Author: Fan, J.; Yang, X.; Lu, R.; Xie, X.; Li, W.
Title: Design and implementation of intelligent inspection and alarm flight system for epidemic prevention Cord-id: w5zqr3xw Document date: 2021_1_1
ID: w5zqr3xw
Snippet: Unmanned aerial vehicles (UAV) and related technologies have played an active role in the prevention and control of novel coronaviruses at home and abroad, especially in epidemic pre-vention, surveillance, and elimination. However, the existing UAVs have a single function, limited processing capacity, and poor interaction. To overcome these shortcomings, we designed an intelligent antiâ€epidemic patrol detection and warning flight system, which integrates UAV autonomous navigation, deep learnin
Document: Unmanned aerial vehicles (UAV) and related technologies have played an active role in the prevention and control of novel coronaviruses at home and abroad, especially in epidemic pre-vention, surveillance, and elimination. However, the existing UAVs have a single function, limited processing capacity, and poor interaction. To overcome these shortcomings, we designed an intelligent antiâ€epidemic patrol detection and warning flight system, which integrates UAV autonomous navigation, deep learning, intelligent voice, and other technologies. Based on the convolution neural network and deep learning technology, the system possesses a crowd density detection method and a face mask detection method, which can detect the position of dense crowds. Intelligent voice alarm technology was used to achieve an intelligent alarm system for abnormal situations, such as crowd-gathering areas and people without masks, and to carry out intelligent dissemination of epidemic prevention policies, which provides a powerful technical means for epidemic prevention and de-laying their spread. To verify the superiority and feasibility of the system, highâ€precision online analysis was carried out for the crowd in the inspection area, and pedestrians’ faces were detected on the ground to identify whether they were wearing a mask. The experimental results show that the mean absolute error (MAE) of the crowd density detection was less than 8.4, and the mean av-erage precision (mAP) of face mask detection was 61.42%. The system can provide convenient and accurate evaluation information for decisionâ€makers and meets the requirements of realâ€time and accurate detection. © 2021 by the authors. Li-censee MDPI, Basel, Switzerland.
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