The project aims to design and train two novel deep?learning models—FissureNet?WD, which enhances thin fracture visibility via receptive?field and edge?attention mechanisms, and OssiFrac?CBAX26, which uses cross?branch feature aggregation for robust detection across diverse bone textures and exposures. Both models are evaluated on a held?out test set using precision, recall, and mAP at multiple IoU thresholds. Additionally, a Flask?based web platform with SQLite is developed to enable user registration, login, secure wrist X?ray upload, automated inference with annotated bounding boxes and confidence scores, a dashboard of user statistics, and a chronological history of detections, all packaged as a self?contained solution for easy setup and reproducibility.
Wrist fractures are among the most frequently missed injuries in X-ray interpretation, particularly when the fracture line is fine or subtle. This project presents a deep learning-based solution that automatically detects wrist fractures from radiological images. Two custom detection algorithms, FissureNet‑WD and OssiFrac‑CBAX26, are developed using an enhanced YOLOv11 architecture. FissureNet‑WD emphasises thin fracture line identification through specialised edge-focused modules, while OssiFrac‑CBAX26 uses multi‑scale bone texture analysis to locate fractures across varying image densities. The models are trained and evaluated on a Roboflow dataset containing 10,374 training, 984 validation, and 514 test images belonging to a single fracture class. A web application built with the Flask framework and an SQLite database provides an interface for user registration, login, X‑ray upload, automated detection, and scan history management. All front‑end styling and scripts are embedded within HTML templates. The system outputs annotated images with bounding boxes and confidence scores for each detected fracture. This work demonstrates that domain‑specific architectural modifications can improve fracture detection accuracy and offers an accessible platform for experimentation with automated bone imaging analysis.
Keywords: wrist fracture detection, deep learning, YOLOv11, FissureNet‑WD, OssiFrac‑CBAX26, X‑ray imaging, bounding box, convolutional neural network, web application, medical imaging.
NOTE: Without the concern of our team, please don't submit to the college. This Abstract varies based on student requirements.

Processor - I3/Intel Processor
Hard Disk - 160GB
Key Board - Standard Windows Keyboard
Mouse - Two or Three Button Mouse
Monitor - SVGA
RAM - 8GB
Operating System : Windows 7/8/10
Server side Script : HTML, CSS
Programming Language : Python
Libraries : Flask, Os, pandasUltralytics, Numpy
IDE/Workbench : VsCode
Technology : Python 3.8+
Database : sqllite