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    Computational Fluid Dynamics—Machine Learning Prediction of Machinery Coupling Windage Heating and Power Loss

    Source: Journal of Heat Transfer:;2021:;volume( 143 ):;issue: 008::page 082201-1
    Author:
    Dawahdeh, Ahmad
    ,
    Oh, Joseph
    ,
    Zhai, Tianbo
    ,
    Palazzolo, Alan
    DOI: 10.1115/1.4051351
    Publisher: The American Society of Mechanical Engineers (ASME)
    Abstract: Couplings connect the spinning shafts of driving and driven machines in the industry. A coupling guard encloses the coupling to protect personnel from the high-speed rotating coupling. The American Petroleum Institute API publishes standards that restrict the overheating of the coupling guards due to windage caused by the spinning shaft. Based on the most recent version of API 671, the peak temperature for the coupling guard should not exceed 60 °C. This paper proposes a machine learning (ML) model and an empirical formula to predict the maximum guard temperature and power loss. The ML models use a database obtained from simulated computational fluid dynamics (CFD) cases for different coupling guards under various conditions. Also, the paper provides validation for the CFD models with experimental tests for different cases. The proposed ML model uses eight different input parameters to predict temperature and power loss. The model shows an accurate prediction for a varied number of CFD cases. The performance of the generated model has been verified with the experimental results. Also, an empirical formula has been created using the same database from CFD results. The results show that the ML model has better prediction accuracy than the empirical formula for predicting peak temperature and power loss for all cases.
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      Computational Fluid Dynamics—Machine Learning Prediction of Machinery Coupling Windage Heating and Power Loss

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    http://yetl.yabesh.ir/yetl1/handle/yetl/4278296
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    • Journal of Heat Transfer

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    contributor authorDawahdeh, Ahmad
    contributor authorOh, Joseph
    contributor authorZhai, Tianbo
    contributor authorPalazzolo, Alan
    date accessioned2022-02-06T05:33:59Z
    date available2022-02-06T05:33:59Z
    date copyright6/28/2021 12:00:00 AM
    date issued2021
    identifier issn0022-1481
    identifier otherht_143_08_082201.pdf
    identifier urihttp://yetl.yabesh.ir/yetl1/handle/yetl/4278296
    description abstractCouplings connect the spinning shafts of driving and driven machines in the industry. A coupling guard encloses the coupling to protect personnel from the high-speed rotating coupling. The American Petroleum Institute API publishes standards that restrict the overheating of the coupling guards due to windage caused by the spinning shaft. Based on the most recent version of API 671, the peak temperature for the coupling guard should not exceed 60 °C. This paper proposes a machine learning (ML) model and an empirical formula to predict the maximum guard temperature and power loss. The ML models use a database obtained from simulated computational fluid dynamics (CFD) cases for different coupling guards under various conditions. Also, the paper provides validation for the CFD models with experimental tests for different cases. The proposed ML model uses eight different input parameters to predict temperature and power loss. The model shows an accurate prediction for a varied number of CFD cases. The performance of the generated model has been verified with the experimental results. Also, an empirical formula has been created using the same database from CFD results. The results show that the ML model has better prediction accuracy than the empirical formula for predicting peak temperature and power loss for all cases.
    publisherThe American Society of Mechanical Engineers (ASME)
    titleComputational Fluid Dynamics—Machine Learning Prediction of Machinery Coupling Windage Heating and Power Loss
    typeJournal Paper
    journal volume143
    journal issue8
    journal titleJournal of Heat Transfer
    identifier doi10.1115/1.4051351
    journal fristpage082201-1
    journal lastpage082201-13
    page13
    treeJournal of Heat Transfer:;2021:;volume( 143 ):;issue: 008
    contenttypeFulltext
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