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Energy storage analysis for discharging of nanoparticle enhanced phase change material within a triplex-tube thermal storage

机译:纳米粒子增强相变材料放电的能量储存分析在三重管 - 管热储存中

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摘要

In current transient modeling, discharging of PCM based on FEM has been scrutinized. Due to importance of phenomenon near the solid front, time linked mesh has been employed and to reduce the thermal irreversibility, copper oxide nanomaterial was dispersed into H2O. Outputs indicate that using wavy wall and dispersing Platelet copper oxide are capable for expedition of discharging. Obtaining the completed solidification in minimum time is main criteria for designing a storage unit. Changing shape of nanoparticle from spherical to Platelet can reduce the solidification duration about 5.96%. Utilizing greater amplitude of sinusoidal wall can reduce the discharging time by about 7.58% which is related to stronger conduction mechanism. Inclusion of nanoparticles, not only improve the phase change rate but also decline the irreversibility due to lower temperature of domain. Needed time declines about 22.7% with disperse of platelet CuO. As shape of powder changes from platelet to sphere, required time alters from 337.41 s to 358.8 s. The solidification rate for A = 0.3 is 1.06 times greater than that of A = 0.1.
机译:在目前的瞬态建模中,仔细仔细审查了基于FEM的PCM的放电。由于在固体前沿附近现象的重要性,已经采用了时间连接的网格并降低了热不可逆转性,将氧化铜纳米材料分散到H 2 O中。输出表明,使用波状壁和分散的血小板氧化铜能够进行排出。在最短时间内获得已完成的凝固是设计存储单元的主要标准。从球形到血小板的纳米粒子的形状可降低约5.96%的凝固持续时间。利用更大的正弦壁振幅可以将放电时间减少约7.58%,这与更强的传导机制有关。包含纳米颗粒,不仅改善相变率,而且由于较低的结构域温度,也减少了不可逆转性。需要时间下降约22.7%,分散血小板cuo。作为粉末的形状从血小板变为球体,所需的时间改变为337.41秒至358.8秒。 A = 0.3的凝固率比a = 0.1的凝固率大1.06倍。

著录项

  • 来源
    《Journal of Energy Storage》 |2020年第10期|101640.1-101640.14|共14页
  • 作者单位

    Zhejiang Coll Construct Hangzhou 311231 Peoples R China;

    Babol Noshirvani Univ Technol Dept Mech Engn Babol Iran|Babol Noshirvani Univ Technol Renewable Energy Syst & Nanofluid Applicat Heat T Babol Iran;

    Natl Taipei Univ Technol Dept Energy & Refrigerating Air Conditioning Engn Taipei 10608 Taiwan;

    Duy Tan Univ Inst Res & Dev Da Nang 550000 Vietnam;

    Celal Bayar Univ Dept Mech Engn TR-45140 Manisa Turkey;

    Ton Duc Thang Univ Dept Management Sci & Technol Dev Ho Chi Minh City Vietnam|Ton Duc Thang Univ Fac Environm & Labour Safety Ho Chi Minh City Vietnam;

  • 收录信息
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

    Nanomaterial; Entropy generation; Heat release; Wavy surface;

    机译:纳米材料;熵生成;热释放;波浪表面;
  • 入库时间 2022-08-18 23:28:10

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