Dynamic susceptibility contrast-MRI requires an arterial input function (AIF) to obtain cerebral blood flow, cerebral blood volume, and mean transit time. The current AIF selection criteria discriminate venous, capillary, and arterial profiles based on shape and timing characteristics of the first passage. Unfortunately, partial volume effects can lead to shape errors in the bolus passage, including a narrower and higher peak, which might be selected as a "correct" AIF. In this study, a new criterion is proposed that detects shape errors based on tracer kinetic principles for computing cerebral blood volume. This criterion uses the ratio of the steady-state value to the area-under-the-curve of the first passage, which should result in an eq...
Purpose: To present a modified pharmacokinetic model for improved parameter accuracy and to investi...
Dynamic Contrast-Enhanced MRI (DCE-MRI) data may be used to non-invasively investigate the health st...
Arterial partial-volume effects (PVEs) often hamper reproducible absolute quantification of cerebral...
Dynamic susceptibility contrast-MRI requires an arterial input function (AIF) to obtain cerebral blo...
In dynamic susceptibility contrast perfusion MRI, arterial input function (AlF) measurements using t...
Dynamic susceptibility contrast-magnetic resonance imaging (DSC-MRI) data analysis requires the know...
To quantify cerebral perfusion with dynamic susceptibility contrast MRI (DSC-MRI), one needs to meas...
For longitudinal studies in patients suffering from cerebrovascular diseases the poor reproducibilit...
Uncertainty in arterial input function (AIF) estimation is one of the major errors in the quantifica...
Purpose: To demonstrate that inter-patient differences in the spreading of the contrast agent throug...
Background: Dynamic contrast-enhanced MRI (DCE-MRI) has the potential to produce images of physiolog...
Compared to gold-standard measurements of cerebral perfusion with positron emission tomography (PET)...
Purpose. Quantitative cerebral blood flow (CBF) measurement using dynamic susceptibility contrast- (...
BACKGROUND AND PURPOSE: Clinical measurements of cerebral perfusion have been increasingly performed...
Introduction An accurately measured arterial input function (AIF) is desirable for kinetic modelling...
Purpose: To present a modified pharmacokinetic model for improved parameter accuracy and to investi...
Dynamic Contrast-Enhanced MRI (DCE-MRI) data may be used to non-invasively investigate the health st...
Arterial partial-volume effects (PVEs) often hamper reproducible absolute quantification of cerebral...
Dynamic susceptibility contrast-MRI requires an arterial input function (AIF) to obtain cerebral blo...
In dynamic susceptibility contrast perfusion MRI, arterial input function (AlF) measurements using t...
Dynamic susceptibility contrast-magnetic resonance imaging (DSC-MRI) data analysis requires the know...
To quantify cerebral perfusion with dynamic susceptibility contrast MRI (DSC-MRI), one needs to meas...
For longitudinal studies in patients suffering from cerebrovascular diseases the poor reproducibilit...
Uncertainty in arterial input function (AIF) estimation is one of the major errors in the quantifica...
Purpose: To demonstrate that inter-patient differences in the spreading of the contrast agent throug...
Background: Dynamic contrast-enhanced MRI (DCE-MRI) has the potential to produce images of physiolog...
Compared to gold-standard measurements of cerebral perfusion with positron emission tomography (PET)...
Purpose. Quantitative cerebral blood flow (CBF) measurement using dynamic susceptibility contrast- (...
BACKGROUND AND PURPOSE: Clinical measurements of cerebral perfusion have been increasingly performed...
Introduction An accurately measured arterial input function (AIF) is desirable for kinetic modelling...
Purpose: To present a modified pharmacokinetic model for improved parameter accuracy and to investi...
Dynamic Contrast-Enhanced MRI (DCE-MRI) data may be used to non-invasively investigate the health st...
Arterial partial-volume effects (PVEs) often hamper reproducible absolute quantification of cerebral...