Both GEH and ARC have
developed reactor designs based on the Experimental Breeder Reactor - II (EBR - II) integral sodium - cooled fast reactor prototype at the Argonne National Laboratory.
Not exact matches
In its efforts to
develop safer, cheaper, and more efficient nuclear
reactors, the Idaho National Laboratory has researched half a dozen next - generation
reactor designs; these two (the sodium - cooled fast
reactor and the very - high - temperature
reactor) are the most promising.
There are some 50 modular
designs being
developed globally, and while many are traditional light water
reactors, which use water to cool the
reactor core, others gain efficiency by using coolants such as gas, which allow
reactors to reach higher temperatures.
ARPA — E itself, however, has no program to
develop alternative
reactors because of the expense of proving out novel
designs and the long timescales required to
develop any of them.
The CAREM
design was
developed by Invap under contract with the CNEA as a simplified modular pressurised water
reactor (PWR) with integral steam generators.
On December 12, 2013, the Department of Energy announced it would award funding for
developing a small modular
reactor design to the Oregon start - up NuScale.
The PRISM
design has benefited from the operating experience of EBR - II, an integral fast
reactor prototype, which was
developed by Argonne National Laboratory, and operated for more than 30 years at the Idaho National Laboratory near Idaho Falls, Idaho.
PRISM is a sodium - cooled, high - energy neutron (fast)
reactor design that uses a series of proven, safe and mature technologies
developed in the U.S. and abroad.
GE Hitachi Nuclear Energy have
developed the sodium - cooled fast
reactor PRISM to advanced conceptual
design, and the
design is ready to start undergoing the regulatory process.
GEH and ARC Nuclear have each
developed advanced
reactor designs based on the EBR - II, an integral sodium - cooled fast
reactor prototype which was
developed by Argonne National Laboratory and operated successfully for more than 30 years at Idaho Falls, Idaho.
The NRC is
developing a specific licensing framework for advanced
reactor designs, Terrestrial noted, adding it has «confidence in the capability» of the regulator to review and reach safety, security, and environmental findings on the IMSR
design, «in a timely manner».
While we dawdle, maybe the Chinese will
develop a nice business selling us thorium
reactors based on our old
designs.
However, there's no theoretical or technological showstopper preventing an engineering
design for an ARC
reactor to be
developed.
The economics of nuclear power in a mass - production model like what HPG has proposed are radically better — France and Japan have relatively inexpensive and reliable nuclear
reactors precisely becuase they
developed a couple of standardized
designs and then deployed them widely, working out the bugs in the process.
The GRSR process reviews the completely - or partially -
developed safety cases of new
reactor designs that are not yet in the licensing stage.
SMRs and advanced nuclear
reactor designs are also being
developed to provide process heat for industrial uses, desalinization of sea water, and district steam heating.