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Axel rover NanoDrill and PowderDrill: Acquisition of cores, regolith and powder from steep walls

This paper describes development and testing of low-mass, low-power drills for the Axel rover. Axel is a two-wheeled tethered rover designed for the robotic exploration of steep cliff walls, crater walls and deep holes on earth and other planetary bodies. The Axel rover has a capability to deploy sc...

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Main Authors: Zacny, K., Paulsen, G., Chu, P., Hedlund, M., Spring, J., Osborne, L., Matthews, J., Zarzhitsky, D., Nesnas, I. A., Szwarc, T., Indyk, S.
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creator Zacny, K.
Paulsen, G.
Chu, P.
Hedlund, M.
Spring, J.
Osborne, L.
Matthews, J.
Zarzhitsky, D.
Nesnas, I. A.
Szwarc, T.
Indyk, S.
description This paper describes development and testing of low-mass, low-power drills for the Axel rover. Axel is a two-wheeled tethered rover designed for the robotic exploration of steep cliff walls, crater walls and deep holes on earth and other planetary bodies. The Axel rover has a capability to deploy scientific instruments and/or samplers in the areas of interest to scientists currently inaccessible by conventional robotic systems. To enable sample recovery, we developed two drills: NanoDrill for acquisition of 25 mm long and 7 mm diameter cores and PowderDrill for acquisition of either in situ regolith/soil or drilled cuttings from depths of up to 15 mm. Both drills have been successfully tested in laboratory in limestone and sandstone rocks and on-board the Axel rover in the Mars Yard at NASA JPL. The drills managed to acquire limestone and sandstone cores and powder, with an average power of less than 5 Watts. The penetration rate of the NanoDrill was ~2 mm/min and of the PowderDrill it was ~9 mm/min. After sample acquisition, both drills successfully ejected of the acquired samples (cores and powder).
doi_str_mv 10.1109/AERO.2013.6497188
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source IEEE Xplore All Conference Series
subjects Actuators
Electron tubes
Instruments
Powders
Robots
Rocks
Testing
title Axel rover NanoDrill and PowderDrill: Acquisition of cores, regolith and powder from steep walls
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