Thermal evolutions of the terrestrial planets

The Moon and the Planets

Volumn 18, Issue 3, 1978, Pages 281-320

  Toksöz, M Nafi ^a   Hsui, Albert T ^a   Johnston, David J ^a  

^a MASSACHUSETTS INSTITUTE OF TECHNOLOGY   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 0012277867     PISSN: 01650807     EISSN: 15730794     Source Type: Journal    
DOI: 10.1007/BF00896484     Document Type: Article

References (194)

1. Dunite from the lunar highlands: petrography, deformational history, Rb-Sr age (abs.)
2. Early thermal history of the terrestrial planets
3. Internal constitution of Mars
4. Is the Moon hot or cold?
5. The composition and origin of the Moon
6. Seismology on Mars
7. Viscosity of the Moon I: after mare formation
8. Morphologic classification of Martian craters and some implications
9. Mineralogic/petrologic implications of Viking geochemical results from Mars: interim report
10. Absolute ages of the lunar maria and large craters. II. The viscosity of the Moon's outer layers
11. Internal structure of Mars
12. An improved value of the lunar moment of inertia
13. Effect of pressure on the melting of diopside, CaMgSi2O6, and Albite, NaAlSi3O8, in the range up to 50 kilobars
14. Venus: topography revealed by radar data
15. Volcanism on Mars
16. The role of lava erosion in the formation of lunar rills and Martian channels
17. Some Martian volcanic features viewed from the Viking orbiters
18. Steady-state flow of rocks
19. The role of convection in the Moon
20. Convection in the Moon: effect of variable viscosity
21. Implications of an internal dynamo for the thermal history of Mercury
22. Cratering on Mars, I. Cratering and obliteration history
23. Determination of natural and cosmic ray induced radionuclides in Apollo 16 lunar samples (abs.)
24. Inorganic analyses of Martian surface samples at the Viking landing sites
25. Electrical Conductivity, internal temperatures and thermal evolution of the Moon
26. Petrology of eucrites, howardites and mesosiderites
27. Surface magnetometer experiments: internal lunar properties and lunar field interactions with the solar plasma
28. The record of the meteorites III. On the development of meteorites in asteroidal bodies
29. On the thermal history of the Moon
30. On the thermal evolution of the terrestrial planets
31. Does Mercury have a molten core?
32. Asteroid surface materials: mineralogical characterizations and cosmological implications (abs.)
33. Partitioning of potassium between silicates and sulphide melts: experiments relevant to the Earth's core
34. Mineralogy of peridotitic compositions under mantle conditions
35. Early chemical history of the solar system
36. Heat sources for early differentiation of the lunar interior (abs.)
37. The early thermal history of the Earth
38. Origin evolution and present thermal state of the Moon
39. Radioactive heat sources in the lunar interior
40. Model “zero age” lunar thermal profiles resulting from electrical induction
41. The adiabatic gradient and the melting point gradient in the core of the Earth
42. Electrical conductivity of olivine and the lunar temperature profile
43. Finite-amplitude thermal convection within a self-gravitating fluid sphere
44. The thermal state and internal structure of Mars
45. Evidence for an episode of crater obliteration intermediate in Martian history
46. Thermal effects of tidal friction
47. The seven ages of a planet
48. Venus exploration with the Venera 9 and Venera 10 spacecraft
49. Preliminary geothermal model of the Sierra Nevada
50. Lunar seismicity, structure and tectonics
51. The Apollo 15 lunar heat-flow measurements
52. Moonquakes and lunar tectonism
53. Survey of the stability of linear finite difference equations
54. Demonstration of26Mg excess in Allende and evidence for26Al
55. Effects of selective fusion on the thermal history of the Moon, Mars and Venus
56. Thermal history of the Moon
57. Consequences of the presence of sulfur in the core of the Earth
58. Metal/silicate fractionation in the solar system
59. The Melting of iron up to 200 kilobars
60. Thermal history of the Earth with consideration of the variable thermal conductivity of its mantle
61. Calculations on the thermal history of the Earth
62. The deep structure of continents
63. The thermal history of the terrestrial planets
64. Surface of Venus: evidence of diverse landforms from radar observations
65. An overview of geological results from Mariner 9
66. Classification and time of formation of Martian channels based on Viking data
67. A model for planetary igneous differentiation
68. Lunar thermal history revisited
69. Asteroids: surface composition from reflection spectroscopy
70. Isotopic composition of nitrogen: implications for the past history of Mars' atmosphere
71. Speculations on the thermal history of the Earth
72. A first look at the lunar orbital gamma-ray data
73. Water and processes of degradation in the Martian landscape
74. Accretion process of the Moon
75. The densities and bulk compositions of Ceres and Vesta
76. Geological framework of the south polar region of Mars
77. The geology of Mars: a brief review of some recent results
78. The geologic development of Mars: a review
79. New seismic data on the state of the deep lunar interior
80. Deep lunar interior inferred from recent seismic data
81. The magnetic field of Mercury
82. Primordial radionuclide abundances, solar proton and cosmic-ray effects and ages of Apollo 11 lunar samples by non-destructive gamma ray spectrometry
83. Composition of the atmosphere at the surface of Mars: detection of Argon-36 and preliminary analysis
84. Lunar chronology and evolution from Rb−Sr studies of Apollo 11 and 12 samples
85. Rb−Sr ages of igneous rocks from the Apollo 14 mission and the age of the Fra Mauro formation
86. Kinematically consistent velocity fields for hydrodynamic calculations in curvilinear coordinates
87. Studies of finite-amplitude non-Newtonian thermal convection with application to convection in the Earth's mantle
88. Cosmogenic and primordial radionuclide measurements in Apollo 11 lunar samples by nondestructive analysis
89. The isostatic state of Martian topography
90. The moment of inertia and isostasy of Mars
91. Effects of melting upon thermal modes of the Earth
92. Thermal history of the Moon
93. Petrogenesis of lunar basalts and the internal constitution of the Moon
94. Earth and Venus: A comparative study
95. Convection in the Moon
96. Convection in the Moon and the existence of a lunar core
97. Thermal conductivity of Earth materials at high temperatures
98. The isotopic abundance of Mg26 and limits of Al26 in the early solar system
99. Channels on Mars
100. Stability of planetary interiors
101. The magnetic field of Mercury and models of thermal evolution
102. Meicury: internal structure and thermal evolution
103. Uranium-thorium-lead isotopes in some Tranquility Base samples and their implications for lunar history
104. Origin of the Moon by capture and its consequences
105. Martian planetwide crater distributions: implications for geologic history and surface processes
106. Internal constitution and evolution of the Moon
107. Some aspects of core formation in Mercury
108. The relationship between crustal tectonics and internal evolution in the Moon and Mercury
109. The role of accretionally and electrically inverted thermal profiles in lunar evolution
110. Lunar electrical conductivity profile
111. The induced magnetic field of the Moon: conductivity profiles and inferred temperature
112. The Melting of asteroidal parent bodies by unipolar dynamo induction from a primordial T-Tauri sun
113. On the rheology of the upper mantle
114. A model of lunar evolution
115. A lunar cataclysm at 3.95 ae and the structure of the lunar crust
116. Lunar crust: structure and composition
117. Thermal evolution of the Moon
118. Thermal history and evolution of the Moon
119. Structure of the Moon
120. The evolution of the Moon
121. Moonquakes: mechanisms and relation to tidal stress
122. Comparison of finite-difference computations of natural convection
123. Thermal convection with large viscosity variations
124. The Moon's thermal state and an interpretation of the lunar electrical conductivity distribution
125. The present thermal state of the terrestrial planets
126. The internal evolution of planetary size objects
127. Convection in a mantle with variable physical properties
128. Thermal structure of the Moon
129. Convection in the Earth's mantle
130. The origin and development of the Earth and other terrestrial planets
131. The cosmic abundances of potassium, uranium and thorium and the heat balance of the Earth, Moon and Mars
132. Boundary conditions for theories of the origin of the solar system
133. Origin and history of the Moon
134. Origin and history of the Moon
135. Experimental approach to the state of the core: Part I. The liquidus relations of the Fe-rich protion of the Fe−Ni−S system from 30–100 kb
136. The content of uranium, thorium and potassium in the rocks of Venus as measured by Venera 8
137. Age of an Apollo 15 mare basalt; lunar crust and mantle evolution
138. The creep strength of the Earth's mantle
139. High temperature creep of rock and mantle viscosity
140. A model for accretion of the terrestrial planets
141. Accretion of the terrestrial planets II
142. Dynamic accretion model for the terrestrial planets (abs.)
143. Lunar anorthosites
144. Thermal history and early magmatism in the Moon
145. Temperatures inside Mars: is the core liquid or solid?
146. Finite-amplitude thermal convection in a spherical shell