Breit Matthew, Padia Jonathan, Marden Tyson, Forjan Dan, Zhaoxing Pan, Zhou Wenru, Ghosh Tonmoy, Thomas Graham, McCrory Megan A, Sazonov Edward, Higgins Janine
Department of Medicine, Division of Endocrinology, Metabolism, and Diabetes, University of Colorado Anschutz Medical Campus, Aurora, CO, United States.
Colorado Clinical and Translational Sciences Institute, University of Colorado Anschutz Medical Campus, Aurora, CO, United States.
Front Nutr. 2023 May 11;10:1119542. doi: 10.3389/fnut.2023.1119542. eCollection 2023.
The aim of this feasibility and proof-of-concept study was to examine the use of a novel wearable device for automatic food intake detection to capture the full range of free-living eating environments of adults with overweight and obesity. In this paper, we document eating environments of individuals that have not been thoroughly described previously in nutrition software as current practices rely on participant self-report and methods with limited eating environment options.
Data from 25 participants and 116 total days (7 men, 18 women, M = 44 ± 12 years, BMI 34.3 ± 5.2 kg/mm), who wore the passive capture device for at least 7 consecutive days (≥12h waking hours/d) were analyzed. Data were analyzed at the participant level and stratified amongst meal type into breakfast, lunch, dinner, and snack categories. Out of 116 days, 68.1% included breakfast, 71.5% included lunch, 82.8% included dinner, and 86.2% included at least one snack.
The most prevalent eating environment among all eating occasions was at home and with one or more screens in use (breakfast: 48.1%, lunch: 42.2%, dinner: 50%, and snacks: 55%), eating alone (breakfast: 75.9%, lunch: 89.2%, dinner: 74.3%, snacks: 74.3%), in the dining room (breakfast: 36.7%, lunch: 30.1%, dinner: 45.8%) or living room (snacks: 28.0%), and in multiple locations (breakfast: 44.3%, lunch: 28.8%, dinner: 44.8%, snacks: 41.3%).
Results suggest a passive capture device can provide accurate detection of food intake in multiple eating environments. To our knowledge, this is the first study to classify eating occasions in multiple eating environments and may be a useful tool for future behavioral research studies to accurately codify eating environments.
本可行性和概念验证研究的目的是检验一种新型可穿戴设备在自动检测食物摄入量方面的应用,以涵盖超重和肥胖成年人在各种自由生活饮食环境中的情况。在本文中,我们记录了个体的饮食环境,这些环境在营养软件中尚未得到充分描述,因为目前的做法依赖于参与者的自我报告以及饮食环境选项有限的方法。
分析了25名参与者连续至少7天(每天清醒时间≥12小时)佩戴被动式捕获设备期间的116天数据(7名男性,18名女性,平均年龄44±12岁,体重指数34.3±5.2kg/m²)。数据在参与者层面进行分析,并按餐食类型分为早餐、午餐、晚餐和零食类别。在116天中,68.1%包含早餐,71.5%包含午餐,82.8%包含晚餐,86.2%包含至少一次零食。
在所有饮食场合中,最普遍的饮食环境是在家中且使用一个或多个屏幕(早餐:48.1%,午餐:42.2%,晚餐:50%,零食:55%),独自用餐(早餐:75.9%,午餐:89.2%,晚餐:74.3%,零食:74.3%),在餐厅(早餐:36.7%,午餐:30.1%,晚餐:45.8%)或客厅(零食:28.0%),以及在多个地点(早餐:44.3%,午餐:28.8%,晚餐:44.8%,零食:41.3%)。
结果表明,被动式捕获设备可以在多种饮食环境中准确检测食物摄入量。据我们所知,这是第一项在多种饮食环境中对饮食场合进行分类的研究,可能是未来行为研究中准确编码饮食环境的有用工具。