Innovation and institutional change: the transition to a sustainable ...
Innovation and institutional change: the transition to a sustainable ... Innovation and institutional change: the transition to a sustainable ...
Stability and transformation in the electricity system 115 visions of pioneers 42 , later on distribution companies become more strongly involved in solar energy in order to reach CO2 and renewable energy targets set in the environmental action plan; – The PV network has emerged relatively bottom-up in the Netherlands, a PV group (1991/92) and later platform (1994/95) was founded to discuss the scope for development and implementation of PV. In its application phase PV demands the collaboration of various actors as the systems are currently mostly integrated in housing projects. This formed the basis for the PV covenant that was in 1997 concluded between PV R&D groups, consultancy firms, energy companies, real estate developers and architects. In this sense the PV network was structured by the conditions needed for implementation, and less by the funding provided by government as was the case for wind, although the new formulated PV program of 1997 with doubled budgets relative to the previous program was in incentive; – At the demand side, Greenpeace plays a role through its Solaris project, that aims to generated large scale demand for PV modules, based on the assumption that large scale production will significantly drive costs down; – Dutch industry has played a mixed role in PV development. Shell Solar is involved and had significant production capacity but closed down its production facility for PV modules in Helmond in 2002 and shifted production to Gelsenkirchen, Germany. Philips is involved in inverter production and Akzo Nobel in R&D on thin-film technology and production; – Oil companies such as Shell and BP increasingly are becoming energy companies that expect a large potential for PV technology in the medium to long term. Shell Solar was, through its subsidiary R&S among the first industries to enter the PV-platform, in 1999 BP joined through its subsidiary SolarNed (Van Mierlo, 2002: 301). An interesting policy development took place for photovoltaic technology in 1997 when the Dutch Ministry of Economic Affairs published its vision on sustainable energy in “Renewable Energy – Advancing Power” (EZ, 1997). In this document, photovoltaic technology was considered to be the most important option for electricity generation in the long term, and could be expected to break through from 2020 on. Efforts were thus concentrating on providing a path facilitating and preparing for this breakthrough. The document also provided the starting point for the set up of a PV covenant between various actors involved in the production and use of PV modules. 42 Activities of these energy companies can partly be explained by the strong involvement of pioneer Daey Ouwens in his work at the province of North-Holland (Knoppers, 2000).
116 Chapter 4 Parties involved are government, distributors and their organisation EnergieNed, PV-industries, construction industries, ECN and Novem. In the covenant it was declared that they would make PV a competitive as an energy source for the 21st century. Budgets for PV increased significantly from 1997 to 2000 to annual averages of around 19 million Euro from annual averages around 5 million Euro in the period 1990-1997 (Van Mierlo, 2002: 227). The focus shifted from fundamental research to pilot projects and market introduction. The support system was fundamentally changed in 2001 as the specific R&D programme for PV was terminated. Only for offshore wind and biomass specific programmes remained as they were expected to significantly contribute to the target of 10% renewable energy in 2020. In a more broader renewable energy R&D programme for PV could compete with other options for support. The most important change was the inclusion of PV in the energy premium regulation which covered around half of investments in PV modules (Van Mierlo, 2002: 229). This led to thousands of customers buying small PV panels (IEA, 2003). This process was abruptly stopped at the end of 2003 when support through the energy premium regulation was cancelled by the new government coalition and a stronger R&D orientation was re-introduced. The result was that in 2004 the PV market in the Netherlands fell dramatically. Total installed capacity in 2004 was only one-fifth of that in the previous years. Changes in policy were responsible for this reversal. The so-called energy premium policy, under which solar panels were eligible for investment subsidies, was abolished, and utility subsidies for private panel owners ended due to the change from demand oriented exemptions for the regulatory energy tax towards feed-in premiums. As a consequence, several actors withdrew from the PV market and many project developers and contractors shifted their focus to foreign countries, in particular Germany (IEA, 2005). What this last example indicates is the way policy measures can reinforce ongoing dynamics. Similarly, policy measures can also dampen dynamics as in the case for solar energy, where changes in policies slowed down the growth rates of installed PV capacity dramatically. The main motivation of the Minister of Economic Affairs is that PV is not feasible, can not contribute significantly in the short term, and has no industrial priority, arguments which significantly diverged from the position of the Ministry in 1997, when strong long-term potential of PV was emphasised. Other countries have developed rather different cycles of expectations, approaches, and policies, such as the policy of Japan, where the aim is to produce 50% of power with PV by 2030, where capacity topped 1000 MW in 2004 with 270 MW installed in that year, and where a range of companies, mainly from the semi-conductor and electronics sector, have become top producers of PV.
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116 Chapter 4<br />
Parties involved are government, distribu<strong>to</strong>rs <strong>and</strong> <strong>the</strong>ir organisation<br />
EnergieNed, PV-industries, construction industries, ECN <strong>and</strong> Novem. In <strong>the</strong><br />
covenant it was declared that <strong>the</strong>y would make PV a competitive as an<br />
energy source for <strong>the</strong> 21st century. Budgets for PV increased significantly<br />
from 1997 <strong>to</strong> 2000 <strong>to</strong> annual averages of around 19 million Euro from<br />
annual averages around 5 million Euro in <strong>the</strong> period 1990-1997 (Van Mierlo,<br />
2002: 227). The focus shifted from fundamental research <strong>to</strong> pilot projects<br />
<strong>and</strong> market introduction. The support system was fundamentally <strong>change</strong>d in<br />
2001 as <strong>the</strong> specific R&D programme for PV was terminated. Only for offshore<br />
wind <strong>and</strong> biomass specific programmes remained as <strong>the</strong>y were<br />
expected <strong>to</strong> significantly contribute <strong>to</strong> <strong>the</strong> target of 10% renewable energy in<br />
2020. In a more broader renewable energy R&D programme for PV could<br />
compete with o<strong>the</strong>r options for support. The most important <strong>change</strong> was <strong>the</strong><br />
inclusion of PV in <strong>the</strong> energy premium regulation which covered around half<br />
of investments in PV modules (Van Mierlo, 2002: 229). This led <strong>to</strong><br />
thous<strong>and</strong>s of cus<strong>to</strong>mers buying small PV panels (IEA, 2003). This process<br />
was abruptly s<strong>to</strong>pped at <strong>the</strong> end of 2003 when support through <strong>the</strong> energy<br />
premium regulation was cancelled by <strong>the</strong> new government coalition <strong>and</strong> a<br />
stronger R&D orientation was re-introduced. The result was that in 2004 <strong>the</strong><br />
PV market in <strong>the</strong> Ne<strong>the</strong>rl<strong>and</strong>s fell dramatically. Total installed capacity in<br />
2004 was only one-fifth of that in <strong>the</strong> previous years. Changes in policy were<br />
responsible for this reversal. The so-called energy premium policy, under<br />
which solar panels were eligible for investment subsidies, was abolished,<br />
<strong>and</strong> utility subsidies for private panel owners ended due <strong>to</strong> <strong>the</strong> <strong>change</strong> from<br />
dem<strong>and</strong> oriented exemptions for <strong>the</strong> regula<strong>to</strong>ry energy tax <strong>to</strong>wards feed-in<br />
premiums. As a consequence, several ac<strong>to</strong>rs withdrew from <strong>the</strong> PV market<br />
<strong>and</strong> many project developers <strong>and</strong> contrac<strong>to</strong>rs shifted <strong>the</strong>ir focus <strong>to</strong> foreign<br />
countries, in particular Germany (IEA, 2005).<br />
What this last example indicates is <strong>the</strong> way policy measures can reinforce<br />
ongoing dynamics. Similarly, policy measures can also dampen dynamics as<br />
in <strong>the</strong> case for solar energy, where <strong>change</strong>s in policies slowed down <strong>the</strong><br />
growth rates of installed PV capacity dramatically. The main motivation of<br />
<strong>the</strong> Minister of Economic Affairs is that PV is not feasible, can not<br />
contribute significantly in <strong>the</strong> short term, <strong>and</strong> has no industrial priority,<br />
arguments which significantly diverged from <strong>the</strong> position of <strong>the</strong> Ministry in<br />
1997, when strong long-term potential of PV was emphasised. O<strong>the</strong>r<br />
countries have developed ra<strong>the</strong>r different cycles of expectations, approaches,<br />
<strong>and</strong> policies, such as <strong>the</strong> policy of Japan, where <strong>the</strong> aim is <strong>to</strong> produce 50% of<br />
power with PV by 2030, where capacity <strong>to</strong>pped 1000 MW in 2004 with 270<br />
MW installed in that year, <strong>and</strong> where a range of companies, mainly from <strong>the</strong><br />
semi-conduc<strong>to</strong>r <strong>and</strong> electronics sec<strong>to</strong>r, have become <strong>to</strong>p producers of PV.