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+Counterplan Text: The insert aff actors will increase production of nuclear power through denatured molten salt reactors. Williams 16 |
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+Stephen Williams Software engineer and former technical writer. Focuses now in many issues surrounding energy use, such as climate change, ocean acidification, energy poverty, and pollution. July 4, 2016. How Molten Salt Reactors Might Spell a Nuclear Energy Revolution, ZMEScience.com August 23, 2016 SH |
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+The Intergovernmental Panel on Climate Change, the International Energy Agency, the United Nations, the Obama Administration and even over 70 of climate scientists agree that we must ramp up nuclear power if we are going succeed in dealing with climate change. Because of its exceptional safety and low cost, perhaps MSR technology is a nuclear technology that most everyone can embrace. |
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+And, MSRs use up existing stockpiles of nuclear waste, decreasing the amount available for terrorist purposes. MSR waste cannot be used in weapons. Williams 16 |
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+Stephen Williams Software engineer and former technical writer. Focuses now in many issues surrounding energy use, such as climate change, ocean acidification, energy poverty, and pollution. July 4, 2016. How Molten Salt Reactors Might Spell a Nuclear Energy Revolution, ZMEScience.com August 23, 2016 SH |
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+No nuclear reactor can be made proliferation proof, but MSRs have some significant advantages for proliferation resistance. First, the waste from MSRs is not useful for use in nuclear weapons since MSRs fission almost all actinides. Second, MSRs can use up existing stockpiles of nuclear waste from conventional reactors as well as existing stockpiles of plutonium, making these materials unavailable for use in nuclear weapons. |
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+MSRs are feasible in India – they’re in future plans, India has the most thorium globally, and align with India’s non-prolif foreign policy. Ghoshal 6/15 |
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+Debalina Ghoshal (Research Associate at the Delhi Policy Group. She specializes in issues pertaining to missiles, missile defense, nuclear weapons, and artillery), “India’s Venture into Molten Salt Reactors,” 6/15/16, South Asian Voices. |
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+A major focus of India’s nuclear energy program has been to strengthen non-proliferation efforts. For instance, despite not being a signatory to the Nuclear Non-Proliferation Treaty (NPT), India has ratified the Additional Protocol which allows for further inspections of civilian nuclear sites by the International Atomic Energy Agency(IAEA). Along with this, New Delhi has also concentrated on nuclear waste management and nuclear safety, especially after the Fukushima crisis. In this context, it is worthwhile to consider Molten Salt Reactor (MSR) technology— could be the third stage of India’s nuclear program—because it could not only enable India to achieve Prime Minister Narendra Modi’s clean energy agenda, but also bolster its non-proliferation credentials.¶ What is MSR?¶ Molten Salt Reactor (MSR) technology is different from most current reactors in that it uses liquid fuel, instead of the more common solid fuel, as both fuel and coolant. These reactors use molten fluoride salts as the primary coolant and dissolve the fissile and fertile fuel in the salt. They use various types of fuel, including thorium. Thorium is particularly appealing to India because it has abundant thorium deposits, among the largest globally.¶ A Brief History¶ MSR technology is not a new innovation. The United States ventured into Thorium Molten Salt Reactor (TMSR) technology during the 1950s to provide the U.S. Air Force with a nuclear bomber that could fly over the Soviet Union without stopping to refuel. This generated interest in exploration of the application of TMSR technology for civilian energy use. However, the U.S. Atomic Energy Commission (AEC) called off the project in 1976 due to a lack of funding.¶ Advantages of MSR Technology for India¶ India is already examining designs for an Indian Molten Salt Breeder Reactor (IMSBR). With India’s abundance in thorium, its Advanced Heavy Water Reactors (AWHR) would use low enriched uranium (LEU) to convert thorium into uranium for energy production. The use of LEU in these reactors is an important advantage because it carries a much lower risk for proliferation than HEU. This strengthens India’s non-proliferation credentials and aligns India with the global movement away from HEU, in accordance with the recent 2016 Nuclear Security Summit. |