Jason A. Galvis

Modeling the transmission dynamics of African swine fever virus within commercial swine barns: Quantifying the contribution of multiple transmission pathways

This study models ASFV transmission within swine barns, identifying between-pen contact as the primary route, with nose-to-nose contact contributing most, and aerosol transmission having minimal impact.

Identifying control strategies to eliminate African swine fever from the United States swine industry in under 12 months

This paper uses a mathematical model to identify intensified control strategies needed to eliminate African swine fever from U.S. swine populations within 12 months.

Estimating sampling and laboratory capacity for a simulated African swine fever outbreak in the United States

This study models the resource requirements for detecting an ASFV outbreak in the U.S., finding that sample collectors and lab capacity are critical to prevent delays.

Modeling the effects of vaccination against multiple strains of porcine reproductive and respiratory syndrome at the barn level

The paper models targeted vaccination strategies against PRRSV strains at the barn level, showing that strain-specific vaccines reduce infections, while multiple vaccines may be more effective when strains vary in vaccine response.

Modeling the impact of optimized airflow and sick pen management on the spread of infectious diseases in swine barns

This study models how optimized airflow and sick pen placement in swine barns affect disease spread, finding that ventilation adjustments and strategic pen placement can reduce disease transmission by up to 43.2%.