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 113 Table 4.5 Landmarks in PV development 40 1839 Becquerel discovers the photovoltaic effect 1954 Bell Laboratories develops PV cell with 4.5-6% electrical efficiency 1957 First PV cell in the Netherlands, at Philips Nat Lab 1958 Vanquard I satellite launched with six solar PV cells, first PV powered satellites 1963 Sharp Corporation succeeds in producing practical silicon PV modules 1970 KEMA starts research on renewable energy (three solar cell houses at KEMA grounds) 1972 TUE starts with research on PV by researcher Daey-Ouwens (transferred from Philips) 1973 PV system (1 kW) of Philips panels (French subsidiary) constructed at KEMA grounds. 1975 EU R&D program for solar PV cells 1976 Dutch branch of ISES (International Solar Energy Society, 1956) founded as interest group for PV with Van Koppen (TUE), Turkenburg (UU), and Francken (RUG). 1978 Solar energy program started (NOZ-1), focus on thermal, not on PV 1980 Holecsol produces semi crystalline cells (van Solingen), with license from Solarex (US) Kema builds solar panel for hospital in Tanzania (as part of development aid) Several research groups engage in PV research (TUE, UU, Nijmegen, Amsterdam, TUD en Amolf), not yet funded by NOW 1981 AMOLF starts PV related research program 1982 Second Solar Program (NOZ-2), with some PV projects (7 out of 46) 1982 AMOLF collaborates in PV research with Holecsol 1984 Shell starts Renewable Energy Systems, takes over personnel from Holecsol 1986 NOZ-3 with specific PV part (NOZ-PV-1) Collaboration Amolf with Holecsol continued in collaboration with R&S Renewable Energy Systems (now Shell Solar Energy) KEMA reduces PV research and focuses on standards and testing of PV panels Solar energy activities started at Ecofys in Utrecht 1988 Stand alone PV house in Castricum, 2.5 kWp Amolf approaches ECN regarding PV program 1989 First grid-connected PV system in the Netherlands (1.2 kWp) operational at ECN 1990 Government R&D Program NOZ-PV-2 1991 First 10 houses with grid connected PV in Heerhugowaard (Novem and Pen) 1994 AC module developed (with Ac-Dc inverter) ; All electric zero energy house with 3.3 kWp Consultancy platform PV is formed 1995 Housing district in Nieuw Sloten with grid connected PV (250 kWp) 1996 First professor in PV technology (Sinke) 1997 PV covenant concluded between various actors and government 1999 Shell Solar Energy formed as follow up from R&S 1999 ECN forms business unit Solar Energy (around 50 people) 2000 1 MW PV project at Nieuwland (REMU, Ecofys, Novem, EU, a.o.) 2002 2.3 MWp solar roof installed at Floriade (NUON, Siemens, Shell Solar, Econ. Affairs) 2003 Installed PV rises with 80%, particularly through private panel owners 2004 Dramatic drop in PV growth as various subsidies are discontinued; re-orientation of PV policy on R&D 40 Sources: Sinke, 2000; Knoppers, 2000; Kruijsen, 1999; PV Power, The history of PV, available at website http://pvpower.com/pvhistory.html.
114 Chapter 4 Table 4.6 Evolution of installed capacity of PV in the Netherlands41 (in MW/p) 50 45 40 35 30 25 20 15 10 5 0 1990 1991 1992 1993 1994 1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 Several observations regarding PV development and implementation can be made. PV technology has been able to develop through a process of niche cumulation: – Early developments and applications for PV originate in space programs (first market niche), with NASA and US companies as driving actors, and were also facilitated by research from the electronics industry on semiconductors; – The oil crisis directed attention towards potential for power production, early applications are mainly stand-alone DC systems (second market niche); – Grid connected systems increased when AC-DC conversion was facilitated, although connection to the grid incorporates extra costs as compared to autonomous systems (third niche); – Building-integrated PV has become the major market for PV in the past decade. Efforts have resulted in cost reductions, performance improvements, the development of new integration products and the creation of a network with utilities, property developers, architects, building companies and local authorities (Schoen, 2001). Also the network of actors involved in PV has significantly broadened in the past decade. The main developments can be characterised as follows: – In early projects, frontrunners regarding PV application such as the energy companies of North-Holland and Amsterdam were driven by 41 Data based on CBS (2004) except for 2004 data from the International Energy Agency website, http://www.oja-services.nl/iea-pvps/isr/index.htm, accessed 4 July 2005.
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114 Chapter 4<br />
Table 4.6 Evolution of installed capacity of PV in <strong>the</strong> Ne<strong>the</strong>rl<strong>and</strong>s41 (in<br />
MW/p)<br />
50<br />
45<br />
40<br />
35<br />
30<br />
25<br />
20<br />
15<br />
10<br />
5<br />
0<br />
1990 1991 1992 1993 1994 1995 1996 1997 1998 1999 2000 2001 2002 2003 2004<br />
Several observations regarding PV development <strong>and</strong> implementation can be<br />
made. PV technology has been able <strong>to</strong> develop through a process of niche<br />
cumulation:<br />
– Early developments <strong>and</strong> applications for PV originate in space programs<br />
(first market niche), with NASA <strong>and</strong> US companies as driving ac<strong>to</strong>rs, <strong>and</strong><br />
were also facilitated by research from <strong>the</strong> electronics industry on<br />
semiconduc<strong>to</strong>rs;<br />
– The oil crisis directed attention <strong>to</strong>wards potential for power production,<br />
early applications are mainly st<strong>and</strong>-alone DC systems (second market<br />
niche);<br />
– Grid connected systems increased when AC-DC conversion was<br />
facilitated, although connection <strong>to</strong> <strong>the</strong> grid incorporates extra costs as<br />
compared <strong>to</strong> au<strong>to</strong>nomous systems (third niche);<br />
– Building-integrated PV has become <strong>the</strong> major market for PV in <strong>the</strong> past<br />
decade. Efforts have resulted in cost reductions, performance<br />
improvements, <strong>the</strong> development of new integration products <strong>and</strong> <strong>the</strong><br />
creation of a network with utilities, property developers, architects,<br />
building companies <strong>and</strong> local authorities (Schoen, 2001).<br />
Also <strong>the</strong> network of ac<strong>to</strong>rs involved in PV has significantly broadened in <strong>the</strong><br />
past decade. The main developments can be characterised as follows:<br />
– In early projects, frontrunners regarding PV application such as <strong>the</strong><br />
energy companies of North-Holl<strong>and</strong> <strong>and</strong> Amsterdam were driven by<br />
41 Data based on CBS (2004) except for 2004 data from <strong>the</strong> International Energy Agency<br />
website, http://www.oja-services.nl/iea-pvps/isr/index.htm, accessed 4 July 2005.