在红外热图像分析仪之间缺乏一致的温度在羊的眼睛区域。

IF 2.9 2区 生物学 Q2 BIOLOGY
Journal of thermal biology Pub Date : 2024-12-01 Epub Date: 2024-12-05 DOI:10.1016/j.jtherbio.2024.104021
María Leontina Bakker, Guillermo Daniel Milano, Jimena Fernández, Patricia Inés Alvarado, Laura Beatriz Nadin
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Thirty-one thermal images, fifteen of the right and sixteen of the left eyes of a ewe, captured with a FLIR E8-XT camera, were analysed by each of three analysers, and minimum (Tmin), maximum (Tmax) and average (Tavg) temperature in lacrimal caruncle (R1), medial canthus of the eye (R2) and eyeball (R3) were estimated. Differences among analysers were analysed by ANOVA (normal distribution) or Friedman test (non-normal distribution), considering thermal images as blocks. Limits of Agreement with the Mean (LOAM) were estimated and agreement plots were drawn. 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Considering both eyes and all eye regions, the total range for the LOAM (°C) was lower for Tmax (0.42-0.93) and Tavg (0.63-1.17) than for Tmin (1.49-2.70), indicating a higher, medium, and lower agreement among analysers for Tmax, Tavg and Tmin, respectively. Considering the eyes, the total range for the LOAM (°C) was lower in all regions from the left eye (0.42-1.59) compared to the right eye (0.79-2.70), indicating a higher agreement among analysers from the left eye. Considering the eye regions, the total range for the LOAM (°C) was generally higher in R3 (0.84-3.70) than in R1 (0.61-1.79) and R2 (0.42-2.03), indicating the lowest agreement among analysers in R3 for Tmin (3.70). 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引用次数: 0

摘要

红外热像仪(IRT)是一种非侵入性的测量动物体温的方法。眼睛被认为是IRT的理想区域,有可能作为各种事件和刺激引发的体温变化的早期指标。目前正在进行研究,以了解眼内红外线照射温度变化的来源,并为兽医和动物生产目的制定全面的指导方针。目前的研究增加了从绵羊不同眼睛区域估计的温度变化的信息。利用FLIR E8-XT相机拍摄的31张母羊右眼15张、左眼16张热图像,分别由3台分析仪进行分析,并估计了泪囊(R1)、眼内眦(R2)和眼球(R3)的最低(Tmin)、最高(Tmax)和平均(Tavg)温度。分析者之间的差异采用方差分析(正态分布)或弗里德曼检验(非正态分布),将热图像视为块。估计与平均值一致的界限(LOAM)并绘制一致图。没有差异(P > 0.05)分析器中温度(°C均值±标准差或中值和2.5% - -97.5%分位数)估计在R1 (Tmin = 36.3±0.87,达峰时间= 37.2 (35.9 - -37.7),Tavg = 36.7±0.67),R2(达峰时间= 37.2(36.0 - -37.8))和R3 (Tavg = 36.1(34.9 - -37.3))的右眼(n = 45),和R1 (Tmin = 36.0(34.3 - -37.3),达峰时间= 36.8±0.49,Tavg = 36.4±0.53),R2 (Tmin = 35.9±0.71,达峰时间= 36.7 (35.8 - -37.7),Tavg = 36.3(35.5 - -37.5))和R3 (Tavg = 35.9(34.8 - -36.6))的左眼(n = 48);而是差异(P)
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Lack of agreement among analysers of infrared thermal images in the temperature of eye regions in sheep.

Infrared thermography (IRT) is a non-invasive method to estimate body temperature in many animal species. The eye has been indicated as the ideal region for IRT, potentially serving as an early indicator of variations in body temperature triggered by various events and stimuli. Studies are being conducted to understand sources of variation in IRT temperature of the eye and develop comprehensive guidelines for veterinary medicine and animal production purposes. The present study adds information about variation in temperature estimated from different eye regions in sheep due to analysers. Thirty-one thermal images, fifteen of the right and sixteen of the left eyes of a ewe, captured with a FLIR E8-XT camera, were analysed by each of three analysers, and minimum (Tmin), maximum (Tmax) and average (Tavg) temperature in lacrimal caruncle (R1), medial canthus of the eye (R2) and eyeball (R3) were estimated. Differences among analysers were analysed by ANOVA (normal distribution) or Friedman test (non-normal distribution), considering thermal images as blocks. Limits of Agreement with the Mean (LOAM) were estimated and agreement plots were drawn. There were no differences (P > 0.05) among analysers in temperature (°C, mean ± standard deviation or median and 2.5%-97.5% quantiles) estimated in R1 (Tmin = 36.3 ± 0.87, Tmax = 37.2 (35.9-37.7), Tavg = 36.7 ± 0.67), R2 (Tmax = 37.2 (36.0-37.8)) and R3 (Tavg = 36.1 (34.9-37.3)) for the right eye (n = 45), and in R1 (Tmin = 36.0 (34.3-37.3), Tmax = 36.8 ± 0.49, Tavg = 36.4 ± 0.53), R2 (Tmin = 35.9 ± 0.71, Tmax = 36.7 (35.8-37.7), Tavg = 36.3 (35.5-37.5)) and R3 (Tavg = 35.9 (34.8-36.6)) for the left eye (n = 48); but differences (P < 0.05) were present in R3 (Tmin, Tmax) for both eyes and in R2 (Tmin and Tavg) for the right eye. The highest mean differences in temperature (°C) (P < 0.05) among analysers were in R3 from the right eye (Tmin = 0.70, Tmax = 0.25) and the left eye (Tmin = 0.64, Tmax = 0.10), and in R2 from the right eye (Tmin = 0.54, Tavg = 0.50). Considering both eyes and all eye regions, the total range for the LOAM (°C) was lower for Tmax (0.42-0.93) and Tavg (0.63-1.17) than for Tmin (1.49-2.70), indicating a higher, medium, and lower agreement among analysers for Tmax, Tavg and Tmin, respectively. Considering the eyes, the total range for the LOAM (°C) was lower in all regions from the left eye (0.42-1.59) compared to the right eye (0.79-2.70), indicating a higher agreement among analysers from the left eye. Considering the eye regions, the total range for the LOAM (°C) was generally higher in R3 (0.84-3.70) than in R1 (0.61-1.79) and R2 (0.42-2.03), indicating the lowest agreement among analysers in R3 for Tmin (3.70). The present study shows that in sheep, the lacrimal caruncle confers the best agreement among analysers for all estimated temperatures, and that Tmax, across all eye regions, should be regarded as the most reliable estimation.

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来源期刊
Journal of thermal biology
Journal of thermal biology 生物-动物学
CiteScore
5.30
自引率
7.40%
发文量
196
审稿时长
14.5 weeks
期刊介绍: The Journal of Thermal Biology publishes articles that advance our knowledge on the ways and mechanisms through which temperature affects man and animals. This includes studies of their responses to these effects and on the ecological consequences. Directly relevant to this theme are: • The mechanisms of thermal limitation, heat and cold injury, and the resistance of organisms to extremes of temperature • The mechanisms involved in acclimation, acclimatization and evolutionary adaptation to temperature • Mechanisms underlying the patterns of hibernation, torpor, dormancy, aestivation and diapause • Effects of temperature on reproduction and development, growth, ageing and life-span • Studies on modelling heat transfer between organisms and their environment • The contributions of temperature to effects of climate change on animal species and man • Studies of conservation biology and physiology related to temperature • Behavioural and physiological regulation of body temperature including its pathophysiology and fever • Medical applications of hypo- and hyperthermia Article types: • Original articles • Review articles
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