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C t f A S t Center for Aerospace Systems, Policy and Architecture Research Policy and Architecture Research I ti P th i T h l It i Biography Innovation Pathways in Technology Intensive Zoe Szajnfarber is currently working towards her Ph.D in ESD at MIT Innovation Pathways in Technology Intensive Zoe has worked as a systems engineer at MDRobotics and Dynacon Your Innovation Pathways in Technology Intensive Inc; and at the European Space Agency as a researcher studying Picture technology development in space science missions. Zoe received a Picture Go ernment Organi ations Insights from NASA B.A.Sc. in Engineering Science from the University of Toronto (2006) Government Organizations: Insights from NASA and M.S. degrees in Aero/Astro and TPP from MIT (2009). Government Organizations: Insights from NASA [email protected] Related Publications Related Publications Szajnfarber Z and A L Weigel (2010) “Towards an Empirical Measure of Spacecraft Szajnfarber, Z., and A. L. Weigel (2010) Towards an Empirical Measure of Spacecraft Innovation: The Case of Communication Satellites” Acta Astronautica 66(7-8) Z S jf b Innovation: The Case of Communication Satellites Acta Astronautica, 66(7 8), 1266-1279 Zoe Szajnfarber Ph D in Engineering Systems (expected in 2011) 1266 1279 Szajnfarber Z Stringfellow M V and Weigel A L (2010) “The Impact of customer- Zoe Szajnfarber, Ph.D. in Engineering Systems (expected in 2011) Szajnfarber, Z., Stringfellow , M. V . and Weigel A. L.. (2010) The Impact of customer contractor interactions on communication satellite innovation: insights from contractor interactions on communication satellite innovation: insights from communication satellite history” Acta Astronautica 67(9-10), 1306-1317. C f ( ) f C communication satellite history Acta Astronautica 67(9 10), 1306 1317. Szajnfarber, Z., Richards, M. G. and Weigel, A. L., “Implications of DoD Acquisition Committee: Prof Annalisa L Weigel (chair); Prof Edward F Crawley; Szajnfarber, Z., Richards, M. G. and Weigel, A. L., Implications of DoD Acquisition Policy for Innovation: The Case of Operationally Responsive Space,” AIAA Space Committee: Prof. Annalisa L. Weigel, (chair); Prof. Edward F. Crawley; 2008, AIAA, San Diego California, Sept. 9th-11th 2008. (R&R in IJDAM) Prof Daniel E Hastings; Prof James M Utterback Prof. Daniel E. Hastings; Prof. James M. Utterback Problem Framing Research Approach Model Overview Problem Framing Research Approach Model Overview Problem: NASA’s mission requires technological innovation; yet current performance Current stage-gate conceptualization fails to explain observed is inadequate. Although multiple innovation systems have been tried, there remains a fundamental lack of understanding of how innovation actually works at NASA. loopiness” of pre-infusion innovation pathways Core concepts: Applied R&D Project specific Basic R&D Maturity (TRL) System exhibits a punctuated equilibrium (i e epochs of persistent stable (1986-1992) (1992-1994) (2001-2004) (1998-2007) NIAC Applied R&D Project-specific Tech Dev. Basic R&D NRA NRA QWIPs Camera Spacequalified QWIPs System exhibits a punctuated equilibrium (i.e., epochs of persistent stable behavior punctuated by transition inducing shocks) R&T in Office of Aeronautics and Space Technology (OAST)= Basic cross (1992 1994) Aeronautics to Office of A ti (1996-1999) Cross-Enterprise Technology “Pioneering Revolutionary Technology” asic Obama’s bd t SBIR P1 NRA ROSES Pre/ Phase A SBIR P1 NRA ROSES Pre/ Phase A 6 9a Quantum Wells for photodetection Camera Prototype Contacts Called Technical problems on behavior, punctuated by transition inducing shocks) (OAST) = Basic, cross- cutting research (~250M) Aeronautics (1992-1994) Technology Development (under Code S) ~$100M Advanced ~$180M Ba budget proposal SBIR P2 SBIR P2 Concepts Fli h 7 8 9 1 detection project Congress: (1992-1994) Space to Office of Advanced (1999 2001) $180M IT/Comm. ? RTOP RTOP IRAD Pathfinder missions IRAD Pathfinder missions Flight 8 QWIPs Si ti t Readiness Communicated Congress: must fly IR camera! Concepts (OSAT, ~200M) (1999-2001) Office of Aerospace T h l (2004+) DDF MPTO DDF MPTO 3 QWIPs detector arrays Scientist recruited 2005 2000 1995 1990 1985 (1996 1998) Technology (OAT) ~$40M NRA $100M (2004+) Exploration Technology Development pecific Office of Commercialization ESTO Office of Commercialization ESTO 4 Legend New capability Slid 1 Slid 2 Slid 3 (1996-1998) Office of Space Science ( 100M) ~$100M cross-cutting Development program ~75% cut in 2005 oject-sp Sh l d Event Action Chance C ll b ti Slide 1 Slide 2 Slide 3 (~100M) 2005 Pro Shelved capabilities Shelved capabilities Shelved concepts 5 Decision Contract Chance encounter 2 Collaboration policy Slide 1 Slide 2 Slide 3 Slide 1 Slide 2 Slide 3 Definition: An Innovation Pathway describes the set of events, decisions and actions that mature a new technology or concept from initial conception to implementation on a flight project R hQ ti Research Questions: 1 Wh i h f NASA’ i i ? 1. What is the structure of NASA’s innovation system? 2 H d biliti t th i ti t th 2. How do new capabilities traverse the innovation system as they are t d di f di t fli ht j t? Epochs and shocks common across pathways, orders of progression not. matured, and infused into flight projects? 3 Are there patterns of innovation mechanisms important across multiple • 4 distinct and identifiable epochs between path initiation and termination 3. Are there patterns of innovation mechanisms, important across multiple innovation pathways? 3 classes of shocks (problems, solutions, context changes) innovation pathways? 3 Descriptive Process Model Where does this get us? Future Directions Descriptive Process Model Where does this get us? Future Directions Gestation: Pre-path initiation; sets initial conditions for path (incl. relationships, technical & application knowledge, access to resources). Typically, Multiple disjointed small groups are separately engaged in other, tangentially related projects Solve relative resource allocation problem; Recognize implication of different epochs; harness Epoch Description People Technology Funding Tech Simultaneous pursuit of multiple Small core team of Proliferation of ideas Slack resources at branch Solve relative resource allocation problem; improved gate criteria Recognize implication of different epochs; harness directional shocks Tech Exploration Simultaneous pursuit of multiple new technological approaches. Goal: fund the effort long enough Small core team of internal experts, augmented by ad hoc Proliferation of ideas, parallel experimentation, Slack resources at branch- level; different institutional sources applied for Currently have: to find some strategy that works and proves the concept external collaborations. inexpensive mock-ups indiscriminately, without differentiating among target maturity levels Co ntext Currently have: 1. Detailed innovation pathways FY2010 maturity levels Arch Exploration Focused form of exploration, guided by articulated Similar to Tech Ex, with addition of end- Reconfiguration of existing components to Similar strategy as Tech Ex, with higher funding burden Funding/Co n OpEx 2. Descriptive, empirically grounded FY2010 performance-oriented goal. Goal: demonstrating flight feasibility (breadboarding/ detailed user (i.e., scientists) solve a new problem (i.e., more NRA vs. IRAD) ding DevOp Concepts Early-stage Applied Project Flight VS vOpEx process model feasibility (breadboarding/ detailed simulations) Exploitation Structured actions taken to mature Major expansion of Focus on testing and Typically project-specific or Treadin Water Early stage Contracts Applied Development Project Tech. Dev. Flight VS. reading ter DevO Future Work: the selected systems architecture towards flight readiness. team size; bring on engineers and PMs (internal additions) implementation issues. large NRA (cost of activities is proportionally much higher than other epochs) W Fundi Shelved Sh l d Shelved Tre Wate Fund 3. Prescriptive framework linking FY2011 (internal additions). than other epochs) Treading Water & This is survival mode: keep key team members funded so they Reduction to original core; external Proliferation of applications Drought. Applying to every possible source and creating ing/Con Shelved concepts Shelved capabilities Shelved capabilities nding/Cont tracks and routines to model. FY2011 Slid 6 Water & Branching out team members funded, so they won’t be permanently reassigned to other unrelated projects . core; external collaborations motivated by branching out applications, leveraging same core innovation possible source and creating new ones. ntext text 4. Observed systems principles Slid 4 Slid 5 Slide 6 branching out Termination 1: innovation infused into approved flight project (phase B). Termination 2: Drought persists to point where key team members are forced to join other funded projects While constituent i deas Slide 4 Slide 5 Slide 6 Termination 2: Drought persists to point where key team members are forced to join other funded projects. While constituent ideas may resurface in later projects, this will only occur based on significant efforts from an individual champion. Shock Description Direction of Impact Assumptions of stagegate view Observations captured in process model Slide 4 Slide 5 Slide 6 Shock Description Direction of Impact Solutions A. Tech A: Laboratory demonstration that a new concept i ldth d i d ff t( ft ith A. Can open up new search space; shift in current t j t Ri l l l f l ti Snapshots from Cases Assumptions of stage gate view 1. New technologies mature from left to right Observations captured in process model 1. New technologies embody multiple levels of Slide 4 Slide 5 can yield the desired effect (often with poorer performance than incumbent). B. Tech B: Demonstration of practical utility. trajectory. Raises or lowers level of exploration (from tech to arch or visa versa) B. Weaker than Tech A (legitimate rather than maturity simultaneously, challenging the concept of monotonically increasing “maturity ” Treading Water Map linkages between observed behaviors Timing: unpredictable/unpredictable initiate). Necessary precursor to exploitation, but rarely forces transition. P bl C D O Fl R l i f d i i C T i ll i ii hi l l i 2 Process is controllable through funding allocation monotonically increasing maturity. 2. Experts apply to multiple levels of funding Treading Water Treading Water W and the routines & individual incentives that t th Problems C. DevOpFlag: Revolutionary, focused aspirations prompts search for radically new approach in target areas. D. DevOpEx: Explicitly non-specific, relatively small C. Typically initiates architectural exploration (explicitly corresponds to resource availability) D. Enables transition from exploration to exploitation reading ater reading ater 2. Process is controllable through funding allocation and gate decisions 2. Experts apply to multiple levels of funding indiscriminately, confounding basic and applied dl h f D i ti 500 600 700 generate them. opportunity. Still serve as important focus. E. DevOpNeed: Identification of key technical roadblock in the context of existing architectural concept (assuming recent Tech B). E. Can initiate new innovation pathway (per Tech A) or lower the level of exploration from arch to Tre Wate Tre Wate resources, and limiting that avenue for management control. Descriptive 0 100 200 300 400 500 1992 1993 1994 1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 2005 2006 2007 2008 2009 2010 the context of existing architectural concept. Timing: cyclical/semi-cyclical/unpredictable or lower the level of exploration from arch to tech. 3. Adding more stages will ease transition (mitigate control. 3. The valley of death is more than just a funding gap; Identify key management levers and propose Context F. Drought: Sudden and/or sustained inability to secure resources (including yearly center- and directorate-level). F. Initiates transition to treading water & branching out epoch, regardless of current epoch. valley of death) there are explorers and exploiters, but few individuals who excel at both modes of R&D Treading Water Treading Water center "level 2" Study Project related project strategies for interventions. Often related to change in administration. G. Context: captures key events and activities exogenous to innovation pathway not covered by other label (e g G. Impact is highly dependent on nature of context change (e g in Astro case it precipitated Tr 4 Rejection at a decision point leads to a shelved individuals who excel at both modes of R&D. 4. “Shelf life” is as much a matter of keeping the team Tre Wat Prescriptive innovation pathway, not covered by other label (e.g., failures of Astro E/EII change risk assessment on H). Timing semi c clical/ npredictable change (e.g., in Astro case, it precipitated DevOpEx). Treading Water Treading Water 4. Rejection at a decision point leads to a shelved capability that can be reinfused as long as it’s not intact as a question of obsolescence. Timing: semi-cyclical/unpredictable Collabora- tion H. Join: In the context of a small team, each member brings unique and important skills/equipment that often shaped H. Join (+), particularly when the addition was external precipitated several Tech As and Bs obsolete. 4 tion unique and important skills/equipment, that often shaped the pathway. Ti i i li l( t l) external, precipitated several Tech As and Bs, but didn’t tend to induce transitions. Internal additions tended to correspond to/follow th i id dt iti Timing: semi-cyclical (external) otherwise induced transitions. For more information please visit: http://seari mit edu © 2010 Massachusetts Institute of Technology For more information, please visit: http://seari.mit.edu © 2010 Massachusetts Institute of Technology

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Page 1: Ct f A S tCenter for Aerospace Systems, Policy and ...seari.mit.edu/documents/summit/2010/Summit10_Poster_ZS.pdf · Pbl C DOFl R li f d i iC Ti lliii hi l l i 2 Processis controllable

C t f A S tCenter for Aerospace Systems, Policy and Architecture ResearchPolicy and Architecture Research

I ti P th i T h l I t iBiography

Innovation Pathways in Technology Intensiveg p y

Zoe Szajnfarber is currently working towards her Ph.D in ESD at MIT Innovation Pathways in Technology Intensive j y gZoe has worked as a systems engineer at MDRobotics and Dynacon YourInnovation Pathways in Technology Intensive y g yInc; and at the European Space Agency as a researcher studying Picture

y gy p p g y y gtechnology development in space science missions. Zoe received a

Picture

Go ernment Organi ations Insights from NASAgy p p

B.A.Sc. in Engineering Science from the University of Toronto (2006)Government Organizations: Insights from NASA g g y ( )and M.S. degrees in Aero/Astro and TPP from MIT (2009).Government Organizations: Insights from NASA g ( )

[email protected] gRelated PublicationsRelated PublicationsSzajnfarber Z and A L Weigel (2010) “Towards an Empirical Measure of SpacecraftSzajnfarber, Z., and A. L. Weigel (2010) Towards an Empirical Measure of Spacecraft

Innovation: The Case of Communication Satellites” Acta Astronautica 66(7-8)

Z S j f bInnovation: The Case of Communication Satellites Acta Astronautica, 66(7 8),1266-1279Zoe Szajnfarber Ph D in Engineering Systems (expected in 2011)1266 1279

Szajnfarber Z Stringfellow M V and Weigel A L (2010) “The Impact of customer-Zoe Szajnfarber, Ph.D. in Engineering Systems (expected in 2011) Szajnfarber, Z., Stringfellow, M. V. and Weigel A. L.. (2010) The Impact of customercontractor interactions on communication satellite innovation: insights fromj , g g y ( p ) contractor interactions on communication satellite innovation: insights fromcommunication satellite history” Acta Astronautica 67(9-10), 1306-1317.

C f ( ) f Ccommunication satellite history Acta Astronautica 67(9 10), 1306 1317.

Szajnfarber, Z., Richards, M. G. and Weigel, A. L., “Implications of DoD Acquisition

Committee: Prof Annalisa L Weigel (chair); Prof Edward F Crawley;Szajnfarber, Z., Richards, M. G. and Weigel, A. L., Implications of DoD Acquisition

Policy for Innovation: The Case of Operationally Responsive Space,” AIAA SpaceCommittee: Prof. Annalisa L. Weigel, (chair); Prof. Edward F. Crawley; y p y p p , p2008, AIAA, San Diego California, Sept. 9th-11th 2008. (R&R in IJDAM)

Prof Daniel E Hastings; Prof James M Utterback, , g , p ( )

Prof. Daniel E. Hastings; Prof. James M. Utterbackg ;Problem Framing Research Approach Model OverviewProblem Framing Research Approach Model Overview

Problem: NASA’s mission requires technological innovation; yet current performance  Current stage-gate conceptualization fails to explain observed q g ; y pis inadequate. Although multiple innovation systems have been tried, there remains a fundamental lack of understanding of how innovation actually works at NASA.

“loopiness” of pre-infusion innovation pathways • Core concepts: g y

Applied R&D Project specificBasic R&DMaturity (TRL)

p– System exhibits a punctuated equilibrium (i e epochs of persistent stable

(1986-1992) (1992-1994) (2001-2004)

(1998-2007) NIACApplied R&D Project-specific

Tech Dev. Basic R&D

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policySlide 1 Slide 2 Slide 3Slide 1 Slide 2 Slide 3Definition: An Innovation Pathway describes the set of events, decisions and actions that mature a new technology or concept from initial conception to implementation on a flight project

R h Q tiResearch Questions:1 Wh i h f NASA’ i i ?1. What is the structure of NASA’s innovation system?2 H d biliti t th i ti t th2. How do new capabilities traverse the innovation system as they are

t d d i f d i t fli ht j t ?– Epochs and shocks common across pathways, orders of progression not.

matured, and infused into flight projects?3 Are there patterns of innovation mechanisms important across multiple

• 4 distinct and identifiable epochs between path initiation and termination3. Are there patterns of innovation mechanisms, important across multiple

innovation pathways? • 3 classes of shocks (problems, solutions, context changes)innovation pathways? p g

3

Descriptive Process Model Where does this get us? Future DirectionsDescriptive Process Model Where does this get us? Future DirectionsGestation: Pre-path initiation; sets initial conditions for path (incl. relationships, technical & application knowledge, access to

resources). Typically, Multiple disjointed small groups are separately engaged in other, tangentially related projects Solve relative resource allocation problem; Recognize implication of different epochs; harnessEpoch Description People Technology FundingTech Simultaneous pursuit of multiple Small core team of Proliferation of ideas Slack resources at branch

Solve relative resource allocation problem; improved gate criteria

Recognize implication of different epochs; harness directional shocks

Tech Exploration

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ntext

text 4. Observed systems principles

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Termination 1: innovation infused into approved flight project (phase B).Termination 2: Drought persists to point where key team members are forced to join other funded projects While constituent ideasSlide 4 Slide 5 Slide 6Termination 2: Drought persists to point where key team members are forced to join other funded projects. While constituent ideas

may resurface in later projects, this will only occur based on significant efforts from an individual champion.

Shock Description Direction of Impact Assumptions of stage‐gate view Observations captured in process modelSlide 4 Slide 5 Slide 6Shock Description Direction of ImpactSolutions A. Tech A: Laboratory demonstration that a new concept

i ld th d i d ff t ( ft ithA. Can open up new search space; shift in current

t j t R i l l l f l tiSnapshots from Cases

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initiate). Necessary precursor to exploitation, but rarely forces transition.

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4. Shelf life is as much a matter of keeping the teamintact as a question of obsolescence. 

pTiming: semi-cyclical/unpredictable

Collabora-tion

H. Join: In the context of a small team, each member brings unique and important skills/equipment that often shaped

H. Join (+), particularly when the addition was external precipitated several Tech As and Bs

obsolete. 

4

tion unique and important skills/equipment, that often shaped the pathway.

Ti i i li l ( t l)

external, precipitated several Tech As and Bs, but didn’t tend to induce transitions. Internal additions tended to correspond to/follow

th i i d d t itiTiming: semi-cyclical (external) otherwise induced transitions.

For more information please visit: http://seari mit edu© 2010 Massachusetts Institute of Technology For more information, please visit: http://seari.mit.edu© 2010 Massachusetts Institute of Technology