Jaw-partitioned VMAT increased peak-to-valley dose separation in spatially fractionated radiotherapy
Jaw-partitioned VMAT improved dose gradients and peak-to-valley separation in GRID and lattice plans, but approximately doubled monitor units.
Jaw-partitioned VMAT improved dose gradients and peak-to-valley separation in GRID and lattice plans, but approximately doubled monitor units.
Spatially fractionated radiotherapy relieved symptoms in 91.7% of patients with bulky advanced tumors without reported grade ≥3 toxicity.
EclipseRT plus PD-1 blockade produced five responses among nine bulky NSCLC patients without grade ≥3 treatment-related toxicity.
PATLESL increased lattice peak-to-valley dose ratio from 16.9 to 41.9 while reducing spot number and delivery time.
In the first clinical minibeam series, 86% had symptomatic improvement and one-year local control reached 92% with minibeam treatment alone.
Twelve VMAT lattice courses produced 65% median tumor shrinkage and no local progression during short follow-up in bulky hepatocellular carcinoma.
In eight bulky tumor sites, flattening-filter VMAT lattice radiotherapy produced 75% symptom relief with no grade 3 or higher acute toxicity.
Mini-LATTICE created more compact high-dose vertices and greater peak-to-valley separation than conventional LATTICE across six planning cases.
An Eclipse-based tool reduced lattice plan evaluation from 15.4 to 2.0 minutes while maintaining close agreement with manual measurements.
Single-field optimization improved proton LATTICE motion robustness
VMAT-based lattice SFRT achieved cross-platform deliverability with gamma pass rates above 90% and preserved peak-to-valley dose ratios.