A tidal current power plant planning method considering the impact of reefs
A power plant and tidal technology, which is applied in the direction of AC network circuits, electrical components, circuit devices, etc., can solve problems that are not conducive to the rational use of tidal current energy power plant funds, overestimation of tidal current energy power generation potential, and inability to directly apply tidal currents Issues such as flow energy power plant planning, to achieve the effect of improving capital utilization and tapping power generation potential
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Embodiment 1
[0161] see figure 1 , a tidal current energy plant planning method considering the influence of reefs, mainly includes the following steps:
[0162] 1) Obtain the basic data of the tidal current power plant.
[0163] Further, the basic data of the tidal current power plant mainly include:
[0164] The tidal flow velocity measured data sample v of the tidal current energy power plant in 24 periods of each day in n days qt . q is the serial number of the day. t is the serial number of the time period. For example, the measured data sample of tidal flow velocity on the qth day is Vq=[v q1 ,v q2 ,...,v q24 ], q=1,2...n, t=1,2...24.
[0165] The cut-in velocity V of the tidal current energy generator in , Rated velocity V rated , cut out flow velocity V out , Rated output power P rated , Capability coefficient C p , thrust coefficient C T , blade diameter D, blade radius r 0 and the area A swept by the blade.
[0166] Seawater density ρ and turbulence coefficient I ...
Embodiment 2
[0311] Taking the construction of a tidal current power plant in the sea near the coastal areas of our country as an example, the specific steps of the tidal current power plant planning method considering the influence of reefs are as follows:
[0312] 1) Enter basic data.
[0313] Input tidal current energy power plant 90 days per day 24 periods of measured data sample of tidal current v qt , where the measured data sample of tidal flow velocity on the qth day is V q =[v q1 ,v q2 ,...,v q24 ], q=1,2...n, t=1,2...24, n=90. Input the cut-in velocity V of the tidal current energy generator in =0.7m / s, rated velocity V rated =3m / s, cut out flow velocity V out =3.5m / s, rated output power P rated =1.2MW, Capability coefficient C P =0.45, thrust coefficient C T =0.7, blade diameter D=18m, blade radius r 0 =9m, the area swept by the blade A=254.34m 2 , seawater density ρ=1025kg / m 3 , the turbulence coefficient I 0 = 0.07. The planned area of input tidal current powe...
Embodiment 3
[0373] The comparison between a tidal current power plant planning method considering the impact of reefs and a tidal current power plant planning method not considering the impact of reefs is as follows:
[0374] M0: A Tidal Stream Energy Farm Planning Method Considering Reef Impacts.
[0375] M1: The influence of the wake in unfeasible areas such as reefs is not considered, and the rest of the optimization process is consistent with the present invention.
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