Oncological hadron therapy utilizes a beam of charged particles to destroy the tumor cells, exploiting the particular deposition curve that allow minimum damage to the surrounding healty tissues compared to traditional radiotherapy. Sulak and Hayakawa’s works have shown the applicability of this technique in clinical scenarios, but the lack of dedicated electronics for this type of experiments affects the spatial resolution that can be obtained with this technique [1]. This work presents an integrated analog front-end dedicated to ionoacoustic experiments that allows to estimate the position of the Bragg Peak with an average deviation of 1% with respect to the real position
The use of hadron beams, especially proton beams, in cancer radiotherapy has expanded rapidly in the...
[EN] A full chain simulation of the acoustic hadron therapy monitoring for brain tumors is presented...
International audienceOne of the advantages of hadrontherapy with respect to conventional radiothera...
Oncological hadron therapy utilizes a beam of charged particles to destroy the tumor cells, exploiti...
PURPOSE: Range verification in ion beam therapy relies to date on nuclear imaging techniques which r...
[EN] Hadrontherapy makes it possible to deliver high doses of energy to cancerous tumors by using th...
Ions provide a more advantageous dose distribution than photons for external beam radiotherapy, due ...
Purpose: The Bragg peak located at the end of the ion beam range is one of the main advantages of io...
In proton therapy, cancer patients are irradiated with high energy protons. For a successful treatme...
Ions provide a more advantageous dose distribution than photons for external beam radiotherapy, due ...
Accurate knowledge of the exact stopping location of ions inside the patient would allow full exploi...
Proton therapy has the potential to deposit its energy in tissue with high conformity to the tumor a...
The major paradigm in the treatment of cancer has been to develop and improve methods for more focus...
In proton therapy high energy protons are used to irradiate a tumor. Ideally, the delivered proton d...
The use of hadron beams, especially proton beams, in cancer radiotherapy has expanded rapidly in the...
[EN] A full chain simulation of the acoustic hadron therapy monitoring for brain tumors is presented...
International audienceOne of the advantages of hadrontherapy with respect to conventional radiothera...
Oncological hadron therapy utilizes a beam of charged particles to destroy the tumor cells, exploiti...
PURPOSE: Range verification in ion beam therapy relies to date on nuclear imaging techniques which r...
[EN] Hadrontherapy makes it possible to deliver high doses of energy to cancerous tumors by using th...
Ions provide a more advantageous dose distribution than photons for external beam radiotherapy, due ...
Purpose: The Bragg peak located at the end of the ion beam range is one of the main advantages of io...
In proton therapy, cancer patients are irradiated with high energy protons. For a successful treatme...
Ions provide a more advantageous dose distribution than photons for external beam radiotherapy, due ...
Accurate knowledge of the exact stopping location of ions inside the patient would allow full exploi...
Proton therapy has the potential to deposit its energy in tissue with high conformity to the tumor a...
The major paradigm in the treatment of cancer has been to develop and improve methods for more focus...
In proton therapy high energy protons are used to irradiate a tumor. Ideally, the delivered proton d...
The use of hadron beams, especially proton beams, in cancer radiotherapy has expanded rapidly in the...
[EN] A full chain simulation of the acoustic hadron therapy monitoring for brain tumors is presented...
International audienceOne of the advantages of hadrontherapy with respect to conventional radiothera...