Impact Analysis of Different Trajectory Shapes on Optimization Based on Original Natural Algorithm

In this paper, the reentry phase of the Aerospaceplane is taken as the research object, and the performance parameters of the reusable rocket of a private company are analyzed. Aiming at the guidance and control scheme of the spacecraft returning to the reentry trajectory in the real environment, th...

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Main Authors: Yijing Chen, Ying Nan, Zhihan Li
Format: Article
Language:English
Published: Wiley 2024-01-01
Series:International Journal of Aerospace Engineering
Online Access:http://dx.doi.org/10.1155/2024/5569229
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author Yijing Chen
Ying Nan
Zhihan Li
author_facet Yijing Chen
Ying Nan
Zhihan Li
author_sort Yijing Chen
collection DOAJ
description In this paper, the reentry phase of the Aerospaceplane is taken as the research object, and the performance parameters of the reusable rocket of a private company are analyzed. Aiming at the guidance and control scheme of the spacecraft returning to the reentry trajectory in the real environment, the original natural algorithm is optimized by considering various reentry flight constraints, and the improved original natural algorithm is used to optimize the reentry trajectory of the Aerospaceplane. We obtained two types of reentry trajectories in the presence of large flight-restricted areas, the “S-type” trajectory and the “spiral-type” trajectory, and obtained data on various influencing factors. The results showed that the basic state parameters of the spiral trajectory optimized using the improved original natural algorithm after adding constraints met the constraint conditions. The aerodynamic heating rate and overload of the spiral reentry trajectory were to some extent greater than those of the S-type trajectory. Under the increasingly stringent requirements of the aerospace environment, new requirements were put forward for the thermal protection system to meet the wider environmental situation. This paper uses the improved original natural algorithm for the first time and applies it to the field of aerospace reentry and entry and adds more constraints to this algorithm for computation. Besides, for the first time, the macroscopic nature of trajectory types is used as a comparative element for parameter comparison, providing a reference basis for selecting trajectory optimization directions from the macroscopic perspective of trajectory types.
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institution Kabale University
issn 1687-5974
language English
publishDate 2024-01-01
publisher Wiley
record_format Article
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spelling doaj-art-581a7259c9464800ac07687f956a1e0e2025-02-03T05:55:20ZengWileyInternational Journal of Aerospace Engineering1687-59742024-01-01202410.1155/2024/5569229Impact Analysis of Different Trajectory Shapes on Optimization Based on Original Natural AlgorithmYijing Chen0Ying Nan1Zhihan Li2College of AstronauticsCollege of AstronauticsCollege of AstronauticsIn this paper, the reentry phase of the Aerospaceplane is taken as the research object, and the performance parameters of the reusable rocket of a private company are analyzed. Aiming at the guidance and control scheme of the spacecraft returning to the reentry trajectory in the real environment, the original natural algorithm is optimized by considering various reentry flight constraints, and the improved original natural algorithm is used to optimize the reentry trajectory of the Aerospaceplane. We obtained two types of reentry trajectories in the presence of large flight-restricted areas, the “S-type” trajectory and the “spiral-type” trajectory, and obtained data on various influencing factors. The results showed that the basic state parameters of the spiral trajectory optimized using the improved original natural algorithm after adding constraints met the constraint conditions. The aerodynamic heating rate and overload of the spiral reentry trajectory were to some extent greater than those of the S-type trajectory. Under the increasingly stringent requirements of the aerospace environment, new requirements were put forward for the thermal protection system to meet the wider environmental situation. This paper uses the improved original natural algorithm for the first time and applies it to the field of aerospace reentry and entry and adds more constraints to this algorithm for computation. Besides, for the first time, the macroscopic nature of trajectory types is used as a comparative element for parameter comparison, providing a reference basis for selecting trajectory optimization directions from the macroscopic perspective of trajectory types.http://dx.doi.org/10.1155/2024/5569229
spellingShingle Yijing Chen
Ying Nan
Zhihan Li
Impact Analysis of Different Trajectory Shapes on Optimization Based on Original Natural Algorithm
International Journal of Aerospace Engineering
title Impact Analysis of Different Trajectory Shapes on Optimization Based on Original Natural Algorithm
title_full Impact Analysis of Different Trajectory Shapes on Optimization Based on Original Natural Algorithm
title_fullStr Impact Analysis of Different Trajectory Shapes on Optimization Based on Original Natural Algorithm
title_full_unstemmed Impact Analysis of Different Trajectory Shapes on Optimization Based on Original Natural Algorithm
title_short Impact Analysis of Different Trajectory Shapes on Optimization Based on Original Natural Algorithm
title_sort impact analysis of different trajectory shapes on optimization based on original natural algorithm
url http://dx.doi.org/10.1155/2024/5569229
work_keys_str_mv AT yijingchen impactanalysisofdifferenttrajectoryshapesonoptimizationbasedonoriginalnaturalalgorithm
AT yingnan impactanalysisofdifferenttrajectoryshapesonoptimizationbasedonoriginalnaturalalgorithm
AT zhihanli impactanalysisofdifferenttrajectoryshapesonoptimizationbasedonoriginalnaturalalgorithm