A measurement of the martian planetary heat flow requires the determination of the subsurface temperature gradient, which is affected by surface insolation. I investigate the propagation of thermal disturbances caused by lander shadowing and derive measurement requirements for in situ heat flow experiments. I find that for short term measurements spanning 180 sol, a measurement depth of at least 2m is needed to guarantee a stable thermal environment directly underneath the lander for Moon-like thermal conductivities of 0.02Wm-1 K-1. For extremely large conductivities of 0.1Wm-1 K-1, this depth needs to be increased to 4m, but if the probe can be deployed outside the lander structure, the respective depths can be decreased by 1m. For long t...
<p>The most significant mobility challenges that planetary rovers encounter are compounded by loose,...
The Heat Flow and Physical Properties Package (HP³) includes an infrared Radiometer attached to the ...
Large changes in the orbital elements of Mars on timescales of 10(exp 4) to 10(exp 6) years will cau...
The planetary heat flow is one of the fundamental quantities describing the thermal state of a plane...
The 2018 InSight (Interior Exploration using Seismic Investigations, Geodesy and Heat Transport) Mis...
We investigate the influence of the external temperature forcing given by seasonal, interannual, and...
The Heat flow and Physical Properties Package (HP3) is one of the possible payloads for ESA's upcomi...
The HP3 instrument on the InSight lander mission will measure subsurface temperatures and thermal co...
Planetary heat flow probes measure heat flow (depth-resolved temperature and thermal conductivity) t...
Heat flow is an important constraint on planetary formation and evolution. It has been suggested tha...
International audienceThe heat flow and physical properties package measured soil thermal conductivi...
One of the key quantities for accessing the present thermal state of a planet is measuring its plane...
The thermo-mechanical properties of planetary surface and subsurface layers control to a high extent...
AbstractThe thermo-mechanical properties of planetary surface and subsurface layers control to a hig...
The heat flow and physical properties package (HP3) of the InSight Mars mission is an instrument pac...
<p>The most significant mobility challenges that planetary rovers encounter are compounded by loose,...
The Heat Flow and Physical Properties Package (HP³) includes an infrared Radiometer attached to the ...
Large changes in the orbital elements of Mars on timescales of 10(exp 4) to 10(exp 6) years will cau...
The planetary heat flow is one of the fundamental quantities describing the thermal state of a plane...
The 2018 InSight (Interior Exploration using Seismic Investigations, Geodesy and Heat Transport) Mis...
We investigate the influence of the external temperature forcing given by seasonal, interannual, and...
The Heat flow and Physical Properties Package (HP3) is one of the possible payloads for ESA's upcomi...
The HP3 instrument on the InSight lander mission will measure subsurface temperatures and thermal co...
Planetary heat flow probes measure heat flow (depth-resolved temperature and thermal conductivity) t...
Heat flow is an important constraint on planetary formation and evolution. It has been suggested tha...
International audienceThe heat flow and physical properties package measured soil thermal conductivi...
One of the key quantities for accessing the present thermal state of a planet is measuring its plane...
The thermo-mechanical properties of planetary surface and subsurface layers control to a high extent...
AbstractThe thermo-mechanical properties of planetary surface and subsurface layers control to a hig...
The heat flow and physical properties package (HP3) of the InSight Mars mission is an instrument pac...
<p>The most significant mobility challenges that planetary rovers encounter are compounded by loose,...
The Heat Flow and Physical Properties Package (HP³) includes an infrared Radiometer attached to the ...
Large changes in the orbital elements of Mars on timescales of 10(exp 4) to 10(exp 6) years will cau...