To preserve generality, the design foresees the feature for the user to select the appropriate interpolation technique according to their hardware and other requirements.
The European DEMO conceptual design foresees four Breeding Blanket (BB) concepts that rely on different cooling and breeding technologies.
The conceptual design foresee a development in two stages, the first one consisting on a material testing loop.
The design foresees complete encapsulation of all fissionable material by layers of carbon and silicon carbide (SiC) forming the tristructural-isotropic fuel particle.
Due to the fixed-target geometry, the conceptual design foresees two extreme regions: an outermost region (low rate/low multiplicity) covered by float glass RPCs in multi-strip fashion, and a central region (high rate/high multiplicity) consisting of densely packed read-out cells made with low resistive electrodes.
Low-activation-ferritic martensitic (RAFM) steeLow-activation-ferritic martensiticteriaLow-activation-ferritic martensiticeseen foRAFMMO and partly for TBM'steelsed in ITER.
The helium-cooled lithium lead (HCLL) concept has been recently selected as one of the two European reference designs foreseen for the breeding blanket of a demonstration fusion reactor.
Long before steam engines and internal combustion, the design foresaw a time when it would be taken for granted that self-propelled machines, four-wheeled, two-legged and otherwise, would be the norm.
The ITER divertor design foresees the joint between CFC (carbon fibre reinforced carbon composites) as armor material and a Cu alloy in the heat sink.
The present design foresees a 10 layers Si–W tracker formed by single sided silicon sensors with 80μm strip pitch, with a readout pitch of 240μm; the sensors are arranged in four towers, each one with an area of 50×50 cm2, for a total of more than 150k channels.
