C. Shaw

发表

Quantitative evaluation of dual-energy digital mammography for calcification imaging.

S. Kappadath, C. Shaw, 2004, Physics in medicine and biology.

Dual-energy digital mammography for calcification imaging: noise reduction techniques.

S. Kappadath, C. Shaw, 2008, Physics in medicine and biology.

Noise simulation in cone beam CT imaging with parallel computing.

C. Shaw, S. Tu, Lingyun Chen, 2006, Physics in medicine and biology.

Dual-energy digital mammography: calibration and inverse-mapping techniques to estimate calcification thickness and glandular-tissue ratio.

Chris C Shaw, S Cheenu Kappadath, S. Kappadath, 2003, Medical physics.

Dual-energy digital mammography for calcification imaging: scatter and nonuniformity corrections.

Chris C Shaw, S Cheenu Kappadath, S. Kappadath, 2005, Medical physics.

Microcalcification detectability for four mammographic detectors: flat-panel, CCD, CR, and screen/film).

Kerry T. Krugh, C. Shaw, D. Johnston, 2002, Medical physics.

Receiver operating characteristic analysis for the detection of simulated microcalcifications on mammograms using hardcopy images

C. Shaw, P. Dempsey, W. Yang, 2006, Physics in medicine and biology.

Spatial resolution properties in cone beam CT: a simulation study.

Lingyun Chen, Chris C Shaw, Mustafa C Altunbas, 2008, Medical physics.

Comparison of an amorphous silicon/cesium iodide flat-panel digital chest radiography system with screen/film and computed radiography systems--a contrast-detail phantom study.

X Liu, C C Shaw, C. Shaw, 2001, Medical physics.

Optimization of MTF and DQE in magnification radiography: a theoretical analysis

Xinming Liu, Chris C. Shaw, Michael R. Lemacks, 2000, Medical Imaging.

Dentomaxillofacial imaging with computed-radiography techniques: a preliminary study

David Gur, Chris C. Shaw, Stanley F. Kapa, 1993, Medical Imaging.

Scan equalization digital radiography (SEDR) implemented with an amorphous selenium flat-panel detector: initial experience.

C. Shaw, Lingyun Chen, Xinming Liu, 2009, Physics in medicine and biology.

Radiation doses in volume-of-interest breast computed tomography--A Monte Carlo simulation study.

C. Shaw, C. Lai, Y. Zhong, 2015, Medical physics.

Improving accuracy of electron density measurement in the presence of metallic implants using orthovoltage computed tomography.

Radhe Mohan, Gary Virshup, Lei Dong, 2008, Medical physics.

Use of radiation risk as the basis for image quality comparisons.

D. Gur, C. Shaw, 1993, Radiology.

Comparison of scatter rejection and low-contrast performance of scan equalization digital radiography (SEDR), slot-scan digital radiography, and full-field digital radiography systems for chest phantom imaging.

C. Shaw, Xinming Liu, C. Lai, 2010, Medical physics.

Comparison of a-Si:H CsI flat-panel digital imaging systems with a CCD-based system, CR systems, and conventional screen-film systems: a contrast-detail phantom study

Kerry T. Krugh, C. Shaw, D. Johnston, 2001 .

Improvement of signal-to-noise and contrast-to-noise ratios in dual-screen computed radiography.

D Gur, C C Shaw, D. Gur, 1997, Medical physics.

Comparison of full-field digital mammography and screen-film mammography for detection and characterization of simulated small masses.

Chris C Shaw, Gary J Whitman, William A Murphy, 2006, AJR. American journal of roentgenology.

Feasibility of volume-of-interest (VOI) scanning technique in cone beam breast CT-a preliminary study.

Lingyun Chen, Tianpeng Wang, Chris C Shaw, 2008, Medical physics.

Feasibility of dual-resolution cone beam breast CT: a simulation study

Chris C. Shaw, Lingyun Chen, Tianpeng Wang, 2008, SPIE Medical Imaging.

Feasibility of volume-of-interest (VOI) scanning technique in cone beam breast CT--a preliminary study.

Lingyun Chen, Tianpeng Wang, Chris C Shaw, 2008, Medical physics.

A post-reconstruction method to correct cupping artifacts in cone beam breast computed tomography.

X Liu, L Chen, T Han, 2007, Medical physics.

Digital Mammography With Storage Phosphors.

Chris C. Shaw, C. Shaw, 1994 .

Radiation doses in cone-beam breast computed tomography: a Monte Carlo simulation study.

Tianpeng Wang, Yuncheng Zhong, Chris C Shaw, 2011, Medical physics.

Cone-beam CT breast imaging with a flat panel detector: a simulation study

Chris C. Shaw, M Altunbas, Lingyun Chen, 2005, SPIE Medical Imaging.

Effects of exposure equalization on image signal-to-noise ratios in digital mammography: a simulation study with an anthropomorphic breast phantom.

Xinming Liu, Chao-Jen Lai, Chris C Shaw, 2011, Medical physics.

An accurate scatter measurement and correction technique for cone beam breast CT imaging using scanning sampled measurement (SSM)technique

Tianpeng Wang, Xinming Liu, Chris C Shaw, 2006, SPIE Medical Imaging.

Regional improvement of signal-to-noise and contrast-to-noise ratios in dual-screen CR chest imaging--a phantom study.

X Liu, C C Shaw, C. Shaw, 2001, Medical physics.

Effects of scattered radiation and beam quality on low contrast performance in cone beam breast CT

Chris C. Shaw, Lingyun Chen, Tianpeng Wang, 2006, SPIE Medical Imaging.

Visibility of microcalcification in cone beam breast CT: effects of X-ray tube voltage and radiation dose.

Lingyun Chen, Tianpeng Wang, Chris C Shaw, 2007, Medical physics.

Pixelwise fusion for optimizing SNR in multiple-plate computed radiography imaging

Ching-Chung Li, Tianpeng Wang, C. C. Shaw, 1999, IEEE Transactions on Medical Imaging.

Signal fading, erasure, and rescan in storage phosphor imaging

David Gur, John M. Herron, Chris C. Shaw, 1992, Medical Imaging.

Reduction of ring artifacts in CBCT: detection and correction of pixel gain variations in flat panel detectors.

Yuncheng Zhong, Chris C Shaw, Cem Altunbas, 2014, Medical physics.