Confronting the NRDC

The NRDC does many things well in advocating for American’s wellbeing but not when it comes to energy. It’s time to re-examine its stance on nuclear power. See our rebuttal of NRDC’s arguments against the safest form of energy.

Safety and Risk

Exaggerated Health Risks: The NRDC has historically overstated the public health risks associated with nuclear power. In reality, nuclear power has one of the lowest fatality rates per unit of energy produced compared to other major energy sources. According to data from Our World in Data, nuclear energy results in only 0.07 deaths per terawatt-hour, compared to 24.6 for coal and 18.4 for oil [1]. This demonstrates nuclear’s exceptional safety record.

Delays in the replacement of fossil fuels by nuclear power have caused an enormous death toll. America’s coal plants are still killing 60,000 Americans per year. Diesel and oil and gas kill legions as well.  Neglect of the nuclear transition is destroying our health. If we had proceeded at the same rate as France, we would have saved between 4 and 8 million lives in America.  

Renewable solar and wind May have value in the future, but they have been a terrible distraction.  Knowingly misrepresenting the relative health impacts of Energy systems is a profound moral failure.

Fear-Mongering: Claims about catastrophic nuclear accidents ignore the industry’s strong safety record. The Fukushima accident, often cited by opponents, resulted in no radiation-related deaths.

The fire at Chernobyl was the only significantly deadly nuclear accident. But it pales in comparison to other industrial accidents especially hydropower collapses. And if Chernobyl had been a coal-fired power plant producing the same amount of energy, it would have killed More than 100,000 people, but not by accident. That’s what coal plants are designed to do. Estimates from the worst nuclear accident ever put the death toll between 30 people and the UCS’ high end of 19,000 fatalities over all time.  So that means the worst collapse of a nuclear plant accident ever was still five times safer than an ordinary coal plant running correctly.

The nuclear industry has been driven to continuously improve costly safety measures, with modern Generation III/III+ designs incorporating additional safety features like digitized protection systems, reinforced containment structures, and passive safety systems[2].  

Costly adjustments to the old designs are great. What’s not great is that regulators have blocked attempts to make safer significantly safer and cheaper reactors. There is no been no effort to approve designs that streamline the reactor to eliminate the possibilities of failure. The regulators have been too close to the contractors skilled at building old designs, And the utilities that own old plants, and have protected them from competition.  In the last decade Congress has demonstrated bipartisan interest in addressing this problem, and they might finally have it right with the atomic energy Advance Act recently signed by President Biden.

Economics and Practicality

Cost and Construction Challenges: While the NRDC points to past cost overruns and delays, these issues are not inherent to nuclear technology. Standardized designs and improved regulatory processes can address these concerns. Small Modular Reactors (SMRs) and Generation IV designs promise improved economics and faster construction times[3].

There’s no way to tell what the cost of a product is until the factory that make it has  5 years experience.  But regulators haven’t allowed anyone to build a factory for nuclear modules yet. It’s coming!  Automated manufacturing makes things much higher quality and much cheaper. We are looking at more than 100x reduction in cost.  Alternative Energy systems , such as fossil fuels, don’t want to hear about nuclear energy built right.  Competing against antique 50-year-old designs is easy.

Baseload Capability: Nuclear provides reliable baseload power that complements intermittent renewables, a crucial factor the NRDC often downplays when discussing grid stability. Nuclear plants have high capacity factors, typically over 90%, ensuring consistent power output[4].

The Hidden Costs of California’s Energy Policies

A modern, job-rich economy requires robust manufacturing, which in turn demands affordable, reliable, and clean industrial-grade energy. Ironically, even the production of solar panels relies on energy sources beyond solar power itself.

California’s energy policies, influenced by organizations like the NRDC, have had unintended consequences:

  1. Industrial exodus: The state has failed to provide energy at prices competitive enough for industry, leading to a mass exodus of manufacturing jobs and factories to China.
  2. Rising costs: Middle-class Californians now face electricity bills up to three times higher than necessary.
  3. Misleading emissions reduction: While California claims to have reduced emissions, this is largely an illusion. By outsourcing manufacturing to China, California has merely shifted its emissions elsewhere. The pollution generated in producing goods for California’s consumption should still be counted against the state.
  4. Increased global pollution: Chinese manufacturing often produces more pollution per unit than equivalent production would in California, due to less stringent environmental regulations and potentially less efficient processes.

This situation highlights the importance of considering the full lifecycle and global impact of energy policies, rather than focusing solely on local metrics.

Environmental Impact

Climate Change Mitigation: Nuclear power is a proven, scalable, and low-carbon energy source. It’s essential for meeting ambitious climate goals, a fact increasingly recognized by climate scientists and policymakers. Nuclear energy produces minimal lifecycle greenhouse gas emissions, comparable to wind and solar[5].

Land Use Efficiency: Nuclear plants have a much smaller land footprint compared to wind and solar farms, an important consideration for large-scale energy production. This efficiency is crucial in densely populated areas or regions with limited available land[6].

Waste Management

Technological Solutions: The NRDC often overstates the challenges of nuclear waste management. Advanced reactor designs and recycling technologies can significantly reduce waste volumes and radioactivity. Generation IV reactors, including fast-breeder designs, can use existing nuclear waste as fuel, potentially solving long-term waste storage issues[7].

Lethal fossil fuel pollution is comparable to smoking cigarettes, except you can’t quit.  You need to wait for your neighbors and power plants to quit burning toxic fuels.  And the slower longer the nuclear transition takes the longer your lungs will be contaminated with particulates, SOX, NOX, and the radioactive material found in coal. After they’re manufactured, wind and solar don’t make toxic pollution, But they require backup from fossil fuel plants that do. So 100% renewable is actually half fossil fuel at the moment. renewable energy still has the challenge of finding a clean source of energy for the manufacturer and construction of the equipment and site preparation.

Long-Term Storage: Geological repositories offer safe, long-term storage solutions for nuclear waste, a fact supported by scientific consensus. However, the focus on large-scale, centralized repositories has been counterproductive. In reality, nuclear waste storage is a manageable task that can be implemented efficiently and cost-effectively.

Companies like Deep Isolation have demonstrated that waste can be safely stored in small-scale facilities, often at or near existing reactor sites. This approach eliminates the need for long-distance transportation and reduces costs significantly.The push for a single, national repository has led to political deadlock and unnecessary delays. This approach is vulnerable to local opposition and can be exploited by those seeking to obstruct nuclear energy development. Instead, a decentralized strategy with multiple smaller storage sites would be more practical and resilient.

The current system of contracting out waste management to a single entity on a cost-plus basis with flexible deadlines is deeply flawed. It creates perverse incentives to prolong the process and inflate costs. A more competitive approach with clear performance metrics would yield better results.

Ultimately, the challenges of nuclear waste management are more political and organizational than technological. With proper management and oversight, safe and cost-effective solutions are readily achievable. Countries like Finland have already made significant progress in implementing practical storage solutions, demonstrating that the obstacles are not insurmountable when there is political will and competent leadership [8].

Public Opinion and Policy

Public opinion on nuclear energy is shifting. According to recent reports, 52% of Americans now support nuclear power, with support rising across political affiliations. This trend indicates a significant shift in public perception towards nuclear energy as a viable clean energy solution.

In conclusion, many of the NRDC’s longstanding anti-nuclear arguments are based on outdated information or misconceptions. As we face the urgent challenge of climate change, a fact-based, technology-neutral approach to energy policy is crucial. Nuclear energy deserves fair consideration as a key part of a clean energy future, given its proven safety record, low carbon emissions, and potential for technological advancements.

Citations:
[1] https://www.oecd-nea.org/upload/docs/application/pdf/2019-12/nea6861-comparing-risks.pdf
[2] https://ourworldindata.org/nuclear-energy
[3] https://ourworldindata.org/safest-sources-of-energy
[4] https://world-nuclear.org/information-library/safety-and-security/safety-of-plants/safety-of-nuclear-power-reactors
[5] https://www.iaea.org/sites/default/files/publications/magazines/bulletin/bull16-1/161_202007277.pdf
[6] https://ourworldindata.org/grapher/nuclear-energy-generation
[7] https://www.gisreportsonline.com/r/nuclear-energy-safe/
[8] https://www.statista.com/statistics/1003242/nuclear-industry-safety-accident-rate-us/

Megan Covey