Standard clinical reconstructions usually require several minutes to complete, and this time
is mostly independent of the duration of the data being reconstructed. Applications such as …

Fully 4D PET image reconstruction is receiving increasing research interest due to its ability
to significantly reduce spatiotemporal noise in dynamic PET imaging. However, thus far in …

Positron emission tomography (PET) measurements with time-of-flight (TOF) information are
often very sparse. As a result, direct reconstruction from raw list-mode data is an attractive …

Purpose Data‐driven rigid motion estimation for PET brain imaging is usually performed
using data frames sampled at low temporal resolution to reduce the overall computation time …

Respiratory and cardiac motion causes qualitative and quantitative inaccuracies in whole
body multi-modality imaging such as positron emission tomography coupled with computed …

Faster scintillators like LaBr 3 and LSO have sparked renewed interest in PET scanners with
time-of-flight (TOF) information. The TOF information adds another dimension to the data set …

We present a novel joint image and motion reconstruction method for PET. The method is
based on gated data and reconstructs an image together with a motion function. The motion …

Stationary phantoms are typically used to demonstrate intrinsic image resolution in PET. Yet,
real image resolution in most clinical PET studies degrades by a reported factor of 3 to 5 due …

Parametric images for dynamic positron emission tomography (PET) are typically generated
by an indirect method, ie reconstructing a time series of emission images, then fitting a …

Subject motion is unavoidable in clinical and research imaging studies. Breathing is the
most important source of motion in whole-body PET and MRI studies, affecting not only …