About Generator rotor wind zone distribution
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6 FAQs about [Generator rotor wind zone distribution]
Which rotor design parameters affect all aspects of turbine design?
Rotor design parameters (orange) affect all aspects of turbine design. In this section, we outline the design and simulation results of the 42 turbines shown in Table 3. The design loads for each rotor are estimated using harmonic loads from Sect. 5 and the transformation method in Sect. 6.
How do DFIG rotor windings work?
The rotor windings of the DFIG are connected to an AC/DC converter commonly referred to as the machine side converter (MSC). The ac side of a second DC/AC converter, commonly referred to as the grid side converter (GSC), is connected in parallel with the machine stator windings and PCC.
What is a field winding rotor?
To understand the intricacies of the field wind-ing design, it must be remembered that the basic function of the rotor is to produce a mag-netic field of the size and shape necessary to induce the desired output voltage in the stator. The rotor can be visualized as a large rotating electromagnet with north and south poles.
Can large rotors be used to design a wind turbine?
Recently, large rotor concepts have been studied in the European projects UpWind and INNWIND. The Danish Technical University (DTU) 10 MW reference wind turbine (RWT) ( Bak et al. , 2013) was provided as a design basis for large rotors to test design methods and tools.
Can a generator rotor be converted to a direct cooled winding?
Depending on the design of the rotor, in some cases it is possible to convert to a direct-cooled winding. Converting involves machining subslots in the rotor forging below the coil slots. Because of rotor geometry and size, this modifica-tion is not possible on all rotors. Q. Is there asbestos in generator rotor insulation and blocking materials?
Can a direct cooled rotor uprate a gas turbine?
The same applies to a direct-cooled con-version or a replacement rotor with perhaps more uprate capability. It has been common to support a gas turbine or steam turbine uprate by taking advantage of the existing generator margin (i.e., just operate the generator at a higher power factor than origi-nally designed).