Logo
  • Cases & Projects
  • Developers
  • Contact
Sign InSign Up

Here you can add a description about your company or product

© Copyright 2025 Makerkit. All Rights Reserved.

Product
  • Cases & Projects
  • Developers
About
  • Contact
Legal
  • Terms of Service
  • Privacy Policy
  • Cookie Policy
AI-Powered Medical Imaging System for Automated Detection and Measurement of Ovarian Follicles
  1. case
  2. AI-Powered Medical Imaging System for Automated Detection and Measurement of Ovarian Follicles

AI-Powered Medical Imaging System for Automated Detection and Measurement of Ovarian Follicles

apriorit.com
Medical
Healthcare

Identifying and Automating the Manual Analysis of Ultrasound Imaging in Fertility Diagnostics

Healthcare providers face significant time-consuming challenges when manually analyzing ultrasound videos to detect, segment, and measure ovarian follicles. The process involves pausing videos, manually marking follicle dimensions, and measuring parameters such as diameter, surface area, and perimeter, which hampers workflow efficiency and delays diagnosis.

About the Client

A mid-sized healthcare institution specializing in fertility testing and treatment, seeking to enhance diagnostic accuracy and efficiency in ultrasound analysis.

Develop an Automated, Accurate AI-Based Solution to Detect and Measure Ovarian Follicles in Ultrasound Data

  • Achieve at least 90% precision and 97% recall in follicle detection and measurement.
  • Reduce doctors' time spent on manual analysis of ultrasound images and videos.
  • Enable processing of videos, images, and folders with minimal manual intervention.
  • Streamline reporting by generating analytical reports on system performance and statistical metrics.
  • Facilitate integration with existing hospital data systems for seamless workflow.

Core Functional Capabilities for Automated Ovarian Follicle Analysis System

  • Neural network-based follicle detection utilizing advanced object segmentation architectures such as Mask R-CNN.
  • Preprocessing modules to enhance image quality and detect anatomical landmarks (e.g., hatch marks) for pixel-to-size calibration.
  • Measurement modules that calculate follicle dimensions using pixel size information extracted from ultrasound images.
  • Video splitting function to convert video files into image sequences for analysis.
  • Support for importing various formats of ultrasound videos and images stored in folders.
  • User-friendly interface for clinicians to review detection results, measurements, and generated reports.
  • Reporting module that provides analytics including detection accuracy, recall, and other metrics.

Technological Foundations for Implementing the AI Detection and Measurement System

Deep learning architectures such as Mask R-CNN for object segmentation and detection.
Python-based deep learning frameworks (e.g., TensorFlow, PyTorch).
Computer vision techniques for image filtering and hatch mark detection.
Cloud platforms like Google Colaboratory and Azure for training and environment setup.
Image processing libraries for calibration and measurement calculations.

Essential System Integrations for Workflow Automation and Data Management

  • Ultrasound imaging equipment data export interfaces.
  • Hospital data systems (e.g., PACS or EMR systems) for integration and data retrieval.
  • Reporting tools for export and sharing of analytic results.

Critical Non-Functional System Requirements for Scalability and Security

  • Achieve detection precision above 90% and recall rate above 97%.
  • Ensure processing of videos and large datasets within acceptable timeframes.
  • Maintain data security and compliance with healthcare data standards (e.g., HIPAA).
  • Design for scalability to handle increasing data volumes and concurrent users.
  • Ensure system robustness and fault tolerance during operations.

Projected Business and Clinical Benefits of Implementing the AI Detection System

The AI-powered system is expected to significantly enhance diagnostic efficiency by automating follicle detection and measurement with over 90% accuracy, reducing manual analysis time, and enabling quicker clinical decisions. Initial success metrics include a detection precision of 90% and a recall rate of 97%, leading to faster patient assessments and improved workflow productivity. The solution paves the way for broader adoption once validated and approved within healthcare regulatory frameworks.

More from this Company

AI-Powered Chatbot for Customer Support and Engagement in Electric Vehicle Charging Services
Development of a Lightweight Data Collection and Threat Detection Platform for Cybersecurity Applications
Enterprise-Grade Managed Development Service for Scalable Cybersecurity Applications
Development of a Cross-Platform Remote Access and Multimedia Redirection System for Enhanced Virtualization Solutions
Development of a Cross-Platform Data Backup Solution with Hardware Interaction for Multiple Operating Systems