Purpose The aim of this work was to develop and benchmark a magnetic resonance (MR)‐
guided linear accelerator head model using the GEANT4 Monte Carlo (MC) code. The …

Purpose: This paper provides a comparison between a fast, commercial, in‐patient Monte
Carlo dose calculation algorithm (GPUMCD) and geant4. It also evaluates the dosimetric …

Purpose: The clinical commissioning of IMRT subject to a magnetic field is challenging. The
purpose of this work is to develop a GPU‐accelerated Monte Carlo dose calculation platform …

Purpose To extend and validate the accuracy and efficiency of a graphics processing unit
(GPU)‐Monte Carlo dose engine for Elekta Unity 1.5 T Magnetic Resonance‐Linear …

Purpose To develop, implement, and validate a full 1.5 T/7 MV magnetic resonance (MR)‐
Linac accelerator head and cryostat model in EGSnrc for high precision dose calculations …

It is necessary to evaluate the effect of the presence of a magnetic field when treating lung
tumors with MRIgRT. In this study, the effect of transverse and longitudinal magnetic fields …

Purpose Treatment planning systems (TPSs) for MR‐linacs must employ Monte Carlo‐
based simulations of dose deposition to model the effects of the primary magnetic field on …

Magnetic resonance guidance in particle therapy has the potential to improve the current
performance of clinical workflows. However, the presence of magnetic fields challenges the …

Background Radiation therapy is continuously moving towards more precise dose delivery.
The combination of online MR imaging and particle therapy, for example, radiation therapy …

Purpose The development of magnetic resonance‐guided radiation therapy (MR g RT)
necessitates accurate Monte Carlo (MC) models of ion chambers for computing ion chamber …