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Artificial intelligence for detecting small FDG-positive lung nodules in digital PET/CT: impact of image reconstructions on diagnostic performance
by
Schwyzer Moritz
, Burger, Irene A
, Ferraro, Daniela A
, Kudura Ken
, von Schulthess Gustav K
, Messerli, Michael
, Kaufmann, Philipp A
, Martini Katharina
, Huellner, Martin W
, Treyer Valerie
, Benz, Dominik C
in
Algorithms
/ Artificial intelligence
/ Computed tomography
/ Deep learning
/ Diagnostic systems
/ Digital imaging
/ Fluorine isotopes
/ Image reconstruction
/ Learning algorithms
/ Lung nodules
/ Lungs
/ Machine learning
/ Maximization
/ Medical diagnosis
/ Medical imaging
/ Nodules
/ Nuclear medicine
/ Optimization
/ Performance evaluation
/ Positron emission
/ Positron emission tomography
/ Sensitivity analysis
/ Subgroups
/ Tomography
2020
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Artificial intelligence for detecting small FDG-positive lung nodules in digital PET/CT: impact of image reconstructions on diagnostic performance
by
Schwyzer Moritz
, Burger, Irene A
, Ferraro, Daniela A
, Kudura Ken
, von Schulthess Gustav K
, Messerli, Michael
, Kaufmann, Philipp A
, Martini Katharina
, Huellner, Martin W
, Treyer Valerie
, Benz, Dominik C
in
Algorithms
/ Artificial intelligence
/ Computed tomography
/ Deep learning
/ Diagnostic systems
/ Digital imaging
/ Fluorine isotopes
/ Image reconstruction
/ Learning algorithms
/ Lung nodules
/ Lungs
/ Machine learning
/ Maximization
/ Medical diagnosis
/ Medical imaging
/ Nodules
/ Nuclear medicine
/ Optimization
/ Performance evaluation
/ Positron emission
/ Positron emission tomography
/ Sensitivity analysis
/ Subgroups
/ Tomography
2020
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Artificial intelligence for detecting small FDG-positive lung nodules in digital PET/CT: impact of image reconstructions on diagnostic performance
by
Schwyzer Moritz
, Burger, Irene A
, Ferraro, Daniela A
, Kudura Ken
, von Schulthess Gustav K
, Messerli, Michael
, Kaufmann, Philipp A
, Martini Katharina
, Huellner, Martin W
, Treyer Valerie
, Benz, Dominik C
in
Algorithms
/ Artificial intelligence
/ Computed tomography
/ Deep learning
/ Diagnostic systems
/ Digital imaging
/ Fluorine isotopes
/ Image reconstruction
/ Learning algorithms
/ Lung nodules
/ Lungs
/ Machine learning
/ Maximization
/ Medical diagnosis
/ Medical imaging
/ Nodules
/ Nuclear medicine
/ Optimization
/ Performance evaluation
/ Positron emission
/ Positron emission tomography
/ Sensitivity analysis
/ Subgroups
/ Tomography
2020
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Artificial intelligence for detecting small FDG-positive lung nodules in digital PET/CT: impact of image reconstructions on diagnostic performance
Journal Article
Artificial intelligence for detecting small FDG-positive lung nodules in digital PET/CT: impact of image reconstructions on diagnostic performance
2020
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Overview
ObjectivesTo evaluate the diagnostic performance of a deep learning algorithm for automated detection of small 18F-FDG-avid pulmonary nodules in PET scans, and to assess whether novel block sequential regularized expectation maximization (BSREM) reconstruction affects detection accuracy as compared to ordered subset expectation maximization (OSEM) reconstruction.MethodsFifty-seven patients with 92 18F-FDG-avid pulmonary nodules (all ≤ 2 cm) undergoing PET/CT for oncological (re-)staging were retrospectively included and a total of 8824 PET images of the lungs were extracted using OSEM and BSREM reconstruction. Per-slice and per-nodule sensitivity of a deep learning algorithm was assessed, with an expert readout by a radiologist/nuclear medicine physician serving as standard of reference. Receiver-operator characteristic (ROC) curve of OSEM and BSREM were assessed and the areas under the ROC curve (AUC) were compared. A maximum standardized uptake value (SUVmax)–based sensitivity analysis and a size-based sensitivity analysis with subgroups defined by nodule size was performed.ResultsThe AUC of the deep learning algorithm for nodule detection using OSEM reconstruction was 0.796 (CI 95%; 0.772–0.869), and 0.848 (CI 95%; 0.828–0.869) using BSREM reconstruction. The AUC was significantly higher for BSREM compared to OSEM (p = 0.001). On a per-slice analysis, sensitivity and specificity were 66.7% and 79.0% for OSEM, and 69.2% and 84.5% for BSREM. On a per-nodule analysis, the overall sensitivity of OSEM was 81.5% compared to 87.0% for BSREM.ConclusionsOur results suggest that machine learning algorithms may aid detection of small 18F-FDG-avid pulmonary nodules in clinical PET/CT. AI performed significantly better on images with BSREM than OSEM.Key Points• The diagnostic value of deep learning for detecting small lung nodules (≤ 2 cm) in PET images using BSREM and OSEM reconstruction was assessed.• BSREM yields higher SUVmaxof small pulmonary nodules as compared to OSEM reconstruction.• The use of BSREM translates into a higher detectability of small pulmonary nodules in PET images as assessed with artificial intelligence.
Publisher
Springer Nature B.V
Subject
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