FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3170822572> ?p ?o ?g. }

• W3170822572 endingPage "126552" @default.
• W3170822572 startingPage "126552" @default.
• W3170822572 abstract "• Stress-sensitive effect on transient pressure behaviour of an MFHW is examined. • Flow regimes for an MFHW with a complex fracture network are greatly changed. • Convergence skin is exaggerated by stress-sensitive effect during late-time period. • Stress-sensitivity affects transient pressure behaviour in intermediate- and late-time periods. • Interface boundary shows its significant impact on transient pressure response. Combining horizontal drilling together with hydraulic fracturing greatly improves the economic viability of exploiting a tight reservoir, while the stress-sensitive effect raises the significant difficulty to accurately evaluate its well performance. In this paper, a semi-analytical model is proposed to evaluate transient pressure behaviour of a multi-fractured horizontal well (MFHW) in a naturally fractured reservoir with an arbitrary boundary and different fracture networks under stress-sensitive effect. More specifically, the boundary element method coupled with the Pedrosa's transform formulation is used to obtain accurate solutions of the nonlinear equations incorporated with stress-sensitive effect in an arbitrary-shaped reservoir with single-zone or two-zone matrix subsystems. Meanwhile, the Laplace-transform finite difference method can be utilized to semi-analytically deal with the nonlinear fracture subsystems consisting of primary, secondary, and natural fractures by dividing complex fracture networks into small fracture segments. The convergence-skin effect is then introduced to represent the radial flow pattern in hydraulic fractures near a horizontal wellbore. Not only can the effects of stress-sensitivity in the matrix and different fracture subsystems be respectively examined, but also the corresponding pressure responses together with pressure derivative curves are obtained. Such coupled theoretical formulations have been verified and then extended for field applications. The semi-analytical solution is found to be more accurate and reasonable than the solution with the uniform permeability modulus, while the stress-sensitivity has a dominant impact on the intermediate- and late-time flow periods. The convergence-skin effect can be aggravated in the late-time period by considering the inherent stress-sensitivity in a hydraulic fracture, especially at low fracture conductivity. Based on the sensitivity analysis associated with different networks, the initial fracture conductivity in primary and secondary fractures imposes a great impact on the early-stage bilinear flow and fluid feed regimes, while the initial fracture conductivity in natural fractures makes a difference to the transient pressure response in the transition flow regime. As the minimum fracture conductivity in the primary fractures decreases, such an influence becomes more dominant during the late-time flow period. However, the minimum fracture conductivity in secondary and natural fractures has an inappreciable effect on the flow regime. In the late-time flow period, the effect of boundary shape becomes more obvious on the type curves, especially for a relatively small reservoir compared with the size of a horizontal well intercepted by multiple hydraulic fractures. For a reservoir with two-zone systems, the smaller the mobility ratio in the two zones is, the earlier the boundary-dominated flow in the outer zone will commence. Not only does this study facilitate understanding the respective contribution of stress-sensitivity and convergence-skin effect on the well production, but also the newly proposed models can be applied to optimally design a hydraulic fracturing operation under various constraints." @default.
• W3170822572 created "2021-06-22" @default.
• W3170822572 creator A5031000779 @default.
• W3170822572 creator A5061583002 @default.
• W3170822572 date "2021-09-01" @default.
• W3170822572 modified "2023-10-03" @default.
• W3170822572 title "Modeling transient pressure behaviour of a multi-fractured horizontal well in a reservoir with an arbitrary boundary and different fracture networks by considering stress-sensitive effect" @default.
• W3170822572 cites W1967309669 @default.
• W3170822572 cites W1990968610 @default.
• W3170822572 cites W1994226098 @default.
• W3170822572 cites W2005293247 @default.
• W3170822572 cites W2009563554 @default.
• W3170822572 cites W2009745692 @default.
• W3170822572 cites W2019111095 @default.
• W3170822572 cites W2036197038 @default.
• W3170822572 cites W2036591288 @default.
• W3170822572 cites W2046240263 @default.
• W3170822572 cites W2049390776 @default.
• W3170822572 cites W2057342974 @default.
• W3170822572 cites W2074839620 @default.
• W3170822572 cites W2076533766 @default.
• W3170822572 cites W2087795293 @default.
• W3170822572 cites W2153561934 @default.
• W3170822572 cites W2170775588 @default.
• W3170822572 cites W2241285989 @default.
• W3170822572 cites W2513401176 @default.
• W3170822572 cites W2527480608 @default.
• W3170822572 cites W2655770209 @default.
• W3170822572 cites W2738634234 @default.
• W3170822572 cites W2747981481 @default.
• W3170822572 cites W2763078386 @default.
• W3170822572 cites W2763993336 @default.
• W3170822572 cites W2787901442 @default.
• W3170822572 cites W2792247326 @default.
• W3170822572 cites W2885806511 @default.
• W3170822572 cites W2896937214 @default.
• W3170822572 cites W2897474715 @default.
• W3170822572 cites W2897701231 @default.
• W3170822572 cites W2901164187 @default.
• W3170822572 cites W2915916649 @default.
• W3170822572 cites W2920228246 @default.
• W3170822572 cites W2923572538 @default.
• W3170822572 cites W2942096534 @default.
• W3170822572 cites W2958269836 @default.
• W3170822572 cites W2970134312 @default.
• W3170822572 cites W2981842332 @default.
• W3170822572 cites W2995546994 @default.
• W3170822572 cites W3034307005 @default.
• W3170822572 cites W3084036849 @default.
• W3170822572 cites W3087145180 @default.
• W3170822572 cites W3092284202 @default.
• W3170822572 cites W3108295290 @default.
• W3170822572 cites W3126921662 @default.
• W3170822572 cites W845944661 @default.
• W3170822572 doi "https://doi.org/10.1016/j.jhydrol.2021.126552" @default.
• W3170822572 hasPublicationYear "2021" @default.
• W3170822572 type Work @default.
• W3170822572 sameAs 3170822572 @default.
• W3170822572 citedByCount "7" @default.
• W3170822572 countsByYear W31708225722021 @default.
• W3170822572 countsByYear W31708225722022 @default.
• W3170822572 countsByYear W31708225722023 @default.
• W3170822572 crossrefType "journal-article" @default.
• W3170822572 hasAuthorship W3170822572A5031000779 @default.
• W3170822572 hasAuthorship W3170822572A5061583002 @default.
• W3170822572 hasConcept C106487976 @default.
• W3170822572 hasConcept C111919701 @default.
• W3170822572 hasConcept C121332964 @default.
• W3170822572 hasConcept C127313418 @default.
• W3170822572 hasConcept C127413603 @default.
• W3170822572 hasConcept C134306372 @default.
• W3170822572 hasConcept C138885662 @default.
• W3170822572 hasConcept C158622935 @default.
• W3170822572 hasConcept C159985019 @default.
• W3170822572 hasConcept C162324750 @default.
• W3170822572 hasConcept C182310444 @default.
• W3170822572 hasConcept C187320778 @default.
• W3170822572 hasConcept C192562407 @default.
• W3170822572 hasConcept C21036866 @default.
• W3170822572 hasConcept C21200559 @default.
• W3170822572 hasConcept C24326235 @default.
• W3170822572 hasConcept C2777303404 @default.
• W3170822572 hasConcept C2779096232 @default.
• W3170822572 hasConcept C2780799671 @default.
• W3170822572 hasConcept C33923547 @default.
• W3170822572 hasConcept C41008148 @default.
• W3170822572 hasConcept C41895202 @default.
• W3170822572 hasConcept C43369102 @default.
• W3170822572 hasConcept C50522688 @default.
• W3170822572 hasConcept C57879066 @default.
• W3170822572 hasConcept C62354387 @default.
• W3170822572 hasConcept C62520636 @default.
• W3170822572 hasConcept C97937538 @default.
• W3170822572 hasConceptScore W3170822572C106487976 @default.
• W3170822572 hasConceptScore W3170822572C111919701 @default.
• W3170822572 hasConceptScore W3170822572C121332964 @default.
• W3170822572 hasConceptScore W3170822572C127313418 @default.
• W3170822572 hasConceptScore W3170822572C127413603 @default.

• next