Skip site navigation
University of Maryland Division of Research
Who We Are Capabilities Partnerships Resources News
Analytical Nuclear Magnetic Resonance (NMR) Service & Research Center Biomolecular Nuclear Magnetic Resonance (NMR) Facility Biosciences Cores: Genomics, Imaging, and Flow Cytometry BioWorkshop Brain & Behavior Institute - Advanced Genomic Technologies Core CALCE Test Services and Failure Analysis Laboratory Center For Innovative Biomedical Resources (CIBR) Clarice Smith Performing Arts Center Daikin Energy Innovation Lab DLAR Imaging Core Exposome Small Molecule Core Facility Glenn L. Martin Wind Tunnel Herschel S. Horowitz Center for Health Literacy KIT-Maryland MEG Lab Maryland Fire and Rescue Institute (MFRI) Maryland NanoCenter Maryland Neuroimaging Center Mass Spectrometry Facility Michelle Smith Collaboratory for Visual Culture Neutral Buoyancy Research Facility (NBRF) Surface Analysis Center The Laboratory for Biological Ultrastructure The University of Maryland Center for Health Equity The University of Maryland Prevention Research Center X-ray Crystallographic Center (XCC)
Africa Through Language and Area Studies (ATLAS) Anti-Black Racism Initiative Effective and Equitable Weather Forecasting in a Changing Climate with Machine Learning Encuentros: A University-Community Partnership to Mitigate the Mental Health Crisis for Latino Immigrant Youth Fostering Inclusivity through Technology (FIT) Helping Our Bodies Clear Respiratory Infections The Maryland Safe Drinking WATER Study Modeling the Evolution of Avian Influenza Viruses Music Education for All Through Personalized AI and Digital Humanities Observing Wildfires Through UAVs and Fire Imaging Technologies Programmable Design of Sustainable, All-Natural Plastic Substitutes Racial and Social Justice Research-Practice Partnership Collaborative Remediation of Methane, Water, and Heat Waste Seizing Opportunities: Social Capital, Businesses, and Communities Using Machine Learning to Measure and Improve Equity in K-12 Mathematics Classrooms Water Emergency Team
Accurate, Equitable, and Transparent Genetic Ancestry Inference Advancing Environmental Justice By Evaluating Climate-Ready Urban Street Trees In Historically Redlined Neighborhoods AFTER: A Hospital Violence Intervention Program For Youth Victims of Gunshot Injury An Innovative Intervention to Help Asian American Families Cope with Racism and Mental Health Difficulties Bridging the Gaps in Satellite Observations of Earth Systems to Support Climate Monitoring and Prediction Climate Change and Political Conflict Climate Mitigation and Land-Use Digital Equity Mapping Research and Training Program Establishing a Role for Psilocybin in Frontal Lobe Function Fetal Mammary Stem Cell Programming and Hormone Dysfunction Forecasting Acute Malnutrition for Anticipatory Action Genetic and Lifestyle Risk Factors of Accelerated Brain Aging in Severe Mental Illness How Does Statistical Learning Interact with Socioeconomic Status to Shape Literacy Development? Human Rights Politics and Policies: Lessons from Latin America Increasing Sustainability, Accessibility, and Equity in Urban Mobility with A Self-driving E-Scooter Increasing Participation of Minorities and Women In STEM Through Sports Performance Analytics Research Market Design, Energy Storage, and Interconnection to the U.S. Power Grid On-board Energy Harvesting for Long-endurance Earth Observation UAVs Promoting Youth Mental Wellbeing in Rural Honduras by Engaging Teachers as Catalysts Relating Attitudes on Democracy to Attitudes on Race and Ethnicity An Innovative Approach to Remove Emerging Organic Contaminants from the Environment Role of Mitochondria Dynamics in Opioid Addiction Towards an Early Warning System for Increased Probability of Community Infection by SARS-Cov-2 Variants Understanding the Impact of Wind on Fire Dynamics in Mass-Timber Compartment Visualizing Urban Flooding Due To Climate Change
Search
Who We Are Capabilities Partnerships Resources News
Health

Srinivasan Receives Funding from Google to Advance Contact Tracing Methods

Research could ultimately provide fundamental new insights into how epidemics can be controlled.

September 18, 2020

A University of Maryland expert in algorithms and high-performance computing has been funded by Google to develop computational techniques to improve contact tracing methods in the wake of COVID-19, research that could ultimately provide fundamental new insights into how epidemics can be controlled.

Aravind Srinivasan, a Distinguished University Professor of computer science with an appointment in the University of Maryland Institute for Advanced Computer Studies, is one of the four principal investigators of the $140K project. He is joined by researchers from Princeton University and the University of Virginia who, like Srinivasan, have more than 25 years of experience in computational epidemiology.

The money comes from Google’s $8.5 million investment in data analytics and artificial intelligence to better understand the impact of COVID-19 on communities–especially vulnerable populations and healthcare workers.

The researchers’ primary objective is to develop algorithms that prioritize who to test and when. These new algorithmic techniques will balance testing rates, infection rates and social distancing data.

Then, the team will use simulations and machine learning techniques to test and refine the algorithms, improving their efficacy. This approach is unique, say the researchers, because the simulations will prove the accuracy of their theories.

One of Srinivasan’s main goals is to develop an algorithm that will be able to identify a “superspreader” faster than current contact tracing methods allow. A superspreader is an infected individual who is coming into contact with a large number of people, explains Srinivasan, like a bus driver or nurse, for example.

Amplification testing is another project component, in which the researchers will study existing data of social interactions to increase the combined power of testing and social distancing.

Privacy is significant challenge for this project, say the researchers, due to security risks and the sensitivity of the medical data. Their goal is to guarantee differential privacy so that in the event of a data leak, individuals’ information would be indistinguishable.

Srinivasan’s team hopes to not only contribute to the curbing of COVID-19, but to also provide a blueprint for the future.

“Unfortunately, this is not going to be the last pandemic,” he says. “Our goal is to develop theory to future-proof our systems and be prepared for the next one.”

(Original story written by Maria Herd)