Planetary science and exploration in the deep subsurface: results from the MINAR Program, Boulby Mine, UK
Payler, Samuel J.; Biddle, Jennifer F.; Coates, Andrew; Cousins, Claire R.; Cross, Rachel E.; Cullen, David C.; Downs, Michael T.; Direito, Susana O. L.; Edwards, Thomas; Gray, Amber L.; Genis, Jac; Gunn, Matthew; Hansford, Graeme M.; Harkness, Patrick; Holt, John; Josset, Jean-Luc; Li, Xuan; Lees, David S.; Lim, Darlene S. S.; McHugh, Melissa; McLuckie, David; Meehan, Emma; Paling, Sean M.; Souchon, Audrey; Yeoman, Louise; Cockell, Charles S.
Date:
2016-04-20
Citation:
Samuel J. Payler, Jennifer F. Biddle, Andrew Coates, et al. Planetary science and exploration in the deep subsurface: results from the MINAR Program, Boulby Mine, UK. International Journal of Astrobiology, Volume 16, Issue 2, April 2017 , pp. 114-129
Abstract:
The subsurface exploration of other planetary bodies can be used to unravel their
geological history and assess their habitability. On Mars in particular, present-day habitable
conditions may be restricted to the subsurface. Using a deep subsurface mine, we carried out a
program of extraterrestrial analog research – MINAR (MINe Analog Research). MINAR aims to carry
out the scientific study of the deep subsurface and test instrumentation designed for planetary
surface exploration by investigating deep subsurface geology, whilst establishing the potential this
technology has to be transferred into the mining industry. An integrated multi-instrument suite was
used to investigate samples of representative evaporite minerals from a subsurface Permian
evaporite sequence, in particular to assess mineral and elemental variations which provide small
scale regions of enhanced habitability. The instruments used were the Panoramic Camera emulator
(AUPE-2), Close-Up Imager (CLUPI), Raman Spectrometer, SPLIT (Small Planetary Linear Impulse
Tool), Ultrasonic Drill and handheld XRD. We present science results from the analog research and
show that these instruments can be used to investigate in situ the geological context and
mineralogical variations of a deep subsurface environment, and thus habitability, from millimeter to
meter scales. We also show that these instruments are complementary. For example, the
identification of primary evaporite minerals such as NaCl and KCl, which are difficult to detect by
portable Raman spectrometers, can be accomplished with XRD. By contrast, Raman is highly
effective at locating and detecting mineral inclusions in primary evaporite minerals. MINAR
demonstrates the effective use of a deep subsurface environment for planetary instrument
development, understanding the habitability of extreme deep subsurface environments on Earth
and other planetary bodies, and advancing the use of space technology in economic mining.
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