论文标题
无线接触的同时感应人类心率和犬呼吸速率的动物辅助相互作用
Contact-Free Simultaneous Sensing of Human Heart Rate and Canine Breathing Rate for Animal Assisted Interactions
论文作者
论文摘要
动物辅助干预措施(AAIS)涉及人类与动物之间的愉快互动,并有可能使两种类型的参与者受益。该领域的研究可能有助于发现有关跨物种键合,动态影响检测以及环境因素对二元相互作用的影响的普遍见解。但是,评估这些结果的实验仅限于定性,主观和麻烦的方法,这是由于与将传感器附加到人体相关的人体工程学挑战所致。当翻译超出受控的临床环境或研究环境时,AAIS中的当前方法也面临挑战。在整个相互作用过程中,这些也常常忽略了动物的测量。在这里,我们提出了我们的初步努力,通过使用消费级相机对人类和犬类的生理感觉进行无接触式方法来促进AAI评估。这项最初的努力着重于验证远程感知人类受试者心率信号的技术可行性以及狗受试者相互作用时的呼吸率信号。通过我们定制的基于视觉的算法,可以耐受少量的运动,例如拍拍和非自愿身体摇动或运动。实验结果表明,通过我们的算法获得的生理测量与标准参考设备提供的生理测量相一致。通过进一步验证和扩展到其他生理参数,提出的方法为从AAI研究空间到兽医,外科和临床应用的许多情况提供了巨大的希望。
Animal Assisted Interventions (AAIs) involve pleasant interactions between humans and animals and can potentially benefit both types of participants. Research in this field may help to uncover universal insights about cross-species bonding, dynamic affect detection, and the influence of environmental factors on dyadic interactions. However, experiments evaluating these outcomes are limited to methodologies that are qualitative, subjective, and cumbersome due to the ergonomic challenges related to attaching sensors to the body. Current approaches in AAIs also face challenges when translating beyond controlled clinical environments or research contexts. These also often neglect the measurements from the animal throughout the interaction. Here, we present our preliminary effort toward a contact-free approach to facilitate AAI assessment via the physiological sensing of humans and canines using consumer-grade cameras. This initial effort focuses on verifying the technological feasibility of remotely sensing the heart rate signal of the human subject and the breathing rate signal of the dog subject while they are interacting. Small amounts of motion such as patting and involuntary body shaking or movement can be tolerated with our custom designed vision-based algorithms. The experimental results show that the physiological measurements obtained by our algorithms were consistent with those provided by the standard reference devices. With further validation and expansion to other physiological parameters, the presented approach offers great promise for many scenarios from the AAI research space to veterinary, surgical, and clinical applications.