By measuring muon transit distance inside elongated detector media, this case avoids coincidence electronics while improving compact imaging resolution.
Fiber-bundled tracking and photon detection address bulky proton radiography systems while improving resolution for therapy planning.
Automated pit distribution analysis replaces manual thresholding in solid-state nuclear track detectors.
Centrifugal tensioned metastable fluid detectors use phase transitions to detect neutrons and alpha particles, reducing false positives in harsh environments.
Diagonally arranged optical fibers detect proton dose distribution without moving the water phantom, resolving measurement time constraints.
Optical tracking registers particle detector coordinates to map proton trajectories into a moving voxel space, reducing range uncertainties in therapy.
Orthogonal optical fibers detect therapeutic proton beam position and dose distribution in real time.
A neutron detector uses movable solid and liquid moderators to adjust thickness for precise energy range measurements.
A charged particle track detector uses a two-dimensional pixel array to capture Cherenkov light position and time data for precise trajectory reconstruction.