Substances in database
Example sheet
Database access
Last subscription

Epidemiological analyses of African swine fever in the European Union

Undefined

This report provides a descriptive analysis of the African swine fever (ASF) Genotype II epidemic in the affected Member States in the EU and two neighbouring countries for the period from 1 September 2020 to 31 August 2021. ASF continued to spread in wild boar in the EU, it entered Germany in September 2020, while Belgium became free from ASF in October 2020. No ASF outbreaks in domestic pigs nor cases in wild boar have been reported in Greece since February 2020. In the Baltic States, overall, there has been a declining trend in proportions of polymerase chain reaction (PCR)‐positive samples from wild boar carcasses in the last few years. In the other countries, the proportions of PCR‐positive wild boar carcasses remained high, indicating continuing spread of the disease. A systematic literature review revealed that the risk factors most frequently significantly associated with ASF in domestic pigs were pig density, low levels of biosecurity and socio‐economic factors. For wild boar, most significant risk factors were related to habitat, socio‐economic factors and wild boar management. The effectiveness of different control options in the so‐named white zones, areas where wild boar densities have been drastically reduced to avoid further spread of ASF after a new introduction, was assessed with a stochastic model. Important findings were that establishing a white zone is much more challenging when the area of ASF incursion is adjacent to an area where limited control measures are in place. Very stringent wild boar population reduction measures in the white zone are key to success. The white zone needs to be far enough away from the affected core area so that the population can be reduced in time before the disease arrives and the timing of this will depend on the wild boar density and the required population reduction target in the white zone. Finally, establishing a proactive white zone along the demarcation line of an affected area requires higher culling efforts, but has a higher chance of success to stop the spread of the disease than establishing reactive white zones after the disease has already entered in the area.

This publication is linked to the following EFSA Journal article: http://onlinelibrary.wiley.com/doi/10.2903/sp.efsa.2022.EN-7320/full

Last Tweets

06/06/2016 - 11:11
Nuovo componente inserito: Simmondsia Chinensis (Jojoba) Seed Oil https://t.co/mGvGLRQ05k
29/05/2016 - 10:04
Nuovo componente inserito: Linum Usitatissimum seed oil Error
27/05/2016 - 16:38
Nuovo componente inserito: Soybean oil https://t.co/9prxB7xyiu

NOAEL-crew

Project coordinator

Content revision

Toxicological datasheet creation

Website Administration

Subscriptions & Contacts

To get more info about the NOAEL project, go to FAQ section or contact Roberto Narducci at this address:
 
infoATnoaelproject.it or robymagnoATgmail.com
 
For info about subscription costs click the following link or contact Federica Cambiganu:
 
federica.cambiganuATpin.unifi.it
+390574602511
PIN s.c.r.l. - Piazza Giovanni Ciardi 25, 59100 - Prato