Gas dynamic optimization of the work process of a single-stage cooled axial turbine with an inside baffle

The article presents the results of optimization of the work process of a single-stage axial turbine in order to increase its efficiency. During optimization, it was necessary to preserve the construction of the original turbine as much as possible. To solve this problem, a parameterization scheme for turbine blades and path contours was developed, taking into account the design and technological limitations. The turbine nozzle blade had an inside baffle. To control the possibility of placing the baffle, a special program was developed that automatically monitors the spatial position of the sections of the blade of the nozzle set. A post-processing program was developed to control the flow parameters at the turbine outlet in height. The efficiency and the vertical deviation of the angle of the outflow from the turbine from the original one were used as optimization criteria. The limitations were the mass flow rate of the working fluid and the total pressure ratio of the turbine. The problem was solved in several stages with different changing variables. As a result of solving the problem, it was possible to increase the turbine efficiency by 0.9%

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Publication Details

Journal
VESTNIK of Samara University Aerospace and Mechanical Engineering
Published
2024-10-23
DOI
https://doi.org/10.18287/2541-7533-2024-23-3-144-153
Primary Topic
Heat transfer and supercritical fluids
Type
article
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article

Gas dynamic optimization of the work process of a single-stage cooled axial turbine with an inside baffle

Grigorii Popov, S. A. Melnikov, A. I. Shcherban, E D Gataullina et al.
VESTNIK of Samara University Aerospace and Mechanical Engineering
Heat transfer and supercritical fluids
article

Gas dynamic optimization of the work process of a single-stage cooled axial turbine with an inside baffle

Grigorii Popov, S. A. Melnikov, A. I. Shcherban, E D Gataullina, E. S. Goryachkin
article en

Abstract

The article presents the results of optimization of the work process of a single-stage axial turbine in order to increase its efficiency. During optimization, it was necessary to preserve the construction of the original turbine as much as possible. To solve this problem, a parameterization scheme for turbine blades and path contours was developed, taking into account the design and technological limitations. The turbine nozzle blade had an inside baffle. To control the possibility of placing the baffle, a special program was developed that automatically monitors the spatial position of the sections of the blade of the nozzle set. A post-processing program was developed to control the flow parameters at the turbine outlet in height. The efficiency and the vertical deviation of the angle of the outflow from the turbine from the original one were used as optimization criteria. The limitations were the mass flow rate of the working fluid and the total pressure ratio of the turbine. The problem was solved in several stages with different changing variables. As a result of solving the problem, it was possible to increase the turbine efficiency by 0.9%

VESTNIK of Samara University Aerospace and Mechanical EngineeringVol. 23(3)
Samara National Research University (RU)
Affordable and clean energy
Openalex Percentile: Top 79%
Heat transfer and supercritical fluids
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Gas dynamic optimization of the work process of a single-stage cooled axial turbine with an inside baffle — Grigorii Popov, S. A. Melnikov, et al. · VESTNIK of Samara University Aerospace and Mechanical Engineering (2024) | TGRS Research Map | TGRS