ERA-NET SusAn – Sustainable Animal Production.
Animal Transport Guidelines Project
The European Commission, DG Sante project aims to improve animal welfare around transport. The project will develop and disseminate Guides to Good and Best Practice for animals transported within Europe and to third countries for slaughter, fattening and breeding. Guides will be developed for cattle, horses, pigs, poultry and sheep transport. The project started in May 2015 and will finish by the end of 2018.
The project is divided into 5 tasks
•Task 1: Collection
Collect and collate appropriate best practices implemented and supported by scientific evidence
•Task 2 and 3: Development
Develop practical guidelines with those that will use it
•Task 4: Dissemination
Disseminate these guidelines through the networks of the main European stakeholder groups involved
•Task 5: Verification
To verify if the new transport guidelines reached the end-users
See the project website for more information (e.g. guides, factsheets and roadshows; available in 8 languages: English, German, French, Greek, Romanian, Polish, Spanish and Italian).
You can also sign up for the newsletter of the Animal Transport Guidelines project.
Herskin, M.S. and P. Di Giminiani, 2017. Pigs in pain—causes, mechanisms, and possibilities for future development. Abstract from BEHAVIOR, HOUSING, AND WELL-BEING SYMPOSIUM: FINDING EFFECTIVE WAYS TO MANAGE PAIN IN LIVESTOCK, a conference of the American Society for Animal Science Midwestern Meeting, Omaha, NE, 13-15 March 2017
Despite a long history of debate about negative affective states in animals, it was only in the last decades of the 20th century that the state of pain was mentioned in definitions of animal welfare, included in veterinary education, and became a target of scientific interest. Pain is a perceptional phenomenon built from information gathered by specialized sensory receptors for tissue damage and integrated into a discrete experience with a negative emotional valence in the brain. Based on knowledge about porcine neuroanatomy, physiology, and studies focusing on pig behavior and pathology, we review evidence for causes of pain in pigs, underlying biological mechanisms, as well as the possibility to quantify different types of indicators of pain states relevant to the welfare of the animals under production conditions. The presentation will primarily focus on pigs because of the dual purpose of this species as a meat producing as well as research animal species (the latter driven by the anatomical and physiological homologies with humans), making pigs unique among livestock. We will present methodologies and results from current research projects across Europe and North America targeting typical industry-related injuries (e.g., tail docking, lameness, and shoulder lesions) and aiming to understand the welfare consequences for the pigs. Throughout the talk, the emphasis will be put on future opportunities to link research outcomes with industry initiatives toward the improvement of animal welfare and production. In addition, possible future research efforts to help face current methodological limitations and favor a more comprehensive evaluation of animal pain as an overall experience will be discussed. This seeks to facilitate common future targeted research and enable us to overcome the paradoxical low level of knowledge about porcine pain and its alleviation under production conditions.
Effect of tail docking on welfare and performance of pigs during nursery and growing-finishing periods
By Y. Li and L. J. Johnston. 2017. J. Anim. Sci. 95:34 (conference abstract)
Tail docking of pigs is under scrutiny due to concerns about animal welfare. To reevaluate the consequences of raising pigs without tail docking under modern, commercial-like conditions, a study was conducted to compare welfare, behavior, and performance of pigs with and without tail docking. Pigs farrowed to 37 sows were used with half of each litter tail-docked (docked) after birth and remaining pigs left with tails intact (intact). During the nursery period, pigs (n = 336, initial wt = 7.8 ± 1.5 kg) were housed in 20 docked pens and 22 intact pens (8 pigs/pen). During the growing-finishing period, pigs (n = 240, initial wt = 24.9 ± 2.9 kg) were housed in 8 pens (4 pens each of docked and intact, 30 pigs/pen) for 16 wk (avg final wt = 126.2 ± 10.3 kg). Weight gain and feed intake were recorded. All pigs were assessed for tail damage and skin lesions every 4 wk and during outbreaks of tail biting. Behaviors were video-recorded twice weekly for 13 wk during the growing-finishing period. Carcass weights and incidence of carcass trim loss were recorded. More intact pigs experienced tail damage during both nursery (41% vs. 2%; chi-square = 75.7; P < 0.0001) and growing-finishing (89% vs. 48%; chi-square = 76.2; P < 0.0001) periods than docked pigs. Intact pigs spent more time tail biting (0.31% vs. 0.06%; P < 0.001) and tended to spend less time drinking (1.58 vs. 1.77%; P < 0.10) compared to docked pigs. Intact pigs experienced the first outbreak of tail biting at 11 wk of age, which occurred 6 wk earlier compared to docked pigs. Furthermore, 21% of intact pigs vs. 5% (P < 0.001) of docked pigs were removed due to tail damage. Tail docking did not affect ADG (nursery: 0.48 vs. 0.49 kg, SE = 0.04; growing-finishing: 0.86 vs. 0.87 kg, SE = 0.01 for docked and intact pigs, respectively) or skin lesions of pigs. For pigs that were not removed, ADFI was not different between pens with docked pigs and pens with intact pigs. As a consequence of carcass trim loss, carcass contamination, and mortality, 90% of intact pigs vs. 97% of docked pigs were harvested for full value. These data suggest that raising pigs without tail docking in a confinement housing system increases incidence of tail biting and tail damage, resulting in higher morbidity, reduced value, and compromised welfare of pigs.