NASA Battaglia Hawaii 071107

Slide1 : Mike Battaglia NASA Headquarters 202-358-4658


SBIR/STTR: 3-Phase Program : SBIR/STTR: 3-Phase Program Phase 1 Feasibility study $100K award 6 months duration (SBIR) 12 months duration (STTR) Phase 2 Technology Development 2-Year Award $600K (SBIR/STTR) Phase 3 Technology Infusion/Commercialization Stage Use of non-SBIR Funds Ability to award sole-source contracts without Justification for Full and Open Competition (JOFOC) based on specific SBIR authority – NASA and NASA primes. SBIR is 2.5% of extramural R&D, STTR is 0.3% of extramural R&D.


Program Changes in 2007 : Program Changes in 2007 Initiated option for NASA "Phase II Enhancement" (Phase II-E) funding - Objective of the Phase II-E option is to provide incentive for Phase 3 awards by providing a cost share extension of the Phase II contract. Under this option, NASA will match with SBIR/STTR funds up to $150,000 of non-SBIR/non-STTR investment (Phase III contract) from a NASA project, NASA contractor, or third party commercial investor. The Program is now tracking the maturity of technologies funded by SBIR/STTR through use of Technology Readiness Levels (TRLs). TRLs range from one (1) to nine (9), with one (1) being a conceptual idea, six (6) being a prototype demonstrated in the relevant environment, and nine (9) being a fully operational mature technology. Tracking TRLs will also provide insight into the progress that technologies are making, and over time, the performance of different firms for successful maturing technologies.


Slide4 : NASA Strategic Approach Ultimate objective is to achieve infusion of critical technologies into NASA’s Mission Directorates - flight programs/projects - ground or test systems - or other uses to advance NASA’s mission Therefore, every technology development investment dollar is critical to the ultimate success of NASA’s mission. Therefore SBIR strategy is to: - Ensure alignment and integration with Mission Directorate priorities - Ensure investments are complementary with technologies being pursued by Accordingly, Mission Directorates establish high priority needs which are developed into topics and sub-topics for the annual solicitation


Dynamic Innovation Process : Dynamic Innovation Process


Slide6 : Dryden Ames Jet Propulsion Laboratory Johnson Stennis Kennedy Marshall Goddard Headquarters Langley Glenn NASA Installations


Slide7 : Solicitations Support the Technology Needs of NASA Mission Directorates Exploration Systems Aeronautics Research Space Operations Science


Mission Directorate Reference Websites : Mission Directorate Reference Websites Aeronautics Research Mission Directorate www.aeronautics.nasa.gov Exploration Systems Mission Directorate www.exploration.nasa.gov Science Mission Directorate www.science.hq.nasa.gov Space Operations Mission Directorate www.hq.nasa.gov/osf


SBIR/STTR Program Focus on Infusion : SBIR/STTR Program Focus on Infusion 10 Infusion-focused offices 4 Primary Admin Offices Alignment with MD objectives Decision Support for MDs on technology gaps & priorities Cross cutting areas that involve multiple MDs assigned to single office Technology Infusion Managers at all Centers Technology Readiness Level (TRL) now being tracked as part of SBIR/STTR


SBIR/STTR Administrative Points of Contact(By Mission Directorate) : SBIR/STTR Administrative Points of Contact (By Mission Directorate) Aeronautics Research Mission Directorate Glenn Research Center - Aeropropulsion and communications technologies Gynelle Steele, 216-433-8258, Gynelle.C.Steele@nasa.gov Exploration Systems Mission Directorate Langley Research Center - Aviation and space research Bob Yang, 757-864-8020, Robert.L.Yang@nasa.gov Science Mission Directorate Jet Propulsion Laboratory - Robotic exploration of the solar system Andrew Gray, 818-354-4906, Andrew.A.Gray@jpl.nasa.gov Space Operations Mission Directorate Ames Research Center - Research of new technologies Dr. Rich Pisarski, 650-604-0149, Ryszard.L.Pisarski@nasa.gov


SBIR/STTR Technical Information Points of Contact(SBIR Technology Integration/Infusion Managers) : SBIR/STTR Technical Information Points of Contact (SBIR Technology Integration/Infusion Managers) Ames Research Center - Research of new technologies Kim Hines, 650-604-5582, kimberly.k.hines@nasa.gov Dryden Flight Research Center - Flight research Laguduva Kubendran, 661-276-2989, Laguduva.R.Kubendran@nasa.gov Glenn Research Center - Aeropropulsion and communications technologies Marla Perez-Davis, 216-433-6755, Marla.E.Perez-Davis@nasa.gov James Stegeman, 216-433-3389, James.D.Stegeman@nasa.gov Goddard Space Flight Center - Earth, the solar system, and Universe observations Dr. Jim Chern, 301-286-5836, Jim.Chern@nasa.gov Jet Propulsion Laboratory - Robotic exploration of the solar system Andrew Gray, 818-354-4906, Andrew.A.Gray@jpl.nasa.gov Johnson Space Center - Human space exploration Kevin Lee, 281-483-5013, Kevin.W.Lee@nasa.gov Kennedy Space Flight Center - Prepare and launch missions around the Earth and beyond Joni Richards, 321-867-2225, Joni.M.Richards@nasa.gov Langley Research Center - Aviation and space research Kimberly Graupner, 757-864- 8618, Kimberly Graupner@nasa.gov Marshall Space Flight Center - Space transportation and propulsion technologies Lynn Garrison, 256-544-6719, Virginia.B.Garrison@nasa.gov Stennis Space Center - Rocket propulsion testing and remote sensing technology Ray Bryant, 228-688-3964, James.R.Bryant@nasa.gov Visit http://sbir.nasa.gov/SBIR/pgminfo.htm#office for the latest program contact information


Slide12 : NASA Mission Directorate Interests Aeronautics Research (www.aerospace.nasa.gov) Aviation Safety and Security Vehicle Systems Airspace Systems Aeronautics Test Technology Exploration Systems (www.exploration.nasa.gov) Moon Initiative Technology Support Power Propulsion Biological Sciences


Slide13 : NASA Mission Directorate Interests Science (www.science.hq.nasa.gov) Earth Science Solar System Exploration Telescopes Sensors and Detectors Helioscience Spacecraft Technologies Space Operations (www.hq.nasa.gov/osf) Communications Operations


Slide14 : NASA FY07 Solicitation Aeronautics Mission Directorate TOPIC A1 Aviation Safety A1.01 Mitigation of Aircraft Aging and Durability-related Hazards A1.02 Crew Systems Technologies for Improved Aviation Safety A1.03 Aviation External Hazard Sensor Technologies A1.04 Adaptive Flight Control A1.05 Data Mining for Integrated Vehicle Health Management A1.06 Sensing and Diagnostic Capability A1.07 Advanced Health Management for Aircraft Subsystems A1.08 Prediction of Aging Effects A1.09 Integrated Avionics Systems for Small Scale Remotely Operated Vehicles A1.10 Adaptive Structural Mode Suppression A1.11 Universal Enabling IVHM Technologies in Architecture, System Integration, Databases, and Verification and Validation A1.12 Technologies for Improvement Design and Analysis of Flight Deck Automation A1.13 On-Board Flight Envelope Estimation for Unimpaired and Impaired Aircraft


Slide15 : NASA FY07 Solicitation Aeronautics Mission Directorate TOPIC A2 Fundamental Aeronautics A2.01 Materials and Structures for Future Aircraft A2.02 Combustion for Aerospace Vehicles A2.03 Aero-Acoustics A2.04 Aeroelasticity A2.05 Aerodynamics A2.06 Aerothermodynamics A2.07 Flight and Propulsion Control and Dynamics A2.08 Experimental Capabilities and Flight Research A2.09 Aircraft Systems Analysis, Design and Optimization A2.10 Rotorcraft TOPIC A3 Airspace Systems A3.01 Next Generation Air Transportation System - Airspace A3.02 Next Generation Air Transportation - Airportal TOPIC A4 Aeronautics Test Technologies A4.01 Test Measurement Technology A4.02 Test Techniques and Facility Development


Aeronautics Research Mission Directorate : Aeronautics Research Mission Directorate Fundamental Aeronautics Subsonic: Fixed Wing – Research emphasis is on developing technologies for improving performance (reduced fuel burn), reducing noise, and reducing emissions for subsonic aircraft. A major product will be fast and effective physics based multi-disciplinary analysis and design tools with quantified levels of uncertainty that enable virtual expeditions through the design space for conventional and unconventional vehicles. Subsonic: Rotary Wing - Physics-based multi-disciplinary analysis and design tools and technologies that enable increased civil competitiveness of rotorcraft, including improved efficiency, productivity, and environmental acceptance. Supersonics – Tools and technology for the supersonic flight regime including: highly efficient airframes and engines, light weight and durable material and structures for high temperature, sonic boom modeling, airport noise, high altitude emissions, aeroservoelasticity, entry/descent/landing in planetary atmospheres, and integrated systems for multidisciplinary design and analysis. Hypersonics – Development of physics-based multi-disciplinary analysis and design optimization predictive capabilities, incorporating uncertainties. Highly Reliable Reusable Launch Systems (HRRLS) and High Mass Mars Entry Systems (HMMES) have been chosen to focus technology and methods development efforts. Aviation Safety Program Integrated Vehicle Health Management – Airframe health management; propulsion health management; environmental health management; system architectural framework; validation and predictive capability assessment Integrated Intelligent Flight Deck – Tailored flexible operator-automation management; adaptive displays and interaction; decision associate technology; intelligent information management Integrated Resilient Aircraft Control – Resilient flight control; resilient propulsion control; resilient airframe control; resilient vehicle mission management; safety-critical systems V&V Aircraft Aging & Durability – Detection and characterization of aging related hazards; prediction of life, strength and durability of systems with degradation; Mitigation of aging related hazards Airspace Systems Next Generation Air Transportation System (NGATS): Airspace – Adaptive air/ground automation concepts & technologies; airspace modeling and simulation; systems analysis and integration; experimental and validation NGATS: Airportal – Adaptive air/ground automation concepts & technologies; airportal modeling and simulation; system analysis and integration; experimentation and validation Aeronautics Test Program Test Technology Development – Aeronautics test technology for wind tunnels and aeropropulsion test facilities that improves data quality, facility productivity, facility cost, test capability, and integration with computational. University Research - Provide experience to graduate students in the use of large aeronautics test facilities while carrying out valuable aeronautics research.


Slide17 : TOPIC X1 Avionics and Software X1.01 Automation for Vehicle and Habitat Operations X1.02 Reliable Software for Exploration Systems X1.03 Radiation Hardened/Tolerant and Low Temperature Electronics and Processors X1.04 Integrated System Health Management TOPIC X2 Sensors for Autonomous Systems X2.01 Autonomous Rendezvous and Docking Sensors X2.02 Autonomous Precision Landing and Hazard Detection and Avoidance TOPIC X3 Environmental Control and Life Support (ECLS) X3.01 Spacecraft Cabin Atmospheric Resource Management and Particulate Matter Removal X3.02 Water Processing and Waste Management Systems X3.03 Spacecraft Cabin Environmental Monitoring and Control X3.04 Spacecraft Fire Protection TOPIC X4 Extra Vehicular Activity (EVA) X4.01 Space Suit Pressure Garment and Airlock Technologies X4.02 Space Suit Life Support Systems X4.03 Space Suit Displays, Cameras, Controls, and Integrated Systems NASA FY07 Solicitation Exploration Mission Directorate


Slide18 : NASA FY07 Solicitation Exploration Mission Directorate TOPIC X5 Lunar In Situ Resource Utilization (ISRU) X5.01 Oxygen Production from Lunar Regolith X5.02 Lunar Regolith Excavation and Material Handling X5.03 Lunar Volatile Resource Prospecting and Collection TOPIC X6 Structures, Materials and Mechanisms X6.01 Lightweight Structures X6.02 Low Temperature Mechanisms X6.03 Advanced Radiation Shielding Materials X6.04 Advanced Composite Materials TOPIC X7 Lunar Operations X7.01 Supportability X7.02 Human Systems Interaction X7.03 Surface Mobility and Transportation X7.04 Surface System Dust Mitigation TOPIC X8 Energy Generation and Storage X8.01 Fuel Cells for Surface Systems X8.02 Advanced Space Rated Batteries X8.03 Nuclear Surface Power X8.01 Fuel Cells for Surface Systems X8.02 Advanced Space Rated Batteries X8.03 Nuclear Surface Power


NASA FY07 Solicitation Exploration Systems : NASA FY07 Solicitation Exploration Systems TOPIC X9 Propulsion and Cryogenic Systems X9.01 Cryogenic Propellant Storage and Distribution for Space Exploration Applications X9.02 Cryogenic Propellant Mass Gauging and Liquid Acquisition for Low Gravity Applications X9.03 Cryogenic and Non-Toxic Storable Propellant Space Engines X9.04 Launch Vehicle Propulsion and Pyrotechnic Technologies TOPIC X10 Protection Systems X10.01 Detachable, Human-rated, Ablative Environmentally Compliant TPS TOPIC X10 Protection Systems X10.01 Detachable, Human-rated, Ablative Environmentally Compliant TPS TOPIC X11 Thermal Management X11.01 Thermal Control for Surface Systems and Spacecraft TOPIC X12 Exploration Crew Health Capabilities X12.01 Health Preservation in the Space Environment X12.02 Crew Exercise Systems X12.03 Exploration Medical Capability


NASA FY07 Solicitation Exploration Systems : NASA FY07 Solicitation Exploration Systems TOPIC X13 Space Human Factors and Food Systems X13.01 Space Human Factors Assessment Tools X13.02 Advanced Food Technologies TOPIC X14 Space Radiation X14.01 Small Personal Dosimetry X14.02 Charged Particle Spectroscopy X14.03 Neutron Spectroscopy


Exploration Systems Mission Directorate : Exploration Systems Mission Directorate Structures, Materials, and Mechanisms – Lightweight composite structures for vehicles and habitats, lightweight tanks for cryogenic propellants, inflatable structures for the lunar surface, multifunctional materials, and low-temperature mechanisms. Protection – Ablative, human-rated thermal protection system materials, lightweight radiation shielding, dust and contaminant mitigation. Propulsion and Cryogenics – Main engines and reaction control system thrusters for the Lunar Lander, and cryogenic propellant storage systems. Thermal Control – Advanced radiators, heat pumps, sublimators, and evaporators for thermal control of vehicles, habitats, and EVA suits. Power – Lithium-ion and lithium-sulfur batteries, regenerative fuel cells, and technologies for solar and nuclear surface power systems. Avionics & Software - Radiation hardened and low-temperature electronics, low-power high performance processors, integrated systems health management, automated rendezvous and docking sensors, autonomous precision landing, catastrophic event flight data recorders, reliable software development tools. Communications – Smart telemetry systems, adaptive S-Band transponders and antennas. Environmental Control & Life Support – Atmospheric management, environmental monitoring and control, advanced air and water recovery systems, fire detection and suppression. Crew Support & Accommodations – Technologies for advanced EVA surface suits, including life support, power, thermal control, flexible displays, and materials; crew health care systems; habitability systems. In-Situ Resource Utilization – Regolith excavation and material handling, oxygen production from regolith, polar volatile collection and separation. Robotics and Operations – Advanced robotic systems for lunar outpost assembly and maintenance, surface mobility systems, human-system interaction, and supportability technologies such as electronics/wiring inspection and repair. ** It is recommended that the Technology Projects should focus on the delivery of products that can be incorporated into ground-based demonstrations of systems and operational scenarios in analog environments.


Slide22 : NASA FY07 Solicitation Science Mission Directorate TOPIC S1 Sensors, Detectors, and Instruments S1.01 Lidar System Components S1.02 Active Microwave Technologies S1.03 Passive Microwave Technologies S1.04 Sensor and Detector Technology for Visible, IR, Far IR and Submillimeter S1.05 Detector Technologies for UV, X-Ray, Gamma-Ray and Cosmic-Ray Instruments S1.06 Particles and Field Sensors and Instrument Enabling Technologies S1.07 Cryogenic Systems for Sensors and Detectors S1.08 In Situ Airborne, Surface, and Submersible Instruments for Earth Science S1.09 In Situ Sensors and Sensor Systems for Planetary Science TOPIC S2 Advanced Telescope Systems S2.01 Precision Spacecraft Formations for Telescope Systems S2.02 Proximity Glare Suppression for Astronomical Coronagraphy S2.03 Precision Deployable Optical Structures and Metrology S2.04 Optical Devices for Starlight Detection and Wavefront Analysis S2.05 Optics Manufacturing and Metrology for Telescope Optical Surfaces


NASA FY07 Solicitation Science Mission Directorate : NASA FY07 Solicitation Science Mission Directorate TOPIC S3 Spacecraft and Platform Subsystems S3.01 Avionics and Electronics S3.02 Thermal Control Systems S3.03 Power Generation and Storage S3.04 Propulsion Systems S3.05 Terrestrial Balloon Technology TOPIC S4 Low-Cost Small Spacecraft and Technologies S4.01 NanoSat Launch Vehicle Technologies S4.02 Secondary and Tertiary Launch Technologies S4.03 Low-Cost, Rapid Spacecraft Design and Multi-Subsystem Functionality S4.04 Project Management, Systems Engineering and Mission Assurance Tools S4.05 Smart, Autonomous Command and Data Handling System, Algorithms and Data Management S4.06 Advanced Avionics S4.07 Mini-Micro Thrusters, LOX / Hydrocarbon Propulsion, and Attitude Control Systems S4.08 Low-cost Assembly, Integration, and Testing S4.09 Autonomous Multi-Mission Virtual Ground and Spacecraft Operations


NASA FY07 Solicitation Science Mission Directorate : NASA FY07 Solicitation Science Mission Directorate TOPIC S5 Robotic Exploration Technologies S5.01 Extreme Environments Technology S5.02 Planetary Entry, Descent and Landing Technology S5.03 Sample Collection, Processing, and Handling Devices S5.04 Surface and Subsurface Robotic Exploration S5.05 Planetary Balloons and Aerobots TOPIC S6 Information Technologies S6.01 Modeling, Simulation and Analysis Technologies S6.02 Technologies for Large-Scale Numerical Simulation S6.03 On-Board Data Processing and Control S6.04 Data Analyzing and Processing Algorithms S6.05 Data Management - Storage, Mining and Visualization S6.06 Spatial and Visual Methods for Search, Analysis and Display of Science Data


Science Mission Directorate : Science Mission Directorate New Remote Sensing Technologies – to better see, detect, and measure the Earth, the sun, the solar system, and the universe Large, Lower Cost, Lightweight Mirrors and Space-Deployable Structures – for the next generation of large telescopes and antennas Novel Platforms – including power and propulsion technologies, that can take instruments to new vantage points Intelligent Distributed Systems – that enable advanced communications, efficient data processing and transfer, and autonomous operations of land- and space-based assets Information Synthesis – to derive useful knowledge from extremely large data sets through visualization, advanced simulations, analysis, and seamlessly linked models Note: It is recommended that the Technology Projects focus on the delivery of products that can be incorporated into airborne and/or ground-based demonstrations.


Slide26 : TOPIC O1 Space Communications and Navigation O1.01 Coding, Modulation, and Compression O1.02 Precision Spacecraft and Lunar/Planetary Surface Navigation and Tracking O1.03 Communication for Space-Based Range O1.04 Antenna Technology O1.05 Reconfigurable/Reprogrammable Communication Systems O1.06 Miniaturized Digital EVA Radio O1.07 Transformational Communications Technology O1.08 Long Range Optical Telecommunications O1.09 Long Range Space RF Telecommunications O1.10 Surface Networks and Orbit Access Links O1.11 Software for Space Communications Infrastructure Operations TOPIC O2 Space Transportation O2.01 Optical Tracking and Image Analysis O2.02 Space Transportation Propulsion System and Test Facility Requirements and Instrumentation O2.03 Automated Collection and Transfer of Launch Range Surveillance/Intrusion Data TOPIC O3 Processing and Operations O3.01 Crew Health and Safety Including Medical Operations O3.02 In-helmet Speech Audio Systems and Technologies O3.03 Vehicle Integration and Ground Processing O3.04 Mission Operations NASA FY07 Solicitation Space Operations Mission Directorate


Space Operations Mission Directorate : Space Operations Mission Directorate Space Communications – Optical communications, spacecraft RF including antennas and ground based Earth stations, surface networks, access links, navigation and timing, reprogrammable communications systems, communications systems for EVAs, advanced antenna technology and transmit array concepts, communications in support of launch services; novel operational projects that have a high return-on-investment; proposed project should be aligned with the Space Communications and Navigation Architecture as being developed by the agency. Space Transportation – Technologies to enable a safer and more reliable space transportation capability including automated collection of range data, automated tracking and identification of objects, instrumentation for space transportation system testing, integrated system health monitoring for ground support equipment, facilities, and ground/spacecraft system interfaces, and technologies that reduce the cost of ground operations including new and innovative technology solutions for assembly, test, integration and processing of spacecraft; end-to-end launch services; specifically corrosion prevention, detection, and mitigation of corrosion in spaceport facilities and ground support equipment; non-destructive evaluation / non-intrusive inspection technologies; and operationally effective propellant loading, servicing, and storage. Space Operation – Technologies that optimize crew health and performance using innovative technologies for procedure management of crew medical officer responses to in-flight medical issues, technologies that optimize the performance of ground operations, technologies that enable innovative use of operational assets for flight testing of developmental hardware and software.


Slide28 : How to Win - Follow the Directions Start early and do your homework Prepare your proposal in accordance with the solicitation instructions or your proposal may be rejected administratively. Note that each Agency’s administrative requirements may differ. Address all areas that will be scored in the evaluation Don’t underestimate the importance of commercialization Lay out the evaluation criteria and write to satisfy the reviewers Don’t pad the proposal to get to the 25 page limit Don’t subcontract Government facilities or equipment with SBIR funds Comply with Conflict of Interest rules If appropriate, form a team with universities or other companies Get advice from your local small business advisory resources Get an independent review of your proposal prior to submission Submit your proposal electronically prior to the final 24 hour rush. Mark appropriate proposals as “proprietary” never “confidential”. Mark only those pages that must be protected. Submit your proposal electronically prior to the last 24 hours


Slide29 : How to Win - Know Your Customer Review last year’s solicitation and review the titles and some abstracts of the winning proposals in your area of interest Talk to the NASA POCs in your technical area: - Find technical emphasis, needs, and interest - Align your technology/proposal to meet the need


Slide30 : Questions Is NASA interested in my technology? Review last year’s solicitation for potential areas of interest (sbir.nasa.gov). What is NASA doing is this area of technology? - Call SBIR points of contact at the 10 NASA Centers that lead the subtopic that is closest to your interests and have them put you in touch with a technical person working in the subject area. - Calls must be made before solicitation opens. Does my proposal need to fit into a specific subtopic? - Yes, proposals that are not responsive to the solicitation may be classified “nonresponsive” and rejected.


Slide31 : Questions What should my proposal look like ? A sample proposal is available at sbir.nasa.gov Should I consider using consultants and subcontractors? Yes, but remember limitations (1/3 of research work for SBIR), and no NASA Personnel. Can I submit the same proposal to different subtopics if it applies? No, you risk having all proposals disqualified.


Nature of NASA SBIR Contracts : Nature of NASA SBIR Contracts SBIR contracts are fixed price contracts to be completed on a best effort basis. Contractors own resulting intellectual property (data, copyrights, patents, etc.). Government has royalty-free rights for government use of intellectual property. Government protects data from public dissemination for four years after contract ends.


Slide33 : SBIR Electronic Handbook Submission Process All proposals are submitted electronically via the internet Make sure your proposal is received on time - late proposals are rejected Proposals are screened for administrative completeness and turned over to the managing NASA Center for technical review


Slide34 : Selection Process NASA Phase I Evaluation Criteria: Scientific/Technical Merit and Feasibility (50%) Experience, Qualifications and Facilities (25%) Effectiveness of the Proposed Work Plan (25%) Commercial Potential and Feasibility (adjectival)


Slide35 : Selection Process NASA Phase II Evaluation Criteria: 1. Scientific/Technical Merit and Feasibility (50%) 2. Experience, Qualifications and Facilities (25%) 3. Effectiveness of the Proposed Work Plan (25%) 4. Commercial Potential and Feasibility (critical) • Commercial Potential of the Technology • Commercial Intent of the Offeror • Capability of the Offeror to Realize Commercialization


Slide36 : Selection Process General Consideration in Proposal Ranking: Will it meet NASA’s technical need. Is it the best solution in the trade space. Can it be produced and qualified in the needed project timeframe. 4. Probability that Company Can Successfully Commercialize Technology (Phase III).


Slide37 : Selection Process Proposals are screened for administrative completeness and then sent to the managing NASA Center for technical review. All proposals are reviewed by NASA personnel at Centers. Source Selection Official makes final selections.


Slide38 : Evaluation Criteria: Scientific/Technical Merit and Feasibility Experience, Qualifications and Facilities Effectiveness of the Proposed Work Plan Commercial Merit and Feasibility Selection Process


Slide39 : Flight Projects System Test, Launch & Operations System/ Subsystem Development Technology Demonstration Technology Development Research to Prove Feasibility Basic Technology Research TRL 9 TRL 8 TRL 7 TRL 6 TRL 5 TRL 4 TRL 3 TRL 2 TRL 1 Basic Research Research and Technology Base “Technology Push” Capability-Focused Technology Development and Demo Programs “Applications Pull” e.g. SBIR, STTR Advanced Development Programs “System Specific” SBIR and STTR Technology Readiness Levels


Technology Readiness Level (TRL) Descriptions : Technology Readiness Level (TRL) Descriptions


Partnership Connections – IPP Publications : Partnership Connections – IPP Publications http://www.techbriefs.com/ Electronics & Computers Semiconductors & ICs Mechanics Information Sciences MaterialsSoftware Manufacturing & Prototyping Machinery & Automation Physical Sciences Bio-MedicalTest & Measurement http://www.sti.nasa.gov/tto/ http://www.sti.nasa.gov/spinoff/ searchrecord http://ipp.nasa.gov/innovation/ index.html


Outreach DVDs : Outreach DVDs SBIR/STTR Hallmarks of Success Sixth volume in production. Agency outreach and visibility product. ~10 infusion video vignettes per volume featuring transfer and mission integration successes. DVDs produced and available for distribution. Beginning use on NASA TV.


Summary : Summary IPP is seeking to add value to NASA’s Mission Directorates and their programs and projects, through technology development and infusion to meet mission needs. There is tremendous potential, with technology resources so scarce NASA is trying to harness the SBIR/STTR potential. The SBIR/STTR program continues to apply technologies into products for public benefit and integrate successes into NASA missions. The SBIR/STTR program has maintained highly dedicated workforce across the ten Field Centers, they are working to build stronger connections to programs/projects at their Centers to identify needs, build working relationships and increase infusion.


Slide44 : For Further Information 1. For administrative information specific to the SBIR Program refer to SBIR website: SBIR.NASA.GOV 2. For information relative to other opportunities with NASA refer to the IPP home page: IPP.NASA.GOV


IPP Leads at NASA Centers : IPP Leads at NASA Centers IPP Leads have primary responsibility for creating partnership development, intellectual property and technology transfer. Ames Research Center (ARC) Rich Pisarski Phone: 650-604-1754 Email: rpisarski@mail.arc.nasa.gov Dryden Flight Research Center (DFRC) Greg Poteat Phone: 661-276-3872 Email: Gregory.A.Poteat@nasa.gov Glenn Research Center (GRC) Kathy Needham Phone: 216-433-2802 Email: Kathleen.K.Needham@nasa.gov Goddard Space Flight Center (GSFC) Nona Cheeks Phone: 301-286-5810 Email: techtransfer@gsfc.nasa.gov Jet Propulsion Laboratory (JPL) Ken Wolfenbarger Phone: 818-354-3821 Email: james.k.wolfenbarger@nasa.gov


IPP Leads at NASA Centers : IPP Leads at NASA Centers Johnson Space Center (JSC) Michelle P. Lewis Phone: 281-483-8051 Email: jsc-techtran@mail.nasa.gov Kennedy Space Center (KSC) Dave Makufka Phone: 321- 861-7158 Email: David.R.Makufka@nasa.gov Langley Research Center (LaRC) Marty Waszak Phone: 757-864-3000 Email: m.r.waszak@nasa.gov Marshall Space Flight Center (MSFC) Larry Lechner Phone: 256-544-5227 Email: Larry.E.Lechner@nasa.gov Stennis Space Center (SSC) Ramona E Travis Phone: 228-688-1962 Email: Ramona.E.Travis@nasa.gov