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The Industrial Life Cycle Of Wind Energy Electrical Power Generation Ari Methodology Modeling Of Life Cycle Dynamics

机译:风能发电的工业生命周期生命周期动力学的Ari方法论建模

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This innovation assessment addresses the factors that have influenced the exceptionally lengthy industrial technology life cycle of wind electrical power generation since its inception in the late 19th Century. It then applies the recently developed Accelerated Radical Innovation (ARI) Model to understand the dynamics of this innovation compared to those of other major 18th-20th Century innovations. Despite market pull in the late 19th Century to link small DC electrical generators with hundreds of thousands of existing wind mills used for mechanical water pumping, several factors prevented this from happening. These include the intermittent nature of wind electrical generation requiring low cost battery storage and DC-AC conversion, and the shift in the 1890s from DC to superior AC electrical generation making possible economies of scale for delivering AC electricity long distances over the grid from large hydroelectric and coal fired plants. As a consequence, wind generated electricity remained primarily a technological development until the first energy crisis in the 1970s. Development of an extensive science and technology base for wind turbine dynamics, and deployment since 2000 of commercial scale wind turbines (> 1MW) have elevated wind electrical power generation to commercial practicality, as described in two earlier papers by the authors applying technical cost modeling and experience curve projections of cost of energy (COE) to explore the economic viability of large scale wind electricity generation.. Strongly promoted by wind energy communities of practice in Europe, North America and Asia, normative COE projections suggest that by 2020 wind electrical power will be cost competitive, without tax incentives, with electricity from conventional fossil and nuclear fuel sources. Overcoming technological, business, market, societal, networking and political hurdles to date has required 120years of development to establish wind electricity generation as a breakthrough innovation with the capability to capture 20% of the world electricity market by the mid-to-late 21 st Century. Further growth and maturation is expected to continue to 2100, corresponding to a projected s 210year overall industry life cycle at market saturation. This finding has profound implications for innovation theory and practice, since the length of this life cycle exceeds by a factor of ≌ 4 the average life cycle diagnosed for five industrial revolutions and four key 20th Century innovations. The new ARI model provides a holistic approach to understanding the dynamics of the industrial technology life cycle for a wide variety of radical innovations as well as wind electrical power.
机译:自19世纪末开始以来,这项创新评估解决了影响风力发电异常长的工业技术生命周期的因素。然后,它使用最新开发的加速自由基创新(ARI)模型来了解与18-20世纪其他主要创新相比的创新动力。尽管在19世纪后期市场将小型直流发电机与成千上万的用于机械式抽水的风车连接起来,但是,有几个因素阻止了这种情况的发生。其中包括风力发电的间歇性,需要低成本的电池存储和DC-AC转换,以及1890年代从DC到高级AC发电的转变,使得大规模水力发电通过电网长距离输送AC电力成为可能的规模经济。和燃煤电厂。结果,直到1970年代第一次能源危机之前,风力发电仍主要是一项技术发展。作者在前两篇论文中采用技术成本建模和技术分析的方法,开发了广泛的风力发电机科学技术基础,并从2000年开始部署商业规模的风力发电机(> 1MW),将风力发电提高到了商业实用性。体验能源成本(COE)的曲线预测,以探索大规模风力发电的经济可行性。.在欧洲,北美和亚洲的风能实践社区的大力推动下,规范的COE预测表明,到2020年风电将使用传统化石和核燃料来源的电力,在没有税收优惠的情况下具有成本竞争力。迄今为止,克服技术,商业,市场,社会,网络和政治障碍已需要120年的发展,以将风力发电确立为突破性创新,并能够在21世纪中叶之前占领全球20%的电力市场世纪。预计到2100年将继续增长和成熟,相当于市场饱和时预计的210年整个行业生命周期。这一发现对创新理论和实践具有深远的意义,因为该生命周期的长度超出了五次工业革命和20世纪20项关键创新所诊断出的平均生命周期的四分之一。新的ARI模型为了解各种重大创新以及风力发电的工业技术生命周期动态提供了一种整体方法。

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