Investigation of the flow characteristics of slit check dams using novel models

IF 5.7 3区 环境科学与生态学 Q1 WATER RESOURCES Applied Water Science Pub Date : 2024-12-28 DOI:10.1007/s13201-024-02344-7
Muhammet Emin Emiroglu, Erdinc Ikinciogullari, Eyyup Ensar Yalcin, Enes Gul
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Abstract

Floods, which cause loss of life and property and destruction of the environment, have devastating effects on socio-economic welfare. Slit-check dams are essential structures for managing the transport of silt and woody debris, especially in events of significant floods. The current study presents the hydraulic characteristics of slit-check dams with different geometries for experimental and numerical tests. First, the Butterfly model was produced with a 3D printer and examined experimentally. Then, the Butterfly model was validated extensively using OpenFOAM (v7) software for the numerical analysis. Finally, the other models were examined numerically using the k-ε turbulence model. The changes in water surface profile, velocity profiles, energy dissipation rates, and streamlines were comprehensively examined and discussed. The results showed that slit-check dams caused hydraulic jumps and dissipated flow energy. The Arced and Rectangular models, in particular, demonstrated a significant performance for energy dissipation, which is essential for flood management. Water surface profiles are directly affected by discharge. Moreover, the cross-sectional length of the model in question significantly affects the water surface profile. Accordingly, an increase was observed in the velocity profiles along the slit-check dam. While the maximum velocity for all unit discharge was observed in the V-shaped model, the minimum velocities were observed for the Arced and Rectangular models. Thus, the energy absorption performance of Arced and Rectangular models is higher.

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用新模型研究狭缝拦河坝的流动特性
洪水造成生命财产损失和环境破坏,对社会经济福利造成毁灭性影响。缝挡水坝是管理淤泥和木屑运输的重要结构,特别是在发生重大洪水时。本文研究了不同几何形状的缝挡坝的水力特性,并进行了试验和数值试验。首先,用3D打印机制作蝴蝶模型并进行实验检验。然后,使用OpenFOAM (v7)软件进行数值分析,对Butterfly模型进行了广泛的验证。最后,用k-ε湍流模型对其他模型进行了数值检验。全面考察和讨论了水面剖面、速度剖面、能量耗散率和流线的变化。结果表明,缝挡坝引起了水跃,耗散了水流能。特别是圆弧和矩形模型,在能量耗散方面表现出了显著的性能,这对洪水管理至关重要。水面轮廓直接受到排放的影响。此外,模型的横截面长度对水面剖面有显著影响。因此,沿狭缝坝的速度分布有所增加。在v形模型中观察到所有单位流量的最大速度,而在圆弧和矩形模型中观察到最小速度。因此,圆弧和矩形模型的吸能性能更高。
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来源期刊
Applied Water Science
Applied Water Science WATER RESOURCES-
CiteScore
9.90
自引率
3.60%
发文量
268
审稿时长
13 weeks
期刊介绍:
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