Design of a complex gain controller for rotating stall control subject to actuator constraints

Craig A. Buhr; Matthew A. Franchek; Sanford Fleeter

Design of a complex gain controller for rotating stall control subject to actuator constraints

Craig A. Buhr, Matthew A. Franchek, Sanford Fleeter

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution

Abstract

Presented in this paper is an analytical study evaluating the closed loop stability of rotating stall control hi an axial flow compressor subject to a nonlinear spatial actuation constraint that limits the amplitude of a spatial mode input. Absolute stability of the rotating stall control system is investigated by applying the circle criterion to a linearized model of an axial compressor in series with the saturation element. This stability analysis is then used to design the gain and phase of the 'classical' complex gain feedback control law. Resulting is a systematic method for designing the parameters of the complex gain control law which increases the region of absolute stability guaranteed by the circle criterion for the closed-loop system.

Original language	English
Title of host publication	35th Intersociety Energy Conversion Engineering Conference and Exhibit
State	Published - Dec 1 2000
Event	35th Intersociety Energy Conversion Engineering Conference and Exhibit 2000 - Las Vegas, NV, United States Duration: Jul 24 2000 → Jul 28 2000

Other

Other	35th Intersociety Energy Conversion Engineering Conference and Exhibit 2000
Country	United States
City	Las Vegas, NV
Period	7/24/00 → 7/28/00

ASJC Scopus subject areas

Energy Engineering and Power Technology
Renewable Energy, Sustainability and the Environment

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title = "Design of a complex gain controller for rotating stall control subject to actuator constraints",

abstract = "Presented in this paper is an analytical study evaluating the closed loop stability of rotating stall control hi an axial flow compressor subject to a nonlinear spatial actuation constraint that limits the amplitude of a spatial mode input. Absolute stability of the rotating stall control system is investigated by applying the circle criterion to a linearized model of an axial compressor in series with the saturation element. This stability analysis is then used to design the gain and phase of the 'classical' complex gain feedback control law. Resulting is a systematic method for designing the parameters of the complex gain control law which increases the region of absolute stability guaranteed by the circle criterion for the closed-loop system.",

author = "Buhr, {Craig A.} and Franchek, {Matthew A.} and Sanford Fleeter",

year = "2000",

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AU - Buhr, Craig A.

AU - Franchek, Matthew A.

AU - Fleeter, Sanford

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Y1 - 2000/12/1

N2 - Presented in this paper is an analytical study evaluating the closed loop stability of rotating stall control hi an axial flow compressor subject to a nonlinear spatial actuation constraint that limits the amplitude of a spatial mode input. Absolute stability of the rotating stall control system is investigated by applying the circle criterion to a linearized model of an axial compressor in series with the saturation element. This stability analysis is then used to design the gain and phase of the 'classical' complex gain feedback control law. Resulting is a systematic method for designing the parameters of the complex gain control law which increases the region of absolute stability guaranteed by the circle criterion for the closed-loop system.

AB - Presented in this paper is an analytical study evaluating the closed loop stability of rotating stall control hi an axial flow compressor subject to a nonlinear spatial actuation constraint that limits the amplitude of a spatial mode input. Absolute stability of the rotating stall control system is investigated by applying the circle criterion to a linearized model of an axial compressor in series with the saturation element. This stability analysis is then used to design the gain and phase of the 'classical' complex gain feedback control law. Resulting is a systematic method for designing the parameters of the complex gain control law which increases the region of absolute stability guaranteed by the circle criterion for the closed-loop system.

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M3 - Conference contribution

BT - 35th Intersociety Energy Conversion Engineering Conference and Exhibit

Y2 - 24 July 2000 through 28 July 2000

ER -