Radiotherapy treatment planning studies significantly contribute to advances and
improvements in radiation treatment of cancer patients. They are a pivotal step to support …

Over the last years, technological innovation in Radiotherapy (RT) led to the introduction of
Magnetic Resonance-guided RT (MRgRT) systems. Due to the higher soft tissue contrast …

Background and purpose Diffusion-weighted imaging (DWI) for treatment response
monitoring is feasible on hybrid magnetic resonance linear accelerator (MR-linac) systems …

Advances in radiotherapy technologies have enabled more precise target guidance,
improved treatment verification, and greater control and versatility in radiation delivery …

In the past few years, radiotherapy (RT) has experienced a major technological innovation
with the development of hybrid machines combining magnetic resonance (MR) imaging and …

Based on the development of new hybrid machines consisting of an MRI and a linear
accelerator, magnetic resonance image guided radiotherapy (MRgRT) has revolutionized …

Radiation therapy is a major component of cancer treatment pathways worldwide. The main
aim of this treatment is to achieve tumor control through the delivery of ionizing radiation …

Medical physics has made considerable contributions to recent advances in radiation
oncology. Medical physicists are key players in the clinical and scientific radiation oncology …

Many preclinical and clinical observations support that functional magnetic resonance
imaging (MRI), such as diffusion weighted (DW) and dynamic contrast enhanced (DCE) MRI …

Quantitative imaging biomarkers (QIBs) derived from MRI techniques have the potential to
be used for the personalised treatment of cancer patients. However, large-scale data are …