| 'Estimation and evaluation of pseudo-CT images using linear regression models and texture feature extraction from MRI images in the brain region to design external radiotherapy planning'. Reports of Practical Oncology & Radiotherapy. 2020; 25 (5): 738-745. Elsevier. View|
Summary: In this effort to develop Pseudo-CT planning images from MRIs of the head, the 62M electron density phantom was used to verify the accuracy of the HU-to-electron density measurement obtained from the reference CT scan.
| 'Estimation of Effective Atomic Number using Dual-Energy Imaging of CT Simulator for Radiation Therapy'. Transaction of the Korean Nuclear Society Virtual Autumn Meeting. 2020; View|
Summary: measurements of electron density were used to estimate effective atomic numbers with a CT simulator. Implementation of appropriate noise reduction techniques is recommended before this technique can replace DECT measurements.
| 'Dose calculation on dual energy CT images for carbon ion therapy using TOPAS: a Monte Carlo Study'. Transaction of the Korean Nuclear Society Virtual Autumn Meeting. 2020; View|
Summary: Single-energy CT reference data from the 62M was used to create an effective atomic number (Zeff) of each tissue imaged under dual-energy CT. Zeff was was then used model dose delivery during carbon ion radiotherapy using the TOPAS Model Carlo simulation.
| 'Material Decomposition in Spectral CT using deep learning: A Sim2Real transfer approach'. IEEE Access. 2021; 9: 25632-25647. IEEE. View|
Summary: Testing of a deep-learning algorithm designed to improve the speed and accuracy of spectral CT systems, performed in part on the CIRS Model 62M, is described.
| 'Influence of acquisition parameters on MV-CBCT
image quality'. JOURNAL OF APPLIED CLINICAL MEDICAL PHYSICS. 2012; 13 (1): 14-26. View|
| 'Evaluating the Impact of CT Scanning Parameters on Dose Calculations by the Treatment Planning System in External Beam Radiation Therapy'. 2020; View|
| 'Deriving the Effective Atomic Number with a Dual-Energy Image Set Acquired by the Big Bore CT Simulator'. Journal of Radiation Protection and Research. 2020; 45 (4): 171-177. Korean Association for Radiation Protection. View|
| 'On the molecular relationship between Hounsfield Unit (HU), mass density, and electron density in computed tomography (CT)'. Plos one. 2020; 15 (12): e0244861. Public Library of Science San Francisco, CA USA. View|
| 'Body size and tube voltage dependent corrections for Hounsfield Unit in medical X-ray computed tomography: theory and experiments'. Scientific RepoRtS. 2020; 10 (1): 44206. Nature Publishing Group. View|
| 'Physical and mechanical properties of soy-lignin bonded Rhizophora spp. particleboard as a tissue-equivalent phantom material'. BioResources. 2020; 15 (3): 5558-5576. View|
| 'Development of a CT number calibration audit phantom in photon radiation therapy: A pilot study'. Medical physics. 2020; 47 (4): 1509-1522. Wiley Online Library. View|
| 'Effect of X-ray beam energy and image reconstruction technique on computed tomography numbers of various tissue equivalent materials'. Radiography. 2021; 27 (1): 95-100. WB Saunders. View|
| 'Characterization of soy-lignin bonded Rhizophora spp. Particleboard as substitute phantom material for radiation dosimetric studies–Investigation of CT number, mass attenuation coefficient and effective atomic number'. Applied Radiation and Isotopes. 2021; View|
| 'Feasibility of using megavoltage computed tomography to reduce proton range uncertainty: A simulation study'. Journal of Applied Clinical Medical Physics. 2021; View|
| 'Characterization of soy-lignin bonded Rhizophora spp. particleboard as substitute phantom material for radiation dosimetric studies–Investigation of CT number, mass attenuation coefficient and effective atomic number'. Applied Radiation and Isotopes. 2021; 170: 109601. Pergamon. View|
| 'Validation of the tomography calibration curve for the Radiotherapy planning system at the National Cancer Institute'. View|
| 'Feasibility of energy-resolved dose imaging technique in pencil beam scanning mode'. Biomedical Physics & Engineering Express. 2020; 6 (6): 65009. IOP Publishing. View|