Design of an Ultrasonic Radar Ranging System with Low Power Consumption and High Accuracy

Reversing radar is an electronic device that can detect obstacles behind the vehicle when reversing, and it is highly practical and innovative to study low-cost radar ranging devices in close-range environments. In this paper, an ultrasonic radar ranging system based on Arduino is developed independently. The system utilizes an ultrasonic sensor as its core component, employing ultrasonic transmission and reception to measure the distance between the sensor and an obstruction. To enhance the user experience, the design integrates an OLED screen, sound, and light alarms to achieve real-time visualization and dynamic reminders of the obstacle position. The core hardware module encompasses signal amplification, detector rectification, and sensor components, which collectively enhance the stability and precision of the received signal. The software algorithm is engineered to optimize these functions. The core hardware module includes signal amplification, detector rectification, and sensor components. These components work together to optimize the stability and accuracy of the received signal. The software algorithm enhances the ranging accuracy and environmental adaptability through dynamic correction and environmental temperature monitoring. After experimental verification, the system can stably achieve a range of 5 cm to 155 cm with an error control of ±1 cm. Additionally, the system can dynamically adjust the number of transmitting waves to achieve low power consumption, extend the detection range, and reduce the blind zone. The system has been demonstrated to meet the requirements of accurate ranging in a close range environment. It has been shown to have low power consumption and high accuracy, as well as excellent practicality and innovation. In sum, the system provides a low-cost and high-accuracy system. Furthermore, the system has been demonstrated to meet the requirements of accurate ranging in a close range environment, with low power consumption and high accuracy. It has also been shown to have excellent practicality and innovation, providing a low-cost and efficient solution for detecting obstacles to backing up.

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Publication Details

Published
2025-03-21
DOI
https://doi.org/10.1109/icsi64877.2025.11009907
Primary Topic
RFID technology advancements
Type
article
Field-Weighted Citation Impact
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article

Design of an Ultrasonic Radar Ranging System with Low Power Consumption and High Accuracy

Zhenghao Huang, Xinyu Jia, Yuchen Zhao
RFID technology advancements
article

Design of an Ultrasonic Radar Ranging System with Low Power Consumption and High Accuracy

Zhenghao Huang, Xinyu Jia, Yuchen Zhao
article en

Abstract

Reversing radar is an electronic device that can detect obstacles behind the vehicle when reversing, and it is highly practical and innovative to study low-cost radar ranging devices in close-range environments. In this paper, an ultrasonic radar ranging system based on Arduino is developed independently. The system utilizes an ultrasonic sensor as its core component, employing ultrasonic transmission and reception to measure the distance between the sensor and an obstruction. To enhance the user experience, the design integrates an OLED screen, sound, and light alarms to achieve real-time visualization and dynamic reminders of the obstacle position. The core hardware module encompasses signal amplification, detector rectification, and sensor components, which collectively enhance the stability and precision of the received signal. The software algorithm is engineered to optimize these functions. The core hardware module includes signal amplification, detector rectification, and sensor components. These components work together to optimize the stability and accuracy of the received signal. The software algorithm enhances the ranging accuracy and environmental adaptability through dynamic correction and environmental temperature monitoring. After experimental verification, the system can stably achieve a range of 5 cm to 155 cm with an error control of ±1 cm. Additionally, the system can dynamically adjust the number of transmitting waves to achieve low power consumption, extend the detection range, and reduce the blind zone. The system has been demonstrated to meet the requirements of accurate ranging in a close range environment. It has been shown to have low power consumption and high accuracy, as well as excellent practicality and innovation. In sum, the system provides a low-cost and high-accuracy system. Furthermore, the system has been demonstrated to meet the requirements of accurate ranging in a close range environment, with low power consumption and high accuracy. It has also been shown to have excellent practicality and innovation, providing a low-cost and efficient solution for detecting obstacles to backing up.

Beijing Jiaotong University (CN)
Affordable and clean energy
Openalex Percentile: Top 83%
RFID technology advancements
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