Erratum: Mixed convection in a partially and differentially heated cavity − a finite volume complete flux analysis

doi:10.1108/HFF-04-2026-0586

Erratum| July 02 2026

Erratum: Mixed convection in a partially and differentially heated cavity − a finite volume complete flux analysis

Author & Article Information

Publisher: Emerald Publishing

Online ISSN: 1758-6585

Print ISSN: 0961-5539

2026

Emerald Publishing Limited

Licensed re-use rights only

International Journal of Numerical Methods for Heat & Fluid Flow (2026) 36 (9): 3719–3722.

https://doi.org/10.1108/HFF-04-2026-0586

It has come to the attention of the publisher that article Rathish Kumar, B.V., and Pandey, C. (2025), “Mixed convection in a partially and differentially heated cavity − a finite volume complete flux analysis”. International Journal of Numerical Methods for Heat & Fluid Flow, Vol. 35 No. 8 pp. 2788–2812, Link to Mixed convection in a partially and differentially heated cavity − a finite volume complete flux analysisLink to the cited article, had errors in several equations with incorrect brackets/parentheses, overlapping numbers, extra symbol within the mathematical and inline equations which is now corrected.

The table below provides details of the affected equations which have now been corrected in the PDF:

On page 2791, the inline incorrect equation $f^{u} = f_{1}^{u} e_{1} + f_{2}^{u} e_{2}, ψ f^{v} = f_{1}^{v} e_{1} + f_{2}^{v} e_{2}, ψ f^{θ} = f_{1}^{θ} e_{1} + f_{2}^{θ} e_{2},$ ⁠, $f_{1}^{u} = u^{2} - \Pr \frac{\partial u}{\partial x}), ψ f_{1}^{v} = u v - \frac{1}{Re} \frac{\partial v}{\partial x}), ψ f_{1}^{θ} = (u θ - \frac{1}{RePr} \frac{\partial θ}{\partial x})$ has been corrected.

On page 2792, the inline incorrect equation $Ω_{j, k + 1 / 2}^{v} \cdot {\dot{u}}_{j + 1 / 2, k}, ψ {\dot{v}}_{j, k + 1 / 2},$ ⁠, $Ω_{j + 1 / 2, k}^{u}, ψ Ω_{j, k + 1 / 2}^{v}$ ⁠, $F_{1 j + 1, k}^{u}, F_{2 j, k + 1}^{v}, {\bar{ψ}}^{e}$ has been corrected.

On page 2795, the inline incorrect equation $B (z) - B (- z) = - z, ψ and B (z) + B (- z) = z \frac{e^{z} + 1}{e^{z} - 1} .$ has been corrected.

On page 2796, the inline incorrect equation $F_{1 j + 1, k}^{u} = - \frac{1}{Re Δ x} - P_{u}^{*} {\overset{\leftarrow}{u}}_{j + 1} + \frac{Δ x}{2} u_{j + 1}^{'} P_{u}^{*} \frac{e^{P_{u}^{'}} + 1}{e^{P +} - 1} - \frac{Δ x^{2}}{8} P^{*} {\overset{\leftarrow}{u}}_{j + 1}^{''} + O {(Δ x)}^{3}$ ⁠, $F_{1 j + 1, k}^{u} = u_{j + 1}^{2} - \frac{1}{Re} u_{j + 1} - \frac{1}{Re} A (P^{*}) {u^{'}}_{j + 1} + O {(Δ x)}^{2} .$ has been corrected.

On page 2797, the inline incorrect equation $C ({\overset{\leftarrow}{P}}^{*}) = \frac{e^{\frac{p^{* \leftarrow}}{2}} - \frac{P^{* \leftarrow}}{2} - 1}{P^{*} ({\overset{\leftarrow}{e}}^{p^{*}} - 1)} \cdot ψ$ has been corrected.

On page 2798, the inline incorrect equation $〈 e^{- Λ}, S^{u} 〉 = - \frac{C^{u} Δ x^{2}}{P^{* 2}} \frac{P^{*}}{2} ({\overset{\leftarrow}{e}}^{P^{* \leftarrow} / 2} + e^{- P^{* \leftarrow} / 2}) - ({\overset{\leftarrow}{e}}^{* \leftarrow / 2} - e^{- P^{* \leftarrow} / 2})$ ⁠, $W (P^{*}) = \frac{e^{P^{*} \leftarrow} - P^{*} - 1}{P^{*} (e^{P^{*} \leftarrow} - 1)} .$ ⁠, $v (x_{j, k + 1 / 2}) = v_{j, k + 1 / 2}, ψ v (x_{j, k + 3 / 2}) = v_{j, k + 3 / 2},$ has been corrected.

On page 2800, the inline incorrect equation:

\begin{array}{c} f_{j + 1}^{h} \approx f_{j + 1}^{cd} = - \frac{1}{Re Δ x} (u_{j + 3 / 2 k} - u_{j + 1 / 2 k}), ψ if P^{*} \overset{\leftarrow}{=} 0, and \\ f_{j + 1}^{h} \approx f_{j + 1}^{uw} = - u^{* \leftarrow} sign (P^{*}) - 1 u_{j + 3 / 2, k} - sign (P^{*}) + 1 u_{j + 1 / 2, k}, ψ if | P^{*} | \to \infty . ψ \end{array}

\begin{array}{c} if P^{*} = 0, ψ f_{j + 1}^{P} = \frac{Δ x}{8} {(δ_{x} p)}_{j + 3 / 2, k} - {(δ_{x} p)}_{j + 1 / 2, k}, ψ and \\ if | P^{*} | \to \infty, k f_{j + 1}^{P} = \frac{Δ x}{4} 1 - sign (P^{*}) {(δ_{x} p)}_{j + 3 / 2, k} - 1 + sign (P^{*}) {(δ_{x} p)}_{j + 1 / 2, k} . \end{array}

$f_{j + 1}^{c} = 0, ψ if P^{*} \overset{\leftarrow}{=} 0, ψ and f_{j + 1}^{c} = - \frac{Δ x}{2} sign (P^{*}) C_{j + 1, k}^{u}, ψ if | P^{*} | \to \infty . ψ$ has been corrected.

In Table 1, the second column head had incorrect equation $P_{u}^{*} \overset{\leftarrow}{=} 0$ which has been corrected.

On page 2801, the inline incorrect equation $F_{2}_{j + 1 / 2, k - 1 / 2}^{u}, ψ$ ⁠,

\begin{array}{l} f^{'} = u v - \frac{1}{Re} u^{'} = 0, ψ y_{k} \leq y \leq y_{k + 1}, ψ x = x_{j + 1 / 2}, ψ \\ u (x_{j + 1 / 2, k}) = u_{j + 1 / 2, k}, ψ u (x_{j + 1 / 2, k + 1}) = u_{j + 1 / 2, k + 1}, ψ \end{array}

$F_{1}_{j + 1 / 2, k + 1 / 2}^{v}, ψ a$ ⁠, $P_{v}^{*} \overset{\leftarrow}{=}$ ⁠,

\begin{array}{l} f^{'} = u v - \frac{1}{Re} v^{'} = 0, ψ x_{j} \leq x \leq x_{j + 1}, ψ y = y_{k + 1 / 2}, ψ \\ v (x_{j, k + 1 / 2}) \underset{\leftarrow}{=} v_{j, k + 1 / 2}, ψ v (x_{j + 1, k + 1 / 2}) \underset{\leftarrow}{=} v_{j + 1, k + 1 / 2}, ψ \end{array}

has been corrected.

On page 2802, the inline incorrect equation $F_{1 j + 1, k}^{u} \approx f_{j + 1, k} = f_{j + 1, k}^{h} + f_{j + 1, k}^{i} \cdot ψ$ has been corrected.

In Table 2, the row headings had incorrect equations $OoC in ‖ \cdot ‖_{L_{1}}, ψ ‖ \cdot ‖_{L_{2}}$ has been corrected.

This error was introduced during the article publication process, for which the publisher apologises.

2026

Emerald Publishing Limited

Licensed re-use rights only

Table 1.

Equation no.	Incorrect equation
1a	∇·u = 0, ψ
1b	$\frac{\partial u}{\partial t} + \nabla \cdot f^{u} = - \frac{\partial p}{\partial x}, ψ$
1c	$\frac{\partial v}{\partial t} + \nabla \cdot f^{v} = - \frac{\partial p}{\partial y} + \frac{Gr}{{Re}^{2}} θ, ψ$
1d	$\frac{\partial θ}{\partial t} + \nabla \cdot f^{θ} = 0, ψ$
1e	$f^{u} = (u^{2} - \frac{1}{Re} \frac{\partial u}{\partial x}) e_{1} + (v u - \frac{1}{Re} \frac{\partial u}{\partial y}) e_{2}, ψ$
1f	$f^{v} = (u v - \frac{1}{Re} \frac{\partial v}{\partial x}) e_{1} + (v^{2} - \frac{1}{Re} \frac{\partial v}{\partial x}) e_{2}, ψ$
1g	$f^{θ} = (u θ - \frac{1}{RePr} \frac{\partial θ}{\partial x}) e_{1} + (v θ - \frac{1}{RePr} \frac{\partial θ}{\partial y}) e_{2}, ψ$
2a	$\frac{u_{j + 1 / 2, k} - u_{j - 1 / 2, k}}{Δ x} + \frac{v_{j, k + 1 / 2} - v_{j, k - 1 / 2}}{Δ y} = 0, ψ$
2b	${\dot{u}}_{j + 1 / 2, k} + \frac{1}{Δ x} F_{1 j + 1, k}^{u} - F_{1 j, k}^{u}) + \frac{1}{Δ y} F_{2 j + 1 / 2, k + 1 / 2}^{u} - F_{2 j + 1 / 2, k - 1 / 2}^{u}) = - \frac{p_{j + 1, k} - p_{j, k}}{Δ x},$
2c	$\begin{matrix} {\dot{v}}_{j, k + 1 / 2} + \frac{1}{Δ x} F_{1 j + 1 / 2 k + 1 / 2}^{v} - F_{1 j - 1 / 2 k + 1 / 2}^{v}) + \frac{1}{Δ y} F_{2 j, k + 1}^{v} - F_{2 j, k}^{v}) = - \frac{p_{j, k + 1} - p_{j, k}}{Δ y} \\ + \frac{G r}{{Re}^{2}} {\tilde{θ}}_{j, k + 1 / 2} \end{matrix}$
2d	${\dot{θ}}^{'}_{j, k} + \frac{1}{Δ x} F_{1 j + 1 / 2, k}^{θ} - F_{1 j - 1 / 2, k}^{θ} + \frac{1}{Δ y} F_{2 j, k + 1 / 2}^{θ} - F_{2 j, k - 1 / 2}^{θ} = 0,$
3a	$f^{'} = u^{2} - \frac{1}{Re} u^{'} = s, ψ x_{j + 1 / 2, k} \leq x \leq x_{j + 3 / 2, k}, ψ y = y_{j},$
3b	$u (x_{j + 1 / 2, k}) = u_{j + 1 / 2, k}, u (x_{j + 3 / 2, k}) = u_{j + 3 / 2, k},$
4	$s = - p_{x} - C^{u}, ψ C^{u} = u v - \frac{1}{Re} u_{y}_{_{y}} .$
6	$({\overset{\leftarrow}{e}}^{- Λ} u) \overset{\leftarrow}{+} Re e^{- Λ} f_{j + 1} = - Re e^{- Λ} S (x) \cdot ψ$
7	$\begin{array}{l} (e^{- Λ_{j + 3 / 2 k})} u_{j + 3 / 2, k} - (e^{- Λ_{j + 1 / 2 k})} u_{j + 1 / 2, k} + Re \int_{x_{j + 1 / 2 k}}^{x_{j + 3 / 2 k}} e^{- Λ (x)} d x) f_{j + 1} \\ = - Re \int_{x_{j + 1 / 2 k}}^{x_{j + 3 / 2 k}} e^{- Λ (x)} S (x) d x \end{array}$
9	$f_{j + 1} = - \frac{1}{Re} \frac{e^{- Λ_{j + 3 / 2 k}} u_{j + 3 / 2, k} - e^{- Λ_{j + 1 / 2 k}} u_{j + 1 / 2, k}}{〈 e^{- Λ}, 1 〉} - \frac{〈 e^{- Λ}, S 〉}{〈 e^{- Λ}, 1 〉}, ψ$
10a	$f_{j + 1} = f_{j + 1}^{h} + f_{j + 1}^{i}, ψ$
10b	$f_{j + 1}^{h} = - \frac{1}{Re} \frac{e^{- Λ_{j + 3 / 2 k}} u_{j + 3 / 2, k} - e^{- Λ_{j + 1 / 2 k}} u_{j + 1 / 2, k}}{〈 e^{- Λ}, 1 〉}, ψ$
10c	$f_{j + 1}^{i} = - \frac{〈 e^{- Λ}, S 〉}{〈 e^{- Λ}, 1 〉} \cdot ψ$
11	$〈 e^{- Λ}, 1 〉 = \int_{x_{j + 1 / 2 k}}^{x_{j + 3 / 2 k}} e^{- Λ} d x = \frac{Δ x}{P^{}} (e^{{\overset{\leftarrow}{P}}^{} / 2} - e^{- P^{*} / 2}) \leftarrow$
12a	$f_{j + 1}^{h} = - \frac{1}{Re Δ x} B ({\overset{\leftarrow}{P}}^{}) u_{j + 3 / 2, k} - B (- P^{}) u_{j + 1 / 2, k}, ψ$
12b	$B ({\overset{\leftarrow}{P}}^{}) = \frac{P^{}}{e^{P^{*}} - 1} \cdot ψ$
13a	$f_{j + 1}^{i} = f_{j + 1}^{p} + f_{j + 1}^{c}, ψ$
13b	$f_{j + 1}^{p} = - \frac{〈 e^{- Λ}, p - p_{j + 1} 〉}{〈 e^{- Λ}, 1 〉}, ψ f_{j + 1}^{c} = - \frac{〈 e^{- Λ}, S^{u} 〉}{〈 e^{- Λ}, 1 〉} \cdot ψ$
14a	$p (x) - p_{j + 1} = {\begin{array}{l} {(δ_{x} p)}_{j + 1 / 2, k} (x - x_{j + 1}) \leftarrow for x_{j + 1 / 2, k} \leq x \leq x_{j + 1}, \\ {(δ_{x} p)}_{j + 3 / 2, k} (x - x_{j + 1}) \leftarrow for x_{j + 1} < x \leq x_{j + 3 / 2, k}, \end{array}$
14b	${(δ_{x} p)}_{j + 1 / 2, k} = \frac{p_{j + 1, k} - p_{i, j}}{Δ x}, ψ {(δ_{x} p)}_{j + 3 / 2, k} = \frac{p_{i + 2, j} - p_{i + 1, j}}{Δ x} \cdot ψ$
14c	$\begin{array}{l} 〈 e^{- Λ}, p (x) - p_{j + 1} 〉 = - \frac{Δ x^{2}}{P^{* 2}} \frac{P^{* \leftarrow}}{2} e^{P^{* \leftarrow} / 2} + 1 - e^{P^{* \leftarrow} / 2} {(δ_{x} p)}_{j + 1 / 2, k} \\ - \frac{Δ x^{2}}{P^{* 2}} \frac{P^{}}{2} e^{- P^{ \leftarrow} / 2} - 1 + e^{- P^{* \leftarrow} / 2} {(δ_{x} p)}_{j + 3 / 2, k} \end{array}$
15	$f_{j + 1}^{p} = Δ x C ({\overset{\leftarrow}{P}}^{}) {(δ_{x} p)}_{j + 3 / 2, k} - C (- P^{}) {(δ_{x} p)}_{j + 1 / 2, k}$
16	$f_{j + 1}^{c} = - Δ x \frac{1}{2} - W (P^{*}) \leftarrow C_{j + 1, k}^{u},$
17	$f^{'} = v^{2} - \frac{1}{Re} v^{'} = s, ψ y_{k + 1 / 2} \leq y \leq y_{k + 3 / 2}, ψ x = x_{j},$
18a	$f_{j + 1} = f_{j + 1}^{h} + f_{j + 1}^{i}, ψ$
18b	$f_{j + 1}^{h} = - \frac{1}{Re Δ y} B ({\overset{\leftarrow}{P}}^{}) v_{i, j + 3 / 2} - B (- P^{}) v_{j, k + 1 / 2}, ψ P^{} \overset{\leftarrow}{=} Re v^{} Δ y$
18d	$f_{j + 1}^{c} = - Δ y \frac{1}{2} - W (P^{*}) \leftarrow C^{v},$
18e	$f_{j + 1}^{p} = Δ y C (P^{}) {(δ_{y} p)}_{i, j + 3 / 2} - C (- P^{}) {(δ_{y} p)}_{j, k + 1 / 2}, ψ$
18f	$f_{j + 1}^{θ} = - Δ y \frac{Gr}{{Re}^{2}} \frac{1}{2} - W (P^{*}) \leftarrow {\tilde{θ}}_{j, k + 1 / 2} \cdot ψ$
19a	$f^{'} = u θ - \frac{1}{RePr} θ^{'} = C^{θ, v}, x_{j} \leq x \leq x_{j + 1}, ψ y = y_{k}, ψ$
19b	$θ (x_{j, k}) = θ_{j, k}, ψ θ (x_{j + 1, k}) = θ_{j + 1, k}, ψ$
19c	$F_{1 j + 1 / 2, k}^{θ} = f_{j + 1 / 2} = - \frac{1}{RePr Δ x} B ({\overset{\leftarrow}{P}}^{}) θ_{j + 1, k} - B (- P^{}) θ_{j, k} - Δ x \frac{1}{2} - W (P^{*}) \leftarrow C_{j + 1 / 2, k}^{θ, v},$
20a	$f^{'} = v θ - \frac{1}{RePr} θ^{'} = C^{θ, u}, ψ y_{k} \leq y \leq y_{k + 1}, ψ x = x_{j}, ψ$
20b	$θ (x_{j, k}) = θ_{j, k}, ψ θ (x_{j, k + 1}) = θ_{j, k + 1}, ψ$
21	$F_{2 j + 1 / 2, k + 1 / 2}^{u} = - \frac{1}{Re Δ y} B P_{v}^{* \leftarrow} u_{j + 1 / 2, k + 1} - B - P_{v}^{* \leftarrow} u_{j + 1 / 2, k}$
22	$F_{1 j + 1 / 2, k + 1 / 2}^{v} = f (x_{j + 1 / 2, k + 1 / 2}) \underset{\leftarrow}{=} - \frac{1}{Re Δ x} B P_{u}^{* \leftarrow} v_{j + 1, k + 1 / 2} - B - P_{u}^{* \leftarrow} u_{j, k + 1 / 2}$
23a	u(x, y, t) = sin (πx) cos (πy)exp – 2π2t/Re, ψ
23b	v(x, y, t) = – cos (πx) sin(πy)exp – 2π2t/Re, ψ
23c	$p (x, y, t) = \frac{1}{4} \cos (2 π x) + \cos (2 π y) e x p - 4 π^{2} t / Re .$

Equation no.	Incorrect equation
1a	∇·u = 0, ψ
1b	$\frac{\partial u}{\partial t} + \nabla \cdot f^{u} = - \frac{\partial p}{\partial x}, ψ$
1c	$\frac{\partial v}{\partial t} + \nabla \cdot f^{v} = - \frac{\partial p}{\partial y} + \frac{Gr}{{Re}^{2}} θ, ψ$
1d	$\frac{\partial θ}{\partial t} + \nabla \cdot f^{θ} = 0, ψ$
1e	$f^{u} = (u^{2} - \frac{1}{Re} \frac{\partial u}{\partial x}) e_{1} + (v u - \frac{1}{Re} \frac{\partial u}{\partial y}) e_{2}, ψ$
1f	$f^{v} = (u v - \frac{1}{Re} \frac{\partial v}{\partial x}) e_{1} + (v^{2} - \frac{1}{Re} \frac{\partial v}{\partial x}) e_{2}, ψ$
1g	$f^{θ} = (u θ - \frac{1}{RePr} \frac{\partial θ}{\partial x}) e_{1} + (v θ - \frac{1}{RePr} \frac{\partial θ}{\partial y}) e_{2}, ψ$
2a	$\frac{u_{j + 1 / 2, k} - u_{j - 1 / 2, k}}{Δ x} + \frac{v_{j, k + 1 / 2} - v_{j, k - 1 / 2}}{Δ y} = 0, ψ$
2b	${\dot{u}}_{j + 1 / 2, k} + \frac{1}{Δ x} F_{1 j + 1, k}^{u} - F_{1 j, k}^{u}) + \frac{1}{Δ y} F_{2 j + 1 / 2, k + 1 / 2}^{u} - F_{2 j + 1 / 2, k - 1 / 2}^{u}) = - \frac{p_{j + 1, k} - p_{j, k}}{Δ x},$
2c	$\begin{matrix} {\dot{v}}_{j, k + 1 / 2} + \frac{1}{Δ x} F_{1 j + 1 / 2 k + 1 / 2}^{v} - F_{1 j - 1 / 2 k + 1 / 2}^{v}) + \frac{1}{Δ y} F_{2 j, k + 1}^{v} - F_{2 j, k}^{v}) = - \frac{p_{j, k + 1} - p_{j, k}}{Δ y} \\ + \frac{G r}{{Re}^{2}} {\tilde{θ}}_{j, k + 1 / 2} \end{matrix}$
2d	${\dot{θ}}^{'}_{j, k} + \frac{1}{Δ x} F_{1 j + 1 / 2, k}^{θ} - F_{1 j - 1 / 2, k}^{θ} + \frac{1}{Δ y} F_{2 j, k + 1 / 2}^{θ} - F_{2 j, k - 1 / 2}^{θ} = 0,$
3a	$f^{'} = u^{2} - \frac{1}{Re} u^{'} = s, ψ x_{j + 1 / 2, k} \leq x \leq x_{j + 3 / 2, k}, ψ y = y_{j},$
3b	$u (x_{j + 1 / 2, k}) = u_{j + 1 / 2, k}, u (x_{j + 3 / 2, k}) = u_{j + 3 / 2, k},$
4	$s = - p_{x} - C^{u}, ψ C^{u} = u v - \frac{1}{Re} u_{y}_{_{y}} .$
6	$({\overset{\leftarrow}{e}}^{- Λ} u) \overset{\leftarrow}{+} Re e^{- Λ} f_{j + 1} = - Re e^{- Λ} S (x) \cdot ψ$
7	$\begin{array}{l} (e^{- Λ_{j + 3 / 2 k})} u_{j + 3 / 2, k} - (e^{- Λ_{j + 1 / 2 k})} u_{j + 1 / 2, k} + Re \int_{x_{j + 1 / 2 k}}^{x_{j + 3 / 2 k}} e^{- Λ (x)} d x) f_{j + 1} \\ = - Re \int_{x_{j + 1 / 2 k}}^{x_{j + 3 / 2 k}} e^{- Λ (x)} S (x) d x \end{array}$
9	$f_{j + 1} = - \frac{1}{Re} \frac{e^{- Λ_{j + 3 / 2 k}} u_{j + 3 / 2, k} - e^{- Λ_{j + 1 / 2 k}} u_{j + 1 / 2, k}}{〈 e^{- Λ}, 1 〉} - \frac{〈 e^{- Λ}, S 〉}{〈 e^{- Λ}, 1 〉}, ψ$
10a	$f_{j + 1} = f_{j + 1}^{h} + f_{j + 1}^{i}, ψ$
10b	$f_{j + 1}^{h} = - \frac{1}{Re} \frac{e^{- Λ_{j + 3 / 2 k}} u_{j + 3 / 2, k} - e^{- Λ_{j + 1 / 2 k}} u_{j + 1 / 2, k}}{〈 e^{- Λ}, 1 〉}, ψ$
10c	$f_{j + 1}^{i} = - \frac{〈 e^{- Λ}, S 〉}{〈 e^{- Λ}, 1 〉} \cdot ψ$
11	$〈 e^{- Λ}, 1 〉 = \int_{x_{j + 1 / 2 k}}^{x_{j + 3 / 2 k}} e^{- Λ} d x = \frac{Δ x}{P^{}} (e^{{\overset{\leftarrow}{P}}^{} / 2} - e^{- P^{*} / 2}) \leftarrow$
12a	$f_{j + 1}^{h} = - \frac{1}{Re Δ x} B ({\overset{\leftarrow}{P}}^{}) u_{j + 3 / 2, k} - B (- P^{}) u_{j + 1 / 2, k}, ψ$
12b	$B ({\overset{\leftarrow}{P}}^{}) = \frac{P^{}}{e^{P^{*}} - 1} \cdot ψ$
13a	$f_{j + 1}^{i} = f_{j + 1}^{p} + f_{j + 1}^{c}, ψ$
13b	$f_{j + 1}^{p} = - \frac{〈 e^{- Λ}, p - p_{j + 1} 〉}{〈 e^{- Λ}, 1 〉}, ψ f_{j + 1}^{c} = - \frac{〈 e^{- Λ}, S^{u} 〉}{〈 e^{- Λ}, 1 〉} \cdot ψ$
14a	$p (x) - p_{j + 1} = {\begin{array}{l} {(δ_{x} p)}_{j + 1 / 2, k} (x - x_{j + 1}) \leftarrow for x_{j + 1 / 2, k} \leq x \leq x_{j + 1}, \\ {(δ_{x} p)}_{j + 3 / 2, k} (x - x_{j + 1}) \leftarrow for x_{j + 1} < x \leq x_{j + 3 / 2, k}, \end{array}$
14b	${(δ_{x} p)}_{j + 1 / 2, k} = \frac{p_{j + 1, k} - p_{i, j}}{Δ x}, ψ {(δ_{x} p)}_{j + 3 / 2, k} = \frac{p_{i + 2, j} - p_{i + 1, j}}{Δ x} \cdot ψ$
14c	$\begin{array}{l} 〈 e^{- Λ}, p (x) - p_{j + 1} 〉 = - \frac{Δ x^{2}}{P^{* 2}} \frac{P^{* \leftarrow}}{2} e^{P^{* \leftarrow} / 2} + 1 - e^{P^{* \leftarrow} / 2} {(δ_{x} p)}_{j + 1 / 2, k} \\ - \frac{Δ x^{2}}{P^{* 2}} \frac{P^{}}{2} e^{- P^{ \leftarrow} / 2} - 1 + e^{- P^{* \leftarrow} / 2} {(δ_{x} p)}_{j + 3 / 2, k} \end{array}$
15	$f_{j + 1}^{p} = Δ x C ({\overset{\leftarrow}{P}}^{}) {(δ_{x} p)}_{j + 3 / 2, k} - C (- P^{}) {(δ_{x} p)}_{j + 1 / 2, k}$
16	$f_{j + 1}^{c} = - Δ x \frac{1}{2} - W (P^{*}) \leftarrow C_{j + 1, k}^{u},$
17	$f^{'} = v^{2} - \frac{1}{Re} v^{'} = s, ψ y_{k + 1 / 2} \leq y \leq y_{k + 3 / 2}, ψ x = x_{j},$
18a	$f_{j + 1} = f_{j + 1}^{h} + f_{j + 1}^{i}, ψ$
18b	$f_{j + 1}^{h} = - \frac{1}{Re Δ y} B ({\overset{\leftarrow}{P}}^{}) v_{i, j + 3 / 2} - B (- P^{}) v_{j, k + 1 / 2}, ψ P^{} \overset{\leftarrow}{=} Re v^{} Δ y$
18d	$f_{j + 1}^{c} = - Δ y \frac{1}{2} - W (P^{*}) \leftarrow C^{v},$
18e	$f_{j + 1}^{p} = Δ y C (P^{}) {(δ_{y} p)}_{i, j + 3 / 2} - C (- P^{}) {(δ_{y} p)}_{j, k + 1 / 2}, ψ$
18f	$f_{j + 1}^{θ} = - Δ y \frac{Gr}{{Re}^{2}} \frac{1}{2} - W (P^{*}) \leftarrow {\tilde{θ}}_{j, k + 1 / 2} \cdot ψ$
19a	$f^{'} = u θ - \frac{1}{RePr} θ^{'} = C^{θ, v}, x_{j} \leq x \leq x_{j + 1}, ψ y = y_{k}, ψ$
19b	$θ (x_{j, k}) = θ_{j, k}, ψ θ (x_{j + 1, k}) = θ_{j + 1, k}, ψ$
19c	$F_{1 j + 1 / 2, k}^{θ} = f_{j + 1 / 2} = - \frac{1}{RePr Δ x} B ({\overset{\leftarrow}{P}}^{}) θ_{j + 1, k} - B (- P^{}) θ_{j, k} - Δ x \frac{1}{2} - W (P^{*}) \leftarrow C_{j + 1 / 2, k}^{θ, v},$
20a	$f^{'} = v θ - \frac{1}{RePr} θ^{'} = C^{θ, u}, ψ y_{k} \leq y \leq y_{k + 1}, ψ x = x_{j}, ψ$
20b	$θ (x_{j, k}) = θ_{j, k}, ψ θ (x_{j, k + 1}) = θ_{j, k + 1}, ψ$
21	$F_{2 j + 1 / 2, k + 1 / 2}^{u} = - \frac{1}{Re Δ y} B P_{v}^{* \leftarrow} u_{j + 1 / 2, k + 1} - B - P_{v}^{* \leftarrow} u_{j + 1 / 2, k}$
22	$F_{1 j + 1 / 2, k + 1 / 2}^{v} = f (x_{j + 1 / 2, k + 1 / 2}) \underset{\leftarrow}{=} - \frac{1}{Re Δ x} B P_{u}^{* \leftarrow} v_{j + 1, k + 1 / 2} - B - P_{u}^{* \leftarrow} u_{j, k + 1 / 2}$
23a	u(x, y, t) = sin (πx) cos (πy)exp – 2π2t/Re, ψ
23b	v(x, y, t) = – cos (πx) sin(πy)exp – 2π2t/Re, ψ
23c	$p (x, y, t) = \frac{1}{4} \cos (2 π x) + \cos (2 π y) e x p - 4 π^{2} t / Re .$

Erratum: Mixed convection in a partially and differentially heated cavity − a finite volume complete flux analysis

Data & Figures

Contents

Supplements

References

New and popular articles

Email Alerts

Cited By

Languages

Erratum: Mixed convection in a partially and differentially heated cavity − a finite volume complete flux analysis

Data & Figures

Contents

Supplements

References

Related

New and popular articles

Email Alerts

Suggested Reading

Related Chapters

Recommended for you

Cited By

Languages

Sharing Unavailable