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1994
DOI: 10.1016/0045-7930(94)90055-8
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Steady viscous flow in a trapezoidal cavity

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Cited by 42 publications
(42 citation statements)
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“…Ribbens et al (1991) described the flow in an elliptic región with a moving boundary, while Darr & Vanka (1991) have studied two-dimensional flow in a trapezoidal cavity, permitting lid motion of either of the unequal trapezium sides and documenting the respective steady flow patterns in the Reynolds number range Re e [100,1000]. Motivated by the aforementioned prediction of Batchelor (1956), the same trapezoidal lid-driven cavity flow, as well as flow in an equilateral triangular cavity, was solved by McQuain et al (1994) in the range Re e [1, 500], while addressed the equilateral triangular lid-driven cavity flow in the same Reynolds number range. Several lid-driven cavity geometries of complex two-dimensional crosssectional profile may be built by superposition of rectangular domains.…”
Section: Introductionmentioning
confidence: 99%
“…Ribbens et al (1991) described the flow in an elliptic región with a moving boundary, while Darr & Vanka (1991) have studied two-dimensional flow in a trapezoidal cavity, permitting lid motion of either of the unequal trapezium sides and documenting the respective steady flow patterns in the Reynolds number range Re e [100,1000]. Motivated by the aforementioned prediction of Batchelor (1956), the same trapezoidal lid-driven cavity flow, as well as flow in an equilateral triangular cavity, was solved by McQuain et al (1994) in the range Re e [1, 500], while addressed the equilateral triangular lid-driven cavity flow in the same Reynolds number range. Several lid-driven cavity geometries of complex two-dimensional crosssectional profile may be built by superposition of rectangular domains.…”
Section: Introductionmentioning
confidence: 99%
“…Besides, the slopes play a major role in the reduction of the size of the primary eddies (Mcquain et al, 1994). The presense of slopes also result in increase in the wind speed (Figure 2).…”
Section: Slopes and Benchesmentioning
confidence: 99%
“…Using (20), for the two vertical walls, computational boundary conditions for the vorticity are obtained as follows…”
Section: Square Cavitymentioning
confidence: 99%
“…In early numerical studies, e.g. [18,20], finite differences were constructed on a transformed geometry and the flows were considered for Re ≤ 500 only. Later on, solutions for higher Re numbers were achieved by means of, for example, the so-called computational boundary method in which the computational region under consideration is one-grid inside the physical domain [21] and the flow-condition-based interpolation [19].…”
Section: Triangular Cavitymentioning
confidence: 99%