Intelligent task reconstruction method for a carrier rocket in an ascending stage under a thrust drop fault

Abstract

The invention discloses an intelligent task reconstruction method for a carrier rocket in an ascending stage under a thrust drop fault. The method comprises the following steps: acquiring an optimal rescue orbit and a corresponding flight path by adopting a self-adaptive point collocation method; extracting an optimal track from the flight tracks corresponding to the optimal rescue track, performing interpolation on the optimal track according to discrete flight time nodes, and generating a fault state-optimal track data set; performing normalization processing on the data set by adopting a maximum-minimum method, selecting a radial basis function neural network data center through an orthogonal least square method, and establishing a relation from a fault state to an optimal trajectory; migrating the radial basis function neural network to actual flight of the rocket, wherein the radial basis function neural network decides an approximate optimal trajectory online; and utilizing the decided approximate optimal trajectory as an initial guess value, and carrying out online solving by adopting a self-adaptive pseudo-spectral method to obtain an optimal rescue trajectory and a flight trajectory. According to the method, the rescue track and the corresponding flight path can be optimized on line at the same time, and the calculation time is saved.

Description

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AI Technical Summary

Benefits of technology

This patented technology helps train people who have lost their ability to communicate signals over long distances more efficiently through neural networks trained on data from previous sessions or simulations. It suggests selecting the best path for future tasks based upon its failure mode - which makes it easier than trying hard to find specific goals during trial runs. Additionally, this approach allows for adaptation between different types of recovery tracks and flight paths depending on how well they were achieved at each stage. Overall, these technical improvements make better communication capabilities even when faced challenging situations such as reconstructed disabilities caused due to neurology problems.

Problems solved by technology

The technical problem addressed in this patented text relates how to improve the efficiency at recovering failed engines during space exploration tasks by optimizing their recovery path based on real-time constraints such as fuel usage and environmental factors like altitude.

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