The primary objective of this project is to develop a robust and accurate traffic object detection framework for fisheye camera images by designing and implementing YOLO26-SPAC and YOLO11-CFA architectures that incorporate attention mechanisms capturing spatial, frequency, and multi-scale contextual features. The models are trained on the FE8K dataset to classify five traffic object categories: Bike, Bus, Car, Pedestrian, and Truck, with feature enhancements including spatial pyramid attention, cross-frequency attention, wavelet feature extraction, and global context embedding to improve detection accuracy and robustness against geometric distortions. The system’s performance is evaluated using metrics such as precision, recall, F1-score, and mAP, supported by visualization through confusion matrices, PR curves, and validation prediction grids. A modular framework integrating front-end and back-end components facilitates user interaction, image input, and prediction output. The framework is designed to handle variations in image resolution, object scale, and camera distortion efficiently, providing a scalable and reliable solution for accurate traffic object detection in fisheye imagery.
This project presents an advanced
traffic object detection system designed for vehicle-mounted fisheye cameras.
Traditional detection methods struggle with distortions and varying object
scales introduced by fisheye imaging. To overcome these challenges, two novel
deep learning architectures are employed: YOLO26-SPAC (Spatial Pyramid
Attention and Context) and YOLO11-CFA (Cross-Frequency Attention). YOLO26-SPAC
incorporates spatial pyramid attention and global context embedding, enabling
multi-scale feature extraction and enhancing localization of traffic objects.
YOLO11-CFA leverages cross-frequency attention and wavelet-based feature
extraction to capture both low- and high-frequency components, improving
robustness against geometric distortions. The system classifies traffic
entities into five categories: Bike, Bus, Car, Pedestrian, and Truck. Data
augmentation techniques such as mosaic, flipping, and scaling are applied to
improve model generalization. The framework is developed with a front-end using
HTML, CSS, and JavaScript, and a back-end using Python with the Flask
framework. Evaluation metrics include precision, recall, F1-score, mAP@0.5, and
mAP@0.5:0.95, with confusion matrices and validation predictions used to assess
model performance. This approach demonstrates improved detection accuracy,
better handling of distortions, and effective classification across multiple
traffic object types.
Keywords: Traffic detection, Fisheye imaging, YOLO26-SPAC, YOLO11-CFA,
Spatial Pyramid Attention, Cross-Frequency Attention, Wavelet features, Object
classification, Deep learning, Feature fusion
NOTE: Without the concern of our team, please don't submit to the college. This Abstract varies based on student requirements.

• Processor - I5/Intel Processor
• RAM - 8GB (min)
• Hard Disk - 160 GB
• Key Board - Standard Windows Keyboard
• Mouse - Two or Three Button Mouse
• Monitor - Any
• Operating System : Windows 7/8/10
• Server side Script : HTML, CSS, Bootstrap & JS
• Programming Language : Python
• Libraries : Flask, Pandas, Numpy, Mysql.connector, Os,
• IDE/Workbench : VS-Code
• Technology : Python 3.10+
• Server Deployment : Xampp Server
• Database : MySQL