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Ahrens T.J. — Rock Physics and Phase Relations. A Handbook of Physical Constants
Ahrens T.J. — Rock Physics and Phase Relations. A Handbook of Physical Constants



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Íàçâàíèå: Rock Physics and Phase Relations. A Handbook of Physical Constants

Àâòîð: Ahrens T.J.

Àííîòàöèÿ:

The purpose of this Handbook is to provide, in highly accessible form, selected critical data for professional and student solid Earth and planetary geophysicists. Coverage of topics and authors were carefully chosen to fulfill these objectives. These volumes represent the third version of the "Handbook of Physical Constants." Several generations of solid Earth scientists have found these handbooks to be the most frequently used item in their personal library. The first version of this Handbook was edited by F. Birch, J. F. Schairer, and H. Cecil Spicer and published in 1942 by the Geological Society of America (GSA) as Special Paper 36. The second edition, edited by Sydney P. Clark, Jr., was also published by GSA as Memoir 92 in 1966. Since 1966, our scientific knowledge of the Earth and planets has grown enormously, spurred by the discovery and verification of plate tectonics and the systematic exploration of the solar system. The present revision was initiated, in part, by a 1989 chance remark by Alexandra Navrotsky asking what the Mineral Physics (now Mineral and Rock Physics) Committee of the American Geophysical Union could produce that would be a tangible useful product. At the time I responded, "update the Handbook of Physical Constants." As soon as these words were uttered, I realized that I could edit such a revised Handbook. I thank Raymond Jeanloz for his help with initial suggestions of topics, the AGU's Books Board, especially Ian McGregor, for encouragement and enthusiastic support. Ms. Susan Yamada, my assistant, deserves special thanks for her meticulous stewardship of these volumes. I thank the technical reviewers listed below whose efforts, in all cases, improved the manuscripts.


ßçûê: en

Ðóáðèêà: Ôèçèêà/

Ñòàòóñ ïðåäìåòíîãî óêàçàòåëÿ: Ãîòîâ óêàçàòåëü ñ íîìåðàìè ñòðàíèö

ed2k: ed2k stats

Ãîä èçäàíèÿ: 1995

Êîëè÷åñòâî ñòðàíèö: 236

Äîáàâëåíà â êàòàëîã: 11.04.2010

Îïåðàöèè: Ïîëîæèòü íà ïîëêó | Ñêîïèðîâàòü ññûëêó äëÿ ôîðóìà | Ñêîïèðîâàòü ID
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Ïðåäìåòíûé óêàçàòåëü
Pressure vs. compressional wave velocity      22
Pressure vs. strength      160 (see Partial pressure)
Pressure, confining vs. differential pressure      141
Pressure, confining, effect on rock strength      137
Pressure, effect on thermal conductivity      112—113
Pressure, mean, vs. internal friction      133
Pressure, shock-compressed water      51
Pressure-volume-temperature properties, water-carbon dioxide fluids      45—72
Primary magma, phase equilibria      171
Properties      205
Protoliths, composition      1
Protoliths, metamorphic rocks      6
Pumice, composition      3
Pumice, equations of state      40
Pyrophyllite, reflectance spectra      181
Pyroxene, abundance in continental crust      6—7
Pyroxene, rare-earth partitioning      78—80
Pyroxene, reflectance spectra      179 185
Pyroxene, subcalcic, trace-element partitioning      74—77
Pyroxene, thermal conductivity      119
Pyroxene, weathering reactions      15 (see also Clinopyroxene Orthopyroxene)
Quartz rocks, power law creep constants      156
Quartz tholeiite, phase equilibria      171
Quartz, abundance in continental crust      6—7
Quartz, magnetic susceptibility      190
Quartz, phase equilibria      174
Quartz, thermal conductivity      120 122
Quartzite, classification      6
Quartzite, equations of state      40
Radiative transfer, reflectance spectra      186
Rankine-Hugoniot equations, silicate rocks      35
Rare earths, partitioning in apatite and merrilite      94
Rare-earth oxides, reflectance spectra      180
Rare-earth partitioning      80—83
Rectorite, reflectance spectra      181
Reflectance spectra      180
Reflectance spectra, minerals      178—188
Reflection coefficient, vs. angle of incidence for compressional waves      30
Regression parameters, partition, coefficients for molar olivine/liquid      75
Remanence coercivity, grain-size, dependence      193—194
Reuss average, polycrystals      210 212
Reuss average, poroelasticity      221
Reuss average, thermoelasticity      219
Rheology      148—165
Rheology, lithosphere and mantle      127—145
Rheology, shock waves      35—44
Rock acoustics, direct detection of hydrocarbons      31
Rock anhydrite, classification      4
Rock failure      127—147
Rock gypsum, classification      4
Rock properties, mixture theories      205—228
Rock salt, classification      4
Rock strength, factors      136—140
Rocks      148—165
Rocks, classification      1—7
Rocks, equations of state      35 37—42
Rocks, Koenigsberger ratio      200
Rocks, magnetic properties      189—204
Rocks, phase equilibria      166—177
Rubidium, partitioning      83—86
Rutile, rare-earth partitioning      94
Sample size, effect on rock strength      139—140
Sand, equations of state      40—41
Sandstone, water-saturated, abundance in continental crust      6—7
Sandstone, water-saturated, amplitude variation with offset      31
Sandstone, water-saturated, classification      4 5
Sandstone, water-saturated, compressional and shear wave velocities vs. temperature      29
Sandstone, water-saturated, compressional and shear wave velocity      223
Sandstone, water-saturated, compressional wave velocity vs. external confining pressure      22
Sandstone, water-saturated, equations of state      41
Sandstone, water-saturated, extensional wave and shear wave attenuation      28
Sandstone, water-saturated, extensional wave attenuation and modulus vs. product of frequency and viscosity      28
Sandstone, water-saturated, phase velocity and attenuation vs. frequency      25
Sandstone, water-saturated, shear wave slowness      21—22
Sandstone, water-saturated, Stoneley wave slowness and attenuation vs. frequency      26
Sandstone, water-saturated, thermal conductivity constants      116
Sandstone, water-saturated, ultrasonic velocity      224
Sandstone, water-saturated, velocity vs. water saturation      24
Saturating fluids, effect on thermal conductivity      112 114
Saturating fluids, thermal conductivity      106—107
Saturation isothermal remanent, magnetization, minerals      199
Saturation magnetization vs. temperature      197
Saturation magnetization, minerals      194—195
Saturation remanence, grain-size, dependence      193—194
Scaling, effect on rock strength      139—140
Scandium, partitioning      74—78
Scandium, partitioning at ultrahigh pressures      78
Scattering, attenuation      27
Scattering, reflectance spectra      184—186
Schist, abundance in continental crust      6—7
Schist, classification      5
Schreibersite, siderophile element partitioning      86—91
Sediment flux, suspensions      8—9
Sediment mass      8—9
Sediment mass in ocean basins      10
Sedimentary rocks, classification      1 4—5
Sedimentary rocks, equations of state      38—41
Sedimentary rocks, magnetic susceptibility      190
Sedimentary rocks, thermal conductivity      108—112
Sediments, average chemical composition      12—13
Sediments, chemistry and abundances      8—19
Seismic methods, hydrocarbons      30—31
Seismic velocity, polycrystals      215—218
Self-consistent approximation, porous glass      214
Self-consistent effective medium theory, nonspherical inclusions      209 213—214
Self-consistent method, formation factor      209
Series expansion method, permeability      225
Series expansion method, polycrystals      209 214
Serpentine, equations of state      41
Serpentine, phase equilibria      168
Shale, abundance in continental crust      6—7
Shale, amplitude variation with offset      31
Shale, classification      4
Shale, equations of state      41
shear modulus      217
Shear modulus, mixtures      206
Shear modulus, nonspherical inclusions      213—214
Shear modulus, polycrystals      210
Shear stress, vs. normal stress      137
Shear wave attenuation vs. partial pressure of water vapor      25
Shear wave attenuation vs. water saturation      28
Shear wave slowness, vs. compressional, wave slowness      21
Shear wave velocity vs. azimuth      23
Shear wave velocity vs. partial pressure of water vapor      25
Shear wave velocity vs. temperature      29 (see also Compressional wave velocity/shear wave velocity)
Shear wave velocity, elastic solids      215
Shear wave velocity, poroelasticity      223
Shergottite, partition coefficients      77
Shock velocity, vs. particle velocity      36
Shock waves, rocks      35—44
Siderophile elements, partitioning      86—92
Silica, fused, thermal conductivity      122
Silica, thermal conductivity      120
Silicate rocks      35
Silicates, magnetic susceptibility      190
Silicates, noble metal partitioning      92—94
Silicates, partitioning      97—98
Silicic composition, magmatic rocks      2
Siliclastic rocks, classification      4
Silicon nitride, elastic properties      215
Silicon nitride, porous adiabatic elastic moduli      216
Single domains, grain size      193
Slate, classification      5
Soil distribution      13
Soil types, description and distribution      14
Soils, chemistry and abundances      8—19
Soils, equations of state      41
Soils, major elements      17
Soils, trace elements      17
Solid/fluid mixtures, Biot — Gassmann theory      219—223
Solid/fluid mixtures, material constants      222
Solnhofen limestone, diffusion flow      151
Solvus, water-carbon dioxide mixtures      65 68
Sound speed, water      51 58—60
Specific heat, polycrystals      218
Sphene, rare-earth partitioning      94—95
Spherical inclusions      208 212—213
Spherical inclusions, dielectric constant      207—208
Spherical inclusions, elasticity      212—213
Spinel, rare-earth partitioning      96
Spinel, thermal conductivity      123 (see also Beta-spinel)
Spodosol, distribution      14
Stishovite, phase equilibria      168
Stokes flow, permeability      225
Stoneley wave attenuation, vs. frequency      26
Stoneley wave slowness, vs. frequency      26
Strain amplitude, vs. attenuation      24
Strain rate, effect on rock strength      138
Strength, vs. pressure      160
Stress vs. depth      136 (see also Differential stress Effective Normal
Stress, acoustic velocity      20
Stress, normal vs. internal friction      134
Stress, rock failure      129
Stress, uniaxial vs. compressional wave velocity for dry Berea sandstone      23
Strontium, partitioning in major, rock-forming minerals      78
Subalkali basalt, composition      3 (see also Tholeiitic basalt)
Subduction zones, magmatic rocks      2
Subduction zones, phase equilibria      168
Sulfates, magnetic susceptibility      190
Sulfates, thermal conductivity      121
Sulfides, magnetic properties      196
Sulfides, magnetic susceptibility      190
Sulfides, thermal conductivity      120
Sulfur      (see Iron-nickel-sulfur)
Superparamagnetic domains, grain size      193
Suspensions from major regions      10
Suspensions from rivers      9
Syenitic rocks, abundance in continental crust      6—7
Taconite, classification      5
Talc, phase equilibria      168
Talc, reflectance spectra      184
Tantalum, partitioning      83—86
Temperature vs. compressional wave velocity      29
Temperature vs. differential stress      158
Temperature vs. shear wave velocity      29 (see also Pressure-volume-temperature properties)
Temperature, ambient, thermal conductivity      108—112
Temperature, effect on magnetic susceptibility      192
Temperature, effect on rock strength      139
thermal conductivity      105—126
Thermal conductivity constants      116
Thermal conductivity constants, Fermat’s principle, acoustic velocity      216
Thermal conductivity, mixtures      207—210
Thermal conductivity, rocks and minerals      105—126
Thermal diffusivity, minerals      122—123
Thermal diffusivity, polycrystals      218—219
Thermal divide, phase equilibria      170
Thermal expansion coefficient, polycrystals      218
Thermal expansion, polycrystals      218—219
Thermal maximum, phase equilibria      169 173
Thermal properties, rocks      105—124
Thermal remanent magnetization vs. composition of titanohematite      199
Thermal remanent magnetization, grain-size dependence for magnetite      199
Thermal remanent magnetization, minerals      197—198
Thermodynamic functions, water      45 51—57
Thermoelastic constants, polycrystals      218—219
Thermoelasticity      219
Thermoelasticity, polycrystals      218—219
Tholeiites, phase equilibria      168—169
Tholeiitic basalt, composition      3 (see also Subalkali basalt)
Titanite, thermal conductivity      118
Titanohematite, grain size and magnetic properties      193
Titanomaghemite, grain size and magnetic properties      193
Titanomagnetite, grain size and magnetic properties      193
Titanomagnetite, room-temperature values of magnetocrystalline and magnetostriction constants      198
Tonalite, phase equilibria      173
Torrongo Granodiorite, chemical composition of weathered portions      17
Trace elements, experimental partitioning      73—104
Trace elements, soils      17
Trace-element partitioning      76—78
Tremolite, reflectance spectra      184
Troilite, siderophile element partitioning      86—91
Trondhjemite, phase equilibria      173
Tuff, composition      3
Tuff, equations of state      41
Ultisol, distribution      14
Ultramafic rocks, abundance in continental crust      6—7
Ultramafic rocks, hydrocarbons      220—221
Ultramafic rocks, magmatic rocks      2
Ultramafic rocks, ultrasonic velocity experiments      217
Unjacketed bulk modulus, poroelasticity      221
Unjacketed bulk modulus, vanadium, partitioning      74—78
Velocity vs. water saturation in sandstone      24 (see also Acoustic velocity)
Vertisol, distribution      14
Verwey phase transition, minerals      195—196
Vibrational processes, reflectance, spectra      180—182
Viscosity, dynamic vs. attenuation      28
Vitrophyre, composition      3
Voigt average, polycrystals      212
Voigt average, poroelasticity      221
Voigt average, thermoelasticity      219
Volcanic breccia, composition      3
Volcanic breccia, equations of state      37
Volcanic rocks, chemical classification      4
Volcanic rocks, thermal conductivity      108—112
Volcaniclastic rocks, composition      3
Volcanism, phase equilibria      173
Volume, carbon dioxide      62—64
Wackes, classification      4
Walpole bounds, polycrystals      211
Water      47—50
Water phase A, phase equilibria      168
Water saturation vs. attenuation, B      28
Water saturation vs. velocity      24
Water superphase B, phase equilibria      168
Water vapor, partial pressure      25
Water, dielectric constant      60—62
Water, enthalpy      51—53
Water, entropy      51 54—55
Water, equations of state      68
Water, heat capacity      51 56—58
Water, phase equilibria      173
Water, properties at saturation      58
Water, PVT properties      45—62
Water, shock-compressed, pressure, density and temperature      51
Water, sound speed      51 58—60
Water, velocity      218
Water, volume      47—50
Water-carbon dioxide fluids, PVT properties      45—72
Water-carbon dioxide mixtures      65—67 (see also Pressure-volume-temperature properties)
Water-carbon dioxide mixtures, dielectric constant      69—70
Water-carbon dioxide mixtures, equations of state      71
Water-carbon dioxide mixtures, PVT properties      65—71
Water-carbon dioxide mixtures, solvus      65 68
Water-carbon dioxide mixtures, volume      65—67
Water/air mixtures, acoustic velocity      218
Weathering profiles, major elements      17
Weathering reactions, clay minerals      16
Weathering reactions, major minerals and free energies      15
Weathering, granodiorite      17
Weathering, mineralogy and chemistry      13—15 17
Well-logs, bulk modulus of pore fluid      30
Well-logs, thermal conductivity      107
Westerly granite, crustal stress      136
Westerly granite, fault formation      132
Westerly granite, internal friction      134
Westerly granite, shear stress vs. normal stress      137
Wood’s formula, acoustic velocity      215
Wood’s formula, compressional and shear wave velocity      223
Wood’s formula, liquid/gas mixture      217
Wood’s formula, polycrystals      210
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