Authors :
U. Anjineyalu; Subhasree D. C.; Dr. Girish Kumar D.
Volume/Issue :
Volume 11 - 2026, Issue 4 - April
Google Scholar :
https://tinyurl.com/4cn4zkvf
Scribd :
https://tinyurl.com/37y3yjer
DOI :
https://doi.org/10.38124/ijisrt/26apr2519
Note : A published paper may take 4-5 working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and ResearchGate.
Abstract :
Real-time Object detection systems often lose accuracy when handling low-resolution or visually degraded video,
a common issue in real-world monitoring environments. This paper introduces FocusFusionNet, a super-resolution
assisted object detection framework developed for both real- time processing and offline video analysis. The proposed
approach combines a deep learning–based object detector with an optional super- resolution preprocessing stage that
enhances visual quality before detection. FocusFusionNet supports live camera feeds as well as prerecorded video,
enabling reliable multi-class object detection with frame-level tracking and confidence scoring. A graphical user interface
is provided to allow intuitive video playback, object filtering, and visualization of detection statistics. Experimental
evaluations indicate that super-resolution preprocessing improves detection stability in low-quality video while keeping
computational costs low. The framework maintains performance levels suitable for real-time use. Overall, FocusFusionNet
offers a practical and adaptable solution for intelligent video monitoring applications.
Keywords :
FocusFusionNet, Super-Resolution Enhancement, Real-Time Object Detection, YOLOv8, Video Analytics System, Deep Learning–Based Vision, Low-Resolution Video Processing, Computer Vision Applications, Intelligent Video Monitoring, GUIBased Detection Framework.
References :
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Real-time Object detection systems often lose accuracy when handling low-resolution or visually degraded video,
a common issue in real-world monitoring environments. This paper introduces FocusFusionNet, a super-resolution
assisted object detection framework developed for both real- time processing and offline video analysis. The proposed
approach combines a deep learning–based object detector with an optional super- resolution preprocessing stage that
enhances visual quality before detection. FocusFusionNet supports live camera feeds as well as prerecorded video,
enabling reliable multi-class object detection with frame-level tracking and confidence scoring. A graphical user interface
is provided to allow intuitive video playback, object filtering, and visualization of detection statistics. Experimental
evaluations indicate that super-resolution preprocessing improves detection stability in low-quality video while keeping
computational costs low. The framework maintains performance levels suitable for real-time use. Overall, FocusFusionNet
offers a practical and adaptable solution for intelligent video monitoring applications.
Keywords :
FocusFusionNet, Super-Resolution Enhancement, Real-Time Object Detection, YOLOv8, Video Analytics System, Deep Learning–Based Vision, Low-Resolution Video Processing, Computer Vision Applications, Intelligent Video Monitoring, GUIBased Detection Framework.