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FLASH$\mathrm{{\ell}ab@}$PITZ: New R&D Platform with Unique Capabilities for Electron FLASH and VHEE Radiation Therapy and Radiation Biology under Preparation at PITZ

Authors :
Stephan, Frank
Gross, Matthias
Grebinyk, Anna
Aboulbanine, Zakaria
Amirkhanyan, Zohrab Gevorg
Budach, Volker
Ehrhardt, Vincent Henrique
Faus-Golfe, Angeles
Frohme, Marcus
Germond, Jean-Francois
Good, James David
Gruener, Florian
Kaul, David
Krasilnikov, Mikhail
Leavitt, Ron
Leemans, Wim
Li, Xiangkun
Loisch, Gregor
Mueller, Frieder
Müller, Georg
Obier, Frank
Oppelt, Anne
Philipp, Sebastian
Qian, Houjun
Reindl, Judith
Riemer, Felix
Sack, Martin
Schmitz, Michael
Schnautz, Tobias
Schüller, Andreas
Staufer, Theresa
Stegmann, Christian
Tsakanova, Gohar
Vozenin, Marie-Catherine
Weise, Hans
Worm, Steven
Zips, Daniel
Source :
Physica medica 104, 174-187 (2022). doi:10.1016/j.ejmp.2022.10.026
Publication Year :
2022
Publisher :
Deutsches Elektronen-Synchrotron, DESY, Hamburg, 2022.

Abstract

Physica medica 104, 174 - 187 (2022). doi:10.1016/j.ejmp.2022.10.026<br />At the Photo Injector Test facility at DESY in Zeuthen (PITZ), an R&D platform for electron FLASH and very high energy electron radiation therapy and radiation biology is being prepared FLASH$\mathrm{{\ell}ab@}$PITZ). The beam parameters available at PITZ are worldwide unique. They are based on experiences from 20 + years of developing high brightness beam sources and an ultra-intensive THz light source demonstrator for ps scale electron bunches with up to 5 nC bunch charge at MHz repetition rate in bunch trains of up to 1 ms length, currently 22 MeV (upgrade to 250 MeV planned). Individual bunches can provide peak dose rates up to 10$^{14}$ Gy/s, and 10 Gy can be delivered within picoseconds. Upon demand, each bunch of the bunch train can be guided to a different transverse location, so that either a “painting” with micro beams (comparable to pencil beam scanning in proton therapy) or a cumulative increase of absorbed dose, using a wide beam distribution, can be realized at the tumor. Full tumor treatment can hence be completed within 1 ms, mitigating organ movement issues. With extremely flexible beam manipulation capabilities, FLASHlab@PITZ will cover the current parameter range of successfully demonstrated FLASH effects and extend the parameter range towards yet unexploited short treatment times and high dose rates. A summary of the plans for FLASH$\mathrm{{\ell}ab@}$PITZ and the status of its realization will be presented.<br />Published by Elsevier, Amsterdam

Subjects

Subjects :
ddc:610

Details

Language :
English
Database :
OpenAIRE
Journal :
Physica medica 104, 174-187 (2022). doi:10.1016/j.ejmp.2022.10.026
Accession number :
edsair.doi.dedup.....26a0fd4894c557ccf93ff84589b1f805
Full Text :
https://doi.org/10.3204/pubdb-2023-01347