Evaluation of numerical schemes for capturing shock waves in modeling proppant transport in fractures

Abstract In petroleum engineering, the transport phenomenon of proppants in a fracture caused by hydraulic fracturing is captured by hyperbolic partial differential equations (PDEs). The solution of this kind of PDEs may encounter smooth transitions, or there can be large gradients of the field vari...

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Autores principales: Morteza Roostaei, Alireza Nouri, Vahidoddin Fattahpour, Dave Chan
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Lenguaje:EN
Publicado: KeAi Communications Co., Ltd. 2017
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Acceso en línea:https://doaj.org/article/4f4500e1d49f4a01a152ed4247092445
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spelling oai:doaj.org-article:4f4500e1d49f4a01a152ed42470924452021-12-02T06:08:53ZEvaluation of numerical schemes for capturing shock waves in modeling proppant transport in fractures10.1007/s12182-017-0194-x1672-51071995-8226https://doaj.org/article/4f4500e1d49f4a01a152ed42470924452017-11-01T00:00:00Zhttp://link.springer.com/article/10.1007/s12182-017-0194-xhttps://doaj.org/toc/1672-5107https://doaj.org/toc/1995-8226Abstract In petroleum engineering, the transport phenomenon of proppants in a fracture caused by hydraulic fracturing is captured by hyperbolic partial differential equations (PDEs). The solution of this kind of PDEs may encounter smooth transitions, or there can be large gradients of the field variables. The numerical challenge posed in a shock situation is that high-order finite difference schemes lead to significant oscillations in the vicinity of shocks despite that such schemes result in higher accuracy in smooth regions. On the other hand, first-order methods provide monotonic solution convergences near the shocks, while giving poorer accuracy in the smooth regions. Accurate numerical simulation of such systems is a challenging task using conventional numerical methods. In this paper, we investigate several shock-capturing schemes. The competency of each scheme was tested against one-dimensional benchmark problems as well as published numerical experiments. The numerical results have shown good performance of high-resolution finite volume methods in capturing shocks by resolving discontinuities while maintaining accuracy in the smooth regions. These methods along with Godunov splitting are applied to model proppant transport in fractures. It is concluded that the proposed scheme produces non-oscillatory and accurate results in obtaining a solution for proppant transport problems.Morteza RoostaeiAlireza NouriVahidoddin FattahpourDave ChanKeAi Communications Co., Ltd.articleProppant transportHyperbolic partial differential equationsFrac packHydraulic fracturingScienceQPetrologyQE420-499ENPetroleum Science, Vol 14, Iss 4, Pp 731-745 (2017)
institution DOAJ
collection DOAJ
language EN
topic Proppant transport
Hyperbolic partial differential equations
Frac pack
Hydraulic fracturing
Science
Q
Petrology
QE420-499
spellingShingle Proppant transport
Hyperbolic partial differential equations
Frac pack
Hydraulic fracturing
Science
Q
Petrology
QE420-499
Morteza Roostaei
Alireza Nouri
Vahidoddin Fattahpour
Dave Chan
Evaluation of numerical schemes for capturing shock waves in modeling proppant transport in fractures
description Abstract In petroleum engineering, the transport phenomenon of proppants in a fracture caused by hydraulic fracturing is captured by hyperbolic partial differential equations (PDEs). The solution of this kind of PDEs may encounter smooth transitions, or there can be large gradients of the field variables. The numerical challenge posed in a shock situation is that high-order finite difference schemes lead to significant oscillations in the vicinity of shocks despite that such schemes result in higher accuracy in smooth regions. On the other hand, first-order methods provide monotonic solution convergences near the shocks, while giving poorer accuracy in the smooth regions. Accurate numerical simulation of such systems is a challenging task using conventional numerical methods. In this paper, we investigate several shock-capturing schemes. The competency of each scheme was tested against one-dimensional benchmark problems as well as published numerical experiments. The numerical results have shown good performance of high-resolution finite volume methods in capturing shocks by resolving discontinuities while maintaining accuracy in the smooth regions. These methods along with Godunov splitting are applied to model proppant transport in fractures. It is concluded that the proposed scheme produces non-oscillatory and accurate results in obtaining a solution for proppant transport problems.
format article
author Morteza Roostaei
Alireza Nouri
Vahidoddin Fattahpour
Dave Chan
author_facet Morteza Roostaei
Alireza Nouri
Vahidoddin Fattahpour
Dave Chan
author_sort Morteza Roostaei
title Evaluation of numerical schemes for capturing shock waves in modeling proppant transport in fractures
title_short Evaluation of numerical schemes for capturing shock waves in modeling proppant transport in fractures
title_full Evaluation of numerical schemes for capturing shock waves in modeling proppant transport in fractures
title_fullStr Evaluation of numerical schemes for capturing shock waves in modeling proppant transport in fractures
title_full_unstemmed Evaluation of numerical schemes for capturing shock waves in modeling proppant transport in fractures
title_sort evaluation of numerical schemes for capturing shock waves in modeling proppant transport in fractures
publisher KeAi Communications Co., Ltd.
publishDate 2017
url https://doaj.org/article/4f4500e1d49f4a01a152ed4247092445
work_keys_str_mv AT mortezaroostaei evaluationofnumericalschemesforcapturingshockwavesinmodelingproppanttransportinfractures
AT alirezanouri evaluationofnumericalschemesforcapturingshockwavesinmodelingproppanttransportinfractures
AT vahidoddinfattahpour evaluationofnumericalschemesforcapturingshockwavesinmodelingproppanttransportinfractures
AT davechan evaluationofnumericalschemesforcapturingshockwavesinmodelingproppanttransportinfractures
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