Gas or clathrate hydrates are an important issue when they form in the oil and gas pipelines. Since the determination of the hydrate formation temperature and pressure is very difficult experimentally for every gas system and it is impossible in terms of cost and time approximately, mathematical models can be useful tools to overcome these difficulties. In this study, k-nearest neighbor model was used to predict the equilibrium conditions of hydrate formation in absorption and separation of carbon dioxide from flue gas mixture, containing carbon dioxide and nitrogen. At the training phase, temperature and composition data of nitrogen and carbon dioxide in the flue gas mixture at equilibrium conditions and the equilibrium pressures of hydrate formation were used as input and output, respectively. The error percentage less than 0.38% indicates the high accuracy of the proposed model. In this study, 80%, 85%, and 90% of the training data are examined for three numbers of nearest. For three numbers of used nearest (k = 1, k = 2 and k = 3), the value of k = 1 leads to the lowest error; so, it is selected as the best nearest in the presented model.
Journal article
Prediction of hydrate equilibrium conditions using k-nearest neighbor algorithm to CO2 capture
Petroleum Science and Technology, Vol.35(11), pp.1070-1077
2017
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Abstract
Details
- Title
- Prediction of hydrate equilibrium conditions using k-nearest neighbor algorithm to CO2 capture
- Creators
- Javad Sayyad Amin - The University of GuilanAlireza Bahadori - Southern Cross UniversityBehnam Hosseini Nia - The University of GuilanSaeed Rafiee - The University of GuilanNahid Kheilnezhad - The University of Guilan
- Publication Details
- Petroleum Science and Technology, Vol.35(11), pp.1070-1077
- Identifiers
- 4416; 991012820516402368
- Academic Unit
- Faculty of Science and Engineering; School of Environment, Science and Engineering
- Resource Type
- Journal article