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A novel approach for optimal energy recovery using pressure retarded osmosis technology: Chemical exergy pinch analysis - Case study in a sugar mill plant

机译:利用压延渗透技术实现最佳能量回收的一种新方法:化学声波分析 - 糖厂植物案例研究

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摘要

In the present study, pinch analysis is extended taking chemical exergy concept into account. The novel chemical exergy pinch analysis is proposed for sustainable power production by an economic application of pressure retarded osmosis membranes in chemical industries. Chemical exergy composite curves and chemical exergy cascade tables are developed as graphical and numerical tools, respectively. The tools are used to obtain maximum waste energy recovery by achieving various targets and determining the pinch point in a salinity gradient network. Thus, maximum energy recovery and minimum waste treatment are targeted, simultaneously. Moreover, a mathematical model follows the chemical exergy pinch analysis for an economic evaluation of pressure retarded osmosis-retrofitted industries under three probable scenarios. A sugar mill plant is simulated as the case study to validate the model-based analysis. The results showed that chemical exergy pinch analysis could efficiently provide the optimal pressure retarded osmosis -retrofitted industrial networks for decision-making. Having analysed the complex chemical exergy streams by chemical exergy pinch analysis, 11.30 MW net power is recovered with 0.038 $/kWh levelized cost of energy in the case study.
机译:在本研究中,缩短分析延长了化学声音概念。通过化学工业中压延渗透膜的经济应用,提出了新的化学物质覆盖分析。化学渗透性复合曲线和化学出的级联桌子分别作为图形和数值工具开发。该工具用于通过实现各种目标来获得最大的废能回收,并确定盐度梯度网络中的夹点。因此,最大的能量回收和最小废物处理同时靶向。此外,数学模型遵循化学水平的捏合分析,在三种可能的情况下对压力迟钝的渗透 - 改装行业进行经济评估。模拟糖厂植物作为验证基于模型的分析的案例研究。结果表明,化学渗透分析可以有效地提供最佳的压力延迟渗透-Rotofited工业网络进行决策。通过化学出境的捏分析分析了复杂的化学排泄物,11.30 MW净功率以0.038 $ / kWh在案例研究中升级的能量成本。

著录项

  • 来源
    《Energy Conversion & Management》 |2020年第6期|112810.1-112810.13|共13页
  • 作者单位

    Kyung Hee Univ Coll Engn Ctr Environm Studies Dept Environm Sci & Engn Seocheon Dong 1 Yongin 446701 Gyeonggi Do South Korea;

    Kyung Hee Univ Coll Engn Ctr Environm Studies Dept Environm Sci & Engn Seocheon Dong 1 Yongin 446701 Gyeonggi Do South Korea;

    Kyung Hee Univ Coll Engn Ctr Environm Studies Dept Environm Sci & Engn Seocheon Dong 1 Yongin 446701 Gyeonggi Do South Korea;

  • 收录信息 美国《科学引文索引》(SCI);美国《工程索引》(EI);
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

    Chemical exergy; Energy recovery; Pinch analysis; Pressure retarded osmosis; Sugar mill; Waste recovery;

    机译:化学漏洞;能量回收;捏分析;压力迟缓渗透;糖厂;废物恢复;

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