Quantitative COVID-19 Scores Using High Resolution Computed Tomography (UCLA Case No. 2022-225)

Summary:

UCLA researchers in the Department of Radiology have developed an innovation algorithm that measures lung damage associated with COVID-19 using computed tomography (CT) data.

Background:

Computed tomography (CT) scans are essential in diagnosing and monitoring different types of lung damage. At present, radiologist manually inspect CT scans and provide non-standardized qualitative estimates. High resolution-computed tomography (HR-CT) scans with a quantitative aspect (QHR-CT) are being adopted to monitor the progression and recovery from respiratory diseases.

The ongoing COVID-19 pandemic demonstrated the devastating effects acute respiratory distress syndrome (ARDS) can have on patients. ARDS is a severe type of lung injury commonly seen in patients suffering from pneumonia and COVID-19. By some estimates, ARDS is responsible for up to 10% of all ICU admissions and carries a mortality rate above 30%. While QHR-CT have improved the quantitative analysis of pulmonary health, more sophisticated algorithms are needed to study and eventually predict the progression of chronically critically ill patients. There is a need for rapid and accurate technology to quantify lung capacity and damage in critical patients as well as track the recovery process.

Innovation:

UCLA researchers in the Department of Radiology, led by Dr. Grace Kim, have created a machine-learning algorithm that uses visual patterns from COVID-19 CT scans to determine the extent of lung damage caused by pulmonary disease. This innovative method includes two new markers of disease that other algorithms do not consider, resulting in a more accurate representation of pulmonary health. The invention may enable medical professionals to assess a patient’s pulmonary health quantitatively and provide more tailored remedies. It also offers a means of studying the respiratory condition of chronically critically ill patients who cannot undergo traditional respiratory tests.

Potential Applications:

•    Diagnosis and monitoring of disease
•    Medical teaching
•    Lung CT scans

Advantages:

•    Patient specific
•    Machine learning
•    Quantifiable tracking of disease progression and recovery

Development-To-Date:

Invention has been successfully demonstrated in two clinical studies.

Related Papers:

Dolinay, T.; Jun, D.; Maller, A.; Chung, A.; Grimes, B.; Hsu, L.; Nelson, D.; Villagas, B.; Kim, G.; Goldin, J.; Quantitative image analysis in COVID-19 acute respiratory distress syndrome: a cohort observational study. F1000 Research 10:1266 (2022). https://doi.org/10.12688/f1000research.75311.1 

Reference: UCLA Case No. 2022-255

Lead Inventor: Hyun (Grace) Kim
 

Patent Information:
For More Information:
Joel Kehle
Business Development Officer
joel.kehle@tdg.ucla.edu
Inventors:
Hyun (Grace) Kim
Jonathan Gerald Goldin
Fereidoun Abtin
Pang Yu Teng
Matthew Brown