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A universal rotor design method for twin-rotor fluid machines with a parameterized sealing line considering inter-lobe clearances

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Abstract The sealing line is a major leakage path affecting various performances of twin-rotor fluid machines (TRFMs). The rotor profile generation methods using a sealing line proposed previously are improvable… Click to show full abstract

Abstract The sealing line is a major leakage path affecting various performances of twin-rotor fluid machines (TRFMs). The rotor profile generation methods using a sealing line proposed previously are improvable further. A key factor, inter-lobe clearance, can be considered at the initial design stage of rotor profile; and a more universal model suitable for opened and closed sealing lines can be studied further to generate varied rotor profiles for different applications. Therefore, this study proposes a parameterized sealing line (PSL) with predefined inter-lobe clearance as a universal method, named the gap-distributed sealing line (GDSL) method, to generate the rotor profile for varied twin-rotor fluid machines. The PSL with opened or closed forms is predefined by explicit equations to generate different rotor profiles more flexibly. The inter-lobe clearance is directly given and distributed along the PSL to form a pair of rotor profiles with a gap. Additionally, the proposed method is also used to generate a conical rotor profile. The results presented in the numerical examples verify the flexibility and practicability of the proposed method.

Keywords: rotor; inter lobe; method; sealing line; twin rotor

Journal Title: Vacuum
Year Published: 2021

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