Why look for water? Humans exploring the Moon will need water: –Option 1: Carry it there. –Option 2: Use water that may be there already! Carrying water.

Slides:



Advertisements
Similar presentations
The Moon.
Advertisements

Mercury & the Moon Mercury & the Moon. Mercury and the Moon: What can we learn? What do we know? What do we know? Why is it important? Why is it important?
Ice in our Solar System International Polar Year Web Presentation Gregory A. Neumann NASA Goddard Space Flight Center Greenbelt, MD 20771
Jose Castellano, Daniel McNeel Dr. Paul Higbie, Dr. Boris Kiefer Department of Physics i160.photobucket.com/.../shs_moonWater-1.jpg.
The Lunar Reconnaissance Orbiter NASA’s Next First Step To The Moon Noah E. Petro NASA Goddard Space Flight Center May 12 th, 2009.
LCROSS Our latest mission to the surface of the Moon. Developed and managed by NASA Ames Research Center in partnership with Northrop Grumman. Goal: to.
Cassini-Huygens Mission Saturn and Titan In June 2004, the Cassini spacecraft reached its ultimate destination: the Saturn system.
A Polar Volatiles Laboratory A. Smith, R. A. Gowen, I. A. Crawford Shackleton Crater ESA Smart-1.
National Aeronautics and Space Administration Jet Propulsion Laboratory California Institute of Technology Stardust NExT Tim Larson, Project Manager EPOXI.
The Lunar Reconnaissance Orbiter (LRO) is the first mission in NASA's Vision for Space Exploration, a plan to return to the moon and then to travel to.
LRO/LEND LEND 1 LCROSS Site Selection Workshop October 16 th 2006 Lunar Exploration Neutron Detector Evaluation of Potential LCROSS Impact Sites Igor Mitrofanov.
School of Earth and Space Exploration Existing Lunar Datasets M. S. Robinson School of Earth and Space Exploration Arizona State University.
Mercury from Mariner 10 outbound 1974 Radius 2,440 km Mars – Two images showing effects of dust storms Radius 3,396 km Mars Rovers, Mars Reconnaissance.
Mercury’s Mysterious Polar Deposits Sarah Mattson PTYS 395A 2/6/2008 South polar region, imaged by Mariner 10 on second flyby. Frame
Mysteries of Earth and Mars Mars Facts and Exploration.
ICE: On The Moon Lindsay Johannessen PTYS 395 All photos courtesy of Vasavada el at., Feldman et al., Margot et al.,
Astronomy Tools and The Moon UNIT 11 STANDARDS: NCES 1.1.1, 1.1.2, 1.1.3, 1.1.4, 1.1.5, LESSON 2.
Lunar CRater Observation and Sensing Satellite Project LCROSS Site Selection Workshop Oct , 2006 NASA/ARC, Mountain View, California LCROSS Orbital.
LCROSS Our next mission to the surface of the Moon. Developed and managed by NASA Ames Research Center in partnership with Northrop Grumman. Goal: to.
National Aeronautics and Space Administration Introduction to Lunar Excavator Senior Design Project Mission Objective: Design a excavator to dig lunar.
Water, Water, Everywhere? Anuradha Koratkar, Susan Hoban, Albert Hill, and Brendan Shaughnessy.
The Sun. OUR STAR 34 Earth days to rotate at Poles 25 Earth days to rotate at Equator.
November 30, 2006 Space Telescope Science Institute Conference Scott “Doc” Horowitz Associate Administrator NASA Exploration Systems Mission Directorate.
New Horizons mission to Pluto Canberra Deep Space Communication Complex – making space history CSIRO ASTRONOMY AND SPACE SCIENCE 13 July 2015.
Spacecraft Instruments. ► Spacecraft instrument selection begins with the mission description and the selected primary and secondary mission objectives.
The geological history of the Moon. The last blast-off from the Moon =channel.
PLUTO AND THE KUIPER BELT Beyond Neptune, the most distant major planet, are a large number of smaller objects, all of which currently known are smaller.
INTERPLANETARY MATTER ON THE MOON V.V.Shevchenko Sternberg Astronomical Institute, Moscow University THE SECOND MOSCOW SOLAR SYSTEM SYMPOSIUM MOONS OF.
Mark Beckman - Flight DynamicsMB-1 Lunar Flight Dynamics Mark Beckman July 12, 2012.
Our Moon. Creation of our Moon: 4.5 Billion years ago, the Earth was still forming and not even solid yet when it was hit with an asteroid about the size.
Polar Topographic Knowledge Prior to LCROSS Impact David E. Smith 1, Maria T. Zuber 2 1 NASA/Goddard Space Flight Center 2 Massachusetts Institute of Technology.
1 Lunar Reconnaissance Orbiter (LRO) Overview 4/13/2005 Craig Tooley.
For the last 20 years, the Jet Propulsion Laboratory has sponsored the Planetary Science Summer School (PSSS) to give faculty, postdocs, and graduate students.
Early Spacecraft Exploration Early Spacecraft Exploration Mariner 3 & 4  “…these missions are being undertaken because Mars is of physical.
Pluto is the most distant and smallest planet in the solar system. It takes 6 days 9 hours to rotate and 248 Earth years to orbit the Sun. The littlest.
Our Solar system YouTube - The Known Universe by AMNH.
Planetary Motion By Carol Greco. Why do planets move the around the sun the way they do? First you need to understand that scientists have discovered.
Track 1. Track 2 TRACK LIST 1.An introduction to synthetic aperture radar 2.Mini-RF on LRO 3.The moon as seen by radar 4.The search for ice 5.Conclusions.
Planets Comparative Planetology Astronomy Physics Geology Chemistry Meteorology Biology.
LCROSS Our next mission to the surface of the Moon. Developed and managed by NASA Ames Research Center in partnership with Northrop Grumman. Goal: to.
Lecture 33 The Solar System. The Inner Planets. The Solar System Overview Terrestrial Planets Chapter 16.1  16.8.
NASA Returns To Mercury in 2011 with MESSENGER. This is the first mission to Mercury since Mariner 10 in 1975 It will fully map the entire surface of.
Presented to Kepler Pre-Launch Educator Workshop January 31, 2009 Shari Asplund Discovery and New Frontiers Programs Education and Public Outreach Manager.
Chapter 11: Section 3 Exploring Earth’s Moon. The First First Spacecraft: Luna (Russian) First to take pictures 1959 When was Sputnik Launched?
To find water, NASA 'bombs' the moon Photo Credits-
... the colonists need ice... the colonists need ice.
Mars - The Red Planet Image Courtesy of NASA/JPL-Caltech.
Juno Mission To Jupiter NASA New Frontiers Program Launch Date: Aug. 5, 11:34 a.m. EDT Launch Period: Aug. 5 – 26 (~60 min window) Launch Vehicle: Atlas.
LRO/LCROSS Launch Preview How Where When Presentation for NASA Solar System Ambassadors and Museum Alliance March 20, 2009 Brooke Hsu, LRO E/PO Lead Brian.
1 LCROSS Site Selection Workshop Introduction to Workshop and Overview of Process Dr. Jennifer L. Heldmann NASA Ames Research Center / SETI Institute.
Key Concepts What features are found on the moon’s surface? What are some characteristics of the moon? How did the moon form?
Exploring the Moon with NASA Lunar Workshop June 8, 2012 Brian Day LADEE Mission E/PO Lead NASA Lunar Science Institute Director of Communication & Outreach.
Dr. Richard R. Vondrak Director, Robotic Lunar Exploration Program Science Mission Directorate NASA Headquarters September 2004 NASA Robotic Lunar Exploration.
Discoveries in Planetary Sciencehttp://dps.aas.org/education/dpsdisc/ Water Found on the Moon Analysis of lunar rocks collected by Apollo astronauts did.
Idaho wildfire as seen by ISS Moon, Moscow, and Aurora From the ISS.
Goldstone Radar Support for LCROSS Evaluation of Impact Sites Martin Slade October 16, 2006 National Aeronautics and Space Administration Jet Propulsion.
LRO SRR LRO Mission Overview.
SHOEMAKER CRATER – GOING WHERE WE CAN “SEE” Carlton Allen NASA JSC.
Lunar Surface Atmosphere Spectrometer (LSAS) Objectives: The instrument LSAS is designed to study the composition and structure of the Lunar atmosphere.
A look at our nearest neighbor in Space! The Moon Free powerpoints at
Is there Ice on the Moon? Presentation to the Haggerty School March 29 th, 2005 Source: aerospacescholars.jsc.nasa.gov.
Mission: Moon!. What is it like on the Moon? Length of Day Atmosphere Temperature Water Radiation Gravity Landscape.
Ice At the Moon - How the Moon Mineralogy Mapper on Chandrayaan-1 Will Help Noah E. Petro NASA Goddard Space Flight Center March 4 th, 2009.
JUpiter Icy Moons Explorer (JUICE)
NASA’s Dawn Mission will be the first to orbit a main belt asteroid, doing a detailed and extensive study of the two largest asteroids Ceres and Vesta.
Early Exploration Mariner 3 & 4
Lunar Reconnaissance Orbiter Camera
Early Spacecraft Exploration
Lunar Reconnaissance Orbiter (LRO)
Topic 7: The Solar System Close Up
Presentation transcript:

Why look for water? Humans exploring the Moon will need water: –Option 1: Carry it there. –Option 2: Use water that may be there already! Carrying water to the Moon will be expensive! Learning to “Live off the land” would make human lunar exploration easier. Humans exploring the Moon will need water: –Option 1: Carry it there. –Option 2: Use water that may be there already! Carrying water to the Moon will be expensive! Learning to “Live off the land” would make human lunar exploration easier.

Living off the land Even compared to many meteorites, the Moon is highly depleted in volatile elements and compounds, especially water. However, oxygen does exist within various mineral structures. Hydrogen from the solar wind can also be obtained from the lunar soil. Very energy intensive to obtain these key raw materials (have to heat regolith to at least 700° C). Life would be much easier and cheaper if we could just find H 2 O on the Moon. Even compared to many meteorites, the Moon is highly depleted in volatile elements and compounds, especially water. However, oxygen does exist within various mineral structures. Hydrogen from the solar wind can also be obtained from the lunar soil. Very energy intensive to obtain these key raw materials (have to heat regolith to at least 700° C). Life would be much easier and cheaper if we could just find H 2 O on the Moon.

Clementine bistatic radar Circular polarization ratio (CPR) consistent with ice crystals in the south polar regolith. Later ground-based studies confirmed high-CPR in some permanently-shadowed craters. However, Arecibo scans have also found high-CPR in some areas that are illuminated, probably due to surface roughness. Are we seeing ice or rough terrain in dark polar craters? Circular polarization ratio (CPR) consistent with ice crystals in the south polar regolith. Later ground-based studies confirmed high-CPR in some permanently-shadowed craters. However, Arecibo scans have also found high-CPR in some areas that are illuminated, probably due to surface roughness. Are we seeing ice or rough terrain in dark polar craters?

Lunar Prospector neutron spectrometer maps of the lunar poles. These low resolution data indicate elevated concentrations of hydrogen at both poles; it does not tell us the form of the hydrogen. Map courtesy of D. Lawrence, Los Alamos National Laboratory. Hydrogen has been detected at the poles by Lunar Prospector in Is it water ice???

Lunar Prospector Impact – July 31, 1999 South pole impact at end of mission Low angle (6.3°), low mass (161 kg), and low velocity (1.69 km/s) less than ideal for water ice detection. No water detected. Results not conclusive. South pole impact at end of mission Low angle (6.3°), low mass (161 kg), and low velocity (1.69 km/s) less than ideal for water ice detection. No water detected. Results not conclusive.

How could there be water at the lunar poles? The sun never gets more then several degrees about the polar horizon, thus topography can provide “permanent” shade. Permanently shadowed regions (PSRs) may have temperatures < -200° C (-328° F). Over the history of the Moon, when comets or asteroids impact the Moon's surface they briefly produce a very tenuous atmosphere that quickly disperses into space. However, PSRs could act as cold-traps. Volatile gasses that enter could condense and accumulate for billions of years. Clementine Mosaic - South Pole

Where will we look?

How can we look for water? Lunar Reconnaissance Orbiter LRO Lunar Crater Observation and Sensing Satellite LCROSS

Lunar Reconnaissance Orbiter LROC – image and map the lunar surface in unprecedented detail LOLA – provide precise global lunar topographic data through laser altimetry LAMP – remotely probe the Moon’s permanently shadowed regions CRaTER - characterize the global lunar radiation environment DIVINER – measure lunar surface temperatures LEND – measure neutron flux to study hydrogen concentrations in lunar soil LROC – image and map the lunar surface in unprecedented detail LOLA – provide precise global lunar topographic data through laser altimetry LAMP – remotely probe the Moon’s permanently shadowed regions CRaTER - characterize the global lunar radiation environment DIVINER – measure lunar surface temperatures LEND – measure neutron flux to study hydrogen concentrations in lunar soil

LRO Mission Overview On-board propulsion system used to capture at the Moon, insert into and maintain 50 km mean altitude circular polar reconnaissance orbit. 1 year exploration mission followed by handover to NASA science mission directorate. On-board propulsion system used to capture at the Moon, insert into and maintain 50 km mean altitude circular polar reconnaissance orbit. 1 year exploration mission followed by handover to NASA science mission directorate. Minimum Energy Lunar Transfer Lunar Orbit Insertion Sequence Commissioning Phase, 30 x 216 km Altitude Quasi-Frozen Orbit, Up to 60 Days Polar Mapping Phase, 50 km Altitude Circular Orbit, At least 1 Year

LCROSS Mission Concept Impact the Moon at 2.5 km/sec with a Centaur upper stage and create an ejecta cloud that may reach over 10 km about the surface Observe the impact and ejecta with instruments that can detect water Impact the Moon at 2.5 km/sec with a Centaur upper stage and create an ejecta cloud that may reach over 10 km about the surface Observe the impact and ejecta with instruments that can detect water Ejecta Curtain Peter Schultz

Excavating with billion Joules ~200 metric tons (220 tons) minimum of regolith will be excavated Crater estimated to have ~20-25 m diameter and ~3 depth Similar in size to East Crater at Apollo 11 landing site ~200 metric tons (220 tons) minimum of regolith will be excavated Crater estimated to have ~20-25 m diameter and ~3 depth Similar in size to East Crater at Apollo 11 landing site

LCROSS Mission System Shepherding Spacecraft: guides and aims the Centaur to its target and carries all of the critical instrumentation. Centaur Upper Stage: provides the thrust to get us from Earth orbit to the Moon and will then be used as an impactor Shepherding Spacecraft: guides and aims the Centaur to its target and carries all of the critical instrumentation. Centaur Upper Stage: provides the thrust to get us from Earth orbit to the Moon and will then be used as an impactor 14.5 m

LCROSS Instruments

Scheduled Launch: June 2009 Both LCROSS and LRO will share space aboard an Atlas V launch vehicle Launch will occur at Cape Canaveral Both LCROSS and LRO will share space aboard an Atlas V launch vehicle Launch will occur at Cape Canaveral

Centaur-LCROSS-LRO at TLI

LRO Separation

LCROSS Lunar Flyby: L + 5 days

LCROSS Trajectory: The Long and Winding Road Flyby transitions to Lunar Gravity Assist Lunar Return Orbits (LGALRO) Multiple LGALRO orbits about Earth (~38 day period) Long transit also provides time to vent any remaining fuel from Centaur Flyby transitions to Lunar Gravity Assist Lunar Return Orbits (LGALRO) Multiple LGALRO orbits about Earth (~38 day period) Long transit also provides time to vent any remaining fuel from Centaur

LCROSS Separation: Impact - 9 hrs

Centaur Impact

Into the Plume During the next 4 minutes, the Shepherding Spacecraft descends into the debris plume, measuring its morphology and composition, and transmitting this information back to Earth. The Shepherding Spacecraft then ends its mission with a second impact on the Moon During the next 4 minutes, the Shepherding Spacecraft descends into the debris plume, measuring its morphology and composition, and transmitting this information back to Earth. The Shepherding Spacecraft then ends its mission with a second impact on the Moon

Impact Observation Campaign

We believe reasonable grade amateur telescopes may be able to witness the impact plume. This is an exciting mission!

Student Telemetry Program GAVRT – Goldstone Apple Valley Radio Telescope run by Lewis Center for Educational Research 34m DSS-12 & DSS-13 dishes Used by thousands of K-12 students around the world GAVRT – Goldstone Apple Valley Radio Telescope run by Lewis Center for Educational Research 34m DSS-12 & DSS-13 dishes Used by thousands of K-12 students around the world

Student Telemetry Program Monitor spacecraft omni during LGALRO transit Conduct Doppler studies en route Monitor medium gain transmissions during terminal approach and determine time of LOS Outstanding partnership opportunity for other mission post LCROSS, including LRO! Monitor spacecraft omni during LGALRO transit Conduct Doppler studies en route Monitor medium gain transmissions during terminal approach and determine time of LOS Outstanding partnership opportunity for other mission post LCROSS, including LRO!

Timing is everything! LCROSS mission in 2009 corresponds with International Year of Astronomy Also corresponds with International Polar Year. (Note: NASA’s IPY focus is on 6 poles – those of the Earth, Moon, and Mars) Also corresponds with 50 th anniversary of NASA LCROSS mission in 2009 corresponds with International Year of Astronomy Also corresponds with International Polar Year. (Note: NASA’s IPY focus is on 6 poles – those of the Earth, Moon, and Mars) Also corresponds with 50 th anniversary of NASA

LRO/LCROSS Launch Preview How Where When

We will use the Atlas V Launch Vehicle Latest version in the Atlas family of boosters Early Atlas boosters were used for manned Mercury missions Atlas V has become a mainstay of U.S. satellite launches NASA has used Atlas V to launch MRO to Mars in 2004 and New Horizons to Pluto and the Kuiper Belt in 2006 How?

We will launch from Space Launch Complex 41 (SLC-41) at Cape Canaveral Helios probes to the Sun Viking probes to Mars Voyager planetary flyby and deep space probes Mars Reconnaissance Orbiter New Horizons spacecraft to Pluto and Kuiper Belt Where?

Atlas V first stage arrived by cargo aircraft

Vertical Integration Facility

What’s going to happen? First stage delivered to VIF

First stage lifted into VIF

Centaur stacked on first stage

LRO and LCROSS will be stacked onto Centaur

Mobile Launch Platform will transport spacecraft from VIF to pad

When? LRO/LCROSS scheduled for June launch Currently looking at an early October impact for LCROSS Impact is currently targeting South Pole of the Moon

Questions