000 | 02088nam a22002177a 4500 | ||
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999 |
_c4520 _d4520 |
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005 | 20230208113727.0 | ||
008 | 230208b ||||| |||| 00| 0 eng d | ||
020 | _a9780128193655 | ||
082 |
_a629.895 _bHAR |
||
100 |
_aHarrou, Fouzi _910534 |
||
245 |
_aStatistical process monitoring using advanced data-driven and deep learning approaches: _btheory and practical applications |
||
260 |
_bElsevier _aCambridge _c2021 |
||
300 | _axii, 315 p. | ||
365 |
_aUSD _b150.00 |
||
504 | _aTable of content 1. Introduction 2. Linear Latent Variable Regression (LVR)-Based Process Monitoring 3. Fault Isolation 4. Nonlinear latent variable regression methods 5. Multiscale latent variable regression-based process monitoring methods 6. Unsupervised deep learning-based process monitoring methods 7. Unsupervised recurrent deep learning schemes for process monitoring 8. Case studies 9. Conclusions and future perspectives | ||
520 | _aStatistical Process Monitoring Using Advanced Data-Driven and Deep Learning Approaches tackles multivariate challenges in process monitoring by merging the advantages of univariate and traditional multivariate techniques to enhance their performance and widen their practical applicability. The book proceeds with merging the desirable properties of shallow learning approaches – such as a one-class support vector machine and k-nearest neighbours and unsupervised deep learning approaches – to develop more sophisticated and efficient monitoring techniques. Finally, the developed approaches are applied to monitor many processes, such as waste-water treatment plants, detection of obstacles in driving environments for autonomous robots and vehicles, robot swarm, chemical processes (continuous stirred tank reactor, plug flow rector, and distillation columns), ozone pollution, road traffic congestion, and solar photovoltaic systems. | ||
650 |
_aMachine learning _92343 |
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650 |
_aMultivariate analysis--Data processing _911791 |
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650 |
_aProcess control--Statistical methods _95810 |
||
942 |
_2ddc _cBK |