Heat transfer enhancement of flow insulator by combined stainless steel fibrous and wire net porous materials

被引:0
|
作者
Khantikomol, P. [1 ]
Polsongkram, M. [1 ]
Apisitpinyo, W. [1 ]
Poowadin, T. [1 ]
机构
[1] Rajamangala Univ Technol Isan, Fac Engn & Architecture, Dept Mech Engn, Renewable Energy Technol Res Lab RTER, 744 Suranarai Rd, Muang 30000, Nakhonratchasim, Thailand
来源
8TH TSME-INTERNATIONAL CONFERENCE ON MECHANICAL ENGINEERING (TSME-ICOME 2017) | 2018年 / 297卷
关键词
MULTIPHASE MEDIUM; LAMINAR-FLOW; RADIATION;
D O I
10.1088/1757-899X/297/1/012072
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
The present research article aims to propose the heat transfer enhancement of the flow insulator using combined fibrous and wire net stainless steel porous material. The stainless fibrous plate with porosity of 0.9292 was combined to the stainless steel wire net having pore per inch (PPI) of 16 and total thickness of 30 mm. Two models of the arranging porous plates were prepared, which were model BA and model AB. Each porous plate segment had the same thickness. The examined porous plate model have porosities of 0.8452. The porous plate was placed normal to the flow direction. The air was used as working fluid heated by 5 kW electric heater, which was controlled by the automatic temperature control. Type-K thermocouples were employed to measure the air temperatures. The temperature at front of the porous plate was varied to be 350, 450, and 550 degrees C. The air flow rate was varied in the range of 4-12 m(3)/hr. The experimental result showed that the temperature drop across the porous plate and the thermal efficiency increase with the inlet temperature. The air velocity slightly affects the temperature profile inside the test section at the upstream side of the porous plate but greatly affects temperature inside the porous plate. In consideration of the arranging porous plate, placing of the stainless steel wire net at the upstream side and placing the stainless steel fibrous at downstream side (model BA) results in the highest temperature drop and the highest thermal efficiency. At Re 733 and inlet temperature 550 degrees C for model BA at 30 mm thickness, the thermal efficiency was 50%. It was shown that the combined stainless steel fibrous and stainless steel wire net porous material could be a good flow insulator.
引用
收藏
页数:9
相关论文
共 50 条
  • [41] Flow control with electrode bank arrangements by electrohydrodynamics force for heat transfer enhancement in a porous medium
    Ayuttaya, Suwimon Saneewong Na
    Chaktranond, Chainarong
    Rattanadecho, Phadungsak
    HEAT TRANSFER-ASIAN RESEARCH, 2018, 47 (04): : 620 - 645
  • [42] Effect of Utilizing Staggered Semi-Porous Fins on Channel Flow Heat Transfer Enhancement
    Kheradmand-Laleh, Arsalan
    Hossainpour, Siamak
    Keyhani-Asl, Alireza
    Vatanparast, Mohammad Amniyeh
    HEAT TRANSFER ENGINEERING, 2023, 44 (14) : 1244 - 1261
  • [43] Radiative MHD flow of hybrid nanofluid past a porous stretching cylinder for heat transfer enhancement
    Ismail, Mohammed
    David Maxim Gururaj, A.
    HEAT TRANSFER, 2021, 50 (04) : 4019 - 4038
  • [44] Modeling and validation of ablative thermal response combined with microscopic heat transfer for porous ablative materials
    Wang, Peng
    Zhou, Xiaoyi
    Li, Liang
    Fang, Fang
    Zhang, Yupeng
    Quan, Dongliang
    Zhang, Yayun
    Niu, Bo
    Long, Donghui
    THERMAL SCIENCE AND ENGINEERING PROGRESS, 2024, 47
  • [45] Systematic analysis on combined heat and water transfer through porous materials based on thermodynamic energy
    Ozaki, A
    Watanabe, T
    Hayashi, T
    Ryu, Y
    ENERGY AND BUILDINGS, 2001, 33 (04) : 341 - 350
  • [46] Comparative study of heat transfer enhancement in a latent heat thermal energy storage system using mild steel and stainless steel spherical PCM containers
    Surya, A.
    Nallusamy, N.
    Shreyas
    Vishnu, B.
    Girish, R.
    MATERIALS TODAY-PROCEEDINGS, 2022, 62 : 463 - 470
  • [47] Calculation of Convective Heat Transfer of Plane Surfaces with Wire-Net Finning Immersed in a Cross-Flow
    Pismennyi, E. N.
    Terekh, A. M.
    Rogachev, V. A.
    Burlei, V. D.
    Rudenko, A. I.
    HEAT TRANSFER RESEARCH, 2005, 36 (1-2) : 39 - 46
  • [48] HEAT TRANSFER ENHANCEMENT OF PHASE CHANGE MATERIALS (PCMs) IN LOW AND HIGH TEMPERATURE THERMAL STORAGE BY USING POROUS MATERIALS
    Zhao, C. Y.
    Zhou, D.
    Wu, Z. G.
    PROCEEDINGS OF THE ASME INTERNATIONAL HEAT TRANSFER CONFERENCE - 2010, VOL 7: NATURAL CONVECTION, NATURAL/MIXED CONVECTION, NUCLEAR, PHASE CHANGE MATERIALS, SOLAR, 2010, : 435 - 441
  • [49] Pool Boiling Inversion and Hysteresis with Femtosecond Laser Processed 304 Stainless Steel Surfaces for Heat Transfer Enhancement
    Costa-Greger, Justin
    Tsubaki, Alfred
    Gerdes, Josh
    Anderson, Mark
    Zuhlke, Craig
    Alexander, Dennis
    Shield, Jeff
    Gogos, George
    PROCEEDINGS OF THE NINETEENTH INTERSOCIETY CONFERENCE ON THERMAL AND THERMOMECHANICAL PHENOMENA IN ELECTRONIC SYSTEMS (ITHERM 2020), 2020, : 298 - 305
  • [50] Radiation Effects on MHD Combined Convective Flow and Heat Transfer Past a Porous Stretching Surface
    Mukhopadhyay, S.
    Layek, G. C.
    Gorla, Rama Subba Reddy
    INTERNATIONAL JOURNAL OF FLUID MECHANICS RESEARCH, 2010, 37 (06) : 567 - 581