The integration of magnetic resonance (MR) imaging and linear accelerators into hybrid
treatment systems has made MR-guided radiation therapy a clinical reality. This work …

Historically, clinical MRI started with main magnetic field strengths in the∼ 0.05–0.35 T
range. In the past 40 years there have been considerable developments in MRI hardware …

Radiation therapy (RT) is an essential component of effective cancer care and is used
across nearly all cancer types. The delivery of RT is becoming more precise through rapid …

Advances in image-guided radiotherapy (RT) have allowed for dose escalation and more
precise radiation treatment delivery. Each decade brings new imaging technologies to help …

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 …

Radiation therapy to the prostate involves increasingly sophisticated delivery techniques
and changing fractionation schedules. With a low estimated α/β ratio, a larger dose per …

Magnetic resonance‐guided radiation therapy (MRgRT) is a promising approach to
improving clinical outcomes for patients treated with radiation therapy. The roles of image …

Radiotherapy (RT) is very much a technology-driven treatment modality in the management
of cancer. RT techniques have changed significantly over the past few decades, thanks to …

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

High precision conformal radiotherapy requires sophisticated imaging techniques to aid in
target localisation for planning and treatment, particularly when organ motion due to …