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      A Predictive Model on Air Entrainment by Plunging Water Jets using GEP and ANN

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      https://www.riss.kr/link?id=A104784044

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      다국어 초록 (Multilingual Abstract)

      Plunging water jet flow situations are frequently encountered in nature and environmental engineering. A plunging liquid jet has the ability to provide vigorous gas-liquid mixing and dispersion of small bubbles in the liquid, and enhances mass transfer rate by producing larger gas-liquid interfacial area. This process is called air-entrainment or aeration by a plunging water jet. Advances in field of Artificial Intelligence (AI) offer opportunities of utilizing new algorithms and models. This study presents Artificial Neural Network (ANN) and Gene-Expression Programming (GEP) model, which is an extension to genetic programming, as an alternative approach to modeling of volumetric air entrainment rate by plunging water jets. A new formulation for prediction of volumetric air entrainment rate by plunging water jets using GEP is developed. The GEP-based formulation and ANN approach are compared with experimental results, Multiple Linear/Nonlinear Regressions (MLR/NMLR) and other equations. The results have shown that the both ANN and GEP are found to be able to learn the relation between volumetric air entrainment rate and basic water jet properties.
      Additionally, sensitivity analysis is performed and it is found that nozzle diameter is the most effective parameter on the volumetric air entrainment rate among water jet velocity, jet length and jet impact angle.
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      Plunging water jet flow situations are frequently encountered in nature and environmental engineering. A plunging liquid jet has the ability to provide vigorous gas-liquid mixing and dispersion of small bubbles in the liquid, and enhances mass transfe...

      Plunging water jet flow situations are frequently encountered in nature and environmental engineering. A plunging liquid jet has the ability to provide vigorous gas-liquid mixing and dispersion of small bubbles in the liquid, and enhances mass transfer rate by producing larger gas-liquid interfacial area. This process is called air-entrainment or aeration by a plunging water jet. Advances in field of Artificial Intelligence (AI) offer opportunities of utilizing new algorithms and models. This study presents Artificial Neural Network (ANN) and Gene-Expression Programming (GEP) model, which is an extension to genetic programming, as an alternative approach to modeling of volumetric air entrainment rate by plunging water jets. A new formulation for prediction of volumetric air entrainment rate by plunging water jets using GEP is developed. The GEP-based formulation and ANN approach are compared with experimental results, Multiple Linear/Nonlinear Regressions (MLR/NMLR) and other equations. The results have shown that the both ANN and GEP are found to be able to learn the relation between volumetric air entrainment rate and basic water jet properties.
      Additionally, sensitivity analysis is performed and it is found that nozzle diameter is the most effective parameter on the volumetric air entrainment rate among water jet velocity, jet length and jet impact angle.

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      참고문헌 (Reference)

      1 Jennekens, H., "Water jet technique combines aeration and mixing" Water and Sewage Works 71-73, 1979

      2 Bagatur, T., "The effect of nozzle type on air-entrainment by plunging water jets" 37 (37): 599-612, 2002

      3 Djkstra, F., "The development and application of water jet aeration for wastewater treatment" 11 (11): 181-, 1979

      4 Detsch, R. M., "The critical angle for gas bubble entrainment by plunging liquid jets" 44 (44): 157-166, 1990

      5 Van de Sande, E., "Surface entrainment of air by high velocity water jets" 28 (28): 1161-1168, 1973

      6 Nakasone, H., "Study of aeration at weirs and cascades" 113 (113): 64-81, 1987

      7 Habib, E. H., "Stage-discharge relations for low-gradient tidal streams using data driven models" 132 (132): 482-492, 2006

      8 Ohkawa, A., "Some flow characteristics of a vertical liquid jet system having downcomers" 41 (41): 2347-2361, 1986

      9 Emiroglu, M. E., "Role of nozzles with air holes in air entrainment by a water jet" 38 (38): 785-795, 2003

      10 McCarty, M. J., "Review of stability of liquid jets and the influence of nozzle design" 7 (7): 1-20, 1974

      1 Jennekens, H., "Water jet technique combines aeration and mixing" Water and Sewage Works 71-73, 1979

      2 Bagatur, T., "The effect of nozzle type on air-entrainment by plunging water jets" 37 (37): 599-612, 2002

      3 Djkstra, F., "The development and application of water jet aeration for wastewater treatment" 11 (11): 181-, 1979

      4 Detsch, R. M., "The critical angle for gas bubble entrainment by plunging liquid jets" 44 (44): 157-166, 1990

      5 Van de Sande, E., "Surface entrainment of air by high velocity water jets" 28 (28): 1161-1168, 1973

      6 Nakasone, H., "Study of aeration at weirs and cascades" 113 (113): 64-81, 1987

      7 Habib, E. H., "Stage-discharge relations for low-gradient tidal streams using data driven models" 132 (132): 482-492, 2006

      8 Ohkawa, A., "Some flow characteristics of a vertical liquid jet system having downcomers" 41 (41): 2347-2361, 1986

      9 Emiroglu, M. E., "Role of nozzles with air holes in air entrainment by a water jet" 38 (38): 785-795, 2003

      10 McCarty, M. J., "Review of stability of liquid jets and the influence of nozzle design" 7 (7): 1-20, 1974

      11 Ferreira, C., "Recent Developments in Biologically Inspired Computing" Idea Group Publishing 82-103, 2004

      12 Kisi, O., "Prediction of lateral outflow over triangular labyrinth side weirs under subcritical conditions using soft computing approaches" 39 (39): 3454-3460, 2012

      13 Taskiran, T., "Prediction of California Bearing Ratio (CBR) of fine grained soils by AI methods" 41 (41): 886-892, 2010

      14 Dorado, J., "Prediction and modeling of the rainfall-runoff transformationof a typical urban basin using ANN and GP" 17 (17): 329-343, 2003

      15 Chanson, H., "Physical modelling and similitude of air bubble entrainment at vertical circular plunging jets" 59 (59): 747-754, 2004

      16 Deswal, S., "Performance evaluation and modeling of a conical plunging jets aerator" 2 (2): 33-37, 2008

      17 Tojo, K., "Oxygen transfer in jet mixers" 24 (24): 89-97, 1982

      18 Avery, S. T., "Oxygen transfer at hydraulic structures" ASCE 104 (104): 1521-1540, 1978

      19 Tojo, K., "Oxygen transfer and liquid mixing characterizes of plunging jet reactors" 25 (25): 107-109, 1982

      20 Freeman, J. A., "Neural network algorithms, applications and programming techniques" Addison-Wesley 1991

      21 Kayadelen, C., "Modeling of the angle of shearing resistance of soils using soft computing systems" 36 (36): 11814-11826, 2009

      22 Van de Sande, E., "Mass transfer from plunging water jets" 10 (10): 225-233, 1975

      23 Van de Sande, E., "Jet break up and air entrainment by low velocity turbulent water jets" 31 (31): 219-224, 1976

      24 Eldrandaly, K., "Integrating gene expression programming and geographic information systems for solving a multi site land use allocation problem" 6 (6): 1021-1027, 2009

      25 Teodorescu, L., "High energy physics event selection with gene expression programming" 178 (178): 409-419, 2008

      26 Koza, J. R., "Genetic programming: On the programming of computers by means of natural selection" MIT 1992

      27 Guven, A., "Genetic programming approach for prediction of local scour downstream hyraulic structures" 134 (134): 241-249, 2008

      28 Ferreira, C., "Gene-expression programming: Mathematical modeling by an artificial intelligence" Springer 2006

      29 Azamathulla, H. M., "Gene-Expression programming for the development of a stage-discharge curve of the Pahang river" 25 (25): 2901-2916, 2011

      30 Ferreira. C., "Gene expression programming: A new adaptive algorithm for solving problems" 13 (13): 87-129, 2001

      31 Bin, A. K., "Gas entrainment by plunging liquid jets" 48 (48): 3585-3630, 1993

      32 Ahmet Baylar, "GEP Modeling of Oxygen Transfer Efficiency Prediction in Aeration Cascades" 대한토목학회 15 (15): 799-804, 2011

      33 Evans, G. M., "Free jet expansion and gas entrainment characteristics of a plunging liquid jet" 12 (12): 142-149, 1996

      34 Ohkawa, A., "Flow and oxygen transfer in a plunging water system using inclined short nozzles and performance characteristics of its system in aerobic treatment of wastewater" 28 (28): 1845-1856, 1986

      35 Hsu, K., "Artificial neural network modeling of the rainfall-runoff process" 31 (31): 2517-2530, 1995

      36 Deswal, S., "Air-water oxygen transfer with multiple plunging jets" 42 (42): 295-302, 2007

      37 Kiger, K. T., "Air-Entrainment mechanisms in plunging jets and breaking waves" 44 (44): 563-596, 2012

      38 McKeogh, E. J., "Air retained in pool by plunging water jet" ASCE 106 (106): 1577-1593, 1980

      39 McKeogh, E. J., "Air entrainment rate and diffusion pattern of plunging liquid jets" 36 (36): 1161-1172, 1981

      40 Cummings, P. D., "Air entrainment in the developing flow region of plunging jets-Part 1: Experimental" 119 (119): 603-608, 1997

      41 Bagatur, T., "Air entrainment characteristics in a plunging water jet system using rectangular nozzles with rounded ends" 29 (29): 35-38, 2003

      42 Sene, K. J., "Air entrainment by plunging jets" 43 (43): 2615-2623, 1988

      43 Baylar, A., "Air entrainment and oxygen transfer in a venturi" 156 (156): 249-255, 2003

      44 Guven, A., "A new approach for stage-discharge relationship: Gene-expression programming" 14 (14): 812-820, 2009

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      학술지 인용정보

      학술지 인용정보
      기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
      2016 0.59 0.12 0.49
      KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
      0.42 0.39 0.286 0.06
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