570 Introduction: Clinical PET reconstruction typically begins after the entire frame of data
has been acquired. In this paper we present a framework for performing reconstructions of …

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 …

3268 Introduction: Respiratory motion reduces image quality in PET imaging, traditionally
corrected for using external motion tracking systems–the results of which depend on the …

59 Introduction: Head motion during a brain PET scan can cause motion blurring and loss of
image quality. In this work we present a completely data-driven motion estimation approach …

1358 Introduction: Motion of the head during PET brain imaging studies results in burring
and loss of spatial resolution. These movements are common and can be due to …

Head motion during brain PET imaging can significantly degrade the quality of the
reconstructed image, leading to reduced diagnostic value and inaccurate quantitation. A …

370 Objectives: In both clinical (eg, pediatric) and research settings it is desirable to reduce
the amount of administered radiopharmaceutical to reduce ionizing radiation exposure …

3188 Introduction: Dynamic cardiac positron emission tomography (PET) imaging extends
functional imaging by incorporating information from multiple time frames, as opposed to the …

98 Objectives: Existing brain PET motion correction (MC) methods include frame-based
image-registration (FIR) and correction using real-time hardware-based motion tracking …

1549 Introduction: The ability to accurately measure radiotracer concentration across the
body is a hallmark of PET. To do so requires physics corrections applied during image …