An outline of application to a fusion driver is also presented.
Solenoid transport of high current, heavy ion beams is considered for several stages of a heavy ion fusion driver.
The methods and codes employed in the US Heavy Ion Fusion program to simulate the beams in an Integrated Research Experiments IREE) facility and a fusion driver are presented in overview.
Despite a partial replacement of the lithium zone by the fissile zone, tritium breeding remains still >1.05, which will be required for a self-sustaining fusion driver.
Values of tritium breeding ratio (TBR), which is another important parameter in a fusion fission hybrid reactor, are about 1.2 for all investigated cases so that tritium self-sufficiency is maintained for (D,T) fusion driver.
The tritium breeding ratio is greater than 1.05 for all investigated fuel types and the hybrid reactor is self-sufficient in the tritium required for the (DT) fusion driver in those modes during the operation period.
Numerical results showed that using the flowing liquid wall containing the molten salt, 75%LiF 23%ThF4 2%2% UF4 with a thickness of ∼70 cm maintained tritium self-sufficiency of the (DT) fusion driver and extended the first wall lifetime to the reactors lifetime (∼30 full power years).
Chronic myeloid leukaemia (CML) is characterised by the presence of a fusion driver oncogene, BCR-ABL1, which is a constitutive tyrosine kinase.
A detailed understanding of the physics of space-charge dominated beams is vital in the design of heavy ion inertial fusion (HIF) drivers.
