Objective: Cerebral autoregulation (CA) is critical to maintenance of cerebral perfusion but its relevance to the risk of stroke and dementia has been under-studied due to small study sizes and a lack of consensus as to the optimal method of measurement. We determined the reliability and reproducibility of multiple CA indices and the effect of intensive data-processing in a large population with transient ischaemic attack or minor stroke. Approach: Consecutive, consenting patients in the population-based Oxford Vascular Study (OXVASC) Phenotyped cohort underwent up to 10-min supine continuous blood pressure monitoring (Finometer) with bilateral middle cerebral artery (MCA) transcranial ultrasound (DWL-Dopplerbox). Un-processed waveforms (U...
OBJECTIVE: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...
Objective: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...
Objective: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...
Background and purpose: Effective cerebral autoregulation (CA) may protect the vulnerable ischemic p...
We tested the influence of blood pressure variability on the reproducibility of dynamic cerebral aut...
Parameters describing dynamic cerebral autoregulation (DCA) have limited reproducibility. 59 In an i...
Parameters describing dynamic cerebral autoregulation (DCA) have limited reproducibility. In an inte...
It is unclear whether physiological recordings containing high numbers of ectopic heartbeats can be ...
OBJECTIVE: Transfer function analysis (TFA) of dynamic cerebral autoregulation (dCA) requires smooth...
We tested the influence of blood pressure variability on the reproducibility of dynamic cerebral aut...
The autoregulation index (ARI) can reflect the effectiveness of cerebral blood flow (CBF) control in...
The methods for continuous assessment of cerebral autoregulation using correlation, phase shift, or ...
Dynamic cerebral autoregulation (dCA) estimates show large between and within subject variability. S...
OBJECTIVE: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...
OBJECTIVE: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...
Objective: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...
Objective: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...
Background and purpose: Effective cerebral autoregulation (CA) may protect the vulnerable ischemic p...
We tested the influence of blood pressure variability on the reproducibility of dynamic cerebral aut...
Parameters describing dynamic cerebral autoregulation (DCA) have limited reproducibility. 59 In an i...
Parameters describing dynamic cerebral autoregulation (DCA) have limited reproducibility. In an inte...
It is unclear whether physiological recordings containing high numbers of ectopic heartbeats can be ...
OBJECTIVE: Transfer function analysis (TFA) of dynamic cerebral autoregulation (dCA) requires smooth...
We tested the influence of blood pressure variability on the reproducibility of dynamic cerebral aut...
The autoregulation index (ARI) can reflect the effectiveness of cerebral blood flow (CBF) control in...
The methods for continuous assessment of cerebral autoregulation using correlation, phase shift, or ...
Dynamic cerebral autoregulation (dCA) estimates show large between and within subject variability. S...
OBJECTIVE: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...
OBJECTIVE: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...
Objective: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...
Objective: Different methods to calculate dynamic cerebral autoregulation (dCA) parameters are avail...