Nuclear Energy
Nuclear Energy
Nuclear Energy
Create successful ePaper yourself
Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.
up in 1971 at Kalpakkam to lead the breeder effort. In 1985, this was renamed the Indira Gandhi<br />
Centre for Atomic Research (IGCAR). Over the years, the center has emerged as the main hub of<br />
activities related to India’s breeder program. dlx<br />
The budget for the Fast Breeder Test Reactor was approved by the DAE in September 1971<br />
and it was anticipated that the FBTR would be commissioned by 1976. It was to be a 40 megawatt<br />
thermal (MWt)/13 megawatt electric (MWe or MW) reactor. But the reactor attained criticality only<br />
in October 1985; and the steam generator began operating only in 1993. Since then, the reactor has<br />
suffered numerous failures and accidents, which are actually inherent to sodium cooled fast breeder<br />
reactors as discussed above and which make it much more dangerous than water cooled reactors.<br />
Overall, its performance has been mediocre. It took 15 years before the FBTR even managed 50<br />
plus days of continuous operation at full power (in 2001). In the first 20 years of its life, the reactor<br />
has operated for only 36,000 hours, implying that the availability factor is only about 20 percent.<br />
Despite this checkered history, IGCAR claims to have “successfully demonstrated the design,<br />
construction and operation” of a fast breeder reactor. dlxi<br />
this flawed experience, DAE began making plans for construction of a Prototype Fast Breeder Reactor (PFBR), which will<br />
Based on<br />
produce 1200 MW of thermal power and 500 MW of electricity. First expenditures on the PFBR were made in 1987-88, and it was reported in 1990<br />
that the that the reactor would be on - line by 2000. In 2001, the chairman of the AEC announced that the PFBR would be commissioned by 2008.<br />
Construction of the reactor was finally started in October 2004 and it was now expected to be commissioned in 2010 . dlxii There is no<br />
information about when it will actually be achieved.<br />
Even more worryingly, instead of the carbide fuel used in the FBTR, the PFBR will use<br />
plutonium and uranium oxide based fuel. DAE has no experience of working with this fuel. Since<br />
MOX is thousands of times more radioactive, in combination with liquid sodium as coolant, it<br />
makes the PFBR susceptible to catastrophic accidents. dlxiii<br />
Construction of a viable FBR is supposed to be the second stage of the DAE’s ambitious<br />
three stage nuclear program. Given that India has not even built a properly functioning 10 MW<br />
demonstration unit more than fifty years after the plan was first announced, the third stage –<br />
breeders involving thorium and uranium-233 – is unlikely to materialize anytime in the foreseeable<br />
Yet the DAE continues to parrot: “it remains a certainty that thorium-based nuclear energy systems will have to be a major component of<br />
future.<br />
the Indian energy mix in the long-term.”dlxiv In any case, even if the DAE succeeds in building them, the proliferation, waste, safety and cost<br />
problems of thorium reactors differ only in detail from those of uranium reactors.<br />
We should actually be heaving a sigh of relief at this failure of the AEC / DAE. Breeder<br />
reactors are much more dangerous than even normal nuclear reactors – which is why most countries<br />
who have been willing to take the risk of having nuclear power programs have abandoned their fast<br />
breeder programs. And if they are ever constructed, electricity from these is going to be very<br />
expensive – at least 80 percent higher than from heavy water reactors – mostly because of the high<br />
fuel cycle costs associated with reprocessing and the fabrication of plutonium-containing fuel. dlxv<br />
Therefore, this failure is actually a blessing in disguise!<br />
137