Sentence examples for dispatched wind from inspiring English sources

Open image in new window Fig. 7 Comparison of the dispatched wind power in Cases 1-3 with forecasted wind power generation (FWPG).

The fuzzy parameters of group 5 are the most conservative, having the lowest total dispatched wind power, so these are selected for simulation.

The BESS adjusts the power output according to the dispatched wind power generation schedule, so that the maximum power is absorbed and wind power curtailment is reduced, by implementing the "tracking power schedule output" mode at the specified time.

Accordingly, sumlimits_{i = 1}^{{N_{text{G}} }} {P_{it} I_{it} } + sumlimits_{j = 1}^{{N_{text{E}} }} {P_{jt} I_{jt} } + sumlimits_{w = 1}^{{N_{text{W}} }} {P_{wt} } = D_{t} (23 where D t is system load at time t; P wt is the generation dispatch of wind unit w at hour t; and N W is the total number of wind power units, and the dispatched wind power is constraint by (24).

Therefore, a robust optimization model is employed for optimizing the power dispatched from wind farms in this paper.

The framework includes four modules: regional grid dispatch, wind power dispatch of a WF cluster, WF control, and wind generator control.

In this paper, a dual battery energy storage system (BESS) scheme is adopted to compensate power mismatch between wind power and desired power schedule for dispatching wind power on an hourly basis.

Because the available output power of wind farms is determined by wind speed, the dispatched power of wind farms for system restoration must be less than the maximum available output power.

Due to the uncertainty of wind power, the dispatched power of wind farms may not always be followed, which results in transient power sags.

Besides the transient power sags of the output power, the dispatched powers of wind farms are adjusted periodically according to the available wind power and the status of the system being restored.

The total dispatched power of wind farms is illustrated in Fig. 6.