Zobrazeno 1 - 10
of 44
pro vyhledávání: '"Tomasz W. Wysokinski"'
Autor:
Steve Whitehouse, Tomasz W. Wysokinski, George Belev, Syed F. Islam, Ramana Sundara, Michael J. Hounslow, Stefan Palzer, Agba D. Salman
Publikováno v:
Chemical Engineering Science. 175:208-219
The incorporation of a small amount of secondary immiscible liquid to suspensions can lead to a shift from a fluid-like structure to a paste-like structure. This is ascribed to the higher attraction of the secondary liquid to the particles, in compar
Autor:
Daniel Muirhead, Stéphane Chevalier, Nan Ge, Rupak K. Banerjee, Hang Liu, Michael G. George, M. Adam Webb, Aimy Bazylak, Jongmin Lee, Tomasz W. Wysokinski, Ning Zhu, George Belev
Publikováno v:
Journal of The Electrochemical Society. 164:E3215-E3224
Autor:
Pekka Suortti, Léo Rousset, Madison Adam, Tomasz W. Wysokinski, Denise Miller, Norman Huber, Michel Renier, George Belev, L. Dean Chapman
Publikováno v:
Journal of synchrotron radiation. 25(Pt 5)
The research program at the biomedical imaging facility requires a high-flux hard-X-ray monochromator that can also provide a wide beam. A wide energy range is needed for standard radiography, phase-contrast imaging, K-edge subtraction imaging and mo
Autor:
Nancy L. Ford, Zohreh Izadifar, Arash Panahifar, Juan P. Ianowski, Dean Chapman, David M. L. Cooper, Nazanin Samadi, Xiaojie Luan, Adam Webb, Ning Zhu, Daniel Chen, Mercedes Martinson, Sheldon Wiebe, P Deman, George Belev, Tomasz W. Wysokinski, Denise Miller
Publikováno v:
Synchrotron Radiation News. 28:16-23
The Biomedical Imaging and Therapy (BMIT) beamlines at the Canadian Light Source (CLS) comprise a multi-modality synchrotron imaging facility capable of imaging objects with 2–200 μm resolution with beam sizes up to ~200 mm wide and ~10 mm high in
Autor:
Tomasz W. Wysokinski, Dean Chapman, Gregg Adams, Michel Renier, Pekka Suortti, William Thomlinson
Publikováno v:
Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment. 775:1-4
Autor:
George Belev, Angela Baerwald, Gregg P. Adams, Tomasz W. Wysokinski, Upekha Basnayaka, Dean Chapman
Publikováno v:
Journal of Medical Imaging and Radiation Sciences. 45:307-315
The objective of this study was to test the hypothesis that diffraction-enhanced imaging (DEI), a synchrotron x-ray imaging technique, would provide greater contrast for evaluating bovine ovaries compared with conventional diagnostic ultrasonography.
Autor:
Bassey Bassey, Dean Chapman, George Belev, Grant Cubbon, Darin Street, Asm Sabbir Ahmed, Abdallah Abueidda, Tomasz W. Wysokinski
Publikováno v:
Radiation Physics and Chemistry. 100:8-12
High field superconducting wiggler beamlines present shielding challenges due to the high critical energy of the synchrotron spectrum. An unexpected, but predictable, weakness in the secondary optical enclosure (SOE-1) was discovered on the BioMedica
Autor:
George Belev, Setsuhisa Tanabe, Tomasz W. Wysokinski, Dean Chapman, Go Okada, D. Tonchev, Safa Kasap, Jumpei Ueda
Publikováno v:
Journal of the American Ceramic Society. 97:2147-2153
There is a special need to develop a dosimetry technique with a large-dynamic range and high-spatial resolution to characterize the microstructured X-ray beams used in microbeam radiation therapy (MRT) for cancer. We report the synthesis and characte
Autor:
George Belev, Go Okada, Vincent Martin, Tomasz W. Wysokinski, Safa Kasap, D. Tonchev, Dean Chapman
Publikováno v:
Journal of Non-Crystalline Solids. 377:137-141
One of the key parameters and most difficult challenges related to Microbeam Radiation Therapy (MRT) is the exact measurement of radiation dose delivered. The approach presented here is based on the conversion of the oxidation state of samarium ions
Autor:
George Belev, Brian Morrell, Shahrzad Vahedi, Andrew Edgar, Safa Kasap, Cyril Koughia, Chris Varoy, Go Okada, Tomasz W. Wysokinski, Dean Chapman
Publikováno v:
Optical Materials. 35:1976-1980
Microbeam Radiation Therapy (MRT) is a promising cancer treatment technique. During the treatment, a micro-planar lattice of narrow X-ray beams called a microbeam (each narrow X-ray beam is typically 20–100 μm wide separated by 100–400 μm) deli