NASA Exploration Team Message

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NASA’s Earth Science Planning Update

presented at the

Joint Meeting of Ocean Sciences and Surface Water Hydrology in Support of Wide-Swath Altimetry Measurements

October 30, 2006

Lucia Tsaoussi,

Deputy Associate Director for Research, Earth Science Division

NASA Headquarters

1

Presentation Outline

• NASA’s Science Plan

Development and review

• Focus On Earth Science Issues

Earth Science planning timeline, recommendations

• Next Steps

Near-term planning for plan amendment

2

Why a New Science Plan?

• NASA released a new 2006 NASA Strategic Plan in February

2006, in keeping with the triennial requirement in the

Government Performance and Results Act

– The Science organizations follow with a strategic document describing their implementation of the NASA Strategic Plan

– The Space and Earth Science Enterprises produced strategy documents in 2003; it is timely now for the Science Mission

Directorate to produce its first strategy document

• The Congress requires NASA to produce such a plan in the

2005 NASA Authorization Act signed last December

3

NASA’s Strategic Goals

*

• Strategic Goal 1: Fly the Shuttle as safely as possible until its retirement, not later than 2010.

• Strategic Goal 2 : Complete the International Space Station in a manner consistent with NASA’s international partner commitments and the needs of human exploration.

• Strategic Goal 3: Develop a balanced overall program of science exploration, and aeronautics consistent with the redirection of the human spaceflight program to focus on exploration.

• Strategic Goal 4: Bring a new Crew Exploration Vehicle into service as soon as possible after Shuttle retirement.

• Strategic Goal 5: Encourage the pursuit of appropriate partnerships with the emerging commercial space sector.

• Strategic Goal 6 : Establish a lunar return program having the maximum possible utility for later missions to Mars and other destinations.

* 2006 NASA Strategic Plan

4

NASA’s Strategic Goals

*

• Strategic Sub-goal 3A: Study Earth from space to advance scientific understanding and meet societal needs.

• Strategic Sub-goal 3B: Understand the Sun and its effects on Earth and the solar system.

• Strategic Sub-goal 3C: Advance scientific knowledge of the origin and history of the solar system, the potential for life elsewhere, and the hazards and resources present as humans explore space.

• Strategic Sub-goal 3D: Discover the origin, structure, evolution, and destiny of the universe, and search for Earth-like planets.

• Strategic Sub-goal 3E: Advance knowledge in the fundamental disciplines of aeronautics, and develop technologies for safer aircraft and higher capacity airspace systems.

• Strategic Sub-goal 3F: Understand the effects of the space environment on human performance, and test new technologies and countermeasures for long-duration human space exploration.

* 2006 NASA Strategic Plan

5

Purpose of NASA/SMD Science Plan

 Respond to Authorization Language

– NASA Authorization Act for 2005 (S.1281)

– Title I Section 101

– (d) SCIENCE.— (1) IN GENERAL.—The Administrator shall develop a plan to guide the science programs of NASA through

2016.

– (2) CONTENT.—At a minimum, the plan developed under paragraph (1) shall be designed to ensure that NASA has a rich and vigorous set of science activities, and shall describe — (A) the missions NASA will initiate, design, develop, launch, or operate in space science and earth science through fiscal year

2016, including launch dates; (B) a priority ranking of all of the missions listed under subparagraph (A), and the rationale for the ranking; and (C) the budget assumptions on which the policy is based, which for fiscal years 2007 and 2008 shall be consistent with the authorizations provided in title II of this Act.

6

Purpose of NASA/SMD Science Plan (2)

 Respond to Authorization Language

– NASA Authorization Act for 2005 (S.1281) cont’

– (3) CONSIDERATIONS .

—In developing the science plan under this subsection, the Administrator shall consider the following issues, which shall be discussed in the transmittal under paragraph (6): (A) What the most important scientific questions in space science and earth science are.

(B) How to best benefit from the relationship between NASA’s space and earth science activities and those of other Federal agencies . (C)

Whether the Magnetospheric Multiscale Mission, SIM-Planet Quest, and missions under the Future Explorers Programs can be expedited to meet previous schedules. ( D) Whether any NASA Earth observing missions that have been delayed or cancelled can be restored. (E) How to ensure the long-term vitality of Earth observation programs at NASA, including their satellite, science, and data system components. (F) Whether current and currently planned Earth observation missions should be supplemented or replaced with new satellite architectures and instruments that enable global coverage, and all-weather, day and night imaging of the Earth’s surface features. (G) How to integrate NASA earth science missions with the Global Earth Observing System of

Systems.

7

Science Plan Draft Outline

• Preamble: The NASA Science Story

• Purpose & Progress

• Summary of Science Questions and Prioritized Missions

– Principle requirement in the NASA Authorization Act

• Common Elements of Strategy

• Research Areas

– Bulk of the Plan; a section for each of the four science areas

• Science Enabling and Enabled by Human Exploration

• Summary: On the Brink of Understanding

• Appendices

8

Roadmaps

JAN FEB MAR APR MAY JUN JUL AUG SEP OCT NOV DEC

06

Mars to

NRC

Helio

Astro

Earth (Internal

Draft)

Mars

NRC

Report

Solar System

(Exec Sum)

 Solar

System

SMD Agency

SMD Management Review

Draft of Common Elements Sections

4/20

5/31

9/29

Roadmap Presentations to Subcommittees

Status / Content Presentation to NAC / SC

Draft of Science Division Sections

 5/31 

Draft 3 for SC, Subcommittees, NRC, Industry review

6/23

Meeting of SSB ad hoc Review Committee

7/11-13

Draft 3.5 for Sept. Subcommittee Meetings

9/13

Comments from NRC, NSAG, etc.

Draft 4 for NAC/SC, Other Agency Review

9/15

10/3

10/6

SMD Science

Plan

Schedule

10/5/06

Key

Roadmap

SMD Review

Draft

Presentation

Table Top Review

Meetings

Delivery

Italics = change from prior version of the schedule

Final Discussion with NAC / SC

Table top review with PA&E

10/24

Table top review with OMB, OSTP 10/26

SSB report on impacts of FY07 request

Draft for Agency & OMB clearance 11/27

Deliver to Congress

12/8?

AGU 12/11-15

NAC Science

Committee

2/8-9 HQ 5/17-18 JPL 7/19-20 JSC 10/10-12 GSFC

2/7-8 HQ?

Science

Subcommittees

Chairs telecon -

4/7

5/3-4

Conference

7/6-7

9

5 mtgs in mid, late Sept

4 11

SEPT

18 25 2 9

OCT

16 23 30 6

NOV

13 20 27 4

DEC

11 18 25 1

JAN

8

9/13

Draft 3.5 for Sept. Subcommittee Meetings

9/13-15 HS Mtg 9/25-26 PSS Mtg

9/14-15 AS Mtg 9/27-28 ES Mtg

Critical window for revising draft

9/15

9/19

Comments from NRC, NSAG, etc.

SMD Senior Mgmt Mtg to Confirm Mission Priorities

Draft 4 for NAC/SC Review

10/6

Provide Draft 4 for review by other Agencies

NAC 10/10-12

10/20

Comments from Other Agencies; Cut off for external comments from all sources

Draft 4.X if needed for NAC, other Agency comments

10/24

Table top review with PA&E

Table top review with OMB, OSTP

10/24

10/26

Draft 5.0 for editing by P&D 10/30

Draft 6.0 for layout by TAJ 11/13

Layout doc for editing

11/27

Doc ready to start

Mgmt concurrence

10

SMD

12/6

Approved Doc

(pre-pub)

Deliver to Congress; post pdf version; send to printer

Agency

12/8

AGU

Detailed Schedule for Completion of

SMD Science Plan

10/5/06

Key

Roadmap

Mgmt Review

Draft

Presentation

Table Top Review

Meetings

Delivery

Italics = change from prior version of the schedule

Printed copies available

1/5

External Review Groups

• NAC Science Committee & Subcommittees

• National Research Council / Space Studies Board /

Committee on Review of NASA Science Mission Directorate

Science Plan

• NASA Science Associates Group (major industrial contractors)

• Partner US Government Agencies

11

Ad Hoc

Biomedical

Committee

(David Longnecker)

NASA Advisory Council Structure

NASA

Advisory Council

Chair:

Harrison H. Schmitt

Ex-Officio

Members

Ray Colladay

Lennard Fisk

Aeronautics

Committee

Chair:

Neil Armstrong

Audit and Finance

Committee

Chair:

Bob Hanisee

Exploration

Committee

Chair:

James

Abrahamson

Human Capital

Committee

Chair:

Gerald

Kulcinski

Science

Committee

Chair:

Edward David

Space

Operations

Committee

Chair:

Paul Robinson

Astrophysics

Subcommittee

(David Spergel)

Earth Science

Subcommittee

(Daniel Jacob)

Heliophysics

Subcommittee

(Alan Title)

Planetary

Science

Subcommittee

(Sean Solomon)

Planetary

Protection

Subcommittee

(Ronald Atlas)

12

FYI NRC’s Review Team

A. Thomas Young – Chair

Spiro K. Antiochus – NRL

Ana P. Barros – Duke U

James L. Burch – SRI

Antonio J. Busalacchi – U Md

Jack D. Farmer – Arizona State

Margaret G. Finarelli – GMU

John P. Huchra – Harvard- SCA

Ralph Lorenz – Univ of Arizona

Daniel McCammon – UW-Madison

Anneila I. Sargent – CIT

Jessica Sunshine – U Md

Carl Wunsch – MIT

13

Earth Science Approach and Key Issues

20-30 page section

• ESD Roadmap and Decadal Survey in progress

• Legacy Science Focus Area roadmaps available and draft Research Plan (Jan 2005) reviewed by

ESSAAC

• Plan to implement missions that are currently in development and formulation

• Utilize SFA Legacy roadmaps to initiate mission concept studies in a preparatory process to respond to decadal survey report

• Continue to work interagency planning and collaborative programs

14

Earth Science

(Interim Report)

6 Science

Focus Area roadmaps; yet to be integrated into a single Earth

Science roadmap

2005

15

2006

Science

Plan

Earth

Science section

Chapter 4: Earth Science

• 4.1

Intellectual Foundation

• 4.2

Science Objectives and Outcomes: The Six Science

Focus Areas

– 4.2.1 Atmospheric Composition

– 4.2.2

Weather

– 4.2.3 Carbon Cycle and Ecosystems

– 4.2.4

Water and Energy Cycle

– 4.2.5

Climate Variability and Change

– 4.2.6

Earth Surface and Interior

– 4.2.7

Interdisciplinary Science

• 4.3

Mission Summaries

– 4.3.1

Mission Classes

– 4.3.2 Missions in Formulation and Development

– 4.3.3

Planning for Future Missions

– 4.3.4

Representative Future Mission Elements

16

Chapter 4: Earth Science (cont’)

• 4.4

Program Elements

4.4.1 Research and Analysis Program

4.4.2

Applied Sciences Program

4.4.3 Technology Program

4.4.4

Modeling and High-End Computing

4.4.5

Data and Information Systems

4.4.6

Suborbital Science Program

4.4.7

Earth Observation and Science Partnerships

4.4.8

Earth Science Education and Public Outreach

• 4.5

Earth Science Beyond 2016

17

Section 4.1: Intellectual Foundation

• The compelling nature of Earth Science leading to

NASA’s strategic goal: “

study planet Earth from space to advance scientific understanding and meet societal needs

• The unique role of NASA among other US government agencies and contributions made by

NASA programs

• Program essential to the implementation of 3 major

Presidential initiatives (CCSP, GEO, AOP).

18

NASA Strategic sub-goals

• 3A.1: Understanding and improving predictive capability for changes in the ozone layer, climate forcing, and air quality associated with changes in atmospheric composition.

• 3A.2: Enable improved predictive capability for weather and

extreme weather events.

• 3A.3: Quantify global land cover change and terrestrial and marine

productivity, and improve carbon cycle and ecosystem models.

• 3A.4: Quantify the key reservoirs and fluxes in the global water cycle and improve models of water cycle change and fresh water

availability.

• 3A.5: Understand the role of oceans, atmosphere, and ice in the climate system and in improving predictive capability for its future

evolution.

• 3A.6: Characterize and understand Earth surface changes and variability of the Earth’s gravitational and magnetic fields

19

Science Questions and Focus Areas

Variability

Precipitation, evaporation & cycling of water changing?

Global ocean circulation varying?

Global ecosystems changing?

Atmospheric composition changing?

Forcing

Atmospheric constituents & solar radiation on climate?

Changes in land cover

& land use?

Motions of the

Earth & Earth’s interior?

Response

Clouds & surface hydrological processes on climate?

Ecosystems, land cover & biogeochemical cycles?

Changes in global ocean circulation?

Consequence

Weather variation related to climate variation?

Consequences of land cover

& land use change?

Coastal region impacts?

Prediction

Weather forecasting improvement?

Improve prediction of climate variability & change?

Ozone, climate & air quality impacts of atmospheric composition?

Atmospheric trace constituents responses?

Regional air quality impacts?

Carbon cycle & ecosystem change?

Ice cover mass changing?

Sea level affected by Earth system change?

Change in water cycle dynamics?

Earth surface transformation?

Climate Variability and Change Atmospheric Composition

Carbon Cycle and Ecosystems Weather

Water and Energy Cycle Earth Surface and Interior

20

Predict & mitigate natural hazards from Earth surface change?

21

Earth-Sun Systems: Earth Science FY07 Budget

FY 07 Earth Science Budget

Earth Systematic Missions

GPM

Glory

LDCM

OSTM

NPP

Corporate

Earth System Science Pathfinder (ESSP)

OCO

Aquarius

Cloudsat / CALIPSO

Future / Corp./Other (Next AO NET FY 08)

Earth-Sun System Multi-Mission Operations

Earth Research

Earth R&A, EOS Research

Operating Missions / Data

Scientific Computing / HECC

Suborbital Science

SMD Administrative *

Corporate

Applied Sciences

Education and Outreach

Earth Science Technology

FY06 FY07 FY08 FY09 FY10 FY11

1,439.9

1,530.7

1,470.7

1,464.4

1,515.8

1,537.9

163.8

301.7

289.3

270.2

220.9

206.0

23.2

24.2

25.4

117.8

121.6

140.1

52.7

27.1

19.9

31.7

9.2

52.0

34.0

12.1

98.1

109.8

103.4

40.6

70.2

16.6

30.6

72.9

16.6

14.9

6.2

15.8

7.8

61.4

11.4

6.2

12.5

7.3

14.6

26.0

6.4

11.6

141.8

161.4

111.5

40.7

51.7

68.2

65.5

34.1

55.6

29.5

19.9

10.2

17.5

6.4

15.4

97.5

12.3

26.9

58.3

172.0

6.7

5.9

159.4

207.2

4.6

202.6

267.3

264.6

287.1

303.5

309.4

294.0

686.8

672.6

657.1

667.6

681.9

696.8

223.7

220.5

240.5

251.9

262.6

267.2

262.8

246.8

236.6

236.6

241.5

239.2

69.4

43.7

49.1

49.1

47.0

47.4

34.2

47.2

49.5

35.3

78.0

48.3

35.3

46.9

48.7

32.8

47.7

49.5

32.9

48.5

49.4

32.9

60.4

49.7

94.8

22.7

62.7

51.0

23.3

56.1

50.3

23.7

51.8

48.6

25.3

51.6

48.7

27.5

55.5

48.8

27.5

57.6

* 2007 includes placeholder for NASA Institutional termination liabilities for deferred SMD Projects

22

Earth Science Mission Priorities and Rationale

Highest priority is given to missions that fulfill Legislative or Executive Branch mandates and inter-agency commitments.

Systematic mission priorities are based on the importance of the measurement to global change research and the maturity of the operational transition plan.

These are followed by missions that will make first-time global measurements: two pathfinder missions having been selected within the same competitive process have a relative priority inferred by the launch order.

The representative future measurements are not listed in priority order.

The forth-coming first NRC decadal survey for Earth science will identify science community priorities for future measurements, as well as begin to address issues arising from recent changes in the NPOESS program. Also influencing the eventual priorities is the US Integrated

Earth Observation Strategy, which plans the US contribution to the Global Earth Observation

System of Systems.

23

Table 2.2.a Earth Science Mission Priorities and Rationale

NPOESS Preparatory Project (2009)

Strategic mission - Systematic measurement

Landsat Data Continuity Mission (2010)

Strategic mission - Systematic measurement

Required for continuity of several key climate measurements between EOS and NPOESS

Required for continuity of long-term global land cover change data; plan for post-

LDCM acquisition operational agency in work

Ocean Surface Topography Mission (2008)

Strategic mission - Systematic measurement

Glory (2008)

Strategic - Initializes a systematic measurement

Orbiting Carbon Observatory (2008)

Competed mission - Earth System Science

Pathfinder

Aquarius (2009)

Competed mission - Earth System Science

Pathfinder

Global Precipitation Measurement (2012)

Initializes a systematic measurement

Earth System Science Pathfinder launch; subsequent TBD

– TBD (2014)

Competed mission - 2008 solicitation for 2014

Required for continuity ocean altimetry; planned as part of a transition to operational agencies

Addresses high priority objective of the US

Climate Change Science Program

First global measurement of CO2 from space

First global measurement of sea surface salinity from space

Extend spatial coverage to global and temporal coverage to every 3 hours with constellation

24

Could address one of the future representative mission elements below; focus and relative priority to be determined using decadal survey

Section 4.3.3 Planning for Future Missions

• Mission Profile w/ESSP every two years

– Medium Class Systematic missions every other year starting 2017 (5 missions thru

2025)

– ESSP mission every other year starting 2014 (6 thru 2025)

• Mission Profile w/ESSP every four years

– Medium Class Systematic missions start 2016 (6 thru 2025)

– ESSP missions every four years starting 2014 (3 thru 2025)

• Mission Profile w/ESSP every four years includes Large Mission

– Large mission in 2021 (1 thru 2025)

– Medium Class mission starting 2016 (4 thru 2025)

– ESSP mission starting 2014 (3 thru 2025)

ESSP

Systematic

Mission

2006

CALIPSO

CloudSat

2007 2008

OCO

2009 2010

Aquarius

2011

Glory LDCM

NPP

OSTM

2012 2013 2014 2015

GPM

ESSP

GPM

Const

2016 2017

SYSP

2018 2019 2020 2021 2022 2023 2024 2025

ESSP

SYSP SYSP

ESSP

SYSP SYSP SYSP SYSP

25

Table 4.3 Potential Mission Elements/Measurements for Each Focus Area

Focus Areas Potential Element /

Measurements

Climate

Variability and

Change

Sea surface and terrestrial water levels

ICESat Follow-on (Detailed Ice elevation, ice sheet mass)

Earth Surface and Interior

Implementation Approach radar alt/ wide swath/ delayed doppler

Next Generation Ocean Surface

Winds

Wide Swath All Weather Geodetic

Imaging

Advanced scatterometer

L-Band InSAR

Land Surface Imaging spectrometers UV/vis, near-IR, thermal IR

Advanced Gravity Measurements GRACE-like satellite pairs, gradiometer constellation

Geodetic Observing System

Ionospheric Dynamics and

Atmospheric Surface

Pressure

SLR/VLBI/GNSS ground networks

GNSS Remote

Sensing/Magnetometry

26

Table 4.3 Potential Mission Elements/Measurements for Each Focus Area

Focus Areas

Water and

Energy

Cycle

Weather

Crosscutting

Potential Element / Measurements

Global Soil Moisture

Surface Water Runoff

Measurement of Snow and its Water

Equivalent

Changes in Groundwater Storage

Global Wind Observing Sounder

Implementation Approach

Active & Passive L-band (microwave) remote sensing system dual Ka-band SARs active Ku-band SAR + passive microwave radiometer (K or Ka band)

Constellation of GRACE satellite pairs

Hybrid (coherent and direct detection)

Doppler wind lidar

Synthetic aperture microwave radiometer Geostationary Synthetic Thinned

Aperture Radiometer

Active Temperature and Humidity

Sounder

Geostationary Precipitation Radar

Advanced Remote-sensing Imaging

Emission Spectrometer

Combination active (i.e. lidar) and passive IR sounder

Precipitation radar

Hyperspectral, high horizontal resolution

IR and visible grating spectrometer imager sounder

27

Table 4.3 Potential Mission Elements/Measurements for Each Focus Area

Focus Areas Potential Element / Measurements Implementation Approach

Atmospheric

Composition

Carbon Cycle and

Ecosystems

Sentinel multispectral atmospheric composition

GEO or L1 spectrometers UV/vis, near-IR, thermal IR

Next Generation Aerosol Measurements Multi-angle multi-spectral imaging polarimeter + High sensitivity backscatter lidar

Atmospheric Composition for Climate and Transport

Systematic Upper Trop/lower

Stratospheric Composition

Vegetation 3-D Structure, Biomass &

Disturbance

Advanced microwave sounder mid-earth orbit

Micro-FTS Solar Occultation

Global Ocean Carbon, Ecosystems, and

Coastal Processes

Physiology & Functional Groups

In priority order: 1) Profiling lidar; P-band

SAR; 3) InSAR? Optimal:

Combination of 1 and 2 or 3

LEO spectrometer and aerosol instrument;

20 aggregate bands in 350-1400 nm region with 5nm resolution from UV to

800nm; 1km spatial resolution

Polar-orbiting imaging spectrometer(s)

(~340-2500 nm) -- with aerosol lidar for atmospheric correction. over ocean

28

NAC Subcommittee Plan Review

The NAC Science Committee discussed the draft Science Plan outline and approach in May and the draft (3.0) in July

– (see next slide on the NAC’s recommendation and NASA’s response)

• The Science Subcommittees reviewed the draft (3.0) in their July meeting(s) and provided comments

– These comments were incorporated in Draft 3.75

Most Science Subcommittees reviewed how we addressed their comments in their September meetings

– Findings addressed in letters to the NAC SC

• The NAC Chairman identified two issues with draft 3.0:

– In his view, the draft was not well written.

• NASA plans two rounds of professional editing before completion

– The draft did not adequately address lunar science

• Draft 4.0 articulates next steps in lunar science planning in each

Science chapter. Chapter 8 is substantially revised in this direction

29

ESS COMMENTS ON DRAFT SCIENCE PLAN

• Adopt scenario of medium mission/2yrs, ESSP/4yrs

• First “open” mission in current plan is an ESSP in 2014; examine trade-off of scheduling medium mission instead

Atmospheric composition: continuous( g air quality) global ( g climate) measurement should be top priority, implies sentinel orbit (L1 or GEO).

• Better discuss cross-cutting opportunities in instruments & platforms across focus areas, importance of complementary technology (example: InSAR)

• Flesh out Earth Science objectives beyond 2016:

–Observation/prediction of rapid environmental change

– new technologies for Earth observation (microsatellites)

– Earth system modeling

• Better articulate science purpose of suborbital program, esp. UAVs

• Legacy road maps – move to Appendix. New road maps in 2007 (after decadal survey input)

• Overall document needs executive summary

• Acronym list at beginning of each chapter

30

National Research Council: Overview

• Supportive of NASA’s approach to mission prioritization

– “… the committee does not believe that NASA should or could produce a prioritized list across disciplines at this time .”

• Concerned with NASA’s ability to carry out the plan given the budget

– Extensive reference to the NRC report “An Assessment of Balance in NASA’s Science Program” [SSB view of FY07 budget request]

– Recommendations are cast in terms of “ recommendations on the implementation and viability of the draft Science Plan ”

• Several are not comments on the Plan per se , but on actions

SMD should take e.g., on R&A and controlling mission cost growth

• Several good comments that will improve the document. These are now in work by the Science Plan team for incorporation in draft 4.0

31

NRC: Findings

1.

“The draft NASA Science Plan successfully demonstrates that a major NASA objective is conducting scientific research…Portions of the plan do an excellent job of outlining the reasons that NASA carries out science missions”

2.

“The committee supports the plan’s treatment of priorities on a discipline-by-discipline basis and concludes that NASA should not or could not produce a prioritized list across disciplines”

3.

“…the current draft overemphasizes mission-specific work at the expense of strategies and steps for achieving goals in missionenabling areas…”

4.

“The draft Science Plan often declares an intention to implement a program or identifies a goal or mission as a top priority, but it does not indicate what steps it would take to achieve the goals…” (issue of mission cost growth, risk, schedule)

5.

“…lacks a strategy for an integrated synthesis of the variety and volume of Earth observations generated by NASA…Earth system models…linking and cross-cutting the six [ES] interdisciplinary science focus areas…”

32

NRC: Recommendations

1.

“…compare the key aspects of its 2003 Earth and space science plans with the 2006 plan in a list or table…”

2.

“…provide some indication of the strategy it will use to determine how critically needed technologies will be developed for future missions…”

3.

“…explicitly address realistic strategies for achieving the objectives of the missionenabling elements…” a.

“Undertake appropriate studies through its advisory structure in order to develop a strategic approach to all of its R&A programs… b.

“Develop a strategic plan to address computing and modeling needs, including data and information stewardship…”

4.

“NASA should improve mechanisms for managing and controlling cost growth…undertake independent, systematic, and comprehensive evaluations of the cost-to-complete of each of its space and Earth science missions…”

5.

“NASA/SMD should move immediately to correct the problems caused by reductions in the base of R&A programs, small missions, and initial technology…”

33

NRC Recommendations for Earth Science Plan

• NASA/SMD should incorporate into its Science Plan the recommendations of the NRC Earth science decadal survey interim report, and should incorporate the recommendations of the

Earth science decadal survey final report when it is completed.

• NASA/SMD should develop a science strategy for obtaining longterm, continuous, stable observations of the Earth system that are distinct from observations to meet requirements by NOAA in support of numerical weather prediction.

• NASA/SMD should present an explicit strategy, based on objective science criteria for Earth science observations, for balancing the complementary objectives of (i) new sensors for technological innovation, (ii) new observations for emerging science needs, and

(iii) long-term sustainable science-grade environmental observations.

34

Impacts of the NPOESS Nunn-McCurdy Certification

• Presidential Decision Directive/NSTC-2 of May 5, 1994 created the National Polar-orbiting Operational

Environmental Satellite System (NPOESS)

• In 1999 NASA and the NPOESS Integrated Program Office

(IPO) agreed on the NPOESS Preparatory Project (NPP) as an alternative to the second round of Earth Observing System

(EOS) mission

• Due to a variety of technical problems, the completion cost for NPOESS grew by more then 25% initiating the Nunn-

McCurdy process in December 2005

• The restructured program was certified on June 5, 2006

• Restructured NPOESS deletes much of the climate research observing capability

• Office of Science and Technology Policy (OSTP) asked for a white paper on the subject on June 25, 2006

35

NPOESS Nunn-McCurdy Certification

Content Reductions

36

Summary of N-M Reductions and Actions

• De-manifested Sensors: OMPS Limb Subsystem, TSIS,

ERBS,

Ocean Altimeter (ALT)

and APS .

• Reduced Coverage Sensors: VIIRS and CrIS

• Reduced Capability Sensor: Conical Scanning

Microwave Imager (CMIS)

• Navy tasked with providing mitigation plan for ALT

• NASA developed white paper now in review with NOAA for joint paper submission

• OSTP request for costs and schedules to restore the original capabilities – preliminary costing completed

• NASA/Navy/NOAA continuing discussions for joint future altimetry mission

37

Next Steps

• Accommodate Science Plan reviews (including other agencies and White House Offices) to generate Version for

NASA final approval and submit to Congress Dec. 2006

• Release of the Decadal Survey (DS) by the NRC to NASA

(and other sponsoring agencies) late 2006

• Assessment & evaluation of NPOESS N-M impact by WH and NRC panel report

• Develop Earth Science roadmap following DS priorities and mission studies results

• Develop amendment for the Earth Science plan and submit to Congress mid-2007

38

Back up

39

Certified NPOESS Program Schedule

40

Science Mission Directorate Organization

Associate Administrator (AA) (M. Cleave)

Deputy AA (C. Hartman)

Deputy AA for Programs

(M. Luther)

Chief Scientist

(P. Hertz)

Deputy AA for Technology

(G. Komar-Act)

Chief Engineer

(K. Ledbetter)

Management &

Policy Division

Dir. (R. Maizel)

Deputy (Vacant)

Budget (C. Tupper)

Policy (Vacant)

Administration (Vacant)

Heliophysics

Division

Dir. (R. Fisher)

Deputy (C. Gay)

Earth Science

Division

Dir. (B. Cramer-Act)

Deputy (J. Kaye-Act)

Planetary Science

Division

Dir. (J. Green-Act)

Dep. (S. Wojnar-Act)

(D. McCuistion)

Applied Science

(M. Frederick- Act)

Research (J. Kaye)

Astrophysics

Division

Dir. (R. Howard-Act)

Deputy (Vacant)

As of: October 1, 2006

41

Coordinating External Advice

• The standing advisory committees chartered to give advice to the Agency are:

– NASA Advisory Council (NAC)

– Aerospace Safety Advisory Panel (ASAP)

– ISS Independent Safety Task Force

• The NAC is the primary external group advising NASA on its implementation of national space policy

– All other (formerly) independent groups and committees have been brought under the purview of the NAC

– In this way, advice to NASA is coordinated and provided to the Administrator

– The NRC performs studies at the request of the Congress or NASA, but is not part of the standing advisory process

• Responsibility and accountability for planning and executing NASA’s programs resides with NASA managers

42

NAC Science Committee Members

• Dr. Edward David [Chair] - NAS/NAE, EDD Inc.

• Dr. Owen Garriott - Skylab & Spacelab astronaut

• Dr. Alan Stern - SWRI; NH-Pluto PI

• Dr. Neil DeGrasse Tyson - AMNH- NY

• Dr. Bradley Jolliff - Washington U/St. Louis

• Dr. Mark Robinson - Arizona St. Univ.

• Dr. Lennard Fisk - NRC Space Studies Board chair (ex officio)

43

NAC Science Committee & Subcommittees

S-06-5

Develop the Science Plan draft using the following guidelines:

* Define key scientific questions for each area

* Define reasonable progress in each area by

2016

* Describe the roles of major project elements (R&A, technology, large and small missions, etc) in each area. It is understood that the means will differ from question to question

SMD agrees and has prepared a first external review draft of the

Science Plan based on the

President's FY 2007 budget for

NASA. Initial review of the NAC

Science Subcommittees was generally positive. The entire NAC will receive a revised draft for review at its October meeting.

* Use OMB budget guidelines as the financial envelop to:

- Define missions and specific programs

- Define S&T investments that need to be made now to enable a robust set of program/mission options in 2011

- Use this planning exercise to inform

FY08 budget formulation

44

Note: NASA cannot use OMB budget guidelines in a document to be publicly released before the budget is approved. The FY 2008 budget will be presented in February

2007.

SMD Participation in the Vision for Space

Exploration

• SMD has the lead for the robotic Mars, solar system, and planet finding components of the

Vision

• SMD is working with ESMD on planning for science that enables and is enabled by the human exploration portion Vision

– SMD is sponsoring an NRC study of Lunar science priorities; interim report delivered, final to be delivered in May 2007

– SMD and ESMD are jointly supporting the NASA Advisory Council’s Lunar Science

Workshop planned for Feb 26-March 2, 2007

– SMD is funding the Moon Mineralogy Mapper mission on India’s Chandrayaan-1 mission

– EMSD is funding a radiation environment instrument on SMD’s Mars Science

Laboratory

– SMD is funding an open solicitation for Lunar sortie science concepts for the early human lunar missions; proposals due Oct. 27

– The Discovery and New Frontiers Programs both currently provide opportunities for the science community to propose missions to accomplish lunar science investigations

– SMD plays a program scientist role in LPRP

• Lunar Reconnaissance Orbiter (LRO) data sets will be archived in the PDS and available to the community starting 6 months after the end of prime mission.

• As funds can be identified, SMD plans to initiate a Lunar Data Analysis

Program

45

NSAG Consensus Views

General Reactions:

– “…a very good document…”

– “…’answers the mail’ in responding to Congress with considerable justification for the approach the Agency is taking”

– “…can be improved…increasing use of graphics, adding greater description of societal benefits, and a more comprehensive discussions of the interactions [between SMD and ESMD plans, esp. lunar science]”

– Clearly a difficult task to develop an Earth science plan absent an NRC decadal survey; some detailed comments in Consolidated Comments

• Responsiveness to Congressional Direction

– “…addresses the Congressional direction in spirit while not necessarily to the letter”

– “…the NSAG supports SMD’s approach of presenting its prioritization by disciplines”

– “…creation of a single chart, showing all divisions’ missions together…through 2016”

• NASA’s Prioritization Rationale

– “…generally appear to be internally self-consistent and consonant with

Congressional direction”

46

NSAG Consensus Views (cont’d)

• Technology Development and Insertion

– “…does not focus much attention on the technology development needed…”

– “The Earth Science Technology Office (ESTO) and the New Millennium

Program could be described in greater detail…”

– “Industry possesses a wealth of applicable technology, and NASA should address this resource and how it can be tapped in this plan”

Mission Size Mix

– “…better define what is meant by ‘large’ or ‘small’ missions…”

– “The plan shows a decrease in launch rate of AO missions…there is a consensus that this class of mission is very valuable…it is not our intent to make a specific recommendation in this regard”

• Industry-NASA Relations

– “…provide a clear statement of the value of the industry-government partnership”

– “Greater collaboration with industry is recommended in order to get industry inputs and analyses early on in the process of conceptualizing architectures, missions, and relevant technologies”

47

Ocean Altimeter (ALT)

• Oceans exert great influence on climate – huge sink for solar energy

• Transport heat in ocean currents, release it back into the atmosphere as water vapor, transport it in the atmosphere, condenses, and returns as rain or snow – the hydrologic cycle

• Satellites offer a synoptic view of oceans starting with Seasat

(1978), Geosat (1985), TOPEX/Poseidon (1992), JASON-1 (2001), and OSTM (2008)

• NOAA and Navy are planning future operational missions

• NASA is working with the Navy and NOAA on an advanced altimetry mission that is backward compatible with OSTM and includes a Ka-Band interferometer ocean altimeter to provide wide swath coverage and greater spatial resolution

• This approach enables the examination of land surface water

(rivers and lakes) as well as costal waters that are not presently available with OSTM

48

Interim Report Recommendations

1.

Proceed with the GPM and the Atmospheric Soundings from

Geostationary Orbit (GIFTS) missions;

2.

Evaluate plans for transferring needed capabilities to

NPOESS (Ocean Vector Winds, LDCM, GLORY);

3.

Develop a technology base for future Earth observation;

4.

Reinvigorate the NASA Earth Explorer Missions Program;

5.

Strengthen research and analysis programs; and

6.

Strengthen baseline climate observations and climate data records.

49

Assessment

• Recommendation 2 addressed

• Recommendation 1 has not been addressed

• Recommendations 3,4, and 6 are mentioned but without providing objective, as well as strategic and tactical vision

• Recommendation 5 is not addressed at all.

50

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