Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Implementation of Digital Signal Processor for Pulse Doppler Radar

View through CrossRef
This paper presents the design and implementation of a digital signal processor (DSP) board, utilizing a TMS320C50 family DSP chip, for pulse-Doppler radar systems. Pulse-Doppler radar systems often encounter challenges such as strong clutter, noise, and jamming in dealing with echoes. To overcome these challenges, advanced digital signal processing techniques are employed. The main objective of this paper is to introduce a cost-effective signal processing solution that significantly enhances the performance of the radar system and brings it up to speed with modern radar technologies. The hardware described in this work can also be effectively utilized for implementing various types of signal processing algorithms. Additionally, as a secondary objective, the paper presents the digital realization of a radar detector. Traditionally, this detector was constructed using an analog Doppler filter bank. However, in this work, it is digitally implemented using N digital filters in place of the analog bank. By utilizing the designed DSP board and implementing the radar detector digitally, this paper demonstrates the potential for improved performance and efficiency in pulse-Doppler radar systems. The advancements made in this work contribute to the development of cost-effective and technologically advanced radar systems. The research results are presented for four different wind conditions, showcasing the effectiveness of the proposed approach. Furthermore, the paper suggests an algorithm that combines parametric and non-parametric techniques and provides a detailed explanation of its implementation. Finally, using the non-parametric technique, the probability of detection curves (PD) are simulated with respect to the signal-to-clutter ratio (SCR) for each wind condition, and the simulation results are depicted and compared. The achievements of this paper include the proposal of an efficient approach for clutter suppression in ground surveillance pulse Doppler radar, the comparison of different clutter suppression algorithms, and the development of an algorithm that combines parametric and non-parametric techniques. The simulation results provide valuable insights into the performance of the proposed algorithms under different wind conditions.
Title: Implementation of Digital Signal Processor for Pulse Doppler Radar
Description:
This paper presents the design and implementation of a digital signal processor (DSP) board, utilizing a TMS320C50 family DSP chip, for pulse-Doppler radar systems.
Pulse-Doppler radar systems often encounter challenges such as strong clutter, noise, and jamming in dealing with echoes.
To overcome these challenges, advanced digital signal processing techniques are employed.
The main objective of this paper is to introduce a cost-effective signal processing solution that significantly enhances the performance of the radar system and brings it up to speed with modern radar technologies.
The hardware described in this work can also be effectively utilized for implementing various types of signal processing algorithms.
Additionally, as a secondary objective, the paper presents the digital realization of a radar detector.
Traditionally, this detector was constructed using an analog Doppler filter bank.
However, in this work, it is digitally implemented using N digital filters in place of the analog bank.
By utilizing the designed DSP board and implementing the radar detector digitally, this paper demonstrates the potential for improved performance and efficiency in pulse-Doppler radar systems.
The advancements made in this work contribute to the development of cost-effective and technologically advanced radar systems.
The research results are presented for four different wind conditions, showcasing the effectiveness of the proposed approach.
Furthermore, the paper suggests an algorithm that combines parametric and non-parametric techniques and provides a detailed explanation of its implementation.
Finally, using the non-parametric technique, the probability of detection curves (PD) are simulated with respect to the signal-to-clutter ratio (SCR) for each wind condition, and the simulation results are depicted and compared.
The achievements of this paper include the proposal of an efficient approach for clutter suppression in ground surveillance pulse Doppler radar, the comparison of different clutter suppression algorithms, and the development of an algorithm that combines parametric and non-parametric techniques.
The simulation results provide valuable insights into the performance of the proposed algorithms under different wind conditions.

Related Results

On-Site Response Tracking for WISDOM System
On-Site Response Tracking for WISDOM System
AbstractThe WISDOM ground penetrating radar aboard the Rosalind Franklin rover is waiting for its intended launch in 2028 within the ExoMars mission. It will search for Water, Ice,...
Access Denied
Access Denied
Introduction As social-distancing mandates in response to COVID-19 restricted in-person data collection methods such as participant observation and interviews, researchers turned t...
Detection and estimation of weak pulse signal in chaotic background noise
Detection and estimation of weak pulse signal in chaotic background noise
As is well known, people has been suffering noise interference for a long time, and more and more researches show that a lot of weak signals such as pulse signal are embedded in th...
PyBWE: Open-Source Python tools for Super-Resolution applied to Planetary Radar Soundings
PyBWE: Open-Source Python tools for Super-Resolution applied to Planetary Radar Soundings
Range resolution is one of the key performance metrics for a radar instrument. It is driven by the time resolution of its soundings, and the electromagnetic properties of the sound...
Metallized Plastic Waveguide Antenna Solutions for Next-Generation Automotive Radar Systems
Metallized Plastic Waveguide Antenna Solutions for Next-Generation Automotive Radar Systems
The automotive industry has significantly focused on developing reliable driving assistance systems, with radar sensors emerging as key components for autonomous driving, thanks to...
Extraction method of wide‐band phased array radar signals based on pulse amplitude characteristic
Extraction method of wide‐band phased array radar signals based on pulse amplitude characteristic
Wide‐band phased array radar is the primary focus in electronic countermeasure reconnaissance, and prior extraction of such radar signals in the interleaved pulse data intercepted ...
RADAR-Pipeline: Scalable Feature Generation for Mobile Health Data
RADAR-Pipeline: Scalable Feature Generation for Mobile Health Data
Introduction & BackgroundRADAR-Pipeline is an open-source Python framework designed to simplify and enhance mobile health data analysis. It has been designed to efficiently rea...
An assessment of the Doppler measurements with a Ku-band spaceborne precipitation radar
An assessment of the Doppler measurements with a Ku-band spaceborne precipitation radar
Currently, a future satellite mission of precipitation observations is discussed in Japan. From a low-orbit satellite, it is difficult to directly observe temporal evolution of pre...

Back to Top