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O
Oluwaseun Adeboye

Oluwaseun Adeboye

ICT Teacher in Contract Review, Compliance, and Legal Research

Nigeria flagWarri, Nigeria
$20.00/hrEntry LevelRoboflow

Key Skills

Software

RoboflowRoboflow

Top Subject Matter

Legal Services & Contract Review
Regulatory Compliance & Risk Analysis
Legal Research & Document Analysis

Top Data Types

VideoVideo
TextText
DocumentDocument

Top Task Types

Object DetectionObject Detection
SegmentationSegmentation

Freelancer Overview

ICT Teacher in Contract Review, Compliance, and Legal Research. Brings 6+ years of professional experience across legal operations, contract review, compliance, and structured analysis. Education includes Bachelor of Science, Elizade University (2024). Well suited for text-focused AI training, including legal document review, compliance annotation, and rubric-based quality evaluation.

Entry LevelEnglish

Labeling Experience

LEVERAGING SUPERVISED MACHINE LEARNING FOR ALZHEIMER'S ILLNESS PREDICTION USING ROBOFLOW-ENHANCED IMAGING

ImageObject Detection
This project explores the application of supervised machine learning techniques to predict Alzheimer's disease using Pathological images, through data preprocessing with Roboflow. Alzheimer's disease, a progressive neurodegenerative disorder, presents significant challenges in diagnosis, crucial for effective intervention and management, this study uses the Roboflow 3.0 Object Detection model, with the MS COCO (Microsoft Common Objects in Context) checkpoint, a powerful deep learning Model, to develop a predictive model capable of identifying Alzheimer's from pathological scans with high accuracy. The methodology involved collecting a comprehensive dataset of pathological images, which were meticulously preprocessed to ensure quality and consistency. Roboflow was utilised for preprocessing tasks, including annotation, normalisation, and data augmentation. The Roboflow 3.0 Object Detection model, with the MS COCO (Microsoft Common Objects in Context) checkpoint was then trained and validated using this refined dataset, with hyperparameters optimised to enhance performance. Evaluation metrics such as accuracy, precision, recall, and F1 score were employed to assess the model's efficacy. Results provide a robust tool for early diagnosis. The model's integration into a user-friendly web interface allows for seamless interaction by clinicians and researchers, facilitating practical application in clinical settings. Despite the promising outcomes, the project encountered limitations such as the dependency on the quality and size of the dataset, computational demands of the model, and challenges in model interpretability. Future work will focus on expanding the dataset, optimizing the model for computational efficiency, enhancing interpretability, and incorporating multimodal data for comprehensive diagnostic support. In conclusion, this project underscores the potential of supervised machine learning in revolutionising Alzheimer's disease diagnostics, offering a scalable and efficient solution that can significantly impact clinical practices and patient outcomes.

This project explores the application of supervised machine learning techniques to predict Alzheimer's disease using Pathological images, through data preprocessing with Roboflow. Alzheimer's disease, a progressive neurodegenerative disorder, presents significant challenges in diagnosis, crucial for effective intervention and management, this study uses the Roboflow 3.0 Object Detection model, with the MS COCO (Microsoft Common Objects in Context) checkpoint, a powerful deep learning Model, to develop a predictive model capable of identifying Alzheimer's from pathological scans with high accuracy. The methodology involved collecting a comprehensive dataset of pathological images, which were meticulously preprocessed to ensure quality and consistency. Roboflow was utilised for preprocessing tasks, including annotation, normalisation, and data augmentation. The Roboflow 3.0 Object Detection model, with the MS COCO (Microsoft Common Objects in Context) checkpoint was then trained and validated using this refined dataset, with hyperparameters optimised to enhance performance. Evaluation metrics such as accuracy, precision, recall, and F1 score were employed to assess the model's efficacy. Results provide a robust tool for early diagnosis. The model's integration into a user-friendly web interface allows for seamless interaction by clinicians and researchers, facilitating practical application in clinical settings. Despite the promising outcomes, the project encountered limitations such as the dependency on the quality and size of the dataset, computational demands of the model, and challenges in model interpretability. Future work will focus on expanding the dataset, optimizing the model for computational efficiency, enhancing interpretability, and incorporating multimodal data for comprehensive diagnostic support. In conclusion, this project underscores the potential of supervised machine learning in revolutionising Alzheimer's disease diagnostics, offering a scalable and efficient solution that can significantly impact clinical practices and patient outcomes.

2024 - 2024

Education

E

Elizade University

Bachelor of Science, Computer Science

Bachelor of Science
2020 - 2024

Work History

H

Heaven's Consulate International

Sound Engineer

Anambra
2025 - 2026
C

Calvary Heir Model School

ICT Teacher

Nkpor
2025 - 2026