Deep Generative Learning for All - The Gen AI Hype (Spring 2024)
Raffo - Measuring incremental innovation IP data to capture non-radical invention
1. Measuring incremental innovation:
how IP data may be used to capture
non-radical inventions
By: Intan Hamdan-Livramento & Julio Raffo
Economics and Statistics Division,
WIPO
Presentation at the Blue Sky III Conference, 19-21 Sept. 2016
Ghent, Belgium
2. Main Goal
Explicit: Investigate if Utility Model protection captures a
different innovation (inventive) activity than patents
Implicit: Provide a test of how to use other IP unit record
data to measure creativity (including innovation).
Measuring creativity: Learning from innovation measurement,
Lhuillery, Raffo & Hamdan-Livramento,
Economic Research Working Paper No. 31, 2016.
Disclaimer:
The views expressed in this article and presentation are those of the authors and
do not necessarily reflect the views of the World Intellectual Property
Organization or its member states.
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3. Objective
Show that UMs are useful innovation indicator to be used
alongside patent counts
Argue: UM provides a different view on innovative activities
We do this by:
Examining how UMs are being used, comparing them to their sister
IP instrument – patents
Highlight their similarities and differences
Rely on unit-record data to understand what types of inventions are
filed under UMs, their traits and where they are predominantly being
used
WIPO Statistical Database and EPO PATSTAT data
(to be completed with other national collections)
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4. Why extend beyond patents?
Not all inventions are patented
Differences on propensity to patent varies across sectors
and technologies
Omit inventors that do not innovate in new-to-the-world type
of inventions
Those that engage in incremental or adaptive innovation-type
activities
Exclude many less-developed economies
Omit inventors that may not have the financial means to file
for patents
Small and medium sized enterprises
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5. How UM compares to patents?
UMs – in comparison to patent filings – are:
Cheaper (+)
Easier to file (+)
Faster to get protection (+)
Narrower subject matter (–) : processes and methods are
excluded
Shorter protection duration (–)
Scope Utility Model Patent
Criteria for
protection
Novelty and
industrial application
Novelty,
non-obviousness (or inventive step),
and industrial application
Examination
requirement
Usually only formality1 Formality
and substantive examinations
Term of protection Between four to ten years2 20 years
Note 1: Some countries also require substantive examination (e.g. Brazil, Mexico, Malaysia, Uruguay)
2 Two countries studied grants UM protection for more than 10 years – Brazil at 15 years of protection and Malaysia at
20 years.
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6. Why UM protection is non-trivial?
Geared to protect inventions that are incremental and
adaptive
Less stringent criteria than patents
Could be a useful stepping stone for inventors not yet inventing at
the technological frontier
Shorter protection duration expected to coincide with the
faster product life cycle
Some evidence that UM (and industrial designs) were more
predominantly used by firms operating in industries using medium-
low technologies
Cheaper to obtain than patents
Makes it accessible to smaller and independent applicants
Affords market exclusivity like patents
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7. Aggregating gives a more accurate
innovation picture?
UM and patents are complementary IP instruments
UM covers incremental inventions while patents cover new-to-
the-world type of inventions
But, they could be substitutes
Could be strategic to file for UM than patents due to ease of
registration, price, etc.
Still, it is more probable that they are more
complementary than substitutes due to perception of UM
versus patents
Patents tend to be perceived as higher quality and with more
legal certainty than UM
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8. World distribution of UMs (vs Patents)
Table 1 - Resident utility model and patent applications by income and regions
(2000-2014)
Resident UM/patent
Utility models Patents Ratio
World 6,212,500 100.0% 17,737,600 100.0% 0.3502
High-income 991,193 16.0% 13,351,200 75.3% 0.0742
Upper middle-income 5,062,644 81.5% 4,109,100 23.2% 1.2321
Lower middle-income 109,015 1.8% 194,100 1.1% 0.5616
Low-income 414 0.0% 83,200 0.5% 0.0050
Asia 5,489,093 88.4% 10,941,800 61.7% 0.5017
Europe 596,355 9.6% 3,172,800 17.9% 0.1880
Latin America and the Caribbean 62,238 1.0% 97,400 0.5% 0.6390
Oceania 14,704 0.2% 62,600 0.4% 0.2349
Africa 876 0.0% 29,100 0.2% 0.0301
China 4,939,466 79.5% 3,760,562 21.2% 1.3135
World (w/o China) 1,273,034 20.5% 13,977,038 78.8% 0.0911
Upper middle-income (w/o China) 123,178 2.0% 348,538 2.0% 0.3534
Asia (w/o China) 549,627 8.8% 7,181,238 40.5% 0.0765
Source: WIPO Statistics Database (December 2015).
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10. Different use through time (and development?)
Figure 1 - Trends of utility model/patents ratio, selected countries (1980-2014)
Source: WIPO Statistics Database (December 2015).
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12. Multivariate analysis
Determinants of the probability to file a UM instead of a
patent for a given invention.
Country and Technologies FEs
Estimation LPM (and Probit)
Sample:
3,194,259 observations (inventions seeking IP protection)
43% have sought UM protection
27 countries: Argentina, Austria, Bulgaria, Brazil, Chile, China,
Colombia, Czech Republic, Germany, Denmark, Estonia, Spain,
Finland, France, Georgia, Hungary, Italy, Moldova, Peru,
Philippines, Poland, Portugal, Serbia, Slovakia, Turkey, Ukraine,
and Uruguay.
China roughly 50% of sample
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13. Robust results in
multivariate analysis
coef se coef se
No technology -0.095*** 0.003 0.104*** 0.003
1 Electrical machinery, apparatus, energy 0.004** 0.002 0.020*** 0.002
2 Audio-visual technology -0.103*** 0.002 0.101*** 0.003
3 Telecommunications -0.246*** 0.002 -0.044*** 0.003
4 Digital communication -0.531*** 0.002 -0.112*** 0.002
5 Basic communication processes -0.246*** 0.004 -0.129*** 0.004
6 Computer technology -0.325*** 0.002 -0.088*** 0.003
7 IT methods for management -0.452*** 0.005 -0.114*** 0.006
8 Semiconductors -0.351*** 0.003 -0.106*** 0.003
9 Optics -0.201*** 0.003 -0.042*** 0.003
10 Measurement -0.111*** 0.002 -0.064*** 0.002
11 Analysis of biological materials -0.252*** 0.005 -0.009* 0.005
12 Control -0.078*** 0.002 -0.026*** 0.003
13 Medical technology 0.054*** 0.002 0.076*** 0.003
14 Organic fine chemistry -0.396*** 0.002 -0.022*** 0.003
15 Biotechnology -0.477*** 0.003 -0.075*** 0.003
16 Pharmaceuticals -0.587*** 0.002 0.000 0.003
17 Macromolecular chemistry, polymers -0.544*** 0.003 -0.078*** 0.004
18 Food chemistry -0.459*** 0.003 -0.017*** 0.004
19 Basic materials chemistry -0.466*** 0.002 -0.068*** 0.003
20 Materials, metallurgy -0.399*** 0.002 -0.083*** 0.003
21 Surface technology, coating -0.232*** 0.003 -0.060*** 0.004
22 Micro-structural and nano-technology -0.530*** 0.007 -0.131*** 0.007
23 Chemical engineering -0.043*** 0.002 0.005 0.003
24 Environmental technology -0.092*** 0.002 0.006* 0.003
25 Handling 0.086*** 0.002 0.139*** 0.003
26 Machine tools 0.006*** 0.002 0.037*** 0.003
27 Engines, pumps, turbines -0.120*** 0.002 -0.101*** 0.002
28 Textile and paper machines -0.139*** 0.002 -0.071*** 0.003
29 Other special machines -0.012*** 0.002 0.068*** 0.003
30 Thermal processes and apparatus 0.027*** 0.002 0.064*** 0.003
32 Transport -0.031*** 0.002 -0.003 0.002
33 Furniture, games 0.162*** 0.002 0.275*** 0.003
34 Other consumer goods 0.103*** 0.002 0.206*** 0.003
35 Civil engineering 0.069*** 0.002 0.162*** 0.002
China included
note: *** p<0.01, ** p<0.05, * p<0.1
Technology FEs
yes no
(1) (2)
Reference = Mechanical elements (tec 31)
Different
application
across
technological
fields
(industries)
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14. Country
heterogeneity
Robust results in
multivariate analysis
Country FEs coef se coef se
AR -0.470*** 0.005 -0.586*** 0.005
AT -0.465*** 0.013 0.366*** 0.015
BG -0.092*** 0.010 -0.191*** 0.010
CL -0.439*** 0.020 -0.491*** 0.019
CN 0.400*** 0.003 - -
CO -0.447*** 0.009 -0.694*** 0.006
CZ -0.012 0.007 0.335*** 0.007
DE -0.393*** 0.012 0.443*** 0.014
DK -0.410*** 0.013 0.385*** 0.015
EE -0.041*** 0.014 -0.063*** 0.014
ES -0.360*** 0.009 0.098*** 0.009
FI -0.240*** 0.012 0.679*** 0.016
FR -0.579*** 0.010 0.099*** 0.012
GE 0.098** 0.045 -0.195*** 0.041
HU -0.303*** 0.006 -0.191*** 0.006
IT -0.654*** 0.010 -0.194*** 0.010
MD -0.170*** 0.007 -0.443*** 0.007
PE 0.089*** 0.021 -0.131*** 0.024
PH -0.347*** 0.033 -0.690*** 0.021
PL -0.325*** 0.004 -0.263*** 0.004
PT -0.417*** 0.010 -0.111*** 0.010
RS -0.258*** 0.014 -0.343*** 0.014
SK -0.570*** 0.008 -0.490*** 0.007
TR 0.127*** 0.004 0.140*** 0.004
UA 0.397*** 0.003 0.317*** 0.003
UY -0.021 0.031 -0.143*** 0.031
China included
note: *** p<0.01, ** p<0.05, * p<0.1
yes no
Reference = BR
(1) (2) 14
15. Other determinants
DV = UM (1/0)
Variables coef se coef se
year -0.003*** 0.000 0.005*** 0.000
GDP per capita 2.36E-05*** 0.000 -1.55E-07 0.000
GERD/GDP -0.172*** 0.003 -0.347*** 0.004
Patent family -0.008*** 0.000 -0.012*** 0.000
Citations -0.006*** 0.000 -0.002*** 0.000
Applicants -0.008*** 0.000 0.008*** 0.000
Inventors -0.024*** 0.000 -0.053*** 0.000
Constant 6.255*** 0.458 -8.810*** 0.444
country FEs
tecnology FEs
China included
note: *** p<0.01, ** p<0.05, * p<0.1
yes yes
yes yes
yes no
(1) (2)
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16. Conclusion
We explore conceptually and empirically the potential of
utility model data as an innovation indicator
We conclude the UM indicators and micro-studies can
complement the patent related ones.
We found differences across countries, industries, economic
development and innovation systems.
Also, UM are more local, less valuable, and developed by smaller
and more isolated entities.
Caveat: UM protection varies according to legal jurisdictions, thus
careful when conducting cross-country comparisons
Formality versus substantive examination differences
Term of protection differences
Subject matter differences
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