December 1 - 6, 2024
Boston, Massachusetts
Symposium Supporters
2024 MRS Fall Meeting & Exhibit
EL05.08.20

Face Digital Image Speckle Correlation (DISC) Application as a Non-Invasive, Accessible Tool to Detect Acoustic Neuroma

When and Where

Dec 4, 2024
8:00pm - 10:00pm
Hynes, Level 1, Hall A

Presenter(s)

Co-Author(s)

Jerry Gu3,Corey Zhang1,Yoonsoo Song2,Shreyaa Sanjay4,Zihan Jia5,Eugene Jiang6,Brooklyn Ratel6,Divleen Singh6,Shi Fu6,Huiting Luo6,Miriam Rafailovich6,Gurtej Singh6

Eastlake High School1,Maclay School2,Princeton International School of Mathematics and Science3,West Windsor-Plainsboro High School North4,The Experimental High School Attached to Beijing Normal University5,Stony Brook University, The State University of New York6

Abstract

Jerry Gu3,Corey Zhang1,Yoonsoo Song2,Shreyaa Sanjay4,Zihan Jia5,Eugene Jiang6,Brooklyn Ratel6,Divleen Singh6,Shi Fu6,Huiting Luo6,Miriam Rafailovich6,Gurtej Singh6

Eastlake High School1,Maclay School2,Princeton International School of Mathematics and Science3,West Windsor-Plainsboro High School North4,The Experimental High School Attached to Beijing Normal University5,Stony Brook University, The State University of New York6
Acoustic neuroma, a benign tumor on the vestibulocochlear nerve, often causes hearing loss and facial asymmetry. Each year in the United States, approximately 3,000 individuals are diagnosed with the disease. The traditional method of early diagnosis using an EEG is inaccessible, costly, and uncomfortable. To address these challenges, our project aims to develop a face digital image speckle correlation (DISC) application for iOS to facilitate real-time diagnosis by mapping facial muscle movement through advanced image processing techniques. This approach provides a convenient, accessible, affordable, and non-invasive tool for early diagnosis in patients and doctors, eventually generating better outcomes.<br/><br/>We developed a DISC application that will assist the diagnosis of acoustic neuroma by standardizing and streamlining the process of photo-taking and cropping, which ensures that patients are consistently positioned, aiding doctors in accurately identifying facial asymmetry, thus enhancing diagnostic accuracy and accessibility.<br/><br/>For image processing and heatmap application, a Python script in a Jupyter Notebook managed image acquisition, preprocessing, and speckle correlation analysis. Utilizing OpenCV, we performed edge detection, contour detection, and region of interest extraction. The user interface, developed with Swift and Apple’s CoreML library, applied a mask to ensure correct user positioning during photo capture. Both images were converted to grayscale and downscaled to 10 by 10 pixels for easier processing.<br/><br/>Tests on project members demonstrated the DISC application’s effectiveness in generating heatmaps, accurately identifying facial asymmetry by highlighting stronger vector displacements in areas of facial movement, such as a smirk. Bilinear interpolation, used to calculate displacement at intermediate points within a planar face mesh, highlighted variations in facial movement, indicating potential asymmetry associated with acoustic neuroma.<br/><br/>The DISC application shows significant promise as a preliminary diagnostic tool for acoustic neuroma by effectively detecting facial asymmetry. By integrating Python and OpenCV for image processing with Swift and CoreML for facial segmentation, we have developed a robust and user-friendly platform. The deployment on Azure for OpenCV integration into Xcode to interlink all GUI elements ensures scalability and reliability.<br/><br/>Overall, the DISC application offers a user-friendly, time-efficient, and accurate solution for diagnosing acoustic neuroma through the detection of facial muscle movements by standardizing the photo-taking process and providing real-time analysis. As it assists early detection and prompts medical consultation, the application would ultimately ease healthcare barriers and improve patient outcomes.

Keywords

nonlinear effects

Symposium Organizers

Paschalis Gkoupidenis, Max Planck Institute
Francesca Santoro, Forschungszentrum Jülich/RWTH Aachen University
Ioulia Tzouvadaki, Ghent University
Yoeri van de Burgt, Technische Universiteit Eindhoven

Session Chairs

Paschalis Gkoupidenis
Francesca Santoro

In this Session