An experimental investigation of the effect of the addition of nano Aluminum oxide on pool boiling of refrigerant 134A

被引:0
|
作者
Eldesouki I. Eid
Reda A. Khalaf-Allah
Sherif H. Taher
Ahmed A. Al-Nagdy
机构
[1] Suez University,Mechanical Department, Faculty of Industrial Education
[2] Benha University,Mechanical Power Department, Faculty of Engineering
来源
Heat and Mass Transfer | 2017年 / 53卷
关键词
Heat Flux; Heat Transfer Coefficient; Critical Heat Flux; Boiling Heat Transfer; Pool Boiling Heat Transfer;
D O I
暂无
中图分类号
学科分类号
摘要
The pool boiling of R-134a has been experimentally investigated with an addition of nano particles of Aluminum oxide. The experiments were carried out using a cylindrical stainless-steel heater. The roughness of the heater surface was changed. Different concentrations of nano Aluminum oxide particles to the base R-134a were tested. Different heat fluxes as well as different boiling pressures were considered during the experimental tests. The results show that the suspension of Al2O3 nano particles enhances heat transfer coefficient in the nucleate pool boiling zone for concentrations ranging from 0.01 to 0.25% by volume. Higher heat flux and pressure result in enhancements of 37.6, 55.4, 90.2 and 167.7% corresponding to 0.042, 0.84, 1.54 and 2.35 μm surface roughness respectively. The more concentration of Al2O3 nano particles deteriorates the heat transfer coefficient. An empirical correlation was deduced to formulate the relation among heat transfer coefficient, heat flux, pressure, concentration, and surface roughness within a maximum deviation of about ±9%.
引用
收藏
页码:2597 / 2607
页数:10
相关论文
共 50 条
  • [21] Experimental research of 134a hydrate formation in cyclic boiling-condensation process with variation of working volume
    Elistratov, D. S.
    Meleshkin, A., V
    Chernov, A. A.
    Pilnik, A. A.
    2ND ALL-RUSSIAN SCIENTIFIC CONFERENCE THERMOPHYSICS AND PHYSICAL HYDRODYNAMICS WITH THE SCHOOL FOR YOUNG SCIENTISTS, 2017, 899
  • [22] Experimental Investigation on Ejector Performance Using R134a as Refrigerant
    DAI Zhengshu
    YU Bo
    LIU Pengpeng
    CHEN Guangming
    ZHANG Hua
    Journal of Thermal Science, 2019, 28 (04) : 727 - 735
  • [23] Experimental Investigations on Pool Boiling CHF of Nano-Fluids
    Kim, Hyung Dae
    Kim, Moo Hwan
    TRANSACTIONS OF THE KOREAN SOCIETY OF MECHANICAL ENGINEERS B, 2007, 31 (11) : 949 - 956
  • [24] Experimental Investigation of Stabilizers of Nanofluid in the Pool Boiling Process
    Khooshehchin, Mohsen
    Mohammadidoust, Akbar
    Fathi, Sohrab
    HEAT TRANSFER ENGINEERING, 2023, 44 (05) : 442 - 460
  • [25] An experimental investigation of pool boiling on narrow horizontal tubes
    Das, SK
    Putra, N
    Kabelac, S
    EXPERIMENTAL HEAT TRANSFER, 2004, 17 (02) : 131 - 146
  • [26] Experimental investigation on the natural convection flow in pool boiling
    Kim, Seok
    Kim, Dong Eok
    Ryu, Sung Uk
    Lee, Seung Tae
    Euh, Dong-Jin
    NUCLEAR ENGINEERING AND DESIGN, 2014, 280 : 349 - 361
  • [27] Experimental determination of the role of roughness and wettability on pool-boiling heat transfer of refrigerant
    Wang, Cong-Yao
    Ji, Wen -Tao
    Zhao, Chuang-Yao
    Chen, Li
    Tao, Wen-Quan
    INTERNATIONAL JOURNAL OF REFRIGERATION, 2023, 153 : 205 - 221
  • [28] An Experimental Investigation on the Pool Boiling Heat Transfer of R-134a on Microporous Cu-MWCNT Composite Surfaces
    Pingale, Ajay D.
    Katarkar, Anil S.
    Madgule, Mahadev
    Bhaumik, Swapan
    Belgamwar, Sachin U.
    THERMO, 2024, 4 (01): : 16 - 28
  • [29] An experimental investigation of enhanced pool boiling heat transfer from surfaces with micro/nano-structures
    Dong, Lining
    Quan, Xiaojun
    Cheng, Ping
    INTERNATIONAL JOURNAL OF HEAT AND MASS TRANSFER, 2014, 71 : 189 - 196
  • [30] Preliminary study on the boiling heat transfer performance of R-123 refrigerant with nano-porous aluminum oxide membrane
    Kim, Ji Yong
    Bang, In Cheol
    PROCEEDINGS OF THE TWENTIETH INTERSOCIETY CONFERENCE ON THERMAL AND THERMOMECHANICAL PHENOMENA IN ELECTRONIC SYSTEMS (ITHERM 2021), 2021, : 81 - 85