Comprehensive Methodology for Turboexpander Units Flow Parts Designing

The author's comprehensive methodology for designing the flow parts of turboexpander units, the main elements of which are a centripetal turbine and a centrifugal compressor, is presented. The methodology includes mathematical methods and models of various levels of complexity, from one-dimensi...

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Main Authors: Roman A. Rusanov, Sergiy V. Moiseiev, Oleg V. Kuprygin, Dmytro V. Kaliamin, Arkadii V. Burniashev, Maksym K. Novikov
Format: Article
Language:English
Published: NAS of Ukraine, A. Pidhornyi Institute of Mechanical Engineering Problems 2025-03-01
Series:Journal of Mechanical Engineering
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author Roman A. Rusanov
Sergiy V. Moiseiev
Oleg V. Kuprygin
Dmytro V. Kaliamin
Arkadii V. Burniashev
Maksym K. Novikov
author_facet Roman A. Rusanov
Sergiy V. Moiseiev
Oleg V. Kuprygin
Dmytro V. Kaliamin
Arkadii V. Burniashev
Maksym K. Novikov
author_sort Roman A. Rusanov
collection DOAJ
description The author's comprehensive methodology for designing the flow parts of turboexpander units, the main elements of which are a centripetal turbine and a centrifugal compressor, is presented. The methodology includes mathematical methods and models of various levels of complexity, from one-dimensional to spatial ones, as well as experimental research. The calculation of three-dimensional viscous flow is performed using the method of numerical integration of the averaged Navier-Stokes equations and Menter’s differential turbulence model. The spatial shape of the turbine and compressor is described using the method for which the initial data is given as a limited number of parameterized values. An example of the developed flow part, which has high gas-dynamic efficiency in a wide range of operating modes and corresponds to the best world analogues in terms of its characteristics, is given. It is shown that the calculated gas-dynamic characteristics are in satisfactory agreement with the experimental data. A database of highly efficient flow parts of turbines and compressors, which are used as prototypes in the creation of new modern turboexpander units, has been created.
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institution DOAJ
issn 2709-2984
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language English
publishDate 2025-03-01
publisher NAS of Ukraine, A. Pidhornyi Institute of Mechanical Engineering Problems
record_format Article
series Journal of Mechanical Engineering
spelling doaj-art-2bbb87ac4c18453eaf5f3a4150b0ca852025-08-20T03:07:58ZengNAS of Ukraine, A. Pidhornyi Institute of Mechanical Engineering ProblemsJournal of Mechanical Engineering2709-29842709-29922025-03-0128161810.15407/pmach2025.01.006Comprehensive Methodology for Turboexpander Units Flow Parts DesigningRoman A. Rusanov0https://orcid.org/0000-0003-2930-2574Sergiy V. Moiseiev1Oleg V. Kuprygin2Dmytro V. Kaliamin3Arkadii V. Burniashev4Maksym K. Novikov5Anatolii Pidhornyi Institute of Power Machines and Systems of NAS of UkrainePrJSC TurbogazPrJSC TurbogazPrJSC TurbogazPrJSC TurbogazPrJSC TurbogazThe author's comprehensive methodology for designing the flow parts of turboexpander units, the main elements of which are a centripetal turbine and a centrifugal compressor, is presented. The methodology includes mathematical methods and models of various levels of complexity, from one-dimensional to spatial ones, as well as experimental research. The calculation of three-dimensional viscous flow is performed using the method of numerical integration of the averaged Navier-Stokes equations and Menter’s differential turbulence model. The spatial shape of the turbine and compressor is described using the method for which the initial data is given as a limited number of parameterized values. An example of the developed flow part, which has high gas-dynamic efficiency in a wide range of operating modes and corresponds to the best world analogues in terms of its characteristics, is given. It is shown that the calculated gas-dynamic characteristics are in satisfactory agreement with the experimental data. A database of highly efficient flow parts of turbines and compressors, which are used as prototypes in the creation of new modern turboexpander units, has been created.turboexpandergas pipelinenatural gasturbo-compressorflow part
spellingShingle Roman A. Rusanov
Sergiy V. Moiseiev
Oleg V. Kuprygin
Dmytro V. Kaliamin
Arkadii V. Burniashev
Maksym K. Novikov
Comprehensive Methodology for Turboexpander Units Flow Parts Designing
Journal of Mechanical Engineering
turboexpander
gas pipeline
natural gas
turbo-compressor
flow part
title Comprehensive Methodology for Turboexpander Units Flow Parts Designing
title_full Comprehensive Methodology for Turboexpander Units Flow Parts Designing
title_fullStr Comprehensive Methodology for Turboexpander Units Flow Parts Designing
title_full_unstemmed Comprehensive Methodology for Turboexpander Units Flow Parts Designing
title_short Comprehensive Methodology for Turboexpander Units Flow Parts Designing
title_sort comprehensive methodology for turboexpander units flow parts designing
topic turboexpander
gas pipeline
natural gas
turbo-compressor
flow part
work_keys_str_mv AT romanarusanov comprehensivemethodologyforturboexpanderunitsflowpartsdesigning
AT sergiyvmoiseiev comprehensivemethodologyforturboexpanderunitsflowpartsdesigning
AT olegvkuprygin comprehensivemethodologyforturboexpanderunitsflowpartsdesigning
AT dmytrovkaliamin comprehensivemethodologyforturboexpanderunitsflowpartsdesigning
AT arkadiivburniashev comprehensivemethodologyforturboexpanderunitsflowpartsdesigning
AT maksymknovikov comprehensivemethodologyforturboexpanderunitsflowpartsdesigning