利用 LSTM 实现高海况下无人机自主着舰中的非线性舰船甲板运动预测
Harnessing LSTM for Nonlinear Ship Deck Motion Prediction in UAV Autonomous Landing amidst High Sea States
AI总结:
针对高海况下无人机自主着舰需识别甲板“休整期”的问题,本文采用 LSTM 基于复合正弦波模拟数据预测三维舰船甲板运动,建立了高精度预测模型。
摘要:
在高海况下实现无人机自主着舰,要求无人机只能在舰船甲板运动最小的“休整期”着舰。在这种情况下,根据舰船运动模式确定其“休整期”成为解决该挑战的基本前提。本研究采用长短期记忆(LSTM)神经网络,从纵向浪、横向浪和垂向浪三个维度预测舰船运动。在缺乏高海况下真实舰船数据的情况下,本文采用复合正弦波模型模拟舰船甲板运动。通过该方法,建立了一个高精度模型,并在多种随机正弦波组合模型中展现出良好效果。
英文摘要:
Autonomous landing of UAVs in high sea states requires the UAV to land exclusively during the ship deck's "rest period," coinciding with minimal movement. Given this scenario, determining the ship's "rest period" based on its movement patterns becomes a fundamental prerequisite for addressing this challenge. This study employs the Long Short-Term Memory (LSTM) neural network to predict the ship's motion across three dimensions: longi-tudinal, transverse, and vertical waves. In the absence of actual ship data under high sea states, this paper employs a composite sine wave model to simulate ship deck motion. Through this approach, a highly accurate model is established, exhibiting promising outcomes within various stochastic sine wave combination models.
机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。