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Comparison of noise-magnitude and noise-texture across two generations of iterative reconstruction algorithms from three manufacturers

To compare the noise-magnitude and noise-texture across two generations of iterative reconstruction (IR) algorithms proposed by three manufacturers according to the dose level. Five computed tomography (CT) systems equipped with two generations of IR algorithms (hybrid/statistical IR [H/SIR] or full...

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Published in:Diagnostic and interventional imaging 2019-07, Vol.100 (7-8), p.401-410
Main Authors: Greffier, J., Larbi, A., Frandon, J., Moliner, G., Beregi, J.P., Pereira, F.
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description To compare the noise-magnitude and noise-texture across two generations of iterative reconstruction (IR) algorithms proposed by three manufacturers according to the dose level. Five computed tomography (CT) systems equipped with two generations of IR algorithms (hybrid/statistical IR [H/SIR] or full/partial model-based IR [MBIR]) were compared. Acquisitions on Catphan 600 phantom were performed at 120kV and three dose levels (3-, 7- and 12-mGy). Raw data were reconstructed using standard “soft tissue” kernel for filtered back projection and one iterative level of two generations of IR algorithms. Contrast to-noise-ratio (CNR) was computed using three regions of interest: two of them placed in the low-density polyethylene (LDPE) and Teflon® inserts and another placed on the solid water. Noise power spectrum (NPS) was computed to assess the noise-magnitude (NPS peak) and noise-texture (NPS spatial frequency). CNR increased significantly in MBIR compared to H/SIR algorithms for General-Electric (GE) Healthcare (45%±12 [SD]) and Philips Healthcare systems (62%±11 [SD]) (P
doi_str_mv 10.1016/j.diii.2019.04.006
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Five computed tomography (CT) systems equipped with two generations of IR algorithms (hybrid/statistical IR [H/SIR] or full/partial model-based IR [MBIR]) were compared. Acquisitions on Catphan 600 phantom were performed at 120kV and three dose levels (3-, 7- and 12-mGy). Raw data were reconstructed using standard “soft tissue” kernel for filtered back projection and one iterative level of two generations of IR algorithms. Contrast to-noise-ratio (CNR) was computed using three regions of interest: two of them placed in the low-density polyethylene (LDPE) and Teflon® inserts and another placed on the solid water. Noise power spectrum (NPS) was computed to assess the noise-magnitude (NPS peak) and noise-texture (NPS spatial frequency). CNR increased significantly in MBIR compared to H/SIR algorithms for General-Electric (GE) Healthcare (45%±12 [SD]) and Philips Healthcare systems (62%±11 [SD]) (P&lt;0.001). Regarding Siemens Healthineers systems, CNR of MBIR was significantly lower than that of H/SIR (mean difference: −4%±5 [SD]) (P&lt;0.001) for Teflon® insert but not for LDPE insert (mean difference: −4%±7 [SD]) (P=N.S.). NPS peaks were lower with MBIR than with H/SIR for GE Healthcare (-42%±8 [SD]) and Philips Healthcare (−75%±4 [SD]) systems, whereas it was greater with MBIR than with H/SIR for Siemens Healthineers (13%±11 [SD]) systems. NPS spatial frequencies were higher with MBIR than with H/SIR for Siemens (14%±10 [SD]) but lower for others (−17%±5 [SD] for GE Healthineers and −55%±3 [SD] for Philips Healthcare systems). 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Regarding Siemens Healthineers systems, CNR of MBIR was significantly lower than that of H/SIR (mean difference: −4%±5 [SD]) (P&lt;0.001) for Teflon® insert but not for LDPE insert (mean difference: −4%±7 [SD]) (P=N.S.). NPS peaks were lower with MBIR than with H/SIR for GE Healthcare (-42%±8 [SD]) and Philips Healthcare (−75%±4 [SD]) systems, whereas it was greater with MBIR than with H/SIR for Siemens Healthineers (13%±11 [SD]) systems. NPS spatial frequencies were higher with MBIR than with H/SIR for Siemens (14%±10 [SD]) but lower for others (−17%±5 [SD] for GE Healthineers and −55%±3 [SD] for Philips Healthcare systems). 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2211-5684
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source ScienceDirect Freedom Collection
subjects Algorithms
Humans
Image Processing, Computer-Assisted
Image quality enhancement
Iterative reconstruction
Life Sciences
Models, Statistical
Multidetector computed tomography
Noise power spectrum
Optimization
Phantoms, Imaging
Signal-To-Noise Ratio
Tomography, X-Ray Computed
title Comparison of noise-magnitude and noise-texture across two generations of iterative reconstruction algorithms from three manufacturers
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