Building on a growing body of HRV data (Rangon et al., 2020;Whitelaw et al., 2020;Hirten et al., 2021), we propose use of a wearable high fidelity Oura sensor ring (https://ouraring.com/blog/category/research-validation/)… Click to show full abstract
Building on a growing body of HRV data (Rangon et al., 2020;Whitelaw et al., 2020;Hirten et al., 2021), we propose use of a wearable high fidelity Oura sensor ring (https://ouraring.com/blog/category/research-validation/) to acquire HRV, in addition to other physiological indicators, to track both pre-illness longitudinal baseline and an ongoing longitudinal Community assessment of those indicators associated with COVID-19 using algorithmic analysis and actionable feedback. The use of longitudinal HRV data acquired by a personal device, transferred by smart phone application and analyzed by high throughput cloud-based machine learning algorithm represents an innovative, inexpensive, easily deployable, and scalable method for both individual use for health behavior maintenance and for communication and decision support with clinical and public health professionals in communities and larger jurisdictions. Major theoretical contributions have been made by Porges' Polyvagal Theory (Porges, 2011);Grossman's biobehavioral studies of cardiac vagal tone (Grossman and Taylor, 2007);Owens, Critchley and associates studies of HRV as a remote digital biomarker (Owens et al., 2018);and Thayer's neurovisceral integration approach (Thayer and Lane, 2020), all show the important role of HRV as a physiological indicator of inflammatory and immune system activity. [...]key role of state and local public health authorities, optimized longitudinal HRV monitoring combined with other remotely obtained data can be used in clinical practice as a highly sensitive vital sign indicating exacerbation of a patient's chronic condition or the onset of a new condition.
               
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