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COVID-19 and Postural Control-A Stabilographic Study Using Rambling-Trembling Decomposition Method.

Magdalena ŻychowskaKamila JaworeckaEwelina MazurKajetan J SłomkaWojciech MarszałekMarian RzepkoWojciech CzarnyAdam Reich
Published in: Medicina (Kaunas, Lithuania) (2022)
Background &nbsp; and Objectives : Some respiratory viruses demonstrate neurotropic capacities. Severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) has recently taken over the globe, causing coronavirus disease 2019 (COVID-19). The aim of the study was to evaluate the impact of COVID-19 on postural control in subjects who have recently recovered from the infection. Materials and Methods : Thirty-three convalescents who underwent COVID-19 within the preceding 2-4 weeks, and 35 healthy controls were enrolled. The ground reaction forces were registered with the use of a force platform during quiet standing. The analysis of the resultant center of foot pressure (COP) decomposed into rambling (RAMB) and trembling (TREMB) and sample entropy was conducted. Results : Range of TREMB was significantly increased in subjects who experienced anosmia/hyposmia during COVID-19 when the measurement was performed with closed eyes ( p = 0.03). In addition, subjects who reported dyspnea during COVID-19 demonstrated significant increase of length and velocity of COP ( p < 0.001), RAMB ( p < 0.001), and TREMB ( p < 0.001), indicating substantial changes in postural control. Conclusions : Subjects who had experienced olfactory dysfunction or respiratory distress during COVID-19 demonstrate symptoms of balance deficits after COVID-19 recovery, and the analysis using rambling-trembling decomposition method might point at less efficient peripheral control. Monitoring for neurological sequelae of COVID-19 should be considered.
Keyphrases
  • coronavirus disease
  • sars cov
  • respiratory syndrome coronavirus
  • traumatic brain injury
  • depressive symptoms
  • high throughput
  • blood brain barrier
  • oxidative stress
  • blood flow
  • respiratory tract
  • brain injury