Mathematical predictions for foot and mouth disease

To evaluate the best tactics for fighting the current foot and mouth crisis in the UK, a team from Imperial College School of Medicine, London applied a mathematical model and calculated the potential for disease transmission, given different scenarios. In their report in 13 April Science online they show that rapid, pre-emptive ring culling of livestock surrounding the sites with infected animals is the best way to slow the epidemic.Ferguson et al fed the current epidemiological data into a mat

Written byTudor Toma
| 1 min read

Register for free to listen to this article
Listen with Speechify
0:00
1:00
Share

To evaluate the best tactics for fighting the current foot and mouth crisis in the UK, a team from Imperial College School of Medicine, London applied a mathematical model and calculated the potential for disease transmission, given different scenarios. In their report in 13 April Science online they show that rapid, pre-emptive ring culling of livestock surrounding the sites with infected animals is the best way to slow the epidemic.

Ferguson et al fed the current epidemiological data into a mathematical equation of disease transmission that captures the differing spatial contact patterns between farms before and after the imposition of movement restrictions. Calculated predictions suggest that slaughtering sick animals within 24 hours, followed by ring culling over a 1.5-kilometer area within 48 hours offer the maximum potential for slowing the epidemic.

If such drastic measures were implemented consistently, the disease would affect only 16% of British farms (or 53% in ...

Interested in reading more?

Become a Member of

The Scientist Logo
Receive full access to more than 35 years of archives, as well as TS Digest, digital editions of The Scientist, feature stories, and much more!
Already a member? Login Here

Meet the Author

Share
July Digest 2025
July 2025, Issue 1

What Causes an Earworm?

Memory-enhancing neural networks may also drive involuntary musical loops in the brain.

View this Issue
Explore synthetic DNA’s many applications in cancer research

Weaving the Fabric of Cancer Research with Synthetic DNA

Twist Bio 
Illustrated plasmids in bright fluorescent colors

Enhancing Elution of Plasmid DNA

cytiva logo
An illustration of green lentiviral particles.

Maximizing Lentivirus Recovery

cytiva logo
Explore new strategies for improving plasmid DNA manufacturing workflows.

Overcoming Obstacles in Plasmid DNA Manufacturing

cytiva logo

Products

sartorius-logo

Introducing the iQue 5 HTS Platform: Empowering Scientists  with Unbeatable Speed and Flexibility for High Throughput Screening by Cytometry

parse_logo

Vanderbilt Selects Parse Biosciences GigaLab to Generate Atlas of Early Neutralizing Antibodies to Measles, Mumps, and Rubella

shiftbioscience

Shift Bioscience proposes improved ranking system for virtual cell models to accelerate gene target discovery

brandtechscientific-logo

BRANDTECH Scientific Launches New Website for VACUU·LAN® Lab Vacuum Systems