Electromagnetic simulations of linear proton accelerator structures using dielectric wall accelerators

S. D. Nelson; B. R. Poole; George J Caporaso

doi:10.1109/PAC.2007.4440897

Electromagnetic simulations of linear proton accelerator structures using dielectric wall accelerators

S. D. Nelson, B. R. Poole, George J Caporaso

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution

3 Scopus citations

Abstract

Proton accelerator structures for medical applications using Dielectric Wall Accelerator (DWA) technology allow for the utilization of high electric field gradients on the order of 100 MV/m to accelerate the proton bunch. Medical applications involving cancer therapy treatment usually desire short bunch lengths on the order of hundreds of picoseconds in order to limit the extent of the energy deposited in the tumor site (in 3D space, time, and deposited proton charge). Electromagnetic simulations of the DWA structure, in combination with injections of proton bunches have been performed using 3D finite difference codes in combination with particle pushing codes. Electromagnetic simulations of DWA structures includes these effects and also include the details of the switch configuration and how that switch time affects the electric field pulse which accelerates the particle beam.

Original language	English (US)
Title of host publication	Proceedings of the IEEE Particle Accelerator Conference
Pages	1784-1786
Number of pages	3
DOIs	https://doi.org/10.1109/PAC.2007.4440897
State	Published - 2007
Externally published	Yes
Event	IEEE Particle Accelerator Conference, PAC07 - Albuquerque, NM, United States Duration: Jun 25 2007 → Jun 29 2007

Other

Other	IEEE Particle Accelerator Conference, PAC07
Country	United States
City	Albuquerque, NM
Period	6/25/07 → 6/29/07

ASJC Scopus subject areas

Engineering(all)

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title = "Electromagnetic simulations of linear proton accelerator structures using dielectric wall accelerators",

abstract = "Proton accelerator structures for medical applications using Dielectric Wall Accelerator (DWA) technology allow for the utilization of high electric field gradients on the order of 100 MV/m to accelerate the proton bunch. Medical applications involving cancer therapy treatment usually desire short bunch lengths on the order of hundreds of picoseconds in order to limit the extent of the energy deposited in the tumor site (in 3D space, time, and deposited proton charge). Electromagnetic simulations of the DWA structure, in combination with injections of proton bunches have been performed using 3D finite difference codes in combination with particle pushing codes. Electromagnetic simulations of DWA structures includes these effects and also include the details of the switch configuration and how that switch time affects the electric field pulse which accelerates the particle beam.",

author = "Nelson, {S. D.} and Poole, {B. R.} and Caporaso, {George J}",

year = "2007",

doi = "10.1109/PAC.2007.4440897",

language = "English (US)",

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AU - Poole, B. R.

AU - Caporaso, George J

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N2 - Proton accelerator structures for medical applications using Dielectric Wall Accelerator (DWA) technology allow for the utilization of high electric field gradients on the order of 100 MV/m to accelerate the proton bunch. Medical applications involving cancer therapy treatment usually desire short bunch lengths on the order of hundreds of picoseconds in order to limit the extent of the energy deposited in the tumor site (in 3D space, time, and deposited proton charge). Electromagnetic simulations of the DWA structure, in combination with injections of proton bunches have been performed using 3D finite difference codes in combination with particle pushing codes. Electromagnetic simulations of DWA structures includes these effects and also include the details of the switch configuration and how that switch time affects the electric field pulse which accelerates the particle beam.

AB - Proton accelerator structures for medical applications using Dielectric Wall Accelerator (DWA) technology allow for the utilization of high electric field gradients on the order of 100 MV/m to accelerate the proton bunch. Medical applications involving cancer therapy treatment usually desire short bunch lengths on the order of hundreds of picoseconds in order to limit the extent of the energy deposited in the tumor site (in 3D space, time, and deposited proton charge). Electromagnetic simulations of the DWA structure, in combination with injections of proton bunches have been performed using 3D finite difference codes in combination with particle pushing codes. Electromagnetic simulations of DWA structures includes these effects and also include the details of the switch configuration and how that switch time affects the electric field pulse which accelerates the particle beam.

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Electromagnetic simulations of linear proton accelerator structures using dielectric wall accelerators

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