LE Antonuk

University of Michigan–Ann Arbor — United States

Engineering · Physical Sciences

7h-index290citations24works0.02yr avg
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Research Topics

Thin-Film Transistor Technologies(11), CCD and CMOS Imaging Sensors(7), Radiation Detection and Scintillator Technologies(5), Digital Radiography and Breast Imaging(5), Advanced Semiconductor Detectors and Materials(5)

Publications24 total

TH‐EF‐BRB‐03: Enhancement of Image Contrast Along the Beam's‐Eye‐View (BEV) Direction Through Development of Imagers Based On Segmented Scintillators and Photon‐Counting Arrays
Medical Physics·2015
SU‐D‐301‐01: Performance Limits of Large Area Poly‐Si X‐Ray Imagers Employing In‐Pixel Amplification
Medical Physics·2011
SU‐GG‐I‐136: Theoretical Limits to System Performance of High Efficiency, Direct Detection, Megavoltage Active Matrix Flat‐Panel Imagers Based on Polycrystalline Mercuric Iodide
Medical Physics·2010
TH-D-210A-01: Exploration of Soft-Tissue Visualization at Low Dose Using Flat-Panel Imagers Incorporating Thick, Segmented Scintillators for Megavoltage Cone-Beam CT
Medical Physics·2009
WE-C-342-02: The Future of Flat Panel Imagers: From Active Matrix to Active Pixel Architectures and Many Possibilities in Between
Medical Physics·2008
TU‐D‐352‐01: Beyond the Limits of Active Matrix Flat‐Panel Imagers: A Comparative Performance Assessment of X‐Ray Converter Enhancement Versus Innovative Active Pixel Sensor Architectures
Medical Physics·2008
MO‐E‐L100J‐01: Enhancement of Signal Performance Through Innovative Pixel Design for Indirect Detection Active Matrix Flat‐Panel Arrays
Medical Physics·2007
MO‐E‐L100J‐02: Limits On Achievable Performance Levels for Active Matrix Flat Panel Imagers Incorporating Active Pixel Sensor Architectures
Medical Physics·2007
SU‐GG‐AUD‐05: Segmented Crystalline Scintillating Detectors for Radiotherapy Imaging: A Monte Carlo Investigation of Swank Factor
Medical Physics·2007· 1 cited
WE-E-330D-06: Conceptual Examination of Conformal, Transparent, Indirect Detection, Active Matrix Mammographic Imagers
Medical Physics·2006
WE-E-330D-07: Empirical Studies of Polycrystalline Silicon-Based Flat-Panel Imagers Incorporating Pixel-Amplifiers
Medical Physics·2006
SU‐CC‐J‐6C‐04: Theoretical and Empirical Investigations of Flat‐Panel Imagers Incorporating Single‐ and Dual‐Stage Pixel‐Amplifiers Based On Polycrystalline Silicon Thin Film TFTs
Medical Physics·2005
TH-C-I-611-09: Development of Direct Detection Active Matrix Flat-Panel Imagers Employing Mercuric Iodide for Diagnostic Imaging
Medical Physics·2005· 1 cited
WE‐D‐I‐6B‐02: High DQE Megavoltage Imaging Using Active Matrix Flat‐Panel Imagers Incorporating Polycrystalline Mercuric Iodide
Medical Physics·2005· 2 cited
MO-D-I-6B-02: Active Matrix, Flat-Panel Imagers: From Rigid and Simple to Flexible and Smart
Medical Physics·2005
Charge trapping at high doses in an active matrix flat panel dosimeter
2003 IEEE Nuclear Science Symposium. Conference Record (IEEE Cat. No.03CH37515)·2003
A programmable, low noise, multichannel ASIC for readout of pixelated amorphous silicon arrays
Nuclear Instruments and Methods in Physics Research Section A Accelerators Spectrometers Detectors and Associated Equipment·2000· 17 cited
Radiation damage of amorphous silicon, thin‐film, field‐effect transistors
Medical Physics·1996· 57 citedOpen Access
Amorphous silicon arrays develop a medical image
IEEE Circuits and Devices Magazine·1993· 29 cited
Comparison of Computer Simulations with Measurements From a-Si:H Imaging Arrays.
MRS Proceedings·1992· 4 cited
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Frequent Co-authors

Youcef El‐Mohri(14), Q Zhao(13), R. A. Street(10), Hong Du(9), Yichun Wang(6), Martin Koniczek(5), J. Boudry(4), J. Yorkston(4), M Behravan(4), M. J. Longo(3), Y Li(3), Amit Sawant(3), J. Yamamoto(3), Edward J. Morton(2), Z. Su(2), Alvina Liang(2), Hao Jiang(2), S. Nelson(1), V. Perez Mendez(1), C. Wild(1)