Opportuni)es for Small Satellites in NASA s Earth System Science Pathfinder (ESSP) Program

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Opportuni)es for Small Satellites in NASA s Earth System Science Pathfinder (ESSP) Program Frank Peri Richard C. Law James E. Wells NASA Langley Research Center Hampton, VA Presented at AIAA/USU Conference on Small Satellites North Logan, UT 5 August 2014

ESSP Por?olio GEDI & ECOSTRESS (On ISS) CYGNSS TEMPO Aquarius/SAC- D GRACE Earth Venture Sub- Orbital CALIPSO OCO- 2 CloudSat

Origin of Earth Venture Program Na#onal Research Council Earth Science and Applica0ons from Space: Na0onal Impera0ves for the Next Decade and Beyond, 2007 Restore more frequent launch opportuni)es Facilitate the demonstra)on of innova)ve ideas and higher risk technologies NASA should create a new Venture class of low- cost research and applica)on missions (~$100 to $200 million) Focus on training future leaders

ESSP Venture Class Venture Class: a Tier- 1 Decadal Survey Recommenda#on Science- driven, PI- led, compe))vely selected, cost- and schedule- constrained, regularly solicited, orbital and suborbital Venture- class inves)ga)ons complement the systema)c missions iden)fied in the Decadal Survey and provide flexibility to accommodate scien)fic advances and new implementa)on approaches Venture- class is complementary to systema)c missions; no single Venture mission is essen)al for overall program success

ESSP Venture Class Defined Venture Class is fully funded, with 3 elements EV Suborbital (EVS)- x: suborbital/airborne inves)ga)ons (5 years dura)on); mul)ple selec)ons per solicita)on; cost capped at $150M total per solicita)on; solicited in 2009 and every 4 years EV Mission (EVM)- x: small complete missions (5 years to launch); Class D allowable; small- sat or stand- alone payload; cost capped at $150M; solicited in FY11 and every 4 years EV Instrument (EVI)- x: spaceborne instruments for flight on Missions of Opportunity ( 5 years for development); Class C or Class D allowable; cost capped at $94M/$30M for development and opera)ons; solicited in FY12 and every 15-18 months Diverse Program Elements require diverse approaches to program management

Solicita)on Schedule EVS Sustained sub- orbital/airborne inves)ga)ons EVM Complete, self- contained, small missions EVI Full func)on instruments for Missions of Opportunity (MoO) Mission Mission Type Release Date Selec#on Date Major Milestone EVS- 1 Suborbital 2009 2010 Complete 2015 CYGNSS (EVM- 1) Full Orbital 2011 2012 Launch ~2017 TEMPO (EVI- 1) Instrument Only 2011 2012 Delivery in 2017 GEDI & ECOSTRESS (EVI- 2) Instrument Only 2013 2014 Delivery NLT 2019 EVS- 2 Suborbital 2013 2014 Complete 2019 EVI- 3 Instrument Only 2015 2016 Delivery NLT 2021 EVI- 4 Instrument Only 2016 2017 Delivery NLT 2022 EVM- 2 Full Orbital 2015 2016 Launch ~2021 EVI- 5 Instrument Only 2017 2019 Delivery NLT 2024 Dates subject to change

EV Suborbital PI wholly responsible to accomplish inves)ga)on objec)ves using his/her own management processes, procedures, and methods Risk Management PI specifies risk mi)ga)on plan, including descopes Allow an aggressive risk posture compared to spaceflight missions (consistent with Research & Analysis (R&A) inves)ga)ons) NASA Oversight Consistent with NPR 7120.8 aka non- spaceflight inves)ga)ons Track highest risk elements of inves)ga)on Inves)ga)ons have minimal, streamlined reviews: ICR, FRR/ ORR, PSR, Annual Science Review Expecta)ons: EVS is R&A with more programma)c rigor balanced by higher science return

EV Mission PI defines technical implementa)on and project management approach. Trade space includes performance margins, quality assurance, and reliability Risk Management PI designated risk process consistent with NPR 8705.4 Class D guidelines Poten)al higher risk acceptance by NASA based on detailed informa)on, careful evalua)on, and a conscious decision NASA Oversight PI has a large degree of freedom and responsibility to accomplish proposed science objec)ves and implement mission PI may propose to tailor NASA processes or use their ins)tu)on s processes Only essen)al oversight to ensure implementa)on is responsive NPR 7120.5 for Class D implementa)ons Reviews conducted by Independent Review Teams Tailoring permihed

EV Mission Expecta)ons Stakeholders Ensure the Class D characteris)cs are applied to all reviews and evalua)ons Ensure cost cap criteria is maintained NASA Maintain Class D risk posture through launch Encourage innova)ve implementa)ons Maintain vigilance against requirements creep and risk suppression Principal Inves)gator Keep open communica)ons on mission implementa)on Risk tolerant/risk informed Not risk ignorant Recognize that possibility of termina)on is real Maintain cost cap, schedule and value of science content

EV Instrument PI manages all work necessary to deliver a spaceflight qualified instrument within cost cap and <5 years Risk Management TEMPO is Class C (med priority, med risk) Future selec)ons will be Class C or Class D and can include cubesats PI iden)fies risks and mi)ga)ons while NASA examines consistency with NPR 8705.4 Class D guidelines NASA Oversight Only essen)al oversight to ensure project implementa)on responsive to NPR 7120.5 Access to space provided on NASA determined flight of opportunity Reviews conducted by Independent Review Teams Expecta)ons: mi)gate cri)cal instrument development risks prior to making external commitment with stakeholders on life- cycle cost and launch date

EV Instrument is Unique PI managed mission cost for instrument inves)ga)on excludes the integra)on of the instrument to the selected pla?orm CubeSat inves)ga)on excludes the integra)on of the CubeSat to the selected launch vehicle and launch services Scope of effort includes science team, instrument personnel, and key management and engineering staff ac)vity in Phase D Assume two years for Phase D

Summary Decadal Survey recommended more frequent, diverse, exploratory science missions NASA responded with three new program elements established: EVS, EVI, EVM Program management approaches tailored to the specific risk posture, implementa)on approach and science objec)ves will enable cost effec)veness and science performance to drive NASA s decisions With diverse mission approaches, acute risk awareness and a steady tempo of new mission selec)ons, NASA s Earth Venture missions are posi)oned to con)nue NASA s world- class earth system science

Backup Material

Airborne Inves)ga)ons AirMOSS (Airborne Microwave Observatory of Subcanopy and Subsurface): Measuring soil moisture in the root zone of North American ecosystems ATTREX (Airborne Tropical Tropopause Experiment): Processes that control the flow of atmospheric gases into stratosphere CARVE (Carbon in Arc)c Reservoirs Vulnerability Experiment): Experimental insights into Arc0c carbon cycling DISCOVER- AQ (Deriving Informa)on on Surface Condi)ons from COlumn and VER)cally Resolved Observa)ons Relevant to Air Quality): Improve the interpreta0on of satellite observa0ons to diagnose near- surface air quality HS3 (Hurricane and Severe Storm Sen)nel): Inves0gate intensity change of hurricanes in the Atlan0c

Missions in Opera)ons GRACE (Gravity Recovery and Climate Experiment): measure Earth s gravity field and its varia0ons with 0me CloudSat: measure clouds to analyze their role in Earth s radia0on budget CALIPSO (Cloud- Aerosol Lidar and Infrared Pathfinder Satellite Observa)ons): measure the ver0cal distribu0on of clouds and aerosols Aquarius: observe and model seasonal as well as year- to- year varia0ons of Sea Salt Salinity and how these relate to changes in the water cycle and ocean circula0on OCO- 2 (Orbi)ng Carbon Observatory 2): global measurements of atmospheric CO 2 with precision, resolu0on, and coverage needed to characterize its sources and sinks on regional scales and quan0fy their variability over the seasonal cycle

Missions in Development TEMPO (Tropospheric Emissions: Monitoring of Pollu)on): concurrent high temporal and spa0al resolu0on measurements from GEO of tropospheric ozone, aerosols, their precursors, and clouds CYGNSS (Cyclone Global Naviga)on Satellite System): understand the coupling between ocean surface proper0es, moist atmospheric thermodynamics, radia0on and convec0ve dynamics in the inner core of a Tropical Cyclone (TC)

Program Structure HQ Funding Level 1 Requirements Interagency & Interna)onal Agreements ESSP Program Execu)ves SMD, AA ESD, Associate Director for Flight Programs ESSP Program Scien)sts LaRC, Director NASA HQ Legend JPL ESSP PO Day to Day Insight/Oversight Performance Tracking Risk Assessment Repor)ng ESSP Program Office Program Manager Deputy Program Manager Program Planning & Control Manager Chief Engineer/Safety & Mission Assurance Mission Managers Schedule and Risk Analyst LaRC ESSPPO Programma)c Authority GSFC Foreign GRACE CALIPSO CloudSat Aquarius OCO- 2 CYGNSS TEMPO EVS 7120.5 7120.8