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 79 found out that indirect benefits are often more significant, contributing to a significant rise in productivity, especially when accompanied by changes in the production process. Electric power turned out to be less error-prone and more flexible. Especially when the line shaft system, where machines were driven mechanically by a central power source through a complex system of shafts and belts, was replaced by electric group drive and later electric unit drive, electricity could serve as a lever in production. These new practices were also actively promoted by the Edison oriented utilities as it fitted their growth dynamic vision. Detroit Edison, for example, was lending motors to manufacturing plants in combination with free energy services to ensure proper installation and higher productivity and to safeguard expansion of electricity consumption (Devine, 1983: 370). Crucial was that electricity was perceived in a different light, not as part of the existing ways of doing things, but as enabling new, more efficient and more productive practices. According to Devine (1983: 372): “a fundamental change in viewpoint preceded and accompanied exploitation of the unique flexibility of electricity in production”, a change in belief that, at the turn to the twentieth century, was increasingly voiced by leading engineers, academics and entrepreneurs. Thus, experiences and learning within companies, the translation of these experiences into new configurations of technologies and organisation of production, and the active promotion of these new configurations by opinion leaders and utilities, were significant factors in the rapid proliferation of electric motors. The emergence of the electricity system as a process of institutionalisation In the early period of the electricity system various technological and organisational forms were available, used, and feasible depending on specific conditions. In a process of institutionalisation where specific actor groups were able to dominate processes of regulatory, normative (who was part of electricity industry), and cognitive (developing a growth dynamics vision and interpretation about how the electricity system was to be organised) institution building, various principles started to underpin the dominancy of the central station electricity system. Continuous optimisation of the system by increasing scales, maintaining reliability and reducing operation costs, and further shaping of demand through increasing use of (new) electrical equipment continued to be important drivers of the development of the electricity system until the 1970s. Electricity systems featured stable growth paths based on increasing returns to scale for steam turbines, monopolistic organisation that secured payback of large scale investments in power plants, growth of electricity demand due to economic growth and electrification (network externalities), and policies towards security of resource supply. Electricity producers aimed at expanding and
80 Chapter 4 improving the system and worked “to decrease outside influences so they could acquire greater control over elements that might have destabilized their rule. (They) achieved closure partly by encouraging the creation of conservative inventions, such as steadily improving steam-turbine generators, which originated within the system and reinforced the authority held by the existing elites” (Hirsh, 1999: 3). While the evolution of the electricity system can be traced back as based on a certain logic related to the characteristics of dominant technological and organisational forms, an ascendant path could only emerge through the way these forms became aligned through processes of institution building by influential networks of actors in policy fields as well as in the fields of knowledge, market and civil society. 4.3 The shift from coal to gas in the fossil base of Dutch electricity generation The Dutch electricity system is predominantly based on the combustion of fossil fuels for the production of electricity. The geographical conditions are ill suited for the production of hydropower and this option is virtually nonexistent. Geological conditions provided for coal and gas as a local input for power plants. In the Netherlands thermal power plants dominate the production of electricity. Until around 1965 mainly coal is used as input for power plants. With the discovery of the large Slochteren field, Dutch natural gas becomes available for the production of electricity from the beginning of the sixties and the share of coal drops in electricity generation. Natural gas has become the main fossil fuel in electricity generation as is shown in Figure 4.2, which gives an overview of the fuel base of the Dutch electricity system. Crucial for this changeover to gas was the creation of an institutional framework for the exploitation, development and use of gas and the development of a master plan for a nationwide gas pipeline infrastructure that would connect all private households to the gas grid within ten years (Arentsen and Künneke, 2003; Correljé and Verbong, 2004). Gasunie, a public-private company negotiated between the Dutch state, Exxon and Shell, became the principal actor in the coordination of gas supply and demand. The institutional framework for gas and the associated government resource use policy also directly impacted the power sector’s resource base. The initial idea of gas as a transition resource in anticipation of a shift to nuclear energy led to unlimited use of low-priced gas in the power sector. The oil crises changed perceptions, expectations and policy: now prudent use of gas through a small field policy was declared, leading to re-orientation of strategies towards coal. When the effects of the oil crises subsided and the
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Stability <strong>and</strong> transformation in <strong>the</strong> electricity system 79<br />
found out that indirect benefits are often more significant, contributing <strong>to</strong> a<br />
significant rise in productivity, especially when accompanied by <strong>change</strong>s in<br />
<strong>the</strong> production process. Electric power turned out <strong>to</strong> be less error-prone <strong>and</strong><br />
more flexible. Especially when <strong>the</strong> line shaft system, where machines were<br />
driven mechanically by a central power source through a complex system of<br />
shafts <strong>and</strong> belts, was replaced by electric group drive <strong>and</strong> later electric unit<br />
drive, electricity could serve as a lever in production. These new practices<br />
were also actively promoted by <strong>the</strong> Edison oriented utilities as it fitted <strong>the</strong>ir<br />
growth dynamic vision. Detroit Edison, for example, was lending mo<strong>to</strong>rs <strong>to</strong><br />
manufacturing plants in combination with free energy services <strong>to</strong> ensure<br />
proper installation <strong>and</strong> higher productivity <strong>and</strong> <strong>to</strong> safeguard expansion of<br />
electricity consumption (Devine, 1983: 370). Crucial was that electricity was<br />
perceived in a different light, not as part of <strong>the</strong> existing ways of doing things,<br />
but as enabling new, more efficient <strong>and</strong> more productive practices.<br />
According <strong>to</strong> Devine (1983: 372): “a fundamental <strong>change</strong> in viewpoint<br />
preceded <strong>and</strong> accompanied exploitation of <strong>the</strong> unique flexibility of electricity<br />
in production”, a <strong>change</strong> in belief that, at <strong>the</strong> turn <strong>to</strong> <strong>the</strong> twentieth century,<br />
was increasingly voiced by leading engineers, academics <strong>and</strong> entrepreneurs.<br />
Thus, experiences <strong>and</strong> learning within companies, <strong>the</strong> translation of <strong>the</strong>se<br />
experiences in<strong>to</strong> new configurations of technologies <strong>and</strong> organisation of<br />
production, <strong>and</strong> <strong>the</strong> active promotion of <strong>the</strong>se new configurations by opinion<br />
leaders <strong>and</strong> utilities, were significant fac<strong>to</strong>rs in <strong>the</strong> rapid proliferation of<br />
electric mo<strong>to</strong>rs.<br />
The emergence of <strong>the</strong> electricity system as a process of <strong>institutional</strong>isation<br />
In <strong>the</strong> early period of <strong>the</strong> electricity system various technological <strong>and</strong><br />
organisational forms were available, used, <strong>and</strong> feasible depending on<br />
specific conditions. In a process of <strong>institutional</strong>isation where specific ac<strong>to</strong>r<br />
groups were able <strong>to</strong> dominate processes of regula<strong>to</strong>ry, normative (who was<br />
part of electricity industry), <strong>and</strong> cognitive (developing a growth dynamics<br />
vision <strong>and</strong> interpretation about how <strong>the</strong> electricity system was <strong>to</strong> be<br />
organised) institution building, various principles started <strong>to</strong> underpin <strong>the</strong><br />
dominancy of <strong>the</strong> central station electricity system. Continuous optimisation<br />
of <strong>the</strong> system by increasing scales, maintaining reliability <strong>and</strong> reducing<br />
operation costs, <strong>and</strong> fur<strong>the</strong>r shaping of dem<strong>and</strong> through increasing use of<br />
(new) electrical equipment continued <strong>to</strong> be important drivers of <strong>the</strong><br />
development of <strong>the</strong> electricity system until <strong>the</strong> 1970s. Electricity systems<br />
featured stable growth paths based on increasing returns <strong>to</strong> scale for steam<br />
turbines, monopolistic organisation that secured payback of large scale<br />
investments in power plants, growth of electricity dem<strong>and</strong> due <strong>to</strong> economic<br />
growth <strong>and</strong> electrification (network externalities), <strong>and</strong> policies <strong>to</strong>wards<br />
security of resource supply. Electricity producers aimed at exp<strong>and</strong>ing <strong>and</strong>