body posture changes, these aspects have been integrated into pain Pain assessment in veterinary medicine requires a multimodal assessment scales for domestic mammals, which categorize pain by its approach that considers parameters beyond physiological and intensity and duration (24–26). Additionally, characterization of pain endocrine biomarkers due to its subjective and multidimensional requires consideration of the medical condition (e.g., surgical, nature (1–4). Some animals, such as horses and rodents, conceal signs traumatic, pathological, physiological) and the anatomical region (e.g., of pain due to their prey nature, which forces them not to appear lumbar, abdominal, limbs) to objectively associate certain behaviors vulnerable to other individuals (5–9). Moreover, non-human animals with pain (27). cannot self-report the presence or intensity of pain (1). Thus, Regardless of the differences between species, in animals such as considering the animal’s nonverbal communication cues are essential dogs, cats, horses, pigs, cattle, sheep, and goats, the modification of the to accurately evaluate pain (10). Nonverbal communication includes position of the ears or tail is considered one of the main changes in behavioral changes and modifications in body language (8, 11). body language related to the perception of pain (28–30). However, due Behavior refers to the movements and actions performed to respond to the variability in the expression of pain-associated responses in to stimuli (e.g., withdrawal response, guarding the affected area, or domestic mammals, assessment using pain scales requires training in vocalizing) (12). On the other hand, body language refers to changes the specific behavioral repertoire to detect alterations (31, 32). The in the
Animal Pain Assessment
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body posture changes, these aspects have been integrated into pain Pain assessment in veterinary medicine requires a multimodal assessment scales for domestic mammals, which categorize pain by its approach that considers parameters beyond physiological and intensity and duration (24–26). Additionally, characterization of pain endocrine biomarkers due to its subjective and multidimensional requires consideration of the medical condition (e.g., surgical, nature (1–4). Some animals, such as horses and rodents, conceal signs traumatic, pathological, physiological) and the anatomical region (e.g., of pain due to their prey nature, which forces them not to appear lumbar, abdominal, limbs) to objectively associate certain behaviors vulnerable to other individuals (5–9). Moreover, non-human animals with pain (27). cannot self-report the presence or intensity of pain (1). Thus, Regardless of the differences between species, in animals such as considering the animal’s nonverbal communication cues are essential dogs, cats, horses, pigs, cattle, sheep, and goats, the modification of the to accurately evaluate pain (10). Nonverbal communication includes position of the ears or tail is considered one of the main changes in behavioral changes and modifications in body language (8, 11). body language related to the perception of pain (28–30). However, due Behavior refers to the movements and actions performed to respond to the variability in the expression of pain-associated responses in to stimuli (e.g., withdrawal response, guarding the affected area, or domestic mammals, assessment using pain scales requires training in vocalizing) (12). On the other hand, body language refers to changes the specific behavioral repertoire to detect alterations (31, 32). The in the
reliable to assess the efficacy of pain-mitiga- timepoints, however, at individual time points this tion interventions to meet field-trial regulatory require- difference was only significant at 24 hours following ments…
reliable to assess the efficacy of pain-mitiga- timepoints, however, at individual time points this tion interventions to meet field-trial regulatory require- difference was only significant at 24 hours following ments…
ere used for assessment, pain sensitivity can still be accurately assessed. The internal consistency of this scale was excellent and comparable to pig [31], cattle [26] and cat [43, 44] scales. The…
ere used for assessment, pain sensitivity can still be accurately assessed. The internal consistency of this scale was excellent and comparable to pig [31], cattle [26] and cat [43, 44] scales. The…
…Assessment of Post-Operative Pain-Related Behaviour The presence of pain-related behaviour in the piglets following castration was recorded by focal assessment and scan sampling using different independent trained observers blinded…
…Assessment of Post-Operative Pain-Related Behaviour The presence of pain-related behaviour in the piglets following castration was recorded by focal assessment and scan sampling using different independent trained observers blinded…
Lascelles BDX, Knazovicky D, Case B, Freire M, Innes JF, Drew AC, et al. preliminary survey of pig farmers. Aust Vet J. 2014;92(6):206–12. https:// A canine-specific anti-nerve growth factor antibody alleviates pain doi.org/10.1111/avj.12169. and improves mobility and function in dogs with degenerative joint 88. Tomacheuski RM, Monteiro BP, Evangelista MC, Luna SPL, Steagall PV. disease-associated pain. BMC Vet Res. 2015. https://doi.org/10.1186/ Measurement properties of pain scoring instruments in farm animals: s12917-015-0413-x. A systematic review using the COSMIN checklist. PLoS ONE. 2023;18(1): 69. Gruen M, Thomson A, Griffith E, Paradise H, Gearing D, Lascelles B. A e0280830. https://doi.org/10.1371/journal.pone.0280830. feline-specific anti-nerve growth factor antibody improves mobility in 89. Grosse Beilage E, Wendt M. Diagnostik und Gesundheitsmanage‑ cats with degenerative joint disease–associated pain: A pilot proof of ment im Schweinebestand. Verlag Eugen Ulmer Stuttgart/UTB, ISBN concept study. J Vet Intern Med. 2016;30(4):1138–48. https://doi.org/10. 978–3–8252–8502–9. 2013. 1111/jvim.13972. 90. Broom DM. Animal welfare: concepts and measurement. J Anim Sci. 70. Jensen MP, Chodroff MJ, Dworkin RH. The impact of neuropathic pain 1991;69(10):4167–75. https://doi.org/10.2527/1991.69104167x. on health-related quality of life: review and implications. Neurology. 91. Zonderland JJ, van Riel JW, Bracke MBM, Kemp B, den Hartog LA, 2007;68(15):1178–82. https://doi.org/10.1212/01.wnl.0000259085. Spoolder HAM. Tail posture predicts tail damage among weaned 61898.9e. piglets. Appl Anim Behav Sci.
Lascelles BDX, Knazovicky D, Case B, Freire M, Innes JF, Drew AC, et al. preliminary survey of pig farmers. Aust Vet J. 2014;92(6):206–12. https:// A canine-specific anti-nerve growth factor antibody alleviates pain doi.org/10.1111/avj.12169. and improves mobility and function in dogs with degenerative joint 88. Tomacheuski RM, Monteiro BP, Evangelista MC, Luna SPL, Steagall PV. disease-associated pain. BMC Vet Res. 2015. https://doi.org/10.1186/ Measurement properties of pain scoring instruments in farm animals: s12917-015-0413-x. A systematic review using the COSMIN checklist. PLoS ONE. 2023;18(1): 69. Gruen M, Thomson A, Griffith E, Paradise H, Gearing D, Lascelles B. A e0280830. https://doi.org/10.1371/journal.pone.0280830. feline-specific anti-nerve growth factor antibody improves mobility in 89. Grosse Beilage E, Wendt M. Diagnostik und Gesundheitsmanage‑ cats with degenerative joint disease–associated pain: A pilot proof of ment im Schweinebestand. Verlag Eugen Ulmer Stuttgart/UTB, ISBN concept study. J Vet Intern Med. 2016;30(4):1138–48. https://doi.org/10. 978–3–8252–8502–9. 2013. 1111/jvim.13972. 90. Broom DM. Animal welfare: concepts and measurement. J Anim Sci. 70. Jensen MP, Chodroff MJ, Dworkin RH. The impact of neuropathic pain 1991;69(10):4167–75. https://doi.org/10.2527/1991.69104167x. on health-related quality of life: review and implications. Neurology. 91. Zonderland JJ, van Riel JW, Bracke MBM, Kemp B, den Hartog LA, 2007;68(15):1178–82. https://doi.org/10.1212/01.wnl.0000259085. Spoolder HAM. Tail posture predicts tail damage among weaned 61898.9e. piglets. Appl Anim Behav Sci.