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Title: Nanotechnology Questions, Methods, Metrics and Results: CNS United States


1
Nanotechnology Questions, Methods, Metrics and
Results CNS (United States)
  • Philip Shapira1,3, Alan Porter,1 Jan Youtie2, Li
    Tang1
  • Nanotechnology Science Mapping and Innovation
    Trajectories, Manchester, UK, September 9, 2008
  • 1Georgia Tech School of Public Policy, Atlanta,
    USA
  • 2Georgia Tech Enterprise Innovation Institute,
    Atlanta, USA
  • 3Manchester Institute of Innovation Research,
    Manchester Business School, UK

2
Overview
  • GT Nanotechnology Research and Innovation Systems
    Group (CNS-ASU)
  • Context
  • Nanotechnology bibliometric and patent databases
  • Results
  • Selected studies
  • Future directions

3
ContextThe U.S. 21st Century Nanotechnology
RDAct of 2003 (PL 108-153)
  • Framework for integrated and interdisciplinary
    approach to nano RD
  • Encourages applications of nano for productivity,
    industrial competitiveness
  • Provides for nano education and training
  • Requires ethical, legal, environmental, and other
    societal concerns to be addressed
  • Sec 2(b)(10)
  • Establishes societal implications research
    program
  • Requires nano research centers (NSECs) to address
    societal implications
  • Integrates societal concerns with nano RD
  • Ensure advances in nanotech lead to quality of
    life improvements for all
  • Provides for public input

4
Center for Nanotechnology and Society (CNS-ASU)
  • CNS-ASU aims to encourage reflexivity and build
    capacity for anticipatory governance of
    nanotechnology
  • NSF-sponsored
  • Real-Time Technology Assessment
  • Research and Innovation Systems Analysis (RISA)
  • Public Opinion and Values (POV)
  • Deliberation and Participation (DP)
  • Reflexivity Assessment and Evaluation (RAE)
  • Thematic Research Clusters
  • Equity and Responsibility (ER)
  • Human Identity, Enhancement Biology (HIEB)

CNS-ASU involves the activities of more than 80
individuals at 6 major collaborating
institutions, as well as other collaborators,
partners, and consultants
5
Nanotechnology Research and Innovation Systems
AssessmentGeorgia Tech / MIoIR Group
  • Senior Researchers
  • Philip Shapira (Georgia Tech / MIoIR)
  • Alan Porter (Georgia Tech)
  • Jan Youtie (Georgia Tech Enterprise Innovation
    Institute)
  • Associated Researchers
  • Maurizio Iaccopeta (GT)
  • Juan Rogers (GT)
  • Andrea Fernandez-Ribas (GT)
  • Jue Wang (Florida International Univ)
  • Students
  • Graduate Students Li Tang, Stephen Carley,
    Luciano Kay, Vrishali Subramani, Reynold Galope,
    Harmeet Singh Gandhi
  • Undergraduate/TT John Garner, Bryan Lynch
  • MIoIR MSc Hoseup Park

6
Nanotechnology Research and Innovation Systems
AssessmentResearch Thrusts
  • Characterizing nanotechnology and its drivers
  • How to defining nanotechnology?
  • Is nano a GPT (General Purpose Technology)?
  • Organization and development of nanoscience
  • Who are key system actors - key institutions and
    organizations?
  • Can we map nanoscience structure and
    trajectories? What are leading nano research
    targets? Is nanoscience converging?
  • Nanotechnology enterprise and commercialization
  • What are the characteristics of early
    commercialization? including large v. small
    companies, established v. new performers
  • Pathways between research and commercialization
  • National nanotechnology development and policy
  • Emergence of national nano RD and international
    knowledge linkages
  • Nanotechnology place and space
  • Emergence of regional nano districts
  • Which locations will lead in nano development and
    why? And in which fields

7
Nanotechnology Research Foci Key Concepts
8
Mapping nanotechnology research and
innovationCore data
Research Exploration Publications
Early Innovation Patents
Enterprise Corporate activity, start-ups
Database development
Refine search terms
Data acquisition cleaning
Associate with other variables
Analysis
Nano expert input
Thesauri Geo IDs
9
(No Transcript)
10
Nano Search 2-Step ProcessExclusions and
Performance
  • STEP 1. INCLUSION
  • Using search terms
  • STEP 2. EXCLUSION
  • In VantagePoint, remove duplicates and records
    that appear likely not to reflect NSE
  • Exclude any that contain certain terms, e.g.
    nplankton, nanoAlga, Nanofauna, nano2 (e.g.,
    NaNO2), etc.
  • Exclude records that contain ONLY one of these
    terms (and no other nano terms), e.g.
    nanometer, nanosecond, nanomolar, nanogram,
    nanoliter
  • SEARCH PERFORMANCE
  • Recall High
  • Encompassing NSE Search Algorithm
  • Given that bounds on NSE are quite permeable, no
    right answer
  • Precision Good
  • Apply post-search duplicate removal
    exclusions
  • Makes comparison of algorithms directly in the
    database search engines impossible, but allows
    subsequent tightening of the CNS-ASU algorithm

11
Database dimensions
  • Large-scale global databases (1990-2006)
  • Nanotechnology publications (1.1 million,
    1990-2006, including 403,000 SCI 508,000 to
    2008) EI Compendex 381,000)
  • 54,000 patents (70 patent offices) Micropatents
  • Key Publication
  • Refining search terms for nanotechnology. Porter,
    Youtie, Shapira, Schoeneck. J. NanoParticle
    Research, 2008.
  • Describes two-stage bibliometric search method
    and development of nano global publications and
    patent data
  • Updating (in 2008)
  • Now includes 508,000 SCI article abstracts
    through to mid-2008
  • Exploratory use of PatStat (multinational patent
    data base)

12
Comparisons (1999-2003)
a. Bassecoulard E, Lelu A, Zitt M (2007) Mapping
nanosciences by citation flows A preliminary
analysis. Scientometrics .b.Fraunhofer Institute
for Systems and Innovations Research (2002)
Search methodology for mapping nanotechnology
patents and Heinze, T, Shapira, P, Senker, J,
Kuhlmann, S (2007) Identifying creative research
accomplishments Methodology and results for
nanotechnology and human genetics. Scientometrics
70(1).
13
Selected Results
  • JY
  • Publication and citation trends
  • Nano as GPT
  • ALP
  • Nanotechnology in the map of science
  • Nano social science
  • PS, LT
  • Nanodistricts and clusters (US, EU, Latin
    America)
  • Emergence of China
  • MNEs and Nano SMEs

14
Nano Publications by Leading Countries / Blocs
Analysis of SCI Publications 1990-2006 refined
Georgia Tech nano definition see Porter et al.,
2008
15
Nanotechnology Citations in 2000 and 2004
relative to nanotechnology articlesby country of
first author 1990-2006
16
General Purpose Technology
  • How can we assess whether or not nanotechnology
    is a breakthrough innovation, perhaps as much as
    electricity or IT?
  • GPT Attributes (Helpman and Trajtenberg, 1994)
  • Pervasiveness
  • Innovation Spawning
  • Scope for Improvement

17
Patents as Evidence Pervasiveness Generic
Function
  • Sij share of patent is forward citations in
    class j (Hall and Trajtenberg)
  • Forward looking Herfindahl concentration index of
    the general use of the patented technology
  • As G?1 suggests more general adoption
  • Problematical, due to limited lags for new,
    nanotechnology patents

18
Citations Forward and Backward
Patent 1999
Patent 2004 Citations Patent 1999 Patent
1995 Patent 1990
Patent 2006 Citations Patent 2004
Backward Focal Forward
19
Findings and Implications
  • Generality score of Nano similar to IT and higher
    than Drugs (although right truncation around
    2000)
  • Innovation spawning knowledge embodied in
    nanotechnology spreads more evenly across other
    patent classes (though less intensive), following
    an S-shaped pattern prior to the inflexion point
  • If nano is like other GPTs - initial productivity
    slowdown

20
Nano Sample Profile (900 records)
Geoscience
Agriculture
Infectious diseases
Ecology
Environ. Sci.
Chemistry
General medicine
Engineering
Biological Sci.
Clinical medicine
Neurosciences
Materials Sci.
Computer Sci.
Physics
Nanotech-related publications in the map of
science (1991)
21
Nano Sample Profile (900 records)
Geoscience
Agriculture
Infectious diseases
Ecology
Environ. Sci.
Chemistry
General medicine
Engineering
Biological Sci.
Clinical medicine
Neurosciences
Materials Sci.
Computer Sci.
Physics
Nanotech-related publications in the map of
science (2005)
22
Citations to Leading authors in Nano Social
Science, 1990-2007 N 308 (SSCI SCOPUS)
23
Early Trends in Citations to Key Authors Favor
Science Visions Social Science Citations Emerge
Since 2005
24
Regional nano emergencePrototypes of emerging
nanodistricts
  • Where is nanotechnology emerging and how?
  • Nanotechnology will be widely diffused
  • but RD innovation production will cluster in
    specific regions

25
Global Nanodistricts
26
Development of US Nanodistricts, 1990-2006
1990
Cumulative Publications
425
27
Development of US Nanodistricts, 1990-2006
1990
Cumulative Publications
425
28
Development of US Nanodistricts, 1990-2006
1991
Cumulative Publications
2,238
29
Development of US Nanodistricts, 1990-2006
1992
Cumulative Publications
4,625
30
Development of US Nanodistricts, 1990-2006
1993
Cumulative Publications
7,325
31
Development of US Nanodistricts, 1990-2006
1994
Cumulative Publications
10,322
32
Development of US Nanodistricts, 1990-2006
1995
Cumulative Publications
13,541
33
Development of US Nanodistricts, 1990-2006
1996
Cumulative Publications
17,399
34
Development of US Nanodistricts, 1990-2006
1997
Cumulative Publications
21,851
35
Development of US Nanodistricts, 1990-2006
1998
Cumulative Publications
28,061
36
Development of US Nanodistricts, 1990-2006
1999
Cumulative Publications
34,829
37
Development of US Nanodistricts, 1990-2006
2000
Cumulative Publications
42,291
38
Development of US Nanodistricts, 1990-2006
2001
Cumulative Publications
50,585
39
Development of US Nanodistricts, 1990-2006
2002
Cumulative Publications
60,084
40
Development of US Nanodistricts, 1990-2006
2003
Cumulative Publications
71,291
41
Development of US Nanodistricts, 1990-2006
2004
Cumulative Publications
84,687
42
Development of US Nanodistricts, 1990-2006
2005
Cumulative Publications
99,569
43
Development of US Nanodistricts, 1990-2006
2006
105,991
Cumulative Publications
2006 part year
44
Development of US Nanodistricts, 1990-2006
Top 6 metros 38 of all 1990-2006 nano
publications (24 pop)
Chicago, 4
Boston, 7
SF-SJ, 8
New York CMSA, 9
DC-Balt, 7
LA, 5
2006
Cumulative Publications
105,991
2006 part year
45
China From Nano-Lab to MarketResearch
Objectives
  • Examine Chinas performance in fostering
    nanotechnology
  • Research outputs
  • Innovation measures
  • Assess pathways and challenges for technology
    transfer
  • Enterprise case studies

46
Growth of CN nano publications
Number of SCI nano publications
  • China rapid growth in nano pubs

Analysis of SCI Publications 1990-2006 refined
Georgia Tech nano definition see Porter et al.,
2007 count for 2006 extrapolated
47
Position of China in international nano world
patents
Number of nano patents granted by USPTOEPOWIPO
  • Chinas international patenting activity is still
    lagging
  • China accounts for only 1 of international
    patents
  • At EPO
  • US 1/3
  • China 1

Analysis of USPTO, EPO, WIPO patents 1990-2006
refined Georgia Tech nano definition see Porter
et al., 2007 count for 2006 extrapolated
48
US-China contrasts- in nano pubs and patents
Source Global nanotechnology publication and
patent datasets developed by the CNS-ASU Georgia
Tech team using refined nanotechnology search
terms (Porter, et al. 2007) computed by the
authors
49
CN Nano Collaborations (LT)
50
Nano Commercialization
  • MNEs and nanotechnology
  • MNE nano patenting is not decentralizing
  • Technological Diversity, Scientific Excellence
    and the Location of Inventive Activities Abroad
    The Case of Nanotechnology. A Fernández-Ribas, P.
    Shapira. J. Techn. Transfer (in press, 2008)
  • SMEs and nanotechnology
  • Social capital links with universities aid SME
    development, esp. for SBIR acquisition
  • Partnering with Universities A Good Choice for
    Nanotechnology Start-up Firms? J. Wang, P.
    Shapira. Small Business Economics (in press,
    2009)

51
In the pipeline
  • Nanotechnology as a general purpose technology
    II. Iacopetta, Graham.
  • 19,800 patents in 255 fields analyzed for spread
    of knowledge
  • Social science engages with nanotechnology
    (Shapira, Youtie, Porter)
  • Do women influence nanotechnology patenting? (Yu
    Meng, PhD)
  • Nanotechnology policy at the sub-state level
    (US). (P. McKeon BS, Wei Zhang MS)
  • Highly creative researchers in nanotechnology
    (Shapira, Rogers, Heinze, Galope)

52
Future Directions
  • Bibliometrics
  • Review revise nanotechnology search approach /
    phase II (2010)
  • Expand datasets beyond publications and patents
    (possibilities prizes, research awards, venture
    capital, SBIR, product announcements, etc.)
  • NSE upstream
  • Emergence of new terms (to map nano-science
    trajectories)
  • Interdisciplinarity in NSE
  • Organization and stimulation of highly-creative
    nanotechnology research
  • International nanotechnology knowledge exchange
    networks
  • Nanotechnology downstream
  • Nanotechnology innovation in large and small
    enterprises
  • Pathways to commercialization obstacles and
    issues
  • Development implications of nano as a GPT
  • Lateral
  • Developing countries and nanotechnology
  • Policy assessment
  • Evaluating outcomes and impacts of national and
    regional nanotechnology initiatives
  • Dissemination and Training
  • US-European Nanotechnology Research and Policy
    Workshop (March 2009, Atlanta)
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