

Innovation Owner
Mr. NAPAT AKARAPANUVITAYA
Student
Details
This study proposes a real-time jaundice detection system for infants using advanced image processing and machine learning. By analyzing skin color patterns, the system provides an automated, accurate, and efficient diagnostic tool for clinical settings.
Jaundice, a common condition in infants that results from high bilirubin levels in the blood, often requires early diagnosis and monitoring to prevent severe complications, especially in newborns. Traditional diagnostic methods can be time-consuming and subject to human error. This study proposes an approach for real-time jaundice detection using advanced image processing techniques and machine learning algorithms. By analyzing images captured in RGB color spaces, pixel values are extracted and processed through Otsu’s thresholding and morphological operations to detect color patterns indicative of jaundice. A classifier model is then trained to distinguish between normal and jaundiced conditions, offering an automated, accurate, and efficient diagnostic tool. The system’s potential to operate in real-time makes it particularly suited for clinical settings, providing healthcare professionals with timely insights to improve patient outcomes. The proposed method represents a significant innovation in healthcare, combining artificial intelligence and medical imaging to enhance the early detection and management of jaundice, reducing reliance on manual interventions and improving overall healthcare delivery.

Objective
The objectives include developing a real-time automated jaundice diagnostic system using image processing, analyzing pixel values in LAB and YCbCr color spaces, and evaluating the system's clinical performance.
- Develop an automated real-time jaundice diagnostic system using image processing to identify jaundice from skin color patterns.
- Extract and analyze pixel values from LAB and YCbCr color spaces to distinguish between normal and jaundiced skin.
- Utilize image processing techniques such as Otsu’s thresholding and morphological operations to improve detection accuracy.
- Evaluate the system's performance in terms of accuracy, speed, and reliability for real-time clinical applications.


