Geological history of Mars

The geological history of Mars employs observations, indirect and direct measurements, and various inference techniques to estimate the physical evolution of Mars . Methods dating back to 17th century techniques developed by Nicholas Steno , including the so-called law of superposition and stratigraphy , used to estimate the geological histories of Earth and the Moon, are being actively applied to the data available from several Martian observational and measurement resources. These include the landers, orbiting platforms, Earth-based observations, and Martian meteorites.

Page Revisions

Year Metadata Sections Top Words First Paragraph
2017

120966 characters

6 sections

11 paragraphs

5 images

754 internal links

24 external links

1. Relative ages from stratigraphy

2. Absolute ages

3. Crater density timescale

4. Mineral alteration timescale

5. References

6. External links

ages 0.402

absolute 0.259

stratigraphic 0.163

stratigraphy 0.161

jurassic 0.151

mesozoic 0.151

surfaces 0.135

steno 0.125

superposition 0.125

nicholas 0.122

eras 0.122

geologic 0.121

periods 0.120

cretaceous 0.113

lava 0.110

The geological history of Mars employs observations, indirect and direct measurements, and various inference techniques to estimate the physical evolution of Mars . Methods dating back to 17th century techniques developed by Nicholas Steno , including the so-called law of superposition and stratigraphy , used to estimate the geological histories of Earth and the Moon, are being actively applied to the data available from several Martian observational and measurement resources. These include the landers, orbiting platforms, Earth-based observations, and Martian meteorites.

2016

59075 characters

6 sections

11 paragraphs

5 images

194 internal links

24 external links

1. Relative ages from stratigraphy

2. Absolute ages

3. Crater density timescale

4. Mineral alteration timescale

5. References

6. External links

ages 0.400

absolute 0.258

stratigraphic 0.163

stratigraphy 0.160

jurassic 0.151

mesozoic 0.151

surfaces 0.134

steno 0.125

superposition 0.125

nicholas 0.121

eras 0.121

geologic 0.121

periods 0.119

cretaceous 0.113

lava 0.109

The geological history of Mars employs observations, indirect and direct measurements, and various inference techniques to estimate the physical evolution of Mars . Methods dating back to 17th century techniques developed by Nicholas Steno , including the so-called law of superposition and stratigraphy , used to estimate the geological histories of Earth and the Moon, are being actively applied to the data available from several Martian observational and measurement resources. These include the landers, orbiting platforms, Earth-based observations, and Martian meteorites.

2015

58596 characters

6 sections

11 paragraphs

5 images

194 internal links

24 external links

1. Relative ages from stratigraphy

2. Absolute ages

3. Crater density timescale

4. Mineral alteration timescale

5. References

6. External links

ages 0.400

absolute 0.258

stratigraphic 0.163

stratigraphy 0.160

jurassic 0.151

mesozoic 0.151

surfaces 0.134

steno 0.125

superposition 0.125

nicholas 0.121

eras 0.121

geologic 0.121

periods 0.119

cretaceous 0.113

lava 0.109

The geological history of Mars employs observations, indirect and direct measurements, and various inference techniques to estimate the physical evolution of Mars . Methods dating back to 17th century techniques developed by Nicholas Steno , including the so-called law of superposition and stratigraphy , used to estimate the geological histories of Earth and the Moon, are being actively applied to the data available from several Martian observational and measurement resources. These include the landers, orbiting platforms, Earth-based observations, and Martian meteorites.

2014

58789 characters

6 sections

11 paragraphs

5 images

194 internal links

24 external links

1. Relative ages from stratigraphy

2. Absolute ages

3. Crater density timescale

4. Mineral alteration timescale

5. References

6. External links

ages 0.400

absolute 0.258

stratigraphic 0.163

stratigraphy 0.160

jurassic 0.151

mesozoic 0.151

surfaces 0.134

steno 0.125

superposition 0.125

nicholas 0.121

eras 0.121

geologic 0.121

periods 0.119

cretaceous 0.113

lava 0.109

The geological history of Mars employs observations, indirect and direct measurements, and various inference techniques to estimate the physical evolution of Mars . Methods dating back to 17th century techniques developed by Nicholas Steno , including the so-called law of superposition and stratigraphy , used to estimate the geological histories of Earth and the Moon, are being actively applied to the data available from several Martian observational and measurement resources. These include the landers, orbiting platforms, Earth-based observations, and Martian meteorites.

2013

55170 characters

4 sections

9 paragraphs

5 images

190 internal links

21 external links

1. Relative vs. absolute ages

2. Crater density timescale

3. Mineral alteration timescale

4. References

ages 0.387

absolute 0.304

stratigraphic 0.192

jurassic 0.178

mesozoic 0.178

eras 0.143

geologic 0.143

periods 0.141

history 0.135

cretaceous 0.133

lava 0.129

uncertainties 0.128

surfaces 0.127

younger 0.119

timescale 0.111

The geological history of Mars is the branch of the geology of Mars that describes the history of Mars in terms of its geology.

2012

52900 characters

4 sections

9 paragraphs

4 images

188 internal links

21 external links

1. Relative vs. absolute ages

2. Crater density timescale

3. Mineral alteration timescale

4. References

ages 0.336

absolute 0.298

cretaceous 0.196

stratigraphic 0.188

jurassic 0.174

mesozoic 0.174

mya 0.144

eras 0.140

geologic 0.140

periods 0.138

history 0.132

lava 0.126

uncertainties 0.125

surfaces 0.124

younger 0.116

The Geological History of Mars is the branch of the Geology of Mars that describes the history of Mars in terms of its geology.