Chapter 3
The Economics of Innovation and R&D
Innovation and productivity
3.1
The earliest models of economic growth focused on two inputs: labour and
capital. When these models were confronted with data, it was soon evident that
output grew faster than these inputs. The difference represents productivity
improvements which make better use of the inputs.
3.2
As the Nobel prize-winning economist Paul Krugman put it:
Productivity isn't everything, but in the long run it is
almost everything.[1]
3.3
The importance of multi-factor productivity (MFP) growth to the
Australian economy was quantified by the chair of the Productivity Commission:
...over the past four decades MFP growth had 'directly
accounted for over one-third of total real income growth in Australia...'[2]
3.4
The main influence that government can have on productivity growth is
to:
...facilitate aggregate productivity growth by maintaining a
stable economic environment which fosters competition between firms and
flexibility within workplaces. Australian governments also have an important
role in capability building by providing firms with access to appropriate
public infrastructure and investing in the quality of Australia's workforce..[3]
3.5
Productivity improvements can result from innovation, which has been
found to be a key contributor to economic growth:
Professor Robert Solow, from MIT, was awarded the Nobel Prize
in economics in the eighties for demonstrating that technical progress had a
far, far greater impact on driving economic prosperity and growth than, indeed,
labour and capital together. Technical innovation is absolutely key.[4]
Productivity through innovation will be the key to our future
competitiveness.[5]
We have known for several generations that innovation
pre-eminently determines our prosperity.[6]
Innovation is critical to Australia's growth and its
preparedness for emerging economic, social and environmental challenges.[7]
R&D and innovation
3.6
R&D is a primary driver of innovation:
...research and development undertaken by business drives
primary improvements in its productivity...[8]
R&D is a major part of the inovation system.[9]
3.7
It is not, however, the only driver:
Finally, another aspect of innovation which is often
overlooked is the non‑R&D, non-public research element of innovation
and that is organisational innovation—what needs to happen to improve the
management of our organisations to achieve productivity growth.[10]
R&D is only one input into the innovation process.
Innovation...encompasses a vast array of activities in the economy, including
workforce skills, management, venture capital, technology uptake, work
re-organisation and R&D....measures of R&D and innovation are not
strongly correlated.[11]
International comparison of Australia's R&D
3.8
The Australian Bureau of Statistics defines R&D, in accordance with
the OECD standard, as:
...creative work undertaken on a systematic basis in order to increase
the stock of knowledge, including knowledge of man, culture and society, and
the use of this stock of knowledge to devise new applications.[12]
3.9
In R&D spending relative to GDP, Australia ranks around the middle
of the OECD economies (Table 3.1). Perceptions of its spending on R&D place
it lower and legislation is not seen as supportive (Table 3.2).
3.10
There is debate about whether this is too little. Michael Johnson
Associates submitted that business expenditure on R&D 'has remained too low
in Australia compared to our OECD neighbours'.[13]
3.11
The Australian Industry Group was concerned:
Australia continues to lag behind the OECD average on
business expenditure on research and development.[14]
3.12
The Committee heard concerns that Australia's share of global R&D is
dropping:
We know that R&D globally is growing but we no longer are
taking as much share of the global R&D as we were formerly. That
investment, as we have said, is going to India, China and other countries. [15]
3.13
The Productivity Commission is more sanguine:
Real R&D in Australia has been growing quite strongly
since the mid‑1970s but growth has been particularly strong in the 2000s...[16]
3.14
A number of countries have targets for overall R&D (business plus
government and higher education). These targets are mostly 3-4 per cent of GDP,
well over Australia's current level of 2 per cent.[17]
Table 3.1: Business
R&D: International Comparison
|
Business spending on
R&D |
Business enterprise
researchers |
|
% to GDP 2007-08 |
% to value added in
industry 2006 |
per thousand employed in
industry, 2006 |
Japan |
2.7 |
3.7 |
11 |
Sweden |
2.7 |
4.6 |
13 |
Korea |
2.7 |
3.6 |
8 |
Finland |
2.5 |
4.0 |
13 |
United States of America |
1.9 |
3.0 |
11 |
Germany |
1.8 |
2.8 |
6 |
France |
1.3 |
2.3 |
6 |
Singapore |
|
2.0 |
7 |
Australia |
1.3 |
1.7 |
3 |
United Kingdom |
1.2 |
1.7 |
4 |
Canada |
1.1 |
1.6 |
7 |
Netherlands |
1.0 |
1.6 |
5 |
Norway |
0.9 |
1.2 |
7 |
Spain |
0.7 |
1.0 |
3 |
Italy |
0.6 |
0.9 |
2 |
New Zealand |
0.5 |
|
3 |
|
|
|
|
Total OECD |
1.6 |
2.4 |
6 |
Sources: ABS, Research and Experimental Development, Business
2007-08, cat. No. 8104.0; OECD, Main Science and Technology Indicators,
2009/2.
Table 3.2: Global
opinion of business research and development (rankings)
|
Companies spend
heavily on R&D relative to international peers, 2007 |
Scientific research is
supported by legislation, 2008 |
Switzerland |
1 |
2 |
United States |
2 |
7 |
Japan |
3 |
17 |
Germany |
4 |
10 |
Sweden |
5 |
5 |
Korea |
6 |
36 |
Finland |
9 |
11 |
Singapore |
10 |
1 |
United Kingdom |
12 |
25 |
Netherlands |
13 |
15 |
France |
17 |
18 |
Norway |
19 |
23 |
Canada |
21 |
3 |
Hong Kong |
23 |
28 |
Australia |
25 |
13 |
New Zealand |
38 |
12 |
Spain |
48 |
40 |
Sources: World Economic Forum; IMD World Competitiveness Yearbook
2008.
3.15
On the other hand, there are both statistical and conceptual arguments
that Australia spending a smaller proportion of GDP on R&D than other
countries may not constitute a problem at all.
3.16
A study by Treasury economists pointed out:
While business expenditure on R&D in Australia appears
relatively low, this is, to a significant extent, a result of Australia’s
industry structure.[18]
3.17
The Productivity Commission reached a similar conclusion:
After adjusting for Australia's differences in industry
composition (which affects R&D intensity) business R&D intensity is now
3rd amongst 20 key OECD economies...[19]
3.18
Compared to other high-income countries Australia has a smaller share of
R&D-intensive industries such as advanced manufacturing (eg aerospace and
pharmaceuticals). The Treasury economists cite another study which suggests
that this is part of an international pattern:
A country’s R&D intensity is largely a reflection of its
industrial structure. Countries with high R&D intensities have a high share
of their business R&D and a significant part of their economic output in
high-technology sectors. In Finland, Germany, Japan, Switzerland and the United
States, these industries account for three-quarters or more of business-performed
R&D. In low R&D-intensity countries, such as Norway and Australia, high‑technology
industries (and medium-high technology industries) account for less than 40 per
cent — a fact that can be attributed to the natural resource endowments that
these countries enjoy that affects their industrial structure.[20]
3.19
The conceptual argument is put by the Productivity Commission:
...comparisons of input ratios are usually a conceptually
unsound basis for assessing optimal investment in R&D. Nothing says that
'high' input ratios are necessarily better than 'low' ones, since it is
possible to both under- and over-invest in R&D. For most other inputs –
such as labour or capital – the usual interest is not in maximising inputs per
output, but rather maximising its inverse (output per input or productivity).[21]
3.20
On this argument, Australia is performing well:
Australia has a high R&D productivity [which means that]
we get a lot of output for less R&D.[22]
3.21
Another reason for a more optimistic view is that, as argued above,
R&D is valued for its role in stimulating innovation, and Australia's
innovation performance is better than its business R&D would imply (Chart
3.1).
Chart 3.1:
Australia's innovation performance compared with OECD average (percentage
difference)
![Australia's innovation performance compared with OECD average (percentage difference)](/~/media/wopapub/senate/committee/economics_ctte/completed_inquiries/2008_10/research_and_development_tax_credits_10/report/c03_1_gif.ashx)
Source: G Davis and G Tunny,
'International comparisons of research and development', Economic Roundup,
Spring 2005, p. 78.
3.22
Distinguishing between components of R&D, Treasury economists found
that Australian businesses do similar amounts of 'basic research' to their
international peers, less 'applied research' and much less 'experimental
development'.[23]
As a House Economics Committee report said:
This view that Australians are better at inventing than
commercialising agrees with anecdotal evidence. Australians invented the atomic
absorption spectrophotometer, the black box flight recorder and the orbital
engine but all were commercialised overseas.[24]
3.23
Some submissions made a similar point:
This “Experimental Development” phase of R&D has long
been recognised as the step that Australia is poor at...[25]
Australia is great at inventing. Commercialising new ideas is
where the assistance of the tax credit is vital to improving its success rate
and productivity.[26]
Australia as a base for R&D
3.24
The Committee heard that Australia's advantages as a venue for R&D
are being eroded:
Australia is home to some of the world’s best medical
researchers and healthcare professionals. We know that it has world-class
research infrastructure, a stable socioeconomic environment, a strong
intellectual property system and an efficient regulatory system...But these
factors alone are no longer sufficient to stimulate investment growth. There
are several reasons for this. The most important among them is the rapid
transformation of developing nations in Asia, South America and Eastern Europe
as viable destinations for long-term investment in research and development...We
all know that India and China have made incredible progress in the past 10
years, not only in terms of their economic development but also as locations
for clinical research. We know that countries like Poland, Hungary and even
Russia have rapidly emerged from the shadows of the Cold War to become vibrant
and progressive members of the world community. While we may marvel at the
speed of their success, we should also be worried about the impact this has on
Australia, and be particularly worried because, while Australia remains an
attractive location for R&D investment for our industry, other countries
are now looking even more attractive. Australia is already beginning to attract
less biopharmaceutical industry investment in clinical research.[27]
3.25
There may be benefits in keeping R&D within Australia:
We are assisting to keep those brightest and best minds here
in Australia.[28]
Alternative views on R&D assistance
3.26
A recent survey concluded:
...few countries have undertaken rigorous cause and effect
modelling of public policies designed to boost productivity growth.[29]
3.27
As an example of conflicting views, two UK studies reached differing
conclusions about the effectiveness of R&D tax incentives:
Our results tentatively suggest that government innovation
policy should focus on direct spending on innovation, specifically funding for
research councils, rather than through tax incentives to firms.[30]
We find evidence that tax incentives are effective in
increasing R&D intensity...a 10% fall in the cost of R&D stimulates just
over a 1% rise in the level of R&D in the short-run, and just under a 10%
rise in R&D in the long run.[31]
3.28
An international comparison by two Treasury economists did not find any
evidence that companies in countries with more generous tax concessions do more
R&D.[32]
Interpreting this lack of correlation is problematic. It could be that R&D
assistance is just ineffective in raising R&D. Alternatively, the causation
could be running the other way: countries where R&D is low spend more than
countries where it is already high, and this inverse correlation offsets any
positive correlation.
3.29
One body which did conduct an analysis of the role of R&D tax concessions
is the Department of Industry, Tourism and Resources. Their 2007 study
concluded:
The R&D Tax Concession has a strong overall impact on
firm behaviour both during the project and after its completion.
There were few firms surveyed that reported little or no change in behaviour as
a result of using the R&D Tax Concession, with 86% of firms changing
behaviour during their R&D project and 98% of firms reporting
behavioural change after the project...As many as 4,403 firms have a
‘stronger understanding of the benefits to the firm of R&D and
commercialisation’, 4,186 have an ‘enhanced commitment to R&D including
through increased R&D resources’ and that for 3,856 firms, the projects
proceeded more quickly due to the R&D Tax Concession...An estimate of the economic
impact from changes in behaviour induced by the R&D Tax Concession was in
the range of $150m to $300m in 2004-05...These findings suggest that the impact
of programs may become embedded in the participating firm’s commercialisation
processes and increases its capacity to effectively undertake R&D.[33]
Committee view
3.30
The Committee notes that Australia's R&D performance, allowing for
its industrial structure, is comparable to its peers. The Committee believes
there is potential for R&D to support growth in the economy through the
better targeting of assistance and changes to intellectual property as proposed
by this bill.
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