about
High-resolution [18]fluorodeoxyglucose-positron emission tomography and coregistered magnetic resonance imaging of atherosclerotic plaque from a patient undergoing carotid endarterectomy.Ultra-low dose CT attenuation correction for PET/CT: analysis of sparse view data acquisition and reconstruction algorithms.Statistical image reconstruction from correlated data with applications to PET.Impact on Image Noise of Incorporating Detector Blurring into Image Reconstruction for a Small Animal PET Scanner.Comparison of blood flow models and acquisitions for quantitative myocardial perfusion estimation from dynamic CT.The impact of respiratory motion on tumor quantification and delineation in static PET/CT imagingApplication and evaluation of a measured spatially variant system model for PET image reconstruction.Simulation Evaluation of Quantitative Myocardial Perfusion Assessment from Cardiac CT.Quantification of myocardial blood flow in absolute terms using (82)Rb PET imaging: the RUBY-10 Study.Effective count rates for PET scanners with reduced and extended axial field of viewCount-Rate Performance of the Discovery STE PET Scanner Using Partial Collimation.High resolution FDG-microPET of carotid atherosclerosis: plaque components underlying enhanced FDG uptake.Pediatric CT: strategies to lower radiation dose.Quantitative material characterization from multi-energy photon counting CT.Evaluation of static and dynamic perfusion cardiac computed tomography for quantitation and classification tasks.Measured count-rate performance of the Discovery STE PET/CT scanner in 2D, 3D and partial collimation acquisition modes.Effect of reconstruction algorithms on myocardial blood flow measurement with 13N-ammonia PET.Image Reconstruction for a Partially Collimated Whole Body PET Scanner.Performance Evaluation of Small Animal PET Scanners With Different System Designs.What are the basic concepts of temporal, contrast, and spatial resolution in cardiac CT?Role of Reference Levels in Nuclear Medicine: A Report of the SNMMI Dose Optimization Task Force.Spatially Variant Positron Range Modeling Derived from CT for PET Image Reconstruction.Image reconstruction for PET/CT scanners: past achievements and future challenges.Multiscale modeling of metabolism, flows, and exchanges in heterogeneous organs.Spine Computed Tomography Radiation Dose Reduction: Protocol Refinement Based on Measurement Variation at Simulated Lower Radiation Acquisitions.Direct Reconstruction of CT-based Attenuation Correction Images for PET with Cluster-Based Penalties.Validation of an axially distributed model for quantification of myocardial blood flow using ¹³N-ammonia PET.Consistency Driven Respiratory Phase Alignment and Motion Compensation in PET/CT.Dual energy CT for attenuation correction with PET/CTAPPLICATION OF A SPATIALLY VARIANT SYSTEM MODEL FOR 3-D WHOLE-BODY PET IMAGE RECONSTRUCTION.Accuracy of CT-based attenuation correction in PET/CT bone imaging.Mixed Confidence Estimation for Iterative CT Reconstruction.Impact of CT attenuation correction method on quantitative respiratory-correlated (4D) PET/CT imaging.Detector Position Estimation for PET Scanners.Limits of Ultra-Low Dose CT Attenuation Correction for PET/CT.Determining Block Detector Positions for PET Scanners.Noise and Bias Properties of Monoenergetic Images from DECT used for Attenuation Correction with PET/CT and SPECT/CT.Applying a patient-specific bio-mathematical model of glioma growth to develop virtual [18F]-FMISO-PET images.Respiratory motion correction for quantitative PET/CT using all detected events with internal-external motion correlation.Fast analytical approach of application specific dose efficient spectrum selection for diagnostic CT imaging and PET attenuation correction.
P50
Q30532182-E76E4742-BC4B-4A74-A566-CDEE2E142455Q30992320-24D47BBC-1C5F-4BF2-A7C6-04F114CE17A6Q31132476-739BDA14-9716-4C5C-85F5-A4AA699AE0A6Q33584627-B7C5A84C-190B-4166-93A8-A39E8196FF1BQ33753059-F0C56AC1-0D07-43C8-BABF-5677D742755BQ33955314-D5EC6B47-712D-4648-86B2-CD6EE011BD28Q33991879-E6A0D5F1-F4EC-4D8F-BD73-4B7ED58B1102Q34479220-7592FC40-6C69-4FC9-8AA1-1F7C40A2F1ACQ34660562-5D39A019-1E18-433A-98DC-C5C163BEB02FQ35143210-F3227864-3C3E-4404-998A-40C819560875Q35533293-C538A526-B9C6-4C15-8C8E-E9F69B24B7C7Q36450213-24B7EE51-BABE-4D19-9004-5C99B3E6FFD6Q36566669-8854CD0E-0F23-42B7-9554-D5C6ED63C8ABQ36688046-59AF18A4-F32C-458A-B2D6-9A1AAE15AEB6Q36855055-291644E8-32B2-4E45-A4BB-FE7EBAF17E81Q36978888-87499A95-54CC-4EFF-AAB2-597C48D99E8DQ36982406-A6FC0ECC-7D7E-4FE9-8FE2-BE2DAE4666A9Q37019168-7A2B07C9-DDA2-4524-95EF-804897719001Q37326169-59BCC0E4-3AB5-450E-A2EB-DA8453A037BDQ37589288-67700435-6835-4691-B62D-3E0C3CD0D05DQ38592690-C226E537-0E5D-4466-9873-AD6C39C1A23CQ39657705-08A633E9-FB32-4860-B9D6-8F6DCBF5D5AFQ39780317-B92F42C1-A4F3-4043-B4BE-9BF85EB8B29BQ39902468-B8592A78-33CD-452E-8CC3-68860A808267Q40144731-A8890732-B149-4A9E-AB08-66667876CF35Q40725570-65DF8FBF-28C6-4856-A1E5-92DACE417C6DQ41871261-5B2F82C6-EEC9-4D44-9EFB-C8E2EDEF4C6CQ41893970-1E5D126B-018E-4143-A690-980F3809E0C6Q42051213-703A9368-278F-4CE6-B6F3-5F495FD5C127Q42118768-13645B2F-F5AA-4A33-92D7-8CA958DADBCBQ42172418-1012FFCF-F820-4775-8514-D1F4D362EED2Q42262087-9D7FD342-4DAB-4421-8D28-650E8AEB8E2EQ42355410-8371F500-074D-4097-B3F3-6FD90F3EFDB0Q42549731-2986DBE2-E838-44E8-8616-55C3CDFC4153Q42639665-BBB9252E-4142-4124-84A7-DCE5D3C6E9A9Q42739190-E887E418-6ADF-44FA-97E9-0B916DA75E6DQ42739193-FCBDD47D-C55D-484B-BC9D-B2305C3FC19AQ42740813-F15EFE49-920A-41E5-9CDB-8C2656D17FE0Q42745746-35C5E44C-29DD-48D9-8635-59168FD5D319Q43066080-8BEBC88B-DB98-4DAF-9F0C-3EB12006A9DD
P50
description
hulumtues
@sq
researcher
@en
wetenschapper
@nl
հետազոտող
@hy
name
Adam M. Alessio
@ast
Adam M. Alessio
@en
Adam M. Alessio
@es
Adam M. Alessio
@nl
type
label
Adam M. Alessio
@ast
Adam M. Alessio
@en
Adam M. Alessio
@es
Adam M. Alessio
@nl
altLabel
Adam Alessio
@en
prefLabel
Adam M. Alessio
@ast
Adam M. Alessio
@en
Adam M. Alessio
@es
Adam M. Alessio
@nl
P106
P1153
6701585795
P21
P31
P496
0000-0003-3371-8580