Onboard Observation Task Planning for an Autonomous Earth Observation Satellite Using Long Short-Term Memory
Onboard observation task planning plays an essential role in satellite autonomy, which has attracted considerable attention from researchers in recent years. Most of the existing studies solve the satellite onboard observation task planning problem (SOOTP) by searching algorithms. However, the limit...
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doaj-5cbe2c02aa0d45a7a8b79e67ac4abab22021-03-29T21:28:37ZengIEEEIEEE Access2169-35362018-01-016651186512910.1109/ACCESS.2018.28776878502754Onboard Observation Task Planning for an Autonomous Earth Observation Satellite Using Long Short-Term MemoryShuang Peng0https://orcid.org/0000-0001-8795-2431Hao Chen1Chun Du2Jun Li3Ning Jing4College of Electronic Science, National University of Defense Technology, Changsha, ChinaCollege of Electronic Science, National University of Defense Technology, Changsha, ChinaCollege of Electronic Science, National University of Defense Technology, Changsha, ChinaCollege of Electronic Science, National University of Defense Technology, Changsha, ChinaCollege of Electronic Science, National University of Defense Technology, Changsha, ChinaOnboard observation task planning plays an essential role in satellite autonomy, which has attracted considerable attention from researchers in recent years. Most of the existing studies solve the satellite onboard observation task planning problem (SOOTP) by searching algorithms. However, the limited computing resources and the changes of onboard condition present a new challenge for these methods. In this paper, we develop a sequential decision-making model and propose a deep learning-based planning method to solve the SOOTP. Instead of generating a short-term or long-term plan in advance, the sequential decisionmaking model enables the satellite to decide the observation task to execute in real-time. In the deep learning-based planning method, a long short-term memory-based encoding network is designed to extract the features and a classification network is used to make such a decision. In the experiment, we compared our method with the gated recurrent unit network and other three searching algorithms based on five scenarios. The experimental results show that our method can solve problems with 90.3%-93.7% accuracy, 2.19%-3.95% profit gap, and 0.004-0.006 s response time per task, which confirms its feasibility.https://ieeexplore.ieee.org/document/8502754/Satellite autonomyonboard observation task planningsequential decision-makingdeep learninglong short-term memory |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Shuang Peng Hao Chen Chun Du Jun Li Ning Jing |
spellingShingle |
Shuang Peng Hao Chen Chun Du Jun Li Ning Jing Onboard Observation Task Planning for an Autonomous Earth Observation Satellite Using Long Short-Term Memory IEEE Access Satellite autonomy onboard observation task planning sequential decision-making deep learning long short-term memory |
author_facet |
Shuang Peng Hao Chen Chun Du Jun Li Ning Jing |
author_sort |
Shuang Peng |
title |
Onboard Observation Task Planning for an Autonomous Earth Observation Satellite Using Long Short-Term Memory |
title_short |
Onboard Observation Task Planning for an Autonomous Earth Observation Satellite Using Long Short-Term Memory |
title_full |
Onboard Observation Task Planning for an Autonomous Earth Observation Satellite Using Long Short-Term Memory |
title_fullStr |
Onboard Observation Task Planning for an Autonomous Earth Observation Satellite Using Long Short-Term Memory |
title_full_unstemmed |
Onboard Observation Task Planning for an Autonomous Earth Observation Satellite Using Long Short-Term Memory |
title_sort |
onboard observation task planning for an autonomous earth observation satellite using long short-term memory |
publisher |
IEEE |
series |
IEEE Access |
issn |
2169-3536 |
publishDate |
2018-01-01 |
description |
Onboard observation task planning plays an essential role in satellite autonomy, which has attracted considerable attention from researchers in recent years. Most of the existing studies solve the satellite onboard observation task planning problem (SOOTP) by searching algorithms. However, the limited computing resources and the changes of onboard condition present a new challenge for these methods. In this paper, we develop a sequential decision-making model and propose a deep learning-based planning method to solve the SOOTP. Instead of generating a short-term or long-term plan in advance, the sequential decisionmaking model enables the satellite to decide the observation task to execute in real-time. In the deep learning-based planning method, a long short-term memory-based encoding network is designed to extract the features and a classification network is used to make such a decision. In the experiment, we compared our method with the gated recurrent unit network and other three searching algorithms based on five scenarios. The experimental results show that our method can solve problems with 90.3%-93.7% accuracy, 2.19%-3.95% profit gap, and 0.004-0.006 s response time per task, which confirms its feasibility. |
topic |
Satellite autonomy onboard observation task planning sequential decision-making deep learning long short-term memory |
url |
https://ieeexplore.ieee.org/document/8502754/ |
work_keys_str_mv |
AT shuangpeng onboardobservationtaskplanningforanautonomousearthobservationsatelliteusinglongshorttermmemory AT haochen onboardobservationtaskplanningforanautonomousearthobservationsatelliteusinglongshorttermmemory AT chundu onboardobservationtaskplanningforanautonomousearthobservationsatelliteusinglongshorttermmemory AT junli onboardobservationtaskplanningforanautonomousearthobservationsatelliteusinglongshorttermmemory AT ningjing onboardobservationtaskplanningforanautonomousearthobservationsatelliteusinglongshorttermmemory |
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