Development of a higher power cooling system for lithium targets

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Development of a higher power cooling system for lithium targets. / Phoenix, B.; Green, Stuart; Scott, Malcolm; Bennett, J.R.J.; Edgecock, T.R.

In: Applied Radiation and Isotopes, 29.07.2015.

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Phoenix, B. ; Green, Stuart ; Scott, Malcolm ; Bennett, J.R.J. ; Edgecock, T.R. / Development of a higher power cooling system for lithium targets. In: Applied Radiation and Isotopes. 2015.

Bibtex

@article{c81d5fd22464448cb2dad89a21883e9e,
title = "Development of a higher power cooling system for lithium targets",
abstract = "The accelerator based Boron Neutron Capture Therapy beam at the University of Birmingham is based around a solid thick lithium target cooled by heavy water. Significant upgrades to Birmingham's Dynamitron accelerator are planned prior to commencing a clinical trial. These upgrades will result in an increase in maximum achievable beam current to at least 3 mA. Various upgrades to the target cooling system to cope with this increased power have been investigated. Tests of a phase change coolant known as “binary ice” have been carried out using an induction heater to provide a comparable power input to the Dynamitron beam. The experimental data shows no improvement over chilled water in the submerged jet system, with both systems exhibiting the same heat input to target temperature relation for a given flow rate. The relationship between the cooling circuit pumping rate and the target temperature in the submerged jet system has also been tested.",
keywords = "Lithium target, BNCT, Cooling",
author = "B. Phoenix and Stuart Green and Malcolm Scott and J.R.J. Bennett and T.R. Edgecock",
year = "2015",
month = jul,
day = "29",
doi = "10.1016/j.apradiso.2015.07.050",
language = "English",
journal = "Applied Radiation and Isotopes",
issn = "0969-8043",
publisher = "Elsevier",

}

RIS

TY - JOUR

T1 - Development of a higher power cooling system for lithium targets

AU - Phoenix, B.

AU - Green, Stuart

AU - Scott, Malcolm

AU - Bennett, J.R.J.

AU - Edgecock, T.R.

PY - 2015/7/29

Y1 - 2015/7/29

N2 - The accelerator based Boron Neutron Capture Therapy beam at the University of Birmingham is based around a solid thick lithium target cooled by heavy water. Significant upgrades to Birmingham's Dynamitron accelerator are planned prior to commencing a clinical trial. These upgrades will result in an increase in maximum achievable beam current to at least 3 mA. Various upgrades to the target cooling system to cope with this increased power have been investigated. Tests of a phase change coolant known as “binary ice” have been carried out using an induction heater to provide a comparable power input to the Dynamitron beam. The experimental data shows no improvement over chilled water in the submerged jet system, with both systems exhibiting the same heat input to target temperature relation for a given flow rate. The relationship between the cooling circuit pumping rate and the target temperature in the submerged jet system has also been tested.

AB - The accelerator based Boron Neutron Capture Therapy beam at the University of Birmingham is based around a solid thick lithium target cooled by heavy water. Significant upgrades to Birmingham's Dynamitron accelerator are planned prior to commencing a clinical trial. These upgrades will result in an increase in maximum achievable beam current to at least 3 mA. Various upgrades to the target cooling system to cope with this increased power have been investigated. Tests of a phase change coolant known as “binary ice” have been carried out using an induction heater to provide a comparable power input to the Dynamitron beam. The experimental data shows no improvement over chilled water in the submerged jet system, with both systems exhibiting the same heat input to target temperature relation for a given flow rate. The relationship between the cooling circuit pumping rate and the target temperature in the submerged jet system has also been tested.

KW - Lithium target

KW - BNCT

KW - Cooling

U2 - 10.1016/j.apradiso.2015.07.050

DO - 10.1016/j.apradiso.2015.07.050

M3 - Article

JO - Applied Radiation and Isotopes

JF - Applied Radiation and Isotopes

SN - 0969-8043

ER -