Aeration structure and energy dissipation method of vertical face angle and plane angle changing first level transition stair
A technology of variable elevation and plane angle, which is applied in water conservancy projects, sea area engineering, coastline protection, etc., can solve problems such as cavitation and erosion damage of stepped spillways, and achieve improved atomization, reduced pressure, and increased aeration effect of concentration
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Embodiment 1
[0044] Embodiment 1: as Figure 1~12 As shown, a first-stage transitional aerated structure with variable elevation angle and plane angle, including WES curved section 1, WES stepped straight section 2, WES anti-arc section 3, stilling pool 4, and first-stage transitional staircase elevation 5 , first-stage transition ladder plane 6, auxiliary hydraulic jacking device, main hydraulic jacking device, rotating shaft component 8, pressure sensor, controller, WES curve section 1 is connected with WES straight section 2, WES straight section 2 is connected with WES reverse arc section 3 connection, the tail of the WES anti-arc section 3 is connected to the stilling pool 4, the front 4 of the stilling pool is connected to the first transitional ladder facade 5, the first transitional ladder facade 5 is located above the first transitional ladder plane 6, and the first The bottom of the lower end of the staircase facade 5 and the bottom of the rear end of the first step plane 6 are e...
Embodiment 2
[0054] Embodiment 2: As shown in Figure 4, the structure of this embodiment is the same as that of Embodiment 1, the difference is that the relative angle ε of the first transition step elevation 5 does not change, only for the first transition step plane 6 The relative angle Ѳ is adjusted by adjusting the auxiliary hydraulic jacking device at the rear end of the transition step plane 6 of the first step, and assisting the work through the rotating shaft 8 at the front end of the transition step plane of the first step, thereby achieving the adjustment of the transition step plane 6 of the first step Changes in the relative angle Ѳ. In this way, the concentration of air entrainment in the process of flood discharge and energy dissipation can be increased, and the degree of cavitation erosion suffered by the stepped surface can be reduced.
Embodiment 3
[0055] Embodiment 3: as image 3 As shown, the structure of this embodiment is the same as that of Embodiment 1, the difference is that the relative angle Ѳ of the transition step plane 6 of the first step is not changed, only the relative angle ε of the transition step elevation 5 of the first step is adjusted, through Adjust the auxiliary hydraulic jacking device at the lower end of the transitional stepped facade 5 of the first stage, and perform auxiliary work through the rotating shaft 8 at the upper end of the transitional stepped facade 5 of the first stage, so as to achieve the relative angle ε of the transitional stepped facade 5 of the first stage. Change. In this way, the concentration of air entrainment in the process of flood discharge and energy dissipation can be increased, and the degree of cavitation erosion suffered by the stepped surface can be reduced.
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