Microstructure air chamber showed linear dose response for conventional and ultra-high dose rate radiotherapy
A thick gas electron multiplier air chamber showed strong dose linearity under conventional and ultra-high dose rate conditions.
A thick gas electron multiplier air chamber showed strong dose linearity under conventional and ultra-high dose rate conditions.
No single patient-specific quality assurance method covered all stereotactic radiotherapy risks, supporting combinations of measurement, independent calculation, imaging, and monitoring.
Multimodal registration, motion management, and arrhythmia substrate definition were the highest-risk steps in stereotactic arrhythmia radioablation.
A reusable phantom-based test verified simulation-omitted adaptive workflows on cone-beam computed tomography-guided and magnetic resonance-guided treatment systems.
Lot-to-lot density variation in lung-equivalent inserts reduced planning target volume coverage by up to 3%, exceeding the stated clinical tolerance.
Discrete pulse counts limited fractional monitor unit precision, particularly for high-dose-per-pulse flattening filter-free beams.
Reference datasets can support linear accelerator beam modelling, but machine-specific measurements remain essential for small fields, complex delivery, and long-term verification.
Anatomy- and dose-based machine learning predicted gamma passing rates accurately for organs at risk, but less reliably for target volumes.