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Energy Evaluation of the High Velocity Algae Raceway Integrated Design (ARID-HV)

机译:高速藻类水道综合设计(ARID-HV)的能量评估

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摘要

The original ARID (Algae Raceway Integrated Design) raceway was an effective method to increase temperature toward the optimal growth range. However, the energy input was high and flow mixing was poor. Thus, the ARID-HV (High Velocity Algae Raceway Integrated Design) raceway was developed to reduce energy input requirements and improve flow mixing. This was accomplished by improving pumping efficiency and using a serpentine flow pattern in which the water flows through channels instead of over barriers. A prototype ARID-HV system was installed in Tucson, Arizona, and the constructability, reliability of components, drainage of channels, and flow and energy requirements of the ARID-HV raceway were evaluated. Each of the electrical energy inputs to the raceway (air sparger, air tube blower, canal lift pump, and channel recirculation pump) was quantified, some by direct measurement and others by simulation. An algae growth model was used to determine the algae production rate vs. flow depth and time of year. Then the electrical energy requirement of the most effective flow depth was calculated. Channel hydraulics was evaluated with Manning's equation and the corner head loss equation. In this way, the maximum length of channels for several raceway slopes and mixing velocities were determined. Algae production in the ARID-HV raceway was simulated with a temperature and light growth model. An energy efficient design for the ARID-HV raceway was developed.
机译:原始的ARID(藻类球道集成设计)球道是一种将温度升高至最佳生长范围的有效方法。但是,能量输入高并且流混合差。因此,开发了ARID-HV(高速藻类赛道集成设计)赛道以减少能量输入需求并改善流动混合。这是通过提高泵送效率并使用蛇形流动模式实现的,其中水流过通道而不是越过障碍。在亚利桑那州图森安装了原型ARID-HV系统,并评估了ARID-HV滚道的可施工性,组件的可靠性,通道的排水以及流量和能量需求。量化输入到滚道的每个电能(空气分布器,空气鼓风机,运河提升泵和通道再循环泵),其中一些通过直接测量进行量化,而其他通过模拟进行。使用藻类生长模型来确定藻类生产率与流量深度和一年中的时间的关系。然后计算出最有效流量深度的电能需求。通道水力学用曼宁方程和角头损失方程评估。通过这种方式,确定了几个滚道坡度和混合速度的最大通道长度。利用温度和光照生长模型模拟了ARID-HV跑道中的藻类生产。开发了ARID-HV滚道的节能设计。

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    Attalah Said;

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  • 年度 2013
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