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Insertion of STC into TRT at the Department of Physics, Oxford
Credit: CERN

Visiting Professor Manjit Dosanjh

Visiting Professor

Sub department

  • Particle Physics

Research groups

  • Applications of Accelerators and Detectors to Cancer Treatment
manjit.dosanjh@physics.ox.ac.uk
  • About
  • Publications

A glimpse into the future of particle therapy

https://physicsworld.com/a/a-glimpse-into-the-future-of-particle-therapy/

Authors:

Tami Freeman

Abstract:

Full PDF text

Overcoming Cancer Disparities Globally: Contributions of Norman Coleman.

Disaster medicine and public health preparedness 20 (2026) e59

Authors:

David Pistenmaa, Joel Tepper, Donna O'Brien, Eugenia Wendling, Harmar Brereton, Monique K Mansoura, Daniel Petereit, Lawrence Roth, Nelson Chao, Kristen Schroeder, Patricia Hardenbergh, Manjit Dosanjh

Abstract:

Dr. C. Norman Coleman, a distinguished cancer specialist and researcher, brought a passion for addressing health disparities to all of his roles from being on the faculty as a Radiation Oncologist at Stanford, as Chair of the Joint Center for Radiation Oncology at Harvard, as Associate Director of the Radiation Research Program at the U.S. National Cancer Institute, as Senior Medical Advisor to the US Government Office of the Assistant Secretary for Preparedness and Response, and as co-founder and Senior Scientific Officer for the International Cancer Expert Corps. With his passing earlier this year, this commentary by his colleagues at the International Cancer Expert Corps presents an overview of his many and significant contributions to addressing cancer disparities globally.
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Developing evidence‐based, cost‐effective P4 cancer medicine for driving innovation in prevention, therapeutics, patient care and reducing healthcare inequalities

Molecular Oncology Wiley (2025)

Authors:

Ulrik Ringborg, Joachim von Braun, Julio Celis, Anton Berns, Michael Baumann, Tit Albreht, Nancy Abou‐Zeid, Vanderlei Bagnato, Christian Brandts, Chien‐Jen Chen, Massimiliano di Pietro, Manjit Dosanjh, Thomas Dubois, Alexander Eggermont, Angelika Eggert, Ingemar Ernberg, Sara Faithfull, Johannes Förner, Stefan Fröhling, Manuel Heitor, Leroy Hood, Wei Jiang, Bengt Jönsson, Ravi Kannan

Abstract:

The cancer problem is expanding, particularly in low‐ and middle‐income countries (LMICs). Preventive measures can reduce the incidence by 40–50%, and cure rates have increased during the past decades in a number of cancers. However, optimizing prevention programmes and increasing cure rates of cancer remain significant research challenges. The main focus of the conference was on P4 Cancer Medicine (Predictive, Preventive, Personalized and Participatory), a comprehensive strategy encompassing Health‐Related Quality of Life (HRQoL) research, aiming to enhance the well‐being of patients and individuals at risk. Addressing the cancer problem requires two key elements: translational cancer research and the development of relevant infrastructures. A Comprehensive Cancer Centre (CCC) acts as an innovation hub by integrating high‐quality, multidisciplinary therapy and care, with healthcare‐dependent prevention, research, and education. The United States has been at the forefront, providing quality‐assured CCCs and the Cancer Moonshot for strategic cancer research. The EU has followed with the European Research Council for basic research, the European Innovation Council to boost disruptive innovation, and two EU initiatives on cancer, Europe's Beating Cancer Plan (EBCP) and the Mission on Cancer. The increasing complexity of cancer biology and technologies presents both a research challenge and a healthcare demand. For most patients, a CCC is not available. A critical discussion focused on quality assurance of healthcare outside the catchment area of a CCC and involving patients in clinical research. The strategic deployment of resources to support collective healthcare efforts and research aimed at reducing the cancer problem was discussed with representatives from the United States, EU, Africa, China, India and Taiwan. Analyses of translational cancer research have revealed important gaps in implementing innovations, assessment of clinical effectiveness, HRQoL, outcome and health economics research. The increased release of new anticancer agents over the last 25 years, accompanied by insufficient information on clinical benefits, presents both an economic and ethical problem. Direct healthcare costs have increased due to expenses for anticancer agents for the treatment of patients with incurable diseases. Evidence‐based treatment based on HRQoL research is an unmet need. Basic/preclinical research aimed at increasing the cure rate should identify new, broader targets for therapy and develop extended diagnostic technologies for stratifying patients, to inform innovative clinical trials. Present research strategies convert cancer to a chronic disease, a growing burden for the healthcare systems. The increasing complexity of cancer biology and technology, the growing need for translational cancer research, and the demand for supporting infrastructures underscore the importance of international collaborations between CCCs. However, funding for cancer research is not currently aligned to reduce the cancer problem. While public funding for cancer research doubled between 2005 and 2024, the pharmaceutical industry's spending on cancer research increased tenfold. Increasing funding by public and non‐profit funding organizations is mandatory. Education is another significant need, but it is currently fragmented and underfunded. The last session of the conference summarized the strategies in a Statement with a strong emphasis on global collaboration addressing the growing cancer burden and pronounced inequalities. Expanding partnerships and fostering innovative, multidisciplinary approaches to cancer prevention, therapeutics/care, as well as research, are not just urgent but essential steps towards reducing incidence, increasing cure rates and enhancing the well‐being of cancer patients. Data‐driven cancer medicine is currently under development, and modern communication technologies for diagnostics may facilitate interactions across geographical distances. A global cancer research agenda can become a model of solidarity, sustainability, and ethical responsibility.
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Radiochromic film dosimetry for VHEE and UHDR: protocol adaptation and verification at the CLEAR facility

Frontiers in Physics Frontiers Media 13 (2025) 1597079

Authors:

Vilde F Rieker, Joseph J Bateman, Laurence Wroe, Misael Caloz, Veljko Grilj, Ygor Q Aguiar, Andreas Schüller, Claude Bailat, Wilfrid Farabolini, Antonio Gilardi, Cameron Robertson, Pierre Korysko, Alexander Malyzhenkov, Steinar Stapnes, Marie-Catherine Vozenin, Manjit Dosanjh, Roberto Corsini

Abstract:

Radiochromic films (RCFs) offer effective two-dimensional dosimetry with a simple, low-cost operating principle, making them suitable for very high-energy electron (VHEE) and ultra-high dose rate (UHDR) applications, where dosimetry standards are lacking. However, achieving high-accuracy measurements with RCFs presents significant challenges, especially in the absence of standardised protocols. To ensure reliable and comparable outcomes, adapted protocols based on a thorough understanding of RCF behaviour are essential. Despite over 6,000 publications addressing RCF protocols, comprehensive guides for high-throughput research machines with small, non-uniform beams are scarce. This paper aims to be a comprehensive guide for non-expert users of RCFs, particularly in VHEE and UHDR research. We identify common errors in RCF preparation, scanning, and processing, proposing strategies to enhance accuracy and efficiency. Using our optimised RCF protocol at the CLEAR facility, we demonstrate a 5% agreement compared to alanine dosimeters irradiated with Gaussian VHEE beams, establishing this protocol as a solid foundation for reliable dosimetry in advanced radiotherapy research.
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Demonstration and characterisation of a novel dual-scattering system for very high energy electrons

Nuclear Instruments and Methods in Physics Research Section A Accelerators Spectrometers Detectors and Associated Equipment Elsevier (2025) 170943

Authors:

C Robertson, R Corsini, W Farabolini, A Gerbershagen, P Korysko, A Latina, A Malyzhenkov, M Dosanjh

Abstract:

This article describes the design and implementation of the first known prototype of a dual-scattering system for the delivery of a uniform VHEE beam with transverse dimensions suitable for pre-clinical and potential future clinical use. The results presented in this article are the first experimental characterisation of beam flattening with dual-scattering foils in the VHEE regime, confirmed with both profile measurements with a YAG screen and radiochromic EBT3 films. Polylactic acid and aluminium dual-scattering systems were designed using TOPAS Monte-Carlo simulations and multi-objective minimisation methods. Studies to test the success of the scattering systems in providing beam magnification and uniformity were carried out at the 200 MeV CERN Linear Electron Accelerator for Research (CLEAR) facility. A generalised super-Gaussian function was used to model the final beam, and comparisons were made with the simulations used for the design. Transverse profiles with uniform components were measured with each of the scattering systems and quantified with super-Gaussian fitting. The uniformity of the in-air profiles suggested that the superficial dose contributions from X-rays were low. This study demonstrated that magnified VHEE beam profiles with uniform components could be generated and measured at CLEAR. The results from this study were used as a basis for the design of future experiments. Similar systems and design methods could be employed by future clinical VHEE facilities to provide conformal treatment.
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