Anatomy-based traffic lights missed important dose changes during lung radiotherapy
In 604 fractions, traffic-light alerts partially identified target undercoverage but were unreliable proxies for organ-at-risk dose changes.
In 604 fractions, traffic-light alerts partially identified target undercoverage but were unreliable proxies for organ-at-risk dose changes.
Skull-equivalent anatomy improved synthetic CT performance, but none of ten tested head phantoms satisfied all geometric, HU and dosimetric criteria.
SMART reduced mean memory-circuit dose from 2.9 to 1.8 Gy while maintaining greater than 95% target coverage.
A severity-weighted action-priority framework identified the same seven highest RT workflow risks while avoiding 23 additional traditional FMEA flags.
OPT-former matched a three-network segmentation pipeline while processing eye images 2.6 times faster and improved further with patient-specific fine-tuning.
uTPS generated Halcyon VMAT plans with generally comparable dosimetry to Eclipse and greater than 97% gamma passing rates.
A model integrating planning CT, 3D dose and tumor contours achieved strong external prediction of distant metastasis but weaker local-recurrence performance.
Robust optimization improved target coverage with less lung-dose penalty than margin expansion, while density override was particularly useful for solid tumors.
Despite successful simulation, 31.7% required DIBH gate modification or conversion to free breathing during abdominal radiotherapy.
Combined radiomics, foundation-model and clinical features predicted grade ≥2 radiation proctitis with 0.865 AUC on an independent imaging device.
D95% and D98% PTV prescriptions produced substantial interpatient variability, while GTV- and ITV-based median or mean doses were more accurate.
Emission-only PET synthesis produced 0.72% SUVmax bias and 99.2% contrast recovery in an independent NSCLC test cohort.
DART predicted clinically triggered head and neck adaptation with 92% sensitivity and specificity using a unified 2-Gy dosimetric threshold.
Hollow 3D-printed proton collimators and compensators were produced within 45 minutes and accurately shaped small experimental proton fields.
Brainlab Elements commissioning was completed in one day, while Monte Carlo generally agreed with end-to-end measurements within 3%.