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U. S. energy production activity and innovation

机译:美国能源生产活动与创新

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Life-cycle studies provide a comprehensive insight into comparative innovation behavior and innovation constants. In this article a comparison of the life-cycle plots for the production and patent activity is made for US energy production categories. As has been shown previously for material production [TFSC, vol.78,2011], the two activities may be correlated to such an extent that they may be superimposed to a large degree, for all growth stage except stage IV, simply by an origin-shift. Over ten energy production methods have been studied in this manner for the first time. An origin-shift ratio, OR, (positive or negative lag) describes the amount required to shift the two activity curves in order to superimpose them. The relative drive-force ratio, DR (defined as the ratio of the production and patent growth constants) is noted to scale with the origin-shift The value of this drive-force ratio determines the amount of production that is influenced by patents. The slope of curve of the drive-force ratio plotted against the origin-shift ratio is noted to be constant across all energy categories in the high growth Stage III. The authors find for the first time that even early stage production displays an origin-shift. Energy materials (i.e., those materials that dominate a particular type of energy production) are also studied in the material category alone, where the total usage of the material is considered. The concept of Green materials is discussed in this context The life-cycle approach collapses the energy categories/sources and related materials into two groups. The authors discuss these groups in the Schumpeterian framework of constructive and destructive innovation. Group 1, containing coal, natural gas, wind, renewable, fossil fuel, solar and total energies, is composed of energy categories/sources whose patent activity could be inferred as driving their production. On the other hand, energy production from biomass, biofuel, geothermal and nuclear energies is identified in Group 2. in which the patent activity is driven by production (high innovation group). An (OR) of slightly less than one and a (DR) less than one, lead to a placement where with time, a constructive to destructive innovation transition is encountered A very low (OR) and a low (DR) on the other hand leads to a transition from Stage III growth to a no-growth (Stage IV) with time. Innovation enhanced resources and production are also discussed.
机译:生命周期研究提供了对比较创新行为和创新常数的全面了解。本文比较了美国能源生产类别的生产和专利活动的生命周期图。正如先前对物质生产所显示的那样(TFSC,第78卷,2011年),这两个活动的相关程度可能会很大程度地叠加在一起,除了第IV阶段以外的所有生长阶段,仅通过起源即可-转移。首次以这种方式研究了十多种能源生产方法。原点偏移率OR(正或负滞后)描述了移动两条活动曲线以使其重叠所需的数量。相对驱动力比DR(定义为生产量与专利增长常数之比)随原点偏移成比例。该驱动力比的值确定受专利影响的生产量。在高增长阶段III中,在所有能量类别中,绘制的驱动力比曲线相对于原点偏移比的斜率被认为是恒定的。作者首次发现,即使早期生产也显示出原产地转移。能源材料(即主导特定类型能源生产的那些材料)也仅在材料类别中进行了研究,其中考虑了材料的总用量。在此背景下讨论了绿色材料的概念。生命周期方法将能源类别/能源和相关材料分为两类。作者在熊彼特的建设性和破坏性创新框架中讨论了这些群体。第一组,包括煤炭,天然气,风能,可再生能源,化石燃料,太阳能和总能源,由能源类别/来源组成,可以推论其专利活动来推动其生产。另一方面,在第二组中确定了由生物质,生物燃料,地热和核能产生的能源,其中专利活动由生产驱动(高创新组)。 (OR)略小于1,而(DR)小于1,导致该布局会随着时间的推移而遇到从建设性到破坏性的创新过渡。另一方面,OR(极低)和DR(极低)随着时间的推移,导致从第三阶段的增长过渡到无增长(第四阶段)。还讨论了创新增强的资源和生产。

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