Evaluation method for wind power carrying capacity of offshore oil and gas field power grid considering electrical coupling constraints
An electrical coupling, oil and gas field technology, used in electrical components, computing, wind power generation, etc.
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Embodiment 1
[0040] The method for evaluating the wind power carrying capacity of the power grid of offshore oil and gas fields provided by the present invention, which takes into account electrical coupling constraints, can be applied to the terminal, and the terminal can evaluate the offshore oil and gas fields through the method for evaluating the wind power carrying capacity of offshore oil and gas field power grids that take into account electrical coupling constraints provided by the present invention. Therefore, it can provide reference data for the construction plan of wind power facilities or the allocation plan of wind power resources before the introduction of wind power into the grid of offshore oil and gas fields.
[0041] like figure 1 As shown, an embodiment of the method for evaluating the wind power carrying capacity of an offshore oil and gas field power grid considering electrical coupling constraints includes the steps of:
[0042] S100. Determine the maximum upward slo...
example 2
[0144] The specific settings and verification results of Example 1 and Example 2 are described below.
example 1
[0146] Figure 7 Among them, the island microgrid system includes four 4.5MW gas generators (G1~G4), and the fuel gas can be natural gas, associated gas or a mixture of the two. The total system load is 5.82MW, and the reactive power requirement is about 3.5MVar, excluding two gas compressors. Because the gas compressor is a coupled element of the microgrid and the gas grid, the power demand varies with airflow fluctuations caused by changes in the output of the offshore wind power. For reactive power compensation of the system, a static var generator (SVG) is installed on platform 4. The fuel gas for the gas generators on platforms 1 and 2 is taken from nodes 1 and 7 of the gas grid.
[0147] The gas network system includes two gas compressors (C1~C2) and two gas sources (S1~S2). The gas compressors are connected to busbars 2 and 3 of the microgrid, respectively. S1 is the natural gas source, which mainly meets the needs of the natural gas plant; S2 is the associated gas ...
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