A wireless, skin-interfaced biosensor for cerebral hemodynamic monitoring in pediatric care.
A wireless, skin-interfaced biosensor for cerebral hemodynamic monitoring in pediatric care.
复制标题
DOI:
10.1073/pnas.2019786117
复制
发表时间:
2020-12-15
影响因子:
11.1
通讯作者:
Rogers JA
中科院分区:
文献类型:
--
作者:
Rwei AY;Lu W;Wu C;Human K;Suen E;Franklin D;Fabiani M;Gratton G;Xie Z;Deng Y;Kwak SS;Li L;Gu C;Liu A;Rand CM;Stewart TM;Huang Y;Weese-Mayer DE;Rogers JA
Continuous monitoring of cerebral hemodynamics is critical for safeguarding the healthy neurodevelopment of pediatric patients. This paper introduces a soft, flexible, miniaturized wireless system for real-time, continuous monitoring of systemic and cerebral hemodynamics for such purposes. Clinical studies on pediatric subjects with ages between 0.2 and 15 y and with various racial backgrounds validate opportunities for practical use in operating hospital environments. This platform may significantly enhance the quality of care of pediatric patients, particularly those at risk for cerebral and neurodevelopmental impairments in developed and developing world settings alike. The standard of clinical care in many pediatric and neonatal neurocritical care units involves continuous monitoring of cerebral hemodynamics using hard-wired devices that physically adhere to the skin and connect to base stations that commonly mount on an adjacent wall or stand. Risks of iatrogenic skin injuries associated with adhesives that bond such systems to the skin and entanglements of the patients and/or the healthcare professionals with the wires can impede clinical procedures and natural movements that are critical to the care, development, and recovery of pediatric patients. This paper presents a wireless, miniaturized, and mechanically soft, flexible device that supports measurements quantitatively comparable to existing clinical standards. The system features a multiphotodiode array and pair of light-emitting diodes for simultaneous monitoring of systemic and cerebral hemodynamics, with ability to measure cerebral oxygenation, heart rate, peripheral oxygenation, and potentially cerebral pulse pressure and vascular tone, through the utilization of multiwavelength reflectance-mode photoplethysmography and functional near-infrared spectroscopy. Monte Carlo optical simulations define the tissue-probing depths for source–detector distances and operating wavelengths of these systems using magnetic resonance images of the head of a representative pediatric patient to define the relevant geometries. Clinical studies on pediatric subjects with and without congenital central hypoventilation syndrome validate the feasibility for using this system in operating hospitals and define its advantages relative to established technologies. This platform has the potential to substantially enhance the quality of pediatric care across a wide range of conditions and use scenarios, not only in advanced hospital settings but also in clinics of lower- and middle-income countries.
登录
查看更多内容
影响因子:
--
作者:
Dehghani, Hamid;Eames, Matthew E.;Yalavarthy, Phaneendra K.;Davis, Scott C.;Srinivasan, Subhadra;Carpenter, Colin M.;Pogue, Brian W.;Paulsen, Keith D.
通讯作者:
Paulsen, Keith D.
影响因子:
5.1
作者:
Alderliesten, Thomas;van Bel, Frank;Lemmers, Petra
通讯作者:
Lemmers, Petra
影响因子:
4.1
作者:
Ben Sivarajan, V.;Bohn, Desmond
通讯作者:
Bohn, Desmond
影响因子:
2.9
作者:
Kim, Yoo Hwan;Paik, Seung-ho;Kim, Beop-Min
通讯作者:
Kim, Beop-Min
DOI:
10.1177/1089253208316444
发表时间:
2008-03-01
影响因子:
1.4
作者:
Chakravarti, Sujata;Srivastava, Shubhika;Mittnacht, Alexander J. C.
通讯作者:
Mittnacht, Alexander J. C.