Nuclear Energy
Nuclear Energy
Nuclear Energy
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makes fabricating MOX several times as expensive as the cost of low enriched uranium fuel.<br />
Further, the spent fuel from FBR typically has a greater buildup of highly radioactive fission<br />
products. Thus, the impact of an accident would be much more severe than in a Light Water or<br />
Heavy Water Reactor. dlvi<br />
This is why even after six decades and expenditure of $100 billion (in 2007 dollars) dlvii , the<br />
promise of fast breeder reactors remains largely unfulfilled. In the 1970s, breeder advocates were<br />
claiming that there would be thousands of reactors in operation by 2010. Today, the dream is nearly<br />
dead. The US, UK and Germany have abandoned their breeder reactor development programs.<br />
France still claims that fast breeders have a future, but the country has no operating FBRs, not even<br />
demonstration units. Superphénix, the 1200 MW flagship of the French breeder program, and the<br />
only commercial-size plutonium fueled breeder reactor in nuclear history, was shut down in 1998<br />
after an endless series of very costly technical, legal and safety problems which rendered it<br />
inoperative for the majority of its 11-year lifetime. The other remaining 233 MW demonstration<br />
reactor Phenix shut down in 2009. No replacement fast breeder reactor is planned for at least a<br />
decade. The Japanese prototype fast reactor Monju shut down in 1995 after a sodium coolant leak<br />
caused a fire. After repairs and many delays, it finally restarted 15 years later on May 8, 2010. This<br />
is only a prototype; Japan hopes to build a follow-on demonstration fast breeder reactor by 2025;<br />
only if that succeeds will construction of a commercial fast breeder reactor begin. It is doubtful if<br />
these projections will ever be fulfilled, and Tokyo has been reducing the funding for its breeder<br />
program for decades. dlviii<br />
Apart from India, only Russia is attempting to develop demonstration fast breeders, while<br />
China is considering buying two such units from Russia. Russia has one operational fast breeder,<br />
the BN-600. But this reactor hardly qualifies as a successful breeder. The Soviet Union/Russia<br />
never closed the fuel cycle and has never operated BN-600 with MOX fuel. Furthermore, it has also<br />
suffered repeated sodium leaks and fires. Despite these multiple fires, its operators continue to<br />
operate it – another example of the extreme callousness of Russia’s nuclear establishment. dlix<br />
India's Fast Breeder Program<br />
Despite this worldwide evidence, the DAE continues to persist with its uneconomical and<br />
risky fast breeder reactor program.<br />
As discussed in Chapter 7, breeder reactors in India were originally proposed in the 1950s as<br />
the second stage of a three-stage nuclear program. This was seen as a way to develop a large<br />
autonomous nuclear power program despite India’s relatively small known reserves of uranium ore.<br />
However, the DAE began work on fast breeder reactors only in 1965, when a fast reactor section<br />
was opened in BARC and design work on a 10-MW experimental fast reactor was initiated. It soon<br />
became clear that foreign assistance was required. This project was therefore abandoned, and in<br />
1969, the DAE entered into collaboration with France. It took designs from it for what was to be<br />
India's first breeder reactor, the Fast Breeder Test Reactor (FBTR). The DAE sent scientists to<br />
France for training, and they formed the nucleus of the Reactor Research Centre (RRC) that was set<br />
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