Computational science to uncover the physical and chemical processes underlying hadrontherapy

09 February 2021 | 16:00

Hadrontherapy is a cutting-edge modality of radiotherapy in which energetic ion beams (protons, as used in the Trento protontherapy centre, as well as carbon ions) are employed to kill cancer cells while sparing surrounding healthy areas. The depth-dose curve of ions in tissue presents a sharp peak towards the end of their trajectories (the Bragg peak), which allows the precise deposition of energy in the tumour. Ion beams also kill cells more effectively than photons do for the same delivered dose. These characteristics arise from a concatenation of physico-chemical events happening on different space, time and energy scales, comprising the propagation of the ion beam in the body, the excitation and ionisation of the biological materials, the transport of secondary electrons and free radicals in the micro- and nanoscale, and the damage these can produce to the sensitive DNA molecules. To gain a deeper understanding of these basic mechanisms, computational models have been developed over the years in which different techniques are used to address each specific problem: Monte Carlo simulations for describing radiation transport, dielectric response theory and time-dependent density functional theory for treating electronic excitations, or molecular dynamics for simulating radiation effects at the molecular level. A review of these models and their usefulness in the context of hadrontherapy will be given in this seminar.


  • Speaker
    Marie Skłodowska-Curie Individual Fellow
    Pablo de Vera currently works as Marie Curie Individual Fellow at the Interdisciplinary Laboratory for Computational Science (LISC) at ECT*. He does research on the physico-chemical mechanisms underlying radiation interaction and effects in condensed matter by means of Computational Physics, for applications which include biophysics, materials science, physical chemistry and nanotechnology. His interdisciplinary training includes a BSc in Chemistry (University of Alicante, Spain, 2009), an MSc in Nanoscience and Nanotechnology (University of Alicante, 2011) and a PhD in Nanoscience/Physics (University of Alicante, 2010-2016). He participated in the Marie Curie ITN ARGENT (Advanced Radioterapies, Generated by Exploiting Nanoprocesses and Technologies) at the Open University (Milton Keyenes, UK, 2014-2015) and Queen's University Belfast (UK, 2015-2017), and made subsequent postdoctoral stays at MBN (MesoBioNano) Research Center (Frankfurt, Germany, 2018-2019) as Alexander von Humboldt Research Fellow, and at University of Murcia (Spain, 2019-2020) as Juan de la Cierva Postdoctoral Fellow.

Privacy Notice

Pursuant to art. 13 of EU Regulation No. 2016/679 – General Data Protection Regulation and as detailed in the Privacy Policy for FBK-ECT* event’s participants, we inform you that the event will be recorded and disclosed on the FBK-ECT* institutional channels. In order not to be filmed or recorded, you can disable the webcam and/or mute the microphone during virtual events or inform the FBK-ECT* staff who organize the public event beforehand.
WordPress Cookie Notice by Real Cookie Banner