Water Sigh in the Buildings Research Results for Different Energy Absorbers

The research focuses on how a local scour develops and evolves underneath hydraulic structures with conical gates subjected to varying operational levels and energy absorbers. Laboratory investigations were conducted to analyse how operating gate opening and flow kinematics affected scour depth and energy absorbing effectiveness. Three dampers were modelled: triangular, rectangular, and polygonal to evaluate their influences on stabilization time and cumulative movements of washouts. The findings concluded that scour depth increased in a nonlinear relationship with gate opening to a maximum of 7 cm being reached with full opening, while the triangular damper showed the highest energy absorption efficacy (16 %) through cumulative movement. The Froude number in the reinforced section did not exceed 2, while scouring intensified once flow underwent hydraulic jumps above a height of 4 m. Turbulent stresses developed in the quenching chamber, where efficiency improved with energy dissipation from the flow. The system operated most efficiently at 80% gate opening and was found to provide stable flow with lower levels of scour. The results also provide valuable information in the hydraulic design and protection of structures discharging water with conical gates.

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Publication Details

Journal
Springer Link (Chiba Institute of Technology)
Published
2026-03-03
DOI
https://doi.org/10.1051/epjconf/202635504014/pdf
Primary Topic
Hydrology and Sediment Transport Processes
Type
article
Field-Weighted Citation Impact
0.00
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article

Water Sigh in the Buildings Research Results for Different Energy Absorbers

Panji Nurmatov, Azamat Kurbonov, Xusniddin Baxriddinovich Artikboyev, Murod Namazovich Mirzayev et al.
Springer Link (Chiba Institute of Technology)
Hydrology and Sediment Transport Processes
article

Water Sigh in the Buildings Research Results for Different Energy Absorbers

Panji Nurmatov, Azamat Kurbonov, Xusniddin Baxriddinovich Artikboyev, Murod Namazovich Mirzayev, Dilnora Ganiyeva
article en

Abstract

The research focuses on how a local scour develops and evolves underneath hydraulic structures with conical gates subjected to varying operational levels and energy absorbers. Laboratory investigations were conducted to analyse how operating gate opening and flow kinematics affected scour depth and energy absorbing effectiveness. Three dampers were modelled: triangular, rectangular, and polygonal to evaluate their influences on stabilization time and cumulative movements of washouts. The findings concluded that scour depth increased in a nonlinear relationship with gate opening to a maximum of 7 cm being reached with full opening, while the triangular damper showed the highest energy absorption efficacy (16 %) through cumulative movement. The Froude number in the reinforced section did not exceed 2, while scouring intensified once flow underwent hydraulic jumps above a height of 4 m. Turbulent stresses developed in the quenching chamber, where efficiency improved with energy dissipation from the flow. The system operated most efficiently at 80% gate opening and was found to provide stable flow with lower levels of scour. The results also provide valuable information in the hydraulic design and protection of structures discharging water with conical gates.

Springer Link (Chiba Institute of Technology)
Affordable and clean energy
Openalex Percentile: Top 45%
Hydrology and Sediment Transport Processes
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