
Radicals with 11 conjugated π-electrons / 2.2.8:
V-Cr-Mn
Electrical properties of the earth's interior (See Vol. 2B) / 4.2.2.3:
Complexes of group VIa: Cr, Mo, W / 1.2.3.14:
Natural earth potentials and earth currents
Radicals with 13 conjugated π-electrons / 2.2.9:
Fe-V-Cr / I. Jackson
Complexes of group VIIa: Mn, Re / 4.2.2.4:
Derivation of external source fields from surface observations
Phenalenyl (perinaphthenyl) radicals / 2.2.10:
Composition of the earth's interior
Fe-Cr-Mn
Complexes of group VIII: Fe, Ru, Co, Rh, Ir, Ni, Pd, Pt / 4.2.2.5:
References for 4.2.2
Diphenylmethyl radicals / 2.2.11:
Co-V-Cr
Complexes of group Ib: Cu, Ag / D. Voppel4.7.3:
Fluorenyl radicals / 2.2.12:
Co-Cr-Mn
Observation and description of the main geomagnetic field and its secular variation / 4.7.4:
Complexes of group IIb: Zn, Cd, Hg
Dibenzocyclohexadienyl and related radicals / 4.2.3.0:
The crust
Fe-Co-Ti
List of symbols, quantities, units and abbreviations / 4.7.5:
References for 2.2
Index of Substances (See Vol.9D2) / 4.2.3.1:
Dibenzocycloheptatrienyl and related radicals
The upper mantle
Fe-Co-V
Benzo[cd]pyrenyl / 4.7.6:
The transition zone
Fe-Co-Cr
Observation of the earth's magnetic field / 4.7.7:
Xanthyl radicals / V:
The lower mantle
Fe-Co-Mn
Combined index of substances for Vols.16A and 16B / 4.7.8:
Analyses of observations / 2.4.7:
Thioxanthyl and related radicals / 4.2.3.4:
The core
Fe-Ni-V
Knowledge gained from spherical harmonic models / 4.7.9:
Selenoxanthyl and related radicals / 4.2.3.5:
Fe-Ni-Cr
References for 4.2.3 / 4.7.10:
Acridinyl and related radicals
Tides of the earth
Fe-Ni-Mn
Dibenzosilacyclohexadienyl and related radicals / F.H. Busse4.7.11:
List of symbols and abbreviations for 2.5.1 and 2.5.2
Co-Ni-Ti
Material properties entering the theory of the main geomagnetic field
Diphenylmethyl-type radicals containing heterocyclic 6 π-electron ring systems / H. Wilhelm ; H. Soffel4.7.12:
Co-Ni-Mn
Palaeomagnetism and archaeomagnetism / 4.7.13:
References to further papers concerning ESR studies on diphenylmethyl radicals
References for 1.2.2 and 1.2.3
Tidal forcing field / 4.3.0:
Radicals with 19 conjugated π-electrons / S. Misawa2.5.1.1:
Introduction, definitions, hypotheses / K. Kanematsu4.8.1:
Triphenylmethyl radicals
Expansion in spherical harmonics / 4.8.2:
4d and 5d elements, alloys and compounds
Apparent polar wander paths (APWP) / 2.5.1.3:
9-Phenylfluorenyl radicals
Equatorial and ecliptical coordinates / 4.8.3:
Introduction to the paramagnetism of 4d and 5d transition metals
Geomagnetic polarity time scale, magnetostratigraphy, palaeo-secular variation / 2.5.1.4:
9-Phenylxanthyl radicals
Components / 4.8.4:
Magnetic susceptibility
Determination of the intensity of the ancient geomagnetic field / 2.5.1.5:
9-Naphthylxanthyl radicals
Astronomical variables. Time / 4.8.5:
Magnetic susceptibility as a function of composition
Geomagnetic field during a polarity transition / 2.5.1.6:
Dioxydehydrocoranthryl and sesquixanthydryl
Harmonic development / 4.8.6:
High-field magnetization
Archaeomagnetism / 2.5.1.7:
9-Phenylthioxanthyl
References for 2.5.1 / 4.8.7:
Magnetization density
Palaeomagnetism of samples of extraterrestrial origin / 1.3.6:
9-Phenylselenoxanthyl
Knight shift / 4.8.8:
References for 4.3 / 1.3.7:
9-Phenylacridinyl
Tides of the solid earth / 4.8.9:
Transport of masses in the earth's interior / 1.3.8:
Triphenylmethyl-type radicals containing 5-membered ring systems especially thiophene
Magnetoresistance and Hall effect / 2.5.2.1:
Relief of the earth's surface and of the sea floor / 1.3.9:
References to further papers concerning ESR studies on triphenylmethyl radicals
Magnetic field dependence of the electronic specific heat coefficient / 2.5.2.2:
Body tides / H. Hagedorn
References for 4 / 1.3.10:
Effect of plastic deformation on the susceptibility / 2.5.2.3:
The relief of the earth's surface
Observations
References for 1.3 / 1.3.11:
The hypsographic curve
Load tides
Alloys and compounds of 3d elements and 4d or 5d elements / 5.1.1.2:
Area of continents and oceans
Systematic effects
Structural forms due to endogenic processes / M. Shiga5.1.1.3:
Local elastic inhomogeneities
3d elements and Zr, Nb, Mo or Hf, Ta, W, Re / 5.1.1.4:
Exogenic continental relief / 1.4.1.1:
Meteorological effects
Weathering / 5.1.1.5:
References for 2.5.2
Ti and V alloys and compounds / 5.1.1.6:
Exogenic relief-forming processes / P. Brosche1.4.1.3:
Cr alloys and compounds / J. Sündermann5.1.1.7:
Ice and glaciated areas / 1.4.1.4:
Tidal friction and dynamics of the earth-moon-system / 5.1.1.8:
Mn alloys and compounds
References for 5.1.1 / 2.5.3.0:
Fe alloys and compounds / 5.1.2:
The principle / H.G. Gierloff-Emden2.5.3.1:
Co and Ni alloys and compounds
Relief of the sea floor
References for 1.4.1 / 2.5.3.2:
Balances of energy and angular momentum / 2.5.3.3:
Geomorphology of the sea floor
Long time integration / 2.5.3.4:
Documentation and presentation of the relief of the sea on maps
3d elements and Ru, Rh, Pd or Os, Ir, Pt / 2.5.3.5:
Bibliography for 2.5.3 / 5.1.2.3:
Hypsography of the relief of the sea floor
3d-rich alloys
Hypsometric statistics of the sea floor / H.-G. Kahle5.1.2.4:
Concentrated alloys and intermetallic compounds
Gravity field and figure of the earth / 5.1.2.5:
Terms for horizontal and vertical dimensions of oceans and sea floors / 1.4.2.2.0:
Gravity potential of the earth / 5.1.2.6:
Subdivision of the seafloor into physiographic provinces / 1.4.2.2.1:
Sc, Ti, and V alloys and compounds
Fundamental notions of gravimetry / 5.1.2.7:
Classification of the ocean floor features / 1.4.2.2.2:
Gravimetric measuring techniques / 5.1.2.8:
Morphologic units of the oceans: description of forms / 1.4.2.2.3:
Reference ellipsoid and geoid / 5.1.2.9:
Tectonic-morphogenetic units of the mid-atlantic ridge and adjacent areas / 1.4.2.2.4:
Satellite geodesy and the earth's gravitational potential V / 5.1.2.10:
Classification of global physiographic units of the Atlantic Ocean, topographic-bathymetric dimension (metric) / 1.4.2.2.5:
Co alloys and compounds
References for 3 / 5.1.2.11:
The mid-ocean ridges: geomorphologic element of global scale and distribution / 1.4.2.2.6:
Magnetic field of the earth (See Vol. 2B)
Ni alloys and compounds
Classification of continental margins / 5.1.2.12:
4d- and 5d-rich alloys
Relief of the earth's surface and of the sea floor (See Vol. 2B) / 5.1.2.13:
Submarine canyons (features of macroscale)
References for 1.4.2 / 5.2:
Fracture zones (features of mesoscale to macroscale) / H. Mälzer5.1.2.14:
Recent crustal movements / 5.1.2.15:
Deep sea trenches (features of meso- to macroscale) / 5.2.0:
Abyssal hills and seamounts. Example: features of the Pacifc Ocean sea floor / 5.1.2.16:
Micro-relief of the sea floor: the roughness of the ocean bottom / 5.1.2.17:
Measurements of deformation within plate interiors and near active plate boundaries / 5.1.2.18:
Sedimentation of the ocean bottom / 5.2.3:
Measurements on a global scale / 5.1.2.19:
The mid-ocean ridges and the sea floor spreading / 5.2.4:
References for 5.2 / 5.1.2.20:
Plate tectonics and the relief of the sea floor / 5.3:
Theories and hypotheses of global tectonics (See Vol. 2B)
References for 5.1.2 / 5.1.2.21:
Recent crustal movements (See Vol. 2A)
Motions in the earth's core and core-mantle coupling
Theories and hypotheses of global tectonics / W.R. Jacoby ; R. Meissner ; P. Janle
Planetology of terrestrial planets / 5.3.0:
Historical review / 6.0:
Short description of the terrestrial planetary bodies / 5.3.3:
Plate kinematics
Absolute age determinations / 5.3.4:
Measurements of plate motions
Relative age determination / 5.3.5:
Results
Geological - geophysical interpretation of surface structures / 6.5:
Plate tectonics
Gravity studies from orbiters and density models of lithospheres / 6.6:
Plate dynamics: driving mechanisms
Additional studies from orbiter, fly-by, and descend missions / 6.7:
References for 5.3
Motions in the earth's core and core-mantle coupling (See Vol. 2A) / 6.8:
Lunar seismology
Planetology of terrestrial planets (See Vol. 2A) / 6.9:
Planetary magnetic fields and remanent magnetization
Subject index for volumes 1A, 1B and 2A, 2B
Electrical conductivity, heat flow and estimates on the lunar temperature / 6.10:
Physical conditions of the interior of planets / 6.11:
The evolution of terrestrial planets / 6.12:
Subject index for volumes 1A, 1B and 2A, 2B (see Vol. 2B) / 6.13:
The references are presented below the abstract of each pdf-document to allow cross-reference linking / Group V:
Title Page, Preface
Introductory material
2.

図書

図書
S.W.S. McKeever
出版情報: Cambridge : Cambridge University Press, 1985  xiv, 376 p. ; 22 cm
シリーズ名: Cambridge solid state science series
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Preface
Introduction / 1:
What is thermoluminescence? / 1.1:
Luminescence / 1.2:
Early observations of thermoluminescence (pre-1948) / 1.3:
Applications / 1.4:
Radiation dosimetry / 1.4.1.:
Age determination / 1.4.2.:
Geology / 1.4.3.:
Defects in solids / 1.4.4.:
Other applications / 1.4.5.:
This book / 1.5:
Theoretical background / 2:
Elementary concepts / 2.1:
Energy bands and localized levels: crystalline materials / 2.1.1.:
Non-crystalline materials / 2.1.2.:
Traps and recombination centres / 2.1.3.:
Transitions not involving the delocalized bands / 2.1.4.:
Recombination processes / 2.2:
Direct and indirect recombination / 2.2.1.:
Radiative and non-radiative recombination / 2.2.2.:
Models for thermoluminescence / 2.3:
Simple model / 2.3.1.:
Additions to the simple model / 2.3.2.:
An alternative model / 2.3.3.:
More complex models / 2.3.4.:
Thermoluminescence analysis / 3:
Trap emptying / 3.1:
Equations for the simple model: order of kinetics / 3.2.1.:
Equations for other models / 3.2.2.:
Methods of analysis / 3.3:
Partial and whole curve analyses / 3.3.1.:
Peak shape methods / 3.3.2.:
Peak position methods / 3.3.3.:
Curve-fitting / 3.3.4.:
Isothermal analysis / 3.3.5.:
Energy distributions / 3.3.6.:
Calculation of the frequency factor, s / 3.3.7.:
Summary / 3.3.8.:
Trap filling / 3.4:
The simple model / 3.4.1.:
Additional factors governing thermoluminescence / 3.4.2.:
Further discussions of supralinearity / 4.1:
Multi-stage reaction models / 4.1.1.:
More on competition models / 4.1.2.:
Trap creation models / 4.1.3.:
Sensitization / 4.2:
Competing trap models / 4.2.1.:
Centre conversion models / 4.2.2.:
Trap creation models (radiation and thermal) / 4.2.3.:
Optical effects / 4.3:
Optical stimulation / 4.3.1.:
Phototransfer / 4.3.2.:
Tunnelling and anomalous fading / 4.4:
Quenching effects / 4.5:
Thermal quenching / 4.5.1.:
Concentration quenching / 4.5.2.:
Impurity quenching / 4.5.3.:
Defects and thermoluminescence / 5:
General introduction / 5.1:
The alkali halides / 5.2:
Structure and defects / 5.2.1.:
Irradiation effects / 5.2.2.:
Thermoluminescence from KCl, KBr, KI and NaCl, irradiated at 4K / 5.2.3.:
Samples irradiated at 80K / 5.2.4.:
Samples irradiated at room temperature / 5.2.5.:
Thermoluminescence from LiF / 5.2.6.:
Quartz and silica / 5.3:
Structure / 5.3.1.:
Defects / 5.3.2.:
Thermoluminescence; samples irradiated below room temperature / 5.3.3.:
Thermoluminescence dosimetry (TLD) / 5.3.5.:
General requirements for TLD materials / 6.1:
Dose response / 6.1.1.:
Energy response / 6.1.2.:
Fading and stability / 6.1.3.:
Annealing procedures / 6.1.4.:
Other factors / 6.1.5.:
Specific examples / 6.2:
Lithium fluoride, LiF / 6.2.1.:
Lithium borate, Li[subscript 2]B[subscript 4]O[subscript 7] / 6.2.2.:
Magnesium borate, MgB[subscript 4]O[subscript 7] / 6.2.3.:
Magnesium orthosilicate, Mg[subscript 2]SiO[subscript 4] / 6.2.4.:
Calcium sulphate, CaSO[subscript 4] / 6.2.5.:
Calcium fluoride, CaF[subscript 2] / 6.2.6.:
Beryllium oxide, BeO / 6.2.7.:
Aluminium oxide, Al[subscript 2]O[subscript 3] / 6.2.8.:
Ultra-violet effects and dose re-estimation / 6.3:
Personal dosimetry / 6.4:
Materials / 6.4.1.:
Practical application / 6.4.3.:
Environmental monitoring / 6.5:
Medical applications / 6.5.1.:
Thermoluminescence dating / 6.6.1.:
General / 7.1:
Techniques in pottery dating / 7.2:
Fine-grain dating / 7.2.1.:
Inclusion dating / 7.2.3.:
Pre-dose dating / 7.2.4.:
Phototransfer dating / 7.2.5.:
General problems / 7.3:
Fading / 7.3.1.:
Spurious thermoluminescence / 7.3.2.:
Sensitization and supralinearity / 7.3.3.:
Dose rate evaluation / 7.4:
Thermoluminescence dosimetry / 7.4.1.:
Alpha-counting and K-analysis / 7.4.3.:
Other techniques / 7.4.4.:
Special dating applications / 7.5:
Sediments / 7.5.1.:
Stones and rocks / 7.5.2.:
Shells, bones and teeth / 7.5.3.:
Authenticity testing / 7.5.4.:
Geological applications / 8:
Meteorites / 8.1:
Mineralogy / 8.2.1.:
Thermoluminescence / 8.2.2.:
The use of the natural glow-curve / 8.2.3.:
The use of the artificial glow-curve / 8.2.4.:
Lunar material / 8.3:
Mineralogy and ages / 8.3.1.:
Terrestrial geology / 8.3.2.:
Shock detection / 8.4.1.:
Geo- and palaeothermometry / 8.4.2.:
Prospecting / 8.4.3.:
Miscellaneous applications / 8.4.4.:
Concluding remarks / 8.5:
Instrumentation / 9:
Cryostat design / 9.1:
High temperature (] room temperature) / 9.2.1.:
Low temperature ([ room temperature) / 9.2.2.:
Heater design and temperature control / 9.3:
Heater design / 9.3.1.:
Temperature control / 9.3.2.:
Light detection / 9.4:
Photomultiplier tube: d.c. current mode / 9.4.1.:
Photon counting / 9.4.2.:
Special considerations / 9.5:
Background subtraction / 9.5.1.:
Emission spectra / 9.5.2.:
Commercial systems / 9.6:
Minerals / Appendix A:
Commercial thermoluminescence systems / Appendix B:
References
Index
Preface
Introduction / 1:
What is thermoluminescence? / 1.1:
3.

学位論文

学位
Manikpurage Jayaratna
出版情報: Tokyo Institute of Technology, 1985
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4.

図書

図書
Don J. Torrieri
出版情報: Dedham, MA : Artech House, c1985  xii, 453 p. ; 24 cm
シリーズ名: Artech House communication and electronic defense library
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Preface
Errata
Modulation and Coding / Chapter 1:
Elementary Security Measures / 1.1:
Power and Propagation / 1.2:
Analog Communications / 1.3:
AM Systems / 1.3.1:
PM Systems / 1.3.2:
FM Systems / 1.3.3:
Frequency-Shift-Keying Systems / 1.4:
Noncoherent Binary FSK Systems / 1.4.1:
Noncoherent MFSK System / 1.4.2:
Coherent Binary FSK Systems / 1.4.3:
Continuous Phase Modulation / 1.5:
Error Control / 1.6:
Block Codes / 1.7:
Convolutional Codes / 1.8:
Chernoff Bound / 1.8.1:
Noncoherent MFSK / 1.8.2:
Trellis-Coded Modulation / 1.8.3:
Concatenated Codes / 1.9:
Pulsed Interference / 1.10:
Interleavers / 1.10.1:
Protection Against Pulsed Interference or Jamming / 1.10.2:
Frame Synchronization and Pulsed Interference / 1.10.3:
Direct-Sequence Spread-Spectrum Systems / Chapter 2:
Fundamental Concepts / 2.1:
Pseudonoise Sequences / 2.2:
Binary Arithmetic / 2.2.1:
Polynomials over the Binary Field / 2.2.2:
Autocorrelation of Spreading Waveform / 2.2.3:
Concealment of Direct-Sequence Waveforms / 2.3:
Binary Direct-Sequence System with Coherent PSK and Long Sequence / 2.4:
Tone Interference / 2.4.1:
Tone Interference at Carrier Frequency / 2.4.2:
Gaussian Interference / 2.4.3:
Error-Correcting Codes / 2.4.4:
Quaternary Direct-Sequence Systems / 2.5:
Code-Division Multiple-Access Networks / 2.6:
Binary Direct-Sequence Systems with Long Sequences / 2.6.1:
Multipath Interference / 2.6.2:
Quadriphase Direct-Sequence Systems with Long Sequences / 2.6.3:
Code Acquisition with Matched Filter / 2.7:
Serial-Search Acquistion / 2.8:
Code Tracking / 2.9:
Simple Systems with Matched Filters / 2.10:
Multipath-Resistant Coherent System with Matched Filter / 2.11:
Recirculation Loop / 2.11.1:
Coherent Decision-Directed Demodulator / 2.11.2:
Burst-Communication Systems / 2.12:
Supplementary Interference Rejection / 2.13:
Transform-Domain Processing / 2.13.1:
Adaptive Filtering / 2.13.2:
Frequency Hopping / Chapter 3:
Frequency Synthesizers / 3.1:
Digital Frequency Synthesizer / 3.2.1:
Direct Frequency Synthesizer / 3.2.2:
Indirect Frequency Synthesizer / 3.2.3:
Frequency Hopping with MFSK and Hard-Decision Decoding / 3.3:
Binary FSK / 3.3.1:
Frequency Hopping with MFSK and Soft-Decision Decoding / 3.3.2:
Single-Channel Modulation / 3.5:
Frequency-Hopping Multiple-Access Networks / 3.6:
Deployment Statistics / 3.6.1:
Examples / 3.6.2:
Close Interferers / 3.6.3:
Serial-Search Acquisition / 3.7:
Comparison and Combination of Direct-Sequence and Frequency-Hopping Systems / 3.9:
Repeater Jamming / 3.11:
Frequency-Shift Keying with Independent Synthesizers / 3.11.1:
Symbol Error Probability / 3.11.2:
Frequency Estimation / 3.11.3:
Direction-of-Arrival Sorting / 3.11.4:
Time-of-Arrival Sorting / 3.11.5:
Limitations on Hopping Rate / 3.11.6:
Interception / Chapter 4:
Introduction / 4.1:
Detection / 4.2:
Radiometer / 4.3:
Channelized Radiometer / 4.3.1:
Cross Correlator / 4.4:
Channelized Frequency Estimators / 4.5:
Filter Bank / 4.6.1:
Acousto-Optic Spectrum Analyzer / 4.6.2:
Spectrum Analysis Using the Discrete Fourier Transform / 4.7:
Instantaneous Frequency Measurement / 4.8:
Scanning Receivers / 4.9:
Scanning Superheterodyne Receiver / 4.9.1:
Compressive Receiver / 4.9.2:
Direction Finding by Energy Comparison / 4.10:
Multibeam System / 4.10.1:
Rotating Beams / 4.10.2:
Direction Finding with Interferometers / 4.11:
Phase Interferometer / 4.11.1:
Arrival-Time Interferometer / 4.11.2:
Other Direction-Finding Systems / 4.12:
Passive Location Systems / 4.13:
Adaptive Antenna Systems / Chapter 5:
Sidelobe Canceller / 5.1:
Steady-State Operation / 5.2.1:
Adaptive Null Steering / 5.2.2:
Potential Performance of Two-Element Adaptive Array / 5.3:
Adaptive Filters / 5.4:
Optimal Weights / 5.5:
Mean-Square-Error Criterion / 5.5.1:
SINR Criterion / 5.5.2:
Constrained Minimum-Power Criterion / 5.5.3:
Weighted Least-Squares Criterion / 5.5.4:
Widrow LMS Algorithm / 5.6:
Convergence of Mean / 5.6.1:
Misadjustment / 5.6.2:
Generation of Reference Signal / 5.6.3:
Howells-Appelbaum Algorithm / 5.7:
Frost Algorithm / 5.7.1:
Sample-Matrix-Inversion Algorithms / 5.8.1:
Recursive Algorithms / 5.10:
Adaptive Noise Canceller / 5.11:
Gram-Schmidt Preprocessor / 5.12:
QR Decomposition Algorithms / 5.13:
Givens Transformation / 5.13.1:
Recursive QR Algorithm / 5.13.2:
McWhirter Algorithm / 5.13.3:
Perturbation Algorithms / 5.14:
Adaptive Polarization Discrimination / 5.15:
Special Types of Interference / 5.16:
Adaptive Antenna Systems and Frequency Hopping / 5.17:
Cryptographic Communications / Chapter 6:
Digital Ciphers and Cryptanalysis / 6.1:
Block Ciphers / 6.1.1:
Synchronous Ciphers / 6.1.2:
Auto-Key Ciphers / 6.1.3:
Cipher-Block Chaining / 6.1.4:
Data Encryption Standard / 6.2:
Error Probability Bounds and Ensemble Averages / 6.3:
Stream Ciphers / 6.3.1:
Cryptographic Degradation / 6.3.2:
Error Correction / 6.4:
Synchronization and Interference / 6.5:
Security and Networks / 6.6:
Public-Key Cryptography / 6.7:
Results from Number Theory / 6.7.1:
Rivest-Shamir-Adleman Algorithm / 6.7.2:
Diffie-Hellman Algorithm / 6.7.3:
Scramblers / 6.8:
Signal Representations / Appendix A:
Cramer-Rao Inequality and Its Applications / Appendix B:
Matrix Analysis / Appendix C:
Mathematical Relations / Appendix D:
Index
Preface
Errata
Modulation and Coding / Chapter 1:
5.

図書

図書
by R.V. Ostrovityanov & F.A. Basalov ; translated by William F. Barton and David K. Barton
出版情報: Dedham, MA : Artech House, 1985  xviii, 364 p. ; 24 cm
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Introduction / 1.0:
Purpose
Objective / 1.2:
Orientation / 1.3:
Scope / 1.4:
Sources and Coupling of Em Energy / 2.0:
The Environment / 2.1:
Environment Sources / 2.2:
General Signal Characteristics / 2.2.1:
Pulse Signal / 2.2.2:
Signal Transmission / 2.2.3:
Radiated Energy / 2.3:
The Radiation Field / 2.3.1:
Distinction Between Induction and Radiation Fields / 2.3.2:
Nonlinear Environmental Effects / 2.3.3:
Propagation Effects / 2.3.4:
The GSE Radiated Environments / 2.3.5:
Conducted Energy / 2.4:
Conducted Routes / 2.4.1:
The GSE Conducted Environment / 2.4.2:
Combined Effects / 2.5:
Design Considerations / 3.0:
General Guidelines / 3.1:
Electrical Design / 3.1.1:
Physical Layout of Components / 3.1.2:
Mechanical Factors / 3.1.3:
Safety / 3.2:
The Effects of High RF Fields / 3.2.1:
Safety Procedures and Design Criteria / 3.2.2:
Factors Influencing Gse Emc / 3.3:
EMC Maintenance Considerations / 3.3.1:
Cost Benefit Considerations / 3.3.2:
Microprocessors and Digital Systems / 3.3.3:
Examples of Avionic and Gse Designs / 3.4:
Flight or Hangar Deck Operation / 3.4.1:
Shop Testing / 3.4.2:
Control and Test Planning / 4.0:
General / 4.1:
The Emc Control Plan / 4.2:
The Role of the Control Plan / 4.2.1:
The Contents of the Control Plan / 4.2.2:
Control Plan Checklist / 4.2.3:
The Emc Test Plan / 4.3:
Shielding / 5.0:
General Shield Design Considerations / 5.1:
Solid Shielding Materials / 5.2:
Shielding Analysis / 5.2.1:
Additional Comments on Magnetic Shielding / 5.2.2:
Multiple Solid Shields / 5.2.3:
Coating and Thin-Film Shielding / 5.2.4:
Non-Solid Shielding Materials / 5.3:
Types of Discontinuities / 5.3.1:
Composite Materials / 5.3.2:
Cables and Connectors / 5.4:
Cable Shielding / 5.4.1:
Cable Shield Terminations and Connectors / 5.4.2:
New Connector Technology / 5.4.3:
Fiber Optics / 5.4.4:
Other Design Techniques to Maintain Shielding Effectiveness / 5.5:
Seams Without Gaskets / 5.5.1:
Seams With Gaskets / 5.5.2:
Use of Waveguide Attenuators / 5.5.3:
Panel Openings / 5.5.4:
Required Visual Openings / 5.5.5:
Shielding Tests / 5.6:
Low Impedance Magnetic Field Testing Using Small Loops / 5.6.1:
Low Impedance Magnetic Field Testing Using a Helmholtz Coil / 5.6.3:
High Impedance Electric Field Testing Using Rod Antennas / 5.6.4:
High Impedance Electric Field Testing Using a Parallel Line Radiator / 5.6.5:
Plane Wave Testing Using Antennas / 5.6.6:
Plane Wave Testing Using a Parallel Plate Transmission Line / 5.6.7:
MIL-STD-1377 Testing / 5.6.8:
Summary of Good Shielding Practices / 5.7:
Bonding / 6.0:
Surface Treatment / 6.1:
Corrosion / 6.3:
Bonding Effectiveness Characteristics / 6.4:
Bond Jumper Equivalent Circuit / 6.4.1:
Equipment Effects on Indirect Bonds / 6.4.2:
Bonding Resistance / 6.4.3:
Bonding Tests / 6.5:
DC Resistance Measurement / 6.5.1:
Swept Frequency/Shunt-T Insertion Loss Measurement / 6.5.3:
Single Vs. Multi-Point Bonding / 6.6:
Bonding Design Guidelines / 6.7:
Grounding / 7.0:
Grounding Techniques / 7.1:
Circuit Grounding Considerations / 7.3:
Power Supply Considerations / 7.4:
Prime Power Considerations / 7.5:
Cabling Considerations / 7.6:
Grounding Design Guidelines / 7.7:
Fil Tering / 8.0:
Filter Desing / 8.1:
Low-Pass Filters / 8.2.1:
High Pass Filters / 8.2.2:
Bandpass Filters / 8.2.3:
Band-Rejection Filters / 8.2.4:
Transient Suppression / 8.3:
Inductive Loads / 8.3.1:
Mechanical Switches / 8.3.2:
Transformer Switching / 8.3.3:
Semiconductor Transients / 8.3.4:
Active Power Line Filters / 8.4:
Noise Blanking, Cancelling, And Limiting circuits / 8.5:
Noise Blanking / 8.5.1:
Cancellation / 8.5.2:
Limiting / 8.5.3:
Filter Tests / 8.6:
MIL-STD-220A Insertion Loss Test / 8.6.1:
Filter Admittance Transfer Test / 8.6.3:
Parallel Signal Injection Test / 8.6.4:
Series Signal Injection Test / 8.6.5:
Current Injection Probes / 8.6.6:
Leakage Current Test / 8.6.7:
Filter Installation And Mounting / 8.7:
Specifying Fil Ters / 8.8:
Testing Requirements and Techniques / 9.0:
Shielded Enclosure Requirements / 9.1:
Enclosure Limitations / 9.2.1:
Enclosure Design Considerations / 9.2.2:
Microwave Absorbers / 9.2.3:
Testing Guidelines / 9.3:
Signal Sources / 9.3.1:
Sweep Generators and Oscillators / 9.3.3:
Attenuators / 9.3.4:
Detectors / 9.3.5:
Radiated And Conducted Equipment Testing / 9.4:
Emission Tests / 9.4.1:
Susceptibility Tests / 9.4.3:
Transient Testing / 9.4.4:
Specifications and Standards / 10.0:
Applicable Specifications / 10.1:
Obtaining Specifications / 10.3:
Tables And Nomographs / 11.0:
Order Of Contents / 11.1:
Introduction / 1.0:
Purpose
Objective / 1.2:
6.

図書

図書
К. Манолов
出版情報: Мир, 1985
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7.

図書

図書
University of Pennsylvania. Dept. of History and Sociology of Science ; Cornell University. Dept. of Science & Technology Studies
出版情報: Philadelphia, Pa. : Dept. of Hisory and Sociology of Science, University of Pennsylvania, 1985-  v. ; 26 cm
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8.

図書

図書
Frimer, Aryeh A., 1946-
出版情報: Boca Raton, Fla. : CRC Press, c1985  2 v. ; 26 cm
シリーズ名: Singlet O[2] / editor, Aryeh A. Frimer ; v. 2-v. 3
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9.

図書

図書
Joseph W. Goodman
出版情報: New York : Wiley, c1985  xvii, 550 p. ; 24 cm
シリーズ名: Wiley series in pure and applied optics
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目次情報: 続きを見る
Introduction / 1.:
Deterministic versus Statistical Phenomena and Models / 1.1:
Statistical Phenomena in Optics / 1.2:
An Outline of the Book / 1.3:
Random Variables / 2.:
Definitions of Probability and Random Variables / 2.1:
Distribution Functions and Density Functions / 2.2:
Extension to Two or More Joint Random Variables / 2.3:
Statistical Averages / 2.4:
Moments of a Random Variable / 2.4.1:
Joint Moments of Random Variables / 2.4.2:
Characteristic Functions / 2.4.3:
Transformations of Random Variables / 2.5:
General Transformation / 2.5.1:
Monotonic Functions / 2.5.2:
Multivariate Probability Transformations / 2.5.3:
Sums of Real Random Variables / 2.6:
Two Methods for Finding p[subscript z](z) / 2.6.1:
Independent Random Variables / 2.6.2:
The Central Limit Theorem / 2.6.3:
Gaussian Random Variables / 2.7:
Definitions / 2.7.1:
Special Properties of Gaussian Random Variables / 2.7.2:
Complex-Valued Random Variables / 2.8:
General Descriptions / 2.8.1:
Complex Gaussian Random Variables / 2.8.2:
Random Phasor Sums / 2.9:
Initial Assumptions / 2.9.1:
Calculations of Means, Variances, and the Correlation Coefficient / 2.9.2:
Statistics of the Length and Phase / 2.9.3:
A Constant Phasor Plus a Random Phasor Sum / 2.9.4:
Strong Constant Phasor Plus a Weak Random Phasor Sum / 2.9.5:
Random Processes / 3.:
Definition and Description of a Random Process / 3.1:
Stationarity and Ergodicity / 3.2:
Spectral Analysis of Random Processes / 3.3:
Spectral Densities of Known Functions / 3.3.1:
Spectral Density of a Random Process / 3.3.2:
Energy and Power Spectral Densities for Linearly Filtered Random Processes / 3.3.3:
Autocorrelation Functions and the Wiener-Khinchin Theorem / 3.4:
Cross-Correlation Functions and Cross-Spectral Densities / 3.5:
The Gaussian Random Process / 3.6:
Definition / 3.6.1:
Linearly Filtered Gaussian Random Processes / 3.6.2:
Wide-Sense Stationarity and Strict Stationarity / 3.6.3:
Fourth-Order Moments / 3.6.4:
The Poisson Impulse Process / 3.7:
Derivation of Poisson Statistics from Fundamental Hypotheses / 3.7.1:
Derivation of Poisson Statistics from Random Event Times / 3.7.3:
Energy and Power Spectral Densities of Poisson Processes / 3.7.4:
Doubly Stochastic Poisson Processes / 3.7.5:
Linearly Filtered Poisson Processes / 3.7.6:
Random Processes Derived from Analytic Signals / 3.8:
Representation of a Monochromatic Signal by a Complex Signal / 3.8.1:
Representation of a Nonmonochromatic Signal by a Complex Signal / 3.8.2:
Complex Envelopes or Time-Varying Phasors / 3.8.3:
The Analytic Signal as a Complex-Valued Random Process / 3.8.4:
The Complex Gaussian Random Process / 3.9:
The Karhunen-Loeve Expansion / 3.10:
Some First-Order Properties of Light Waves / 4.:
Propagation of Light Waves / 4.1:
Monochromatic Light / 4.1.1:
Nonmonochromatic Light / 4.1.2:
Narrowband Light / 4.1.3:
Polarized and Unpolarized Thermal Light / 4.2:
Polarized Thermal Light / 4.2.1:
Unpolarized Thermal Light / 4.2.2:
Partially Polarized Thermal Light / 4.3:
Passage of Narrowband Light Through Polarization-Sensitive Instruments / 4.3.1:
The Coherency Matrix / 4.3.2:
The Degree of Polarization / 4.3.3:
First-Order Statistics of the Instantaneous Intensity / 4.3.4:
Laser Light / 4.4:
Single-Mode Oscillation / 4.4.1:
Multimode Laser Light / 4.4.2:
Pseudothermal Light Produced by Passing Laser Light Through a Moving Diffuser / 4.4.3:
Coherence of Optical Waves / 5.:
Temporal Coherence / 5.1:
The Michelson Interferometer / 5.1.1:
Mathematical Description of the Experiment / 5.1.2:
Relationship of the Interferogram to the Power Spectral Density of the Light Beam / 5.1.3:
Fourier Spectroscopy / 5.1.4:
Spatial Coherence / 5.2:
Young's Experiment / 5.2.1:
Mathematical Description of Young's Experiment / 5.2.2:
Some Geometric Considerations / 5.2.3:
Interference Under Quasimonochromatic Conditions / 5.2.4:
Effects of Finite Pinhole Size / 5.2.5:
Cross-Spectral Purity / 5.3:
Power Spectrum of the Superposition of Two Light Beams / 5.3.1:
Cross-Spectral Purity and Reducibility / 5.3.2:
Laser Light Scattered by a Moving Diffuser / 5.3.3:
Propagation of Mutual Coherence / 5.4:
Solution Based on the Huygens-Fresnel Principle / 5.4.1:
Wave Equations Governing Propagation of Mutual Coherence / 5.4.2:
Propagation of Cross-Spectral Density / 5.4.3:
Limiting Forms of the Mutual Coherence Function / 5.5:
A Coherent Field / 5.5.1:
An Incoherent Field / 5.5.2:
The Van Cittert-Zernike Theorem / 5.6:
Mathematical Derivation / 5.6.1:
Discussion / 5.6.2:
An Example / 5.6.3:
A Generalized Van Cittert-Zernike Theorem / 5.6.4:
Diffraction of Partially Coherent Light by an Aperture / 5.7:
Effect of a Thin Transmitting Structure on Mutual Intensity / 5.7.1:
Calculation of the Observed Intensity Pattern / 5.7.2:
Some Problems Involving High-Order Coherence / 5.7.3:
Statistical Properties of the Integrated Intensity of Thermal or Pseudothermal Light / 6.1:
Mean and Variance of the Integrated Intensity / 6.1.1:
Approximate Form for the Probability Density Function of Integrated Intensity / 6.1.2:
Exact Solution for the Probability Density Function of Integrated Intensity / 6.1.3:
Statistical Properties of Mutual Intensity with Finite Measurement Time / 6.2:
Moments of the Real and Imaginary Parts of J[subscript 12](T) / 6.2.1:
Statistics of the Modulus and Phase of J[subscript 12](T) for Long Integration Time and Small [mu subscript 12] / 6.2.2:
Statistics of the Modulus and Phase of J[subscript 12](T) Under the Condition of High Signal-to-Noise Ratio / 6.2.3:
Classical Analysis of the Intensity Interferometer / 6.3:
Amplitude versus Intensity Interferometry / 6.3.1:
Ideal Output of the Intensity Interferometer / 6.3.2:
"Classical" or "Self" Noise at the Interferometer Output / 6.3.3:
Effects of Partial Coherence on Imaging Systems / 7.:
Some Preliminary Considerations / 7.1:
Effects of a Thin Transmitting Object on Mutual Coherence / 7.1.1:
Time Delays Introduced by a Thin Lens / 7.1.2:
Focal-Plane-to-Focal-Plane Coherence Relationships / 7.1.3:
Object-Image Coherence Relations for a Single Thin Lens / 7.1.4:
Relationship Between Mutual Intensities in the Exit Pupil and the Image / 7.1.5:
Methods for Calculating Image Intensity / 7.2:
Integration over the Source / 7.2.1:
Representation of the Source by an Incident Mutual Intensity Function / 7.2.2:
The Four-Dimensional Linear Systems Approach / 7.2.3:
The Incoherent and Coherent Limits / 7.2.4:
Some Examples / 7.3:
The Image of Two Closely Spaced Points / 7.3.1:
The Image of a Sinusoidal Amplitude Object / 7.3.2:
Image Formation as an Interferometric Process / 7.4:
An Imaging System as an Interferometer / 7.4.1:
Gathering Image Information with Interferometers / 7.4.2:
The Importance of Phase Information / 7.4.3:
Phase Retrieval / 7.4.4:
The Speckle Effect in Coherent Imaging / 7.5:
The Origin and First-Order Statistics of Speckle / 7.5.1:
Ensemble Average Coherence / 7.5.2:
Imaging in the Presence of Randomly Inhomogeneous Media / 8.:
Effects of Thin Random Screens on Image Quality / 8.1:
Assumptions and Simplifications / 8.1.1:
The Average Optical Transfer Function / 8.1.2:
The Average Point-Spread Function / 8.1.3:
Random Absorbing Screens / 8.2:
General Forms of the Average OTF and the Average PSF / 8.2.1:
A Specific Example / 8.2.2:
Random-Phase Screens / 8.3:
General Formulation / 8.3.1:
The Gaussian Random-Phase Screen / 8.3.2:
Limiting Forms for Average OTF and Average PSF for Large Phase Variance / 8.3.3:
Effects of an Extended Randomly Inhomogeneous Medium on Wave Propagation / 8.4:
Notation and Definitions / 8.4.1:
Atmospheric Model / 8.4.2:
Electromagnetic Wave Propagation Through the Inhomogeneous Atmosphere / 8.4.3:
The Log-Normal Distribution / 8.4.4:
The Long-Exposure OTF / 8.5:
Long-Exposure OTF in Terms of the Wave Structure Function / 8.5.1:
Near-Field Calculation of the Wave Structure Function / 8.5.2:
Generalizations of the Theory / 8.6:
Extension to Longer Propagation Paths--Amplitude and Phase Filter Functions / 8.6.1:
Effects of Smooth Variations of the Structure Constant C[superscript 2 subscript n] / 8.6.2:
The Atmospheric Coherence Diameter r[subscript 0] / 8.6.3:
Structure Function for a Spherical Wave / 8.6.4:
The Short-Exposure OTF / 8.7:
Long versus Short Exposures / 8.7.1:
Calculation of the Average Short-Exposure OTF / 8.7.2:
Stellar Speckle Interferometry / 8.8:
Principle of the Method / 8.8.1:
Heuristic Analysis of the Method / 8.8.2:
A More Complete Analysis of Stellar Speckle Interferometry / 8.8.3:
Extensions / 8.8.4:
Generality of the Theoretical Results / 8.9:
Fundamental Limits in Photoelectric Detection of Light / 9.:
The Semiclassical Model for Photoelectric Detection / 9.1:
Effects of Stochastic Fluctuations of the Classical Intensity / 9.2:
Photocount Statistics for Well-Stabilized, Single-Mode Laser Radiation / 9.2.1:
Photocount Statistics for Polarized Thermal Radiation with a Counting Time Much Shorter Than the Coherence Time / 9.2.2:
Photocount Statistics for Polarized Thermal Light and an Arbitrary Counting Interval / 9.2.3:
Polarization Effects / 9.2.4:
Effects of Incomplete Spatial Coherence / 9.2.5:
The Degeneracy Parameter / 9.3:
Fluctuations of Photocounts / 9.3.1:
The Degeneracy Parameter for Blackbody Radiation / 9.3.2:
Noise Limitations of the Amplitude Interferometer at Low Light Levels / 9.4:
The Measurement System and the Quantities to Be Measured / 9.4.1:
Statistical Properties of the Count Vector / 9.4.2:
The Discrete Fourier Transform as an Estimation Tool / 9.4.3:
Accuracy of the Visibility and Phase Estimates / 9.4.4:
Noise Limitations of the Intensity Interferometer at Low Light Levels / 9.5:
The Counting Version of the Intensity Interferometer / 9.5.1:
The Expected Value of the Count-Fluctuation Product and Its Relationship to Fringe Visibility / 9.5.2:
The Signal-to-Noise Ratio Associated with the Visibility Estimate / 9.5.3:
Noise Limitations in Speckle Interferometry / 9.6:
A Continuous Model for the Detection Process / 9.6.1:
The Spectral Density of the Detected Imagery / 9.6.2:
Fluctuations of the Estimate of Image Spectral Density / 9.6.3:
Signal-to-Noise Ratio for Stellar Speckle Interferometry / 9.6.4:
Discussion of the Results / 9.6.5:
The Fourier Transform / Appendix A.:
Fourier Transform Definitions / A.1:
Basic Properties of the Fourier Transform / A.2:
Table of One-Dimensional Fourier Transforms / A.3:
Table of Two-Dimensional Fourier Transform Pairs / A.4:
Fourth-Order Moment of the Spectrum of a Detected Speckle Image / Appendix B.:
Index
Introduction / 1.:
Deterministic versus Statistical Phenomena and Models / 1.1:
Statistical Phenomena in Optics / 1.2:
10.

図書

図書
ред. С. Г. Бархударов ; Е. Э. Биржакова ; А. В. Бондарко
出版情報: Наука, 1985
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目次情報:
Вып. 2 : Безпристрастный - Вейэр
Вып. 2 : Безпристрастный - Вейэр
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