The project goal is to develop a non-invasive diagnostic method for pulmonary hypertension in premature infants, as well as the supporting components for testing, classification, and implementation.

 

 

Team Members

Cole Baughman    Alex Cini    Cass Pitts    Patrick Saber                        

Instructor: Amar Yeware

 

Project Poster

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Project Video

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Project Summary

Overview

The Penn State Hershey College of Medicine wants to develop a technology for imaging the pulmonary vasculature for neonatal patients. Our task was to develop a new method for diagnosing pulmonary hypertension that is non-invasive but more reliable than existing non-invasive methods.

Objectives

Our objective was to generate a method for the diagnosis of pulmonary hypertension in infants born premature. Tackling this requires a multi-faceted approach: developing a phantom of the diseased and healthy states, classification of ultrasound images, and modeling wearable sensors.

Approach

– Conduct meetings with experts as needed to understand the patient and stakeholder needs

– Perform an extensive literature review on perfusion phantoms, tissue mimics, existing non-invasive imaging technologies, and image classification.

– Develop a perfusion phantom from an adult patient CT scans

– Use a handheld ultrasound probe to image the perfusion phantom

– Develop a convolutional neural network for image analysis and classification

– Classify the ultrasound images into the two states, then feed the images into the CNN

– Model wearable sensors on pulmonary regions of interest for future research

Outcomes

– The team developed a novel approach to diagnosing pulmonary hypertension using ultrasound images inputted to a neural network to classify whether a patient is diseased or not

– A perfusion phantom was successfully created to model the fluid dynamics and biological parameters of healthy and diseased patients

– When the phantom was imaged using color ultrasound there were noticeable differences in the diseased versus healthy state

– A neural network was architected so ultrasound images from the phantom could be used to train the network to distinguish between health and diseased images

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