Microbeam radiation therapy (MRT) uses highly collimated, quasi-parallel arrays of X-ray
microbeams of 50–600keV, produced by third generation synchrotron sources, such as the …

Current neuroimaging provides detailed anatomic and functional evaluation of brain tumors,
allowing for improved diagnostic and prognostic capabilities. Some challenges persist even …

Aim Viviparity has evolved more times in squamates than in any other vertebrate group;
therefore, squamates offer an excellent model system in which to study the patterns, drivers …

PURPOSE: Synchrotron microbeam radiation therapy (MRT) relies on spatial fractionation of
the incident photon beam into parallel micron-wide beams. Our aim was to analyze the …

Purpose Proton minibeam radiation therapy is a novel approach to minimize normal tissue
damage in the entrance channel by spatial fractionation while keeping tumor control through …

Microbeam radiation therapy (MRT), a novel form of spatially fractionated radiotherapy (RT),
uses arrays of synchrotron-generated X-ray microbeams (MB). MRT has been identified as a …

PURPOSE: High-dose synchrotron microbeam radiation therapy (MRT) can be effective at
destroying tumors in animal models while causing very little damage to normal tissues. The …

Microbeam irradiation is spatially fractionated radiation on a micrometer scale. Microbeam
irradiation with therapeutic intent has become known as microbeam radiation therapy …

The outcome of the exposure of living organisms to ionizing radiation is determined by the
distribution of the associated energy deposition at different spatial scales. Radiation …

To analyze the effects of the microbeam width (25, 50 and 75 µm) on the survival of 9L
gliosarcoma tumor-bearing rats and on toxicity in normal tissues in normal rats after …