A Wealth of Opportunities The signature of water is pervasive in and around the proposed ellipse, which resides ~600 km ENE of Opportunity –Ellipse: Over.

Slides:



Advertisements
Similar presentations
Remaining Uncertainties: Little evidence for shorelines corresponding to the elevation of the delta surface and the spillway to the eastern basin, though.
Advertisements

1 The Hesperian. 2 What’s important in the Late Noachian/Hesperian/Early Amazonian? Impact rate declining rapidly Volcanic resurfacing at a maximum? Hesperian.
MSL Parker and BargeFriday, June 2, 2006 Landing Site Map Compilation for MSL Tim Parker, JPL Laurie Barge, USC.
AQUEOUS SEDIMENTARY DEPOSITS IN HOLDEN CRATER: LANDING SITE FOR THE MARS SCIENCE LABORATORY Rossman P. Irwin III and John A. Grant Smithsonian Institution,
Martian Craters with Interior Deposits: Global Survey Results and Wind Model P21D-1875 Kristen A. Bennett 1 and Mark Schmeeckle 2 1 School of Earth and.
Broad Perspectives on Preferred Types of Mars Science Laboratory Landing Sites: Experience from Characteristics of Previous Landing Sites and Developing.
Mars Global Surveyor Mars Orbiter Camera 8 May 2006 Confidential and Proprietary Material of MSSS. This document may contain information subject to the.
Modern Exploration Global Surveyor.  Objectives:  High resolution imaging of the surface  Study the topography and gravity  Study the role of water.
Remaining Uncertainties: Is there evidence of a shoreline/bench in Eberswalde crater corresponding to the elevation of the delta surface and the spillway.
The Light-toned Sediments in and near lower Mawrth Vallis are a Drape Deposit Alan D. Howard Jeffrey M. Moore.
Rationale for Hematite Sites Mineralogy and petrology provide critical inputs to interpreting geologic processes Volcanic, lacustrine, chemical precipitation,
Paleo-surface Long/lat: from E, 24.21N to E, 23.95N Rational: A layer of the clay unit remained at the surface for a longer time than the rest.
Small valleys in the southern part of the ellipse Long/lat: E, 23.85N Rational: Sediments deposited in this partly filled valley may be of utmost.
Putative eroded inverted valley Long/lat: E, 23.93N Rational: Sediments deposited in this filled and inverted valley, at the base of the remnant.
Contact between layered sulfate & clay bearing strata and fluvial channel at Gale crater Latitude/longitude: 4°46'26" S, 137°23'42" E Rationale: Alteration.
Oyama layered deposits Long/lat: from E, 24.00N to E, 23.20N Rational: Clays have been transported onto the floor of Oyama and deposited as.
Ancient eroded layered craters Long/lat : (ranked by distance from ellipse center) E, 24.05N E, 24.01N E, 23.98N E, 23.86N.
Putative paleo sand-sheet Long/lat: from E, 24.11N to E, 23.89N Rational: This structure would indicate a temporary change in the environment.
Light-toned paleo-surface Long/lat: E, 23.76N Rational: During the deposition of the layered unit, a layer may have remained at the surface for a.
Lowest Strata in Gale Mound (near landing site) Latitude/longitude: 4°47'30"S, 137°17'50”E Rationale: Base of the exposed stratigraphic section for the.
Lower blue unit Long/lat: E, 23.97N Rational: This different mineralogy reveals different conditions of formation/alteration. Morphology & mineralogy:
The Mawrth Vallis Phyllosilicates Within a Regional Context: Extent, stratigraphy, and mineralogy of Phyllosilicates around Mawrth Vallis and Western Arabia.
Mars Exploration Rovers and Mars. Evidence for Liquid Water on Mars (in remote past) Valley networks Outflow channels “Northern Ocean”
Beyond the Hematite: More Reasons To Visit Meridiani Wendy Calvin, Alicia Fallacaro (UNR) Alice Baldridge (ASU) Supported by NASA EPSCOR, PGG, MER-PS.
Mars Exploration Rovers. SpiritOpportunity Mars Exploration Rovers  Launch: June 10, 2003  Landed on Mars: January 4  Location: Gusev Crater  Planned.
Mapping the Surface of Mars NOAO Science Education Group and Chris Martin from Howenstine Magnet High School.
VdG:ISME - July Vasco da Gama In Situ Mars Explorer.
Northwestern Slope Valleys (NSVS): Prime Candidate Site For MSL Exploration Of Mars J.M. Dohm, R.C. Anderson, V Baker, T.M. Hare, S.J. Wheelock.
MARS GLOBAL SURVEYOR ASIA TOOKE AND AVERY MORGAN.
THE EBERSWALDE DELTAIC COMPLEX AS A HIGH SCIENCE-RETURN TARGET FOR THE 2009 MARS SCIENCE LABORATORY Juergen Schieber, Department of Geological Sciences,
MSL Science Team Landing Sites Discussions — Gale CraterEdgett, p. 1 Gale Crater MSL Candidate Landing Site in Context by K. Edgett April 2010.
Planetary Terrestrial Surfaces and Exploring Mars Jaclyn and Carlton Allen Astromaterials Research and Exploration Science at Johnson Space Center.
Sharon Wilson, Smithsonian Institution Alan Howard, University of Virginia Jeff Moore, NASA Ames Research Center Terby Crater Terby Crater First MSL Landing.
Latitudinal Trend of Roughness and Circumpolar Mantles on Mars M. A. Kreslavsky J. W. Head III Brown University.
Measurability – MSL payload instruments Based on definitive nature of the biosignature and its measurability by the MSL payload o diagnostic organic molecules.
NASA’s Exploration Plan: “Follow the Water” GEOLOGY LIFE CLIMATE Prepare for Human Exploration When Where Form Amount WATER NASA’s Strategy for Mars Exploration.
Preservation of Evidence of Ancient Environments and Life on Mars
PROPOSED EXPLORATION ZONE TITLE Workshop Abstract # AUTHOR(s) with AFFILIATIONS.
Fluvial Deposits in Margaritifer Basin Kevin K. Williams and John A. Grant Center for Earth and Planetary Studies, Smithsonian Institution Corey M. Fortezzo.
Mars Science Laboratory 1st Landing Site Workshop Pasadena, CA — 31 May – 2 June Northern Sinus Meridiani Landing Sites for MSL K. S. Edgett and.
1 There’s lots of evidence for water on Mars…in the past River beds and teardrop-shaped “perched” craters. Lake beds Minerals have been found that only.
1 Selecting a Landing Site for Humans on Mars NASA / Richard (Rick) M. Davis Dec. 3, 2015.
Interlude  Viking mission operations ended in the early 1980s  Viking missions gave scientists the most complete picture of Mars to date. What does this.
Mars Science Laboratory Landing Site Workshop 1 Xanthe-Hellas-Elysium-Isidis LSC / 01 / 06/06 NMMNHS 1 Four Proposed Mars Science Laboratory Landing Sites.
Software used: ArcMap , MatLab R2015b, Google Earth 7.1.5
Mars Polar Layered deposits. Observations from the THEMIS investigation Anton B. Ivanov, THEMIS team JPL HEND Workshop, IKI Марсианские полярные слоистые.
PROPOSED MARS LANDING SITES FOR MER A & B West Hemisphere Centered at: 30°N, 30°W East Hemisphere Centered at: 30°N, 210°W 10°N 15°S 0° O OO O O 10°N 15°S.
East Melas Chasma: Insight into Valles Marineris Matt Chojnacki & Brian Hynek Laboratory for Atmospheric and Space the University of Colorado.
The Gale Crater Mound: A Candidate Landing Site for the 2009 Mars Science Laboratory Jim Bell 1, Ken Edgett 2, Scott Rowland 3, Mike Malin 2 Representing.
Determining surface characteristics at candidate MSL landing sites using THEMIS high-resolution orbital thermal inertia data Robin Fergason Philip Christensen.
Enabling Capabilities A Robotic Field Geologist Access to a site mapped from orbit Long life, mobility, capability to explore a local region Remote sensing.
Mars Science Laboratory 1st Landing Site Workshop Pasadena, CA — 31 May – 2 June Fine-layered Meridiani crater for the MSL Landing Site L. V. Posiolova,
Peculiar texture of high-latitude ground-ice-rich terrains M. A. Kreslavsky and J. W. Head Brown University Kharkov Astronomical Institute.
NAI Mars Focus Group Videocon Science and Landing Site Priorities for the Mars 2003 Mission Presentations by: n Ronald Greeley (ASU) & Ruslan Kuzmin (Vernadsky.
SEDIMENTARY ROCKS AND METHANE – SOUTHWEST ARABIA TERRA Carlton Allen and Dorothy Oehler NASA Johnson Space Center Houston, TX Elizabeth Venechuk Scripps.
TRAVERSE ACROSS LOWER STRATA OF MERIDIANI PLANUM LAYERED DEPOSITS Alan D. Howard Department of Environmental Sciences University of Virginia Jeffrey M.
Modern Exploration Mars Global Surveyor  “The mission will provide a global portrait of Mars as it exists today…This new view will help planetary scientists.
Sinus Meridiani (Hematite) Landing Site for 2003 MER Phil Christensen & The TES Science Team Presentation to NAI MWG by Vicky Hamilton 8 January 2001.
Geologic History Dissection of Cratered Terrain Deposition of Etched and Hematite layered deposits as volcaniclastic complex (composition?) Aqueous and/or.
Remaining Uncertainties: Little evidence of a shoreline/bench in Eberswalde crater corresponding to the elevation of the delta surface and the spillway.
Aqueous Alteration and Habitability in Nili Fossae J.F. Mustard, F. Poulet, N. Mangold, J-P. Bibring, R.E. Milliken, S. Pelkey, and L. Kanner Noachian.
Introduction: The Mawrth Vallis region has been identified by the Mars Express OMEGA and MRO CRISM instruments as a region with abundant hydrated phyllosilicate.
Visit NE Syrtis Major! Win Valuable Martian Geological History! Ralph P. Harvey Case Western Reserve University Planetary Time Share Specialist Ralph P.
MARS PIA km N.
Preservation of Evidence of Ancient Environments and Life on Mars
Geomorphology of Eastern Meridiani Planum
Holden NE crater Main Goals:
Mars-2005.
Stratigraphic Analysis of the Distributary Fan in Holden NE Crater
Mawrth Candidate Landing Site (Dawn Sumner, July 27, 2010)
Presentation transcript:

A Wealth of Opportunities The signature of water is pervasive in and around the proposed ellipse, which resides ~600 km ENE of Opportunity –Ellipse: Over a dozen diverse layers rich in sulfates/hydrated minerals are seen from orbit Many small craters have excavated underlying material in this flat, navigable site. –Beyond the Ellipse: Large water-related features MSL is well-equipped to assess this potential habitat for past life and it can answer many questions raised from the Opportunity Rover data.

There was extensive fluvial erosion in this region of ancient Mars (maybe that’s why so many interesting things are exposed here?). Valley networks were forming before and after the Meridiani deposits. Bottom line: water was important here! MOLA topography (pole-to-pole slope removed) Hynek and Phillips, 2001

Hynek et al., 2002 Light toned, differentially eroded “etched” terrain was identified outcropping from under the hematite- bearing unit. The unit was noted for the “many complex strata contained within” > 500-m-thick unit is both high in albedo and thermal inertia. Opportunity

More recent mapping shows the extent of etched terrain well beyond the hematite plain = >3.3 × 10 5 km km 0 THEMIS thermal inertia Hynek, 2004 proposed ellipse 0200 km sulfate-richsulfate-rich ESA’s OMEGA instrument shows a strong sulfate/hydrated mineral signal from the etched unit (Gendrin et al., 2005; Arvidson et al., 2005)

200 km 0 Zooming In

Ellipse is within a >200-km-long exposure of layered sulfate-rich bedrocks. hematite-bearing unit THEMIS Day IR mosaic credit: ASU etched unit Many alternate ellipses exist that are safe and scientifically interesting.

Ellipse Characteristics Center: 0.0° N, 3.7°E Elevation: km (1σ = 64 m) Max Slopes: 5 km=0.9°; 2 km=1.7°; MOLA shot-to-shot average of ~1° IRTM Rock Abundance: ~7% Thermal Inertia: J m -2 K -1 s -1/2 Albedo: Dust Index: Steve Ruff says it’s great. Winds: Scot Rafkin says a-okay! 30 m contours THEMIS VIS and MOC NA with MOLA colors

Ellipse Characteristics Immediate science return. –ANYWHERE you land will have interesting mineralogy and diverse stratigraphy. A number of small craters have excavated underlying material. 30 m contours THEMIS VIS and MOC NA with MOLA colors

Ellipse Characteristics Many distinct, sulfate rich layers outcrop. A number of small craters have excavated underlying material. Center: 0° N, 3.7°E Elevation: km (1σ = 64 m) Max Slopes: 5 km=0.9°; 2 km=1.7°; MOLA shot-to-shot average of ~1° IRTM Rock Abundance: ~7% Thermal Inertia: J m -2 K -1 s -1/2 Albedo: m contours THEMIS VIS and MOC NA with MOLA colors A A’ A The diverse layers suggest a changing depositional environment and/or varying degrees of aqueous alteration.

V1 V2 MPF Sp Op MSL Mellon et al., 2000 An unexplored region

Regional Water-Related Features MOC NA E

A diverse navigable surface A number of craters to study Lack of aeolian features layer contacts in MOC NA 1 km

Eastern Meridiani Rationale The Opportunity Rover has examined an upper section of >500 m of ancient sulfate-rich layers. –While the mission changed our view of the planet, many questions remain about the amount and role of water. Eastern Meridiani allows access to the heart of this section and MSL has the instruments to address the history of water. –Many immediately accessible, diverse layers are seen in and around the safe and navigable ellipse. –There’s the opportunity to link 2 landed data sets to the orbital context. –Large-scale water-related features reside in and immediately beyond the ellipse. 1 Landing MSL is this region would accomplish the overriding mission goal by assessing a habitable environment with a water-rich history.

Diverse, Ancient Sedimentary Outcrops and Water-Related Features Abound