Limits on modes of lithospheric heat transport on Venus from impact crater density

Physics

Scientific paper

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Heat Transfer, Lithosphere, Planetary Craters, Venus (Planet), Volcanology, Conductive Heat Transfer, Density (Number/Volume), Radar Imagery, Venera Satellites, Venus, Lithosphere, Heat, Transport, Impact Craters, Density, Size, Frequency, Distribution, Volcanism, Resurfacing, Production Rate, Flows, Surface, Flux, Interior, Conduction, Hypotheses, Venera Missions, Cratering, Calculations, Spacecraft Observations

Scientific paper

Based on the observed density of impact craters on the Venus surface obtained from Venera 15-16 radar images, a formalism to estimate the upper bounds on the contributions made to lithospheric heat transport by volcanism and lithospheric recycling is presented. The Venera 15-16 data, if representative of the entire planet, limit the average rate of volcanic resurfacing on Venus to less than 2 cu km/yr (corresponding to less than 1 percent of the global heat loss), and limit the rate of lithospheric recycling to less than 1.5 sq km/yr (and probably to less than 0.5 sq km/yr), corresponding to 25 percent (and to 9 percent) of the global heat loss. The present results indicate that heat loss at lithospheric levels in Venus is dominated by conduction.

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