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ThorEA - Towards an Alternative Nuclear Future.pdf

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Chapter 6: The way forward continued<br />

There is a compelling case for the UK to invest now in the<br />

R&D to secure the technology necessary to build the world’s<br />

first fully operational thorium-fuelled ADSR power station<br />

by 2025. Such <strong>an</strong> investment builds upon existing <strong>an</strong>d<br />

acknowledged UK strengths in accelerator development,<br />

spallation physics <strong>an</strong>d nuclear science.<br />

The commercial adv<strong>an</strong>tages of such <strong>an</strong> investment to the<br />

UK are:<br />

Global leadership in <strong>an</strong> adv<strong>an</strong>ced nuclear technology;<br />

A reinvigoration of Britain’s nuclear industry;<br />

The capture of IP <strong>an</strong>d knowhow from nuclear <strong>an</strong>d<br />

other innovations (e.g. in medicine);<br />

The creation of <strong>an</strong> export market for nuclear<br />

power stations, which would include those regions<br />

historically closed to the export of conventional<br />

fission reactors;<br />

A shift from nuclear dependency on ur<strong>an</strong>ium (a<br />

limited resource) to thorium (<strong>an</strong> unlimited resource).<br />

The environmental adv<strong>an</strong>tages include<br />

A new <strong>an</strong>d sustainable route to low carbon energy;<br />

A nuclear technology in which the reactor operates<br />

well below criticality levels;<br />

A nuclear fuel cycle which does not include plutonium<br />

as either fuel or waste;<br />

A fuel cycle with relatively low radiotoxic <strong>an</strong>d low<br />

volume waste;<br />

A system which c<strong>an</strong> potentially burn legacy plutonium<br />

<strong>an</strong>d minor actinide waste as fuel;<br />

A system which is intrinsically proliferation resist<strong>an</strong>t.<br />

46 <strong>Towards</strong> <strong>an</strong> <strong>Alternative</strong> <strong>Nuclear</strong> <strong>Future</strong><br />

Not only is this vision for a future energy source entirely<br />

commensurate with the goals of the Government’s “Road<br />

to 2010” <strong>an</strong>d preceding 2008 White Paper on nuclear power<br />

“Meeting the energy challenge”, it also exploits science<br />

<strong>an</strong>d technology in which Britain has a clear competitive<br />

adv<strong>an</strong>tage <strong>an</strong>d provides signific<strong>an</strong>t opportunities for<br />

growth over the next two decades.<br />

Analysis suggests that this c<strong>an</strong> be achieved by a public<br />

investment of £300m over 5 years. The investment would<br />

fund <strong>an</strong> extensive R&D programme in adv<strong>an</strong>ced accelerator<br />

technology, spallation physics, reactor core design <strong>an</strong>d<br />

thorium fuel cycles in collaboration with higher education<br />

institutes, national laboratories (e.g. the National <strong>Nuclear</strong><br />

Laboratory) <strong>an</strong>d private industry.<br />

The programme would progress as a public-private partnership,<br />

m<strong>an</strong>aged by a limited comp<strong>an</strong>y (<strong>ThorEA</strong>Co) which would be<br />

responsible for delivering the technology, capturing IP <strong>an</strong>d<br />

subcontracting <strong>an</strong>d commissioning additional R&D where<br />

appropriate. It is envisaged that in the initial phases the<br />

research <strong>an</strong>d development programme would be sourced<br />

principally from public funding <strong>an</strong>d as the appropriate ADSR<br />

knowledge <strong>an</strong>d technology become available for exploitation<br />

<strong>an</strong>d tr<strong>an</strong>sfer, private funding would increase, <strong>an</strong>d pay for the<br />

design <strong>an</strong>d ultimately the construction of a 600MWe thorium<br />

fuelled ADSR power station ready which could be ready for<br />

commissioned <strong>an</strong>d ready for operation by 2025.<br />

By this time the UK will lead the world in thorium-fuelled<br />

ADSR technology <strong>an</strong>d will be poised to benefit from a<br />

multibillion pound market for that technology.

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