Advanced Materials and Technologies for Compressor Blades of Small Turbofan Engines

Manufacturing costs, along with operational performance, are among the major factors determining the selection of the propulsion system for unmanned aerial vehicles (UAVs), especially for aerial targets and cruise missiles. In this paper, the design requirements and operating parameters of small tur...

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Main Authors: Dmytro Pavlenko, Yaroslav Dvirnyk, Radoslaw Przysowa
Format: Article
Language:English
Published: MDPI AG 2021-12-01
Series:Aerospace
Subjects:
Online Access:https://www.mdpi.com/2226-4310/8/1/1
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spelling doaj-4cbaa87077964cffb7136837113767e52020-12-23T00:01:12ZengMDPI AGAerospace2226-43102021-12-0181110.3390/aerospace8010001Advanced Materials and Technologies for Compressor Blades of Small Turbofan EnginesDmytro Pavlenko0Yaroslav Dvirnyk1Radoslaw Przysowa2Mechanical Engineering Department, National University “Zaporizhzhia Polytechnic”, 64 Zhukovskogo st, 69063 Zaporizhzhia, UkraineMechanical Engineering Department, National University “Zaporizhzhia Polytechnic”, 64 Zhukovskogo st, 69063 Zaporizhzhia, UkraineInstytut Techniczny Wojsk Lotniczych, ul. Księcia Bolesława 6, 01-494 Warsaw, PolandManufacturing costs, along with operational performance, are among the major factors determining the selection of the propulsion system for unmanned aerial vehicles (UAVs), especially for aerial targets and cruise missiles. In this paper, the design requirements and operating parameters of small turbofan engines for single-use and reusable UAVs are analysed to introduce alternative materials and technologies for manufacturing their compressor blades, such as sintered titanium, a new generation of aluminium alloys and titanium aluminides. To assess the influence of severe plastic deformation (SPD) on the hardening efficiency of the proposed materials, the alloys with the coarse-grained and submicrocrystalline structure were studied. Changes in the physical and mechanical properties of materials were taken into account. The thermodynamic analysis of the compressor was performed in a finite element analysis system (ANSYS) to determine the impact of gas pressure and temperature on the aerodynamic surfaces of compressor blades of all stages. Based on thermal and structural analysis, the stress and temperature maps on compressor blades and vanes were obtained, taking into account the physical and mechanical properties of advanced materials and technologies of their processing. The safety factors of the components were established based on the assessment of their stress-strength characteristics. Thanks to nomograms, the possibility of using the new materials in five compressor stages was confirmed in view of the permissible operating temperature and safety factor. The proposed alternative materials for compressor blades and vanes meet the design requirements of the turbofan at lower manufacturing costs.https://www.mdpi.com/2226-4310/8/1/1turbofanunmanned aerial vehiclescruise missileaerial targetaxial compressorblade
collection DOAJ
language English
format Article
sources DOAJ
author Dmytro Pavlenko
Yaroslav Dvirnyk
Radoslaw Przysowa
spellingShingle Dmytro Pavlenko
Yaroslav Dvirnyk
Radoslaw Przysowa
Advanced Materials and Technologies for Compressor Blades of Small Turbofan Engines
Aerospace
turbofan
unmanned aerial vehicles
cruise missile
aerial target
axial compressor
blade
author_facet Dmytro Pavlenko
Yaroslav Dvirnyk
Radoslaw Przysowa
author_sort Dmytro Pavlenko
title Advanced Materials and Technologies for Compressor Blades of Small Turbofan Engines
title_short Advanced Materials and Technologies for Compressor Blades of Small Turbofan Engines
title_full Advanced Materials and Technologies for Compressor Blades of Small Turbofan Engines
title_fullStr Advanced Materials and Technologies for Compressor Blades of Small Turbofan Engines
title_full_unstemmed Advanced Materials and Technologies for Compressor Blades of Small Turbofan Engines
title_sort advanced materials and technologies for compressor blades of small turbofan engines
publisher MDPI AG
series Aerospace
issn 2226-4310
publishDate 2021-12-01
description Manufacturing costs, along with operational performance, are among the major factors determining the selection of the propulsion system for unmanned aerial vehicles (UAVs), especially for aerial targets and cruise missiles. In this paper, the design requirements and operating parameters of small turbofan engines for single-use and reusable UAVs are analysed to introduce alternative materials and technologies for manufacturing their compressor blades, such as sintered titanium, a new generation of aluminium alloys and titanium aluminides. To assess the influence of severe plastic deformation (SPD) on the hardening efficiency of the proposed materials, the alloys with the coarse-grained and submicrocrystalline structure were studied. Changes in the physical and mechanical properties of materials were taken into account. The thermodynamic analysis of the compressor was performed in a finite element analysis system (ANSYS) to determine the impact of gas pressure and temperature on the aerodynamic surfaces of compressor blades of all stages. Based on thermal and structural analysis, the stress and temperature maps on compressor blades and vanes were obtained, taking into account the physical and mechanical properties of advanced materials and technologies of their processing. The safety factors of the components were established based on the assessment of their stress-strength characteristics. Thanks to nomograms, the possibility of using the new materials in five compressor stages was confirmed in view of the permissible operating temperature and safety factor. The proposed alternative materials for compressor blades and vanes meet the design requirements of the turbofan at lower manufacturing costs.
topic turbofan
unmanned aerial vehicles
cruise missile
aerial target
axial compressor
blade
url https://www.mdpi.com/2226-4310/8/1/1
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AT yaroslavdvirnyk advancedmaterialsandtechnologiesforcompressorbladesofsmallturbofanengines
AT radoslawprzysowa advancedmaterialsandtechnologiesforcompressorbladesofsmallturbofanengines
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