Javascript must be enabled to continue!
Time-Domain Anti-Interference Method for Ship Radiated Noise Signal
View through CrossRef
Abstract
ship radiated noise signal is one of the important ways to detect and identify ships, and emission of interference noise to shield its own radiated noise signal is a common countermeasure. In this paper, we try to use the idea of signal enhancement to enhance the ship radiated noise signal with extremely low signal-to-noise ratio, so as to achieve anti-explosive signal interference. We propose a signal enhancement deep learning model to enhance the ship radiated noise signal by learning a mask in the temporal domain. Our approach is an encoder-decoder structure with U-net. U-net consists of 1d-conv with skip connection. In order to improve the learning ability of the model, we directly connect the U-net in series. In order to improve the learning ability of the model's time series information, we avoid deep learning paradigms such as lstm or RNN with high computational complexity. The Transformer attention mechanism is adopted to make the model have the ability to learn temporal information. We propose a combine Loss function for SI-SNR and mean squared error in time-domain. Finally, we use the actual collected data to conduct experiments. It is verified that our algorithm can effectively improve the signal-to-noise ratio of the ship radiated noise signal to 2dB under the extremely low signal-to-noise ratio of -20dB to -25dB.
Title: Time-Domain Anti-Interference Method for Ship Radiated Noise Signal
Description:
Abstract
ship radiated noise signal is one of the important ways to detect and identify ships, and emission of interference noise to shield its own radiated noise signal is a common countermeasure.
In this paper, we try to use the idea of signal enhancement to enhance the ship radiated noise signal with extremely low signal-to-noise ratio, so as to achieve anti-explosive signal interference.
We propose a signal enhancement deep learning model to enhance the ship radiated noise signal by learning a mask in the temporal domain.
Our approach is an encoder-decoder structure with U-net.
U-net consists of 1d-conv with skip connection.
In order to improve the learning ability of the model, we directly connect the U-net in series.
In order to improve the learning ability of the model's time series information, we avoid deep learning paradigms such as lstm or RNN with high computational complexity.
The Transformer attention mechanism is adopted to make the model have the ability to learn temporal information.
We propose a combine Loss function for SI-SNR and mean squared error in time-domain.
Finally, we use the actual collected data to conduct experiments.
It is verified that our algorithm can effectively improve the signal-to-noise ratio of the ship radiated noise signal to 2dB under the extremely low signal-to-noise ratio of -20dB to -25dB.
Related Results
Connecting Ship Operation and Architecture in Ship Design Processes
Connecting Ship Operation and Architecture in Ship Design Processes
It is challenging to deal with the operation of ships by crew members in ship design processes. This is important because the efficiency and safety of ship operations ultimately de...
Extractraction of non-stationary harmonic from chaotic background based on synchrosqueezed wavelet transform
Extractraction of non-stationary harmonic from chaotic background based on synchrosqueezed wavelet transform
The signal detection in chaotic background has gradually become one of the research focuses in recent years. Previous research showed that the measured signals were often unavoidab...
Mechanism of suppressing noise intensity of squeezed state enhancement
Mechanism of suppressing noise intensity of squeezed state enhancement
This research focuses on advanced noise suppression technologies for high-precision measurement systems, particularly addressing the limitations of classical noise reducing approac...
Research Progress of Noise in High-Speed Cutting Machining
Research Progress of Noise in High-Speed Cutting Machining
High-speed cutting technology has become a development trend in the material processing industry. However, high-intensity noise generated during high-speed cutting exerts a potenti...
A Comprehensive Review of Noise Measurement, Standards, Assessment, Geospatial Mapping and Public Health
A Comprehensive Review of Noise Measurement, Standards, Assessment, Geospatial Mapping and Public Health
Noise pollution is an emerging issue in cities around the world. Noise is a pernicious pollutant in urban landscapes mainly due to the increasing number of city inhabitants, road a...
On the generation of geometry-independent noise models for microseismic monitoring purposes
On the generation of geometry-independent noise models for microseismic monitoring purposes
<p>As a result of the world-wide interest in carbon storage and geothermal energy production, increased emphasis is nowadays placed on the development of reliable mic...
FGSR: A Fine‐Grained Ship Retrieval Dataset and Method in Smart Cities
FGSR: A Fine‐Grained Ship Retrieval Dataset and Method in Smart Cities
Ship reidentification is an important part of water transportation systems in smart cities. Existing ship reidentification methods lack a large‐scale fine‐grained ship retrieval da...
Development of integrated noise analysis systems for ship propellers considering hull wake
Development of integrated noise analysis systems for ship propellers considering hull wake
Recently, the requirements for underwater radiated noise (URN) reductions in ships have become significant issues, driven by concerns over the impact of naval vessel performance an...


