A serial dual-channel library occupancy detection system based on Faster RCNN

TL;DR

This paper introduces a novel dual-channel Faster R-CNN-based system for real-time library seat occupancy detection, utilizing virtual and real images for training, and integrates transfer learning to improve efficiency and accuracy.

Contribution

The study presents a new dual-channel detection model combining Faster R-CNN with transfer learning, and demonstrates the effectiveness of virtual datasets in training neural networks for occupancy detection.

Findings

Enhanced detection accuracy with virtual datasets

Reduced training time and computational resources

Improved efficiency of library seat management

Abstract

The phenomenon of seat occupancy in university libraries is a prevalent issue. However, existing solutions, such as software-based seat reservations and sensors-based occupancy detection, have proven to be inadequate in effectively addressing this problem. In this study, we propose a novel approach: a serial dual-channel object detection model based on Faster RCNN. This model is designed to discern all instances of occupied seats within the library and continuously update real-time information regarding seat occupancy status. To train the neural network, a distinctive dataset is utilized, which blends virtual images generated using Unreal Engine 5 (UE5) with real-world images. Notably, our test results underscore the remarkable performance uplift attained through the application of self-generated virtual datasets in training Convolutional Neural Networks (CNNs), particularly within specialized scenarios. Furthermore, this study introduces a pioneering detection model that seamlessly amalgamates the Faster R-CNN-based object detection framework with a transfer learning-based object classification algorithm. This amalgamation not only significantly curtails the computational resources and time investments needed for neural network training but also considerably heightens the efficiency of single-frame detection rates. Additionally, a user-friendly web interface and a mobile application have been meticulously developed, constituting a computer vision-driven platform for detecting seat occupancy within library premises. Noteworthy is the substantial enhancement in seat occupancy recognition accuracy, coupled with a reduction in computational resources required for neural network training, collectively contributing to a considerable amplification in the overall efficiency of library seat management.