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人工神经网络在预测流动沸腾曲线中的应用 被引量:2

Prediction of Flow Boiling Curves Based on Artificial Neural Network
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摘要 选用20世纪60年代以来的实验数据,应用人工神经网络分析入口欠热度、质量流速、压力等主要参数对沸腾曲线的影响。在整个传热区内,热流密度随入口欠热度的增加而增大;在过渡沸腾和膜态沸腾区,热流密度随质量流速的增加而增加;压力起重要的作用,除膜态沸腾区外,增加压力能强化传热。除泡核沸腾外,稳态和瞬态的流动沸腾曲线的差异很小。 The effects of the main system parameters on lyzed by using an artificial neural network(ANN) based flow boiling curves were anaon the database selected from the 1960s. The input parameters of the ANN are system pressure, mass flow rate, inlet subcooling, wall superheat and steady/transition boiling, and the output parameter is heat flux. The results obtained by the ANN show that the heat flux increases with increasing inlet sub cooling for all heat transfer modes. Mass flow rate has no significant effects on nucleate boiling curves. The transition boiling and film boiling heat fluxes will increase with an increase of mass flow rate. The pressure plays a predominant role and improves heat transfer in whole boiling regions except film boiling. There are slight differences between the steady and the transient boiling curves in all boiling regions except the nucleate one.
出处 《原子能科学技术》 EI CAS CSCD 北大核心 2007年第3期315-320,共6页 Atomic Energy Science and Technology
基金 陕西省自然科学基金资助项目(2003E217) 教育部留学归国人员基金资助项目(03回国基金05)
关键词 人工神经网络 流动沸腾曲线 压力 质量流速 进口欠热度 artificial neural network flow boiling curve pressure mass flow rate inlet subcooling
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  • 1CHEN W J,LEE Y,GROENEVELD D C.Measurement of boiling curves during rewetting of a hot circular duct[J].Int J Heat Mass Transfer,1979,22(6):973-976.
  • 2RAGHEB H S,CHENG S C,GROENEVELD D C.Observations in transition boiling of subcooled water under forced convective conditions[J].Int J Heat Mass Transfer,1981,24(7):1 127-1 137.
  • 3WANG S T,SEBAN R A.Heat transfer during the quench process that occurs in the reflood of a single vertical tube[J].Int J Heat Mass Transfer,1988,31(6):1 189-1 198.
  • 4HUANG X C,BARTSCH G,SCHROEDER-RICHTER D.Quenching experiments with a circular test section of medium thermal capacity under forced convection of water[J].Int J Heat Mass Transfer,1994,37(5):803-818.
  • 5LEE K W,LEE S Y.An investigation of transition boiling mechanisms of subcooled water under forced convective conditions[J].Nuclear Engineering and Design,1997,177(1):25-39.
  • 6RAGHEB H S,CHENG S C.Surface wetted area during transition boiling in forced convective flow[J].J Heat Transfer,1979,101(2):381-383.
  • 7HUANG X C,BARTSCH G.About the second-order instability on an electrically heat temperature-controlled test section under forced convective boiling conditions[J].Int J Heat Mass Transfer,1993,36(10):2 601-2 612.
  • 8PAN C,HWANG J Y,LIN T L.The mechanism of heat transfer in transition boiling[J].Int J Heat Mass Transfer,1989,32(7):1 337-1 349.
  • 9YAO S C,SALEHPOUR A.An investigation of transient boiling heat transfer with conjugate nature[J].Int J Heat Mass Transfer,1983,26(6):901-909.
  • 10HUANG X C,WEBER P,BARTSCH G.Comparison of transient and steady-state boiling curves for forced upflow of water in a circular tube at medium pressure[J].Int Comm Heat Mass Transfer,1993,20(3):383-392.

同被引文献22

  • 1王俭,孙铁珩,李培军,侯伟.基于人工神经网络的区域水环境承载力评价模型及其应用[J].生态学杂志,2007,26(1):139-144. 被引量:80
  • 2ROBERT E, HANS H, FAUSKE K. External cooling of a reactor vessel under severe accident conditions[J]. Nuclear Engineering and Design, 1993, 139(1), 31-43.
  • 3SU G H, SUGIYAMA K. Natural convection heat transfer of water on a horizontal downward facing stainless steel disk in a gap under atmospheric pressure conditions[J]. Annals of Nuclear Energy, 2007, 34(1-2): 93-102.
  • 4SU G H, WU Y W, SUGIYAMA K. Natural convection heat transfer of water in a horizontal gap with downward-facing circular heated surface [J]. Applied Thermal Engineering, 2008, 28 (11-12): 1 405-1 416.
  • 5HA S J, NO H C. A dry-spot model for transition boiling heat transfer in pool boiling[J].International Journal of Heat and Mass Transfer, 1998, 41(23): 3 771-3 779.
  • 6AURACHER H, MARQUARDT W. Experimental studies of boiling mechanisms in all boiling regimes under steady-state and transient conditions[J].International Journal of Thermal Sciences, 2002, 41: 586-598.
  • 7LEE K W, LEE S Y. An investigation of transition boiling mechanisms of subcooled water under forced convective conditions[J].Nuclear Engineering and Design, 1997, 177: 25-39.
  • 8CHAI L H, XIAO F P. Statistical features of transition to stable film boiling[J]. International Journal of Thermal Sciences, 2005, 44: 147-153.
  • 9ZUBER N. On stability of boiling heat transfer [J]. Trans ASME: J Heat Transfer, 1958, 80: 711-720.
  • 10VAZIRI N, HOJABRI A, ERFANI A, et al. Critical heat flux prediction by using radial basis function and multilayer perceptron neural networks: A comparison study[J]. Nuclear Engineering and Design, 2007, 237: 377-385.

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