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红外成像技术及其生物应用。

Infrared imaging technology and biological applications.

作者信息

Kastberger Gerald, Stachl Reinhold

机构信息

Institute of Zoology, University of Graz, Graz, Austria.

出版信息

Behav Res Methods Instrum Comput. 2003 Aug;35(3):429-39. doi: 10.3758/bf03195520.

Abstract

Temperature is the most frequently measured physical quantity, second only to time. Infrared (IR) technology has been utilized successfully in astronomy (for a summary,see Hermans-Killam, 2002b) and in industrial and research settings (Gruner, 2002; Madding, 1982, 1989; Wolfe & Zissis, 1993) for decades. However, fairly recent innovations have reduced costs, increased reliability, and resulted in noncontact IR sensors offering mobile, smaller units of measurement (EOI, 2002; Flir, 2000, 2001,2002). The advantages of using IR imaging are (1) rapidity in the millisecond range, facilitating measurement of moving targets, (2) noncontact procedures, allowing measurements of hazardous or physically inaccessible objects, (3) no interference and no energy lost from the target, (4) no risk of contamination, and (5) no mechanical effect on the surface of the object. All these factors have led to IR technology's becoming an area of interest for new kinds of applications and users. In both manufacturing and quality control, temperature plays an important role as an indicator of the condition of a product or a piece of machinery (EOI, 2002; Flir, 2000, 2001, 2002; Raytek, 2002). In medical and veterinary applications, IR thermometry is increasingly used in organ diagnostics, in the evaluation of sports injuries and the progression of therapy, in disease evaluation (e.g, breast cancer, arthritis, and SARS; Flir, 2003), and in injury and inflammation examinations in horses, livestock (Tivey & Banhazi, 2002), and zoo animals (Hermans-Killam, 2002a; Thiesbrummel, 2002). Lastly, physiological expressions of life processes in animals (Kastberger, Winder, & Steindl, 2001; Stabentheiner, Kovac, & Hagmüller, 1995; Stabentheiner, Kovac, & Schmaranzer, 2002; Stabentheiner & Schmarnzer, 1987) and plants (Bermadinger-Stabentheiner & Stabentheiner, 1995) can be monitored. The most recent field in which IR technology has been applied is animal behavior. This article focuses on the practical options for noncontact IR thermometry--in particular, in biological applications.

摘要

温度是最常被测量的物理量,仅次于时间。几十年来,红外(IR)技术已成功应用于天文学领域(综述见Hermans-Killam,2002b)以及工业和研究环境中(Gruner,2002;Madding,1982,1989;Wolfe & Zissis,1993)。然而,最近的创新降低了成本,提高了可靠性,并使非接触式红外传感器能够提供可移动的、更小的测量单元(EOI,2002;Flir,2000,2001,2002)。使用红外成像的优点包括:(1)在毫秒范围内快速,便于测量移动目标;(2)非接触式操作,可对危险或物理上难以接近的物体进行测量;(3)无干扰且目标无能量损失;(4)无污染风险;(5)对物体表面无机械影响。所有这些因素使得红外技术成为新型应用和用户感兴趣的领域。在制造业和质量控制中,温度作为产品或机器状况的指标发挥着重要作用(EOI,2002;Flir,2000,2001,2002;Raytek,2002)。在医学和兽医应用中,红外测温越来越多地用于器官诊断、运动损伤评估及治疗进展、疾病评估(如乳腺癌、关节炎和非典;Flir,2003)以及马匹、家畜(Tivey & Banhazi,2002)和动物园动物的损伤与炎症检查(Hermans-Killam,2002a;Thiesbrummel,2002)。最后,动物(Kastberger、Winder & Steindl,2001;Stabentheiner、Kovac & Hagmüller,1995;Stabentheiner、Kovac & Schmaranzer,2002;Stabentheiner & Schmarnzer,1987)和植物(Bermadinger-Stabentheiner & Stabentheiner,1995)生命过程的生理表现也可以被监测。红外技术应用的最新领域是动物行为。本文重点关注非接触式红外测温的实际应用——特别是在生物应用方面。

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