Improving epidemic testing and containment strategies using machine learning
Laura Natali, Saga Helgadottir, Onofrio M. Maragò, Giovanni Volpe
Machine Learning: Science and Technology (2021)
doi: 10.1088/2632-2153/abf0f7
arXiv: 2011.11717
Containment of epidemic outbreaks entails great societal and economic
costs. Cost-effective containment strategies rely on efficiently
identifying infected individuals, making the best possible use of the
available testing resources. Therefore, quickly identifying the optimal
testing strategy is of critical importance. Here, we demonstrate that
machine learning can be used to identify which individuals are most
beneficial to test, automatically and dynamically adapting the testing
strategy to the characteristics of the disease outbreak. Specifically,
we simulate an outbreak using the archetypal
susceptible-infectious-recovered (SIR) model and we use data about the
first confirmed cases to train a neural network that learns to make
predictions about the rest of the population. Using these prediction, we
manage to contain the outbreak more effectively and more quickly than
with standard approaches. Furthermore, we demonstrate how this method
can be used also when there is a possibility of reinfection (SIRS model)
to efficiently eradicate an endemic disease.
Improving epidemic testing and containment strategies using machine learning
Laura Natali, Saga Helgadottir, Onofrio M. Maragò, Giovanni Volpe
arXiv: 2011.11717
Containment of epidemic outbreaks entails great societal and economic
costs. Cost-effective containment strategies rely on efficiently
identifying infected individuals, making the best possible use of the
available testing resources. Therefore, quickly identifying the optimal
testing strategy is of critical importance. Here, we demonstrate that
machine learning can be used to identify which individuals are most
beneficial to test, automatically and dynamically adapting the testing
strategy to the characteristics of the disease outbreak. Specifically,
we simulate an outbreak using the archetypal
susceptible-infectious-recovered (SIR) model and we use data about the
first confirmed cases to train a neural network that learns to make
predictions about the rest of the population. Using these prediction, we
manage to contain the outbreak more effectively and more quickly than
with standard approaches. Furthermore, we demonstrate how this method
can be used also when there is a possibility of reinfection (SIRS model)
to efficiently eradicate an endemic disease.