A visit to my local power plant

According to the Congressional Research Service (using NEI data), there were 62,683 metric tons (138,192,360 lbs) of commercial nuclear spent fuel accumulated in the United States as of the end of 2009.

  • Of that total, 48,818 metric tons – or about 78 percent – were in pools.
  • 13,856 metric tons – or about 22 percent – were stored in dry casks.
  • The total increases by 2,000 to 2,400 tons annually.
  • –Nuclear Regulatory Commission Spent Fuel Storage FAQ

    Before vacating the Cold Fusion Now HQ in beautiful Eureka, California and taking the show on the road, we squeezed in a visit to our local Pacific Gas & Electric Humboldt Bay Power Plant HBPP.  A geologist friend of mine Bob MacPherson and I had made an appointment to see the Plant Manager Paul Roller to tour the facility.

    Currently, providing 163 MW of power for Humboldt County, California  from 10 brand new Wärtsilä natural gas engines, the HBPP is dismantling Units 1 and 2 of the original heavy fuel oil reactors from the late 50s which had then moved to natural gas in the 60s. 

    In addition, the facility is decommissioning a Unit 3 nuclear reactor built next to the old natural gas units, and underground 66 feet below sea level, in 1963 and which had been shut-down since 1976. (See HBPP timeline here.)

    I wanted to see how the spent fuel assemblies were going to be stored on-site.  Though the Unit 3 nuclear reactor had been closed for the past 35 years, the radioactive fuel rods had been stored at the plant in a pool of water 40 feet below the surface.

    Spent fuel pools are steadily filling up in the US.

    Most spent fuel in the US is stored in pools of water, but a geologically active region like the Pacific coast of the United States is challenged by both earthquakes and tsunami presenting added difficulty to safely storing this high-level radioactive waste, and this facility sits on the Cascadia Subduction Zone and Little King Salmon faults along the Ring of Fire.

    In 1988, the HBPP was granted “site-specific permission” from the Nuclear Regulatory Commission to construct an Independent Spent Fuel Storage Installation (ISFSI), in what is called SAFSTOR. This meant that the plant operators could take the radioactive fuel assemblies out of the waterpools, and put them in more secure dry containers for interim storage.  (See the NRC page on HBPP here.)


    Mr. Roller is in charge of the decommissioning and first brought us up to his office to talk about the layout of the facility and how it changed over the decades.  He mapped out what the power plant would look like after decommissioning. Then he showed us the method of SAFSTOR that they were implementing using models.  It took about an hour as he was patient and careful about answering all of our questions.

    Today’s conventional nuclear power poses a high contamination risk from mining the radioactive fuel through it’s eventual form of weapons or waste, and I was upfront about not wanting to invest scarce resources in any more of these types of power plants.  However, I told him truthfully that I was glad to hear about their new design for storage of the fuel assemblies that could better prevent tragedy occurring on our coast, and I was grateful for his time and openness about the process.

    Models of the inner and outer casks for storage of radioactive spent fuel assemblies. The stainless-steel inner cask on the right holds the fuel assemblies. The carbon-steel outer cask is on the left.

    Mr. Roller described an inner cask made of 40 tons of stainless steel is big enough to take 80 used radioactive fuel assemblies – with the surrounding water. After setting down inside, the water is drained through a small hole near the bottom of the canister, and a 10,000 kilogram (22,000 pound) lid is robotically welded shut.

    Again through the small hole, the container is evacuated and filled with helium gas. Then, the small hole is welded shut. The inner container is then put into a carbon steel canister with 54 bolts sealing the top and similarly filled with helium.

    This is a model of the inner cask with its 10,000 kilogram lid welded shut.

    The steel vaults stand 12 feet high and are partially buried so the top of the cask is at 44-feet elevation. This height accounts for a 40-foot tsunami wave hitting the low-elevation coastline. The nearby natural gas reactors stand at 12-feet elevation.

    The casks are designed to maintain integrity and withstand 1.3 horizontal g-forces and 1.6 vertical g-forces. According to Mr. Roller, “At Fukushima, the vertical g’s recorded were 0.52. The only thing built to withstand these forces in Humboldt County are these storage facilities.”

    After the Fukushima disaster, the HBPP issued a press release that was published in our local weekly, the Arcata Eye [1] outlining the strength of the facility:

    “The Independent Spent Fuel Storage Installation (ISFSI) project was completed in 2008 and the facilities have been designed to withstand an 8.8 magnitude Cascadia subduction zone earth quake and a tsunami surge between 28 to 43 feet above sea level. The underground vault affords greater seismic stability, greater protection from tsunamis, reduced maintenance, enhanced aesthetics, and uses conductive cooling, making it completely passive, meaning that the facility is able to perform its job without requiring any actions to be taken by plant workers.”

    We took a quick walk around the property. This is a view of the hill where the five vaults, which can hold a total 390 fuel assemblies, are located partially underground. Work is ongoing so it’s currently surrounded by those cement blocks and I took the photo through a chain link fence. Interestingly, being the highest elevation in the area, the nearby coastal town of King Salmon goes to this same hill during tsunami alerts.

    Storage containers are being partially buried underground on the hill.

    A rendering of the final landscaping shows the storage casks partially emerging from the top of the hill in the upper left. Just to the left you can see the edge of King Salmon.

    HBPP
    The little spot on the top of the hill shows the top of the storage casks.

    This site is only interim. There is no clear national policy in the US on long-term storage or recycling of toxic nuclear wastes. The 104 licensed commercial nuclear plants operating in the US are generally responsible for storing their own used fuel assemblies.

    Because of another appointment, Mr. Roller wasn’t able to give us the full plant tour, but he showed us a few labs staffed by engineers who were also local residents and concerned about the safety of Humboldt Bay. I got the impression there was an excellent team running the facility.

    Yes, that was some cold fusion materials in the Plant Managers office. Mr. Roller was very interested to learn of the recent developments in clean energy reactors and excited to receive some recent issues of Infinite-Energy magazine, as well as a copy of Nuclear Transmutation: The Reality of Cold Fusion by Dr. Tadahiko Mizuno.[4] Genuinely interested in hearing about cold fusion, Mr. Roller was bewildered at why, if this was so promising for clean energy, weren’t more people working on this, and indicated that he would investigate himself. I gave him a couple of complimentary Cold Fusion Now stickers to enjoy after his surely imminent conversion.

    The Humboldt Bay Power Power plant generates 163 MW of electrical power using 10 natural gas reactors that can be dialed down below baseline to accommodate new power sources. I’ll be following up with Mr. Roller soon to see if he is ready to dial down a few Wärtsilä’s and purchase a some ultra-clean E-Cat modules as replacements.

    How about making an appointment with your local power plant for a tour? Be friendly, and you’ll learn how your local power is generated. Have a conversation and communicate with those who maintain and operate your local power station and see the level of commitment the staff has.

    Bring some information about LENR with you, and tell them where they can order an ultra-clean replacement for those rods.

    But yo yo yo – the left coast here is Ruby’s sales territory!

    Related links

    1. Arcata Eye PG&E Statement On The Humboldt Bay Power Plant – March 21, 2011
    2. Nuclear Energy Institute, Key Issues from an industry-funded association.
    3. Nuclear Regulatory Commission HBPP public webpage here.
    4. Introduction to Nuclear Transmutation: The Reality of Cold Fusion available for free download. Also, a book review by Jed Rothwell from Infinite-Energy.
    5. Pacific Gas & Electric’s Humboldt Bay Power Plant public webpage here.
    6. Times-Standard Officials say Humboldt Bay Power Plant fears unwarranted March 26, 2011.
    7. Tokyo Electric Power Company presented Integrity Inspection of Dry Storage Casks and Spent Fuels at Fukushima Daichi Nuclear Power Station 6-1_powerpoint November 16, 2010 at ISSF 2010.

    Related articles

    Message from Amateur-lenr Toshiro Sengaku March 13, 2011

    Dangers of nuclear fission power plants exposed by Ruby Carat March 16, 2011

    M. King Hubbert on Nuclear Energy by Ruby Carat March 22, 2011

    No fear of radiation from cold fusion by Ruby Carat April 3, 2011

    Nuclear physicist on cold fusion by Eli Elliott June 8, 2011

    FINALLY…. Like audio? I found this 20 second Youtube of the alarm going off at the Humboldt Plant on December 17, 2010 though I don’t know why:

    I Want To Believe

    A Special Report Renewable Energy Resources and Climate Change Mitigation SRREN by the Working Group III of the Intergovernmental Panel on Climate Change IPCC “presents an assessment of the literature on the scientific, technological, environmental, economic and social aspects of the contribution of six renewable energy resources to the mitigation of climate change. It concentrates “on the role that the deployment of RE technologies can play within such a portfolio of mitigation options.”

    The assessment produces a best case scenario projection of 77% of of global primary energy from renewable sources by 2050. The Summary for Policymakers presented the numbers of current Renewable Energy RE sources. A graphic shows the total global primary energy supply of 492 Exajoules for 2008 and its distribution of energy by source.

    image41_global_primary_energy_distribution
    Figure SPM.2: Global Primary Energy Distribution 2008

    Biomass contributes the largest share of the RE contribution, but 60% of that comes from “traditional” biomass.
    “Traditional” biomass generally means the burning of wood is the primary source of energy for billions of people and contributes to deforestation, loss of wildlife habitat, and poor air quality.

    On a global basis, it is estimated that RE accounted for 12.9% of the total 492 Exajoules (EJ) [5] of primary energy supply in 2008 (Box SPM.2) (Figure SPM.2).

    The largest RE contributor was biomass (10.2%), with the majority (roughly 60%) being traditional biomass used in cooking and heating applications in developing countries but with rapidly increasing use of modern biomass as well.[6]

    Hydropower represented 2.3%, whereas other RE sources accounted for 0.4%. [1.1.5]

    In 2008, RE contributed approximately 19% of global electricity supply (16% hydropower, 3% other RE) and biofuels contributed 2% of global road transport fuel supply.

    Traditional biomass (17%), modern biomass (8%), solar thermal and geothermal energy (2%) together fuelled 27% of the total global demand for heat. — SRREN

    Assuming bio-fuel crops like corn, sugar, and palms are within the other portion of the biomass contribution to energy, then doubling the contribution of this renewable source could generate possibly 8% of total primary energy demand.

    Palm Oil plantation removes virgin forest.
    Palm Oil plantation removes virgin forest in Sarawak. Photo: Mattias Klum.
    However, doubling the amount of sugar and palm plantations will take virgin forest, home to the last great wild mammals, themselves near extinction, and clear-cut habitat to plant monoculture crops. Cropland re-directed to supply bio-fuels can take farmland from food, causing shortages and higher prices. Recently advanced chemically synthesized bio-fuels like algae require lots of water for growing.

    Hydropower takes second largest share of RE contribution to primary energy supply.
    Hydroelectric power generates 2% of the global primary energy. Suppose that doubling the number of dams globally doubled the hydropower contribution to the total primary energy supply to a 4% share.  What effects would this have?

    Biggest dam in the world in Brazil.
    Brazil gets 85% of its electricity from hydropower, and shares the largest hydroelectric dam in the world with Paraguay.

    A five-dam project in Chile recently approved will change the Patagonian wilderness landscape by carving roads through wilderness to construct power lines, “drown 14,000 acres, require carving clear-cuts through forests, and eliminate white-water rapids and waterfalls that attract ecotourism.” Here in Northern California, efforts continue to succeed to un-dam the Klamath River, which has decimated salmon populations, though the recent victory by Native peoples, environmentalists, fisherman, and miners has yet to see a timetable for actual de-construction.

    A greater percent of RE contributed to electricity alone, with 16% generated by hydropower.

    Direct solar energy generated 0.1% of total global primary supply in 2008.
    Doubling the contribution of solar energy would produce a 0.2% share, still a miniscule amount of the total.  “The technical potential for solar energy is the highest among the resources,” the report stated. Then,

    “Factors such as sustainability concerns [9.3], public acceptance [9.5], system integration and infrastructure constraints [8.2], or economic factors [10.3] may also limit deployment of renewable energy technologies.”

    All of these choices viable for small scale use. But these traditional RE technologies will need to deeply expand into a finite and sensitive environment disrupting ecosystems and economies with negative effects if they are to provide a primary energy supply.

    Renewable energy continues to grow with relatively small gains in total primary energy supply.
    Interestingly, nearly half of the new electricity capacity generated from 2008 to 2009 was generated by renewable energies, but it hasn’t made much of a difference in an overall cleaner energy consumption.  Primary energy supply is dominated by fossil fuels, and peak oil has changed production and consumption of fossil fuels at all levels.

    Renewable energy accounts for just under 13% primary energy supply.

    Although, according to the SRREN report,  RE capacity continued to grow rapidly in 2009 compared to the cumulative installed capacity from the previous year distributed as:

    wind power (32% increase, 38 Gigawatts (GW) added),
    hydropower (3%, 31 GW added),
    grid-connected photovoltaics (53%, 7.5 GW added),
    geothermal power (4%, 0.4 GW added), and
    solar hot water/heating (21%, 31 GWth added).

    Biofuels accounted for 2% of global road transport fuel demand in 2008 and nearly 3% in 2009.

    The annual production of ethanol increased to 1.6 EJ (76 billion litres) by the end of 2009 and biodiesel to 0.6 EJ (17 billion litres) [1.1.5, 2.4, 3.4, 4.4, 5.4, 7.4].

    Of the approximate 300 GW of new electricity generating capacity added globally over the two year period from 2008 to 2009, 140 GW came from RE additions.

    Bio-fuels increased 50% in one year, but producing this bio-fuel has taken farmland away from food possibly contributing to higher food prices.  Yet it’s still only a mere 3% of global transport fuels.

    The report states that wind energy, which in 2008 provided 0.2% of total global primary energy, increased capacity globally by 38 Gigawatts, a 32% gain in 2009. Solar power increased by 53%. But when the share is still less than 1% of total power generated, the gains are not so effective overall.

    The SRREN summarizes the various scenarios for RE growth.

    “A significant increase in the deployment of RE by 2030, 2050 and beyond is indicated in the majority of the 164 scenarios reviewed in this Special Report[11].

    In 2008, total RE production was roughly 64 EJ/yr (12.9% of total primary energy supply) with more than 30 EJ/yr of this being traditional biomass.

    More than 50% of the scenarios project levels of RE deployment in 2050 of more than 173 EJ/yr reaching up to over 400 EJ/yr in some cases (Figure SPM.9).

    Given that traditional biomass use decreases in most scenarios, a corresponding increase in the production level of RE (excluding traditional biomass) anywhere from roughly three-fold to more than ten-fold is projected.  The global primary energy supply share of RE differs substantially among the scenarios.

    More than half of the scenarios show a contribution from RE in excess of a 17% share of primary energy supply in 2030 rising to more than 27% in 2050. The scenarios with the highest RE shares reach approximately 43% in 2030 and 77% in 2050. [10.2, 10.3]”

    We will have to double the power generated by a mix of RE sources many times over to reach the highest projection of 77% of our energy supply from RE, or, drastically reduce what we are currently using.  And 27% of primary energy supply coming from RE is too little too late.  Scaling up the supply of RE technologies such as biomass, hydro and solar have broad impacts that will inhibit this ability to grow.

    Nevertheless, assuming there is no “technical barrier”, then it’s possible to continue to make these gains. Given these gains though, the ease of integrating renewable energy resources into existing systems of fossil fuels “varies” and is generally site specific “depending on region, characteristics specific to the sector and the technology.”

    “As infrastructure and energy systems develop, in spite of the complexities, there are few, if any, fundamental technological limits to integrating a portfolio of RE technologies to meet a majority share of total energy demand in locations where suitable RE resources exist or can be supplied. However, the actual rate of integration and the resulting shares of RE will be influenced by factors, such as costs, policies, environmental issues and social aspects. [8.2, 8.3, 9.3, 9.4, 10.2, 10.5]“, the report states.

    “Costs associated with RE are expected to go down” according to the report.  But it appears that costs given do not take into account several factors.

    “The levelized cost of energy represents the cost of an energy generating system over its lifetime; it is calculated as the per-unit price at which energy must be generated from a specific source over its lifetime to break even. It usually includes all private costs that accrue upstream in the value chain, but does not include the downstream cost of delivery to the final customer; the cost of integration; or external environmental or other costs. Subsidies and tax credits are also not included.”

    One of those costs is associated with transporting energy throughout a grid as in the transmission of centrally-generated electrical energy.

    TREC-Map-en
    European "Smart" Grids

    New RE sources require investment in next-generation grid.
    Our current infrastructure of power delivery was built by a previous era for a specific technology of hydrocarbons burned at a central location in great quantity to generate electricity that is then carried over long distances to power cities, suburbs, and industrial parks.  Neglect, coupled with the patchwork nature of joining technologies together from previous centuries, have left the US electrical grid failing in its attempt to provide over-capacity production.

    In “Northwest power surplus may halt wind energy“, the Associated Press’ Tim Fought reports that surging rivers from record rain in the Northwest US have hydroelectric dams at maximum production of electricity that they effectively can’t stop without flooding regions upstream, and apparently cannot sell.

    The Bonneville Power Administration has announced “its intentions to curtail wind power until the grid has more capacity, in a move likely to cost the industry millions of dollars.” They have “run out of capability to sell the surplus electricity, store the water or shut down gas, oil, and nuclear plants – leaving wind farms the unfortunate victims.”

    Growth of wind power
    Growth of wind power in the US Northwest is exponential.

    Clash of technologies from previous eras impedes deployment of new RE sources.
    Many of the wind farms in the Northwest US were built using programs that provide tax credits – only if the operation is producing electricity. Not operating over a three-month period could cost wind farms “as much as $50 million.” If forced, these utilities that use wind farm energy will litigate over “antitrust and market manipulation laws”, the AP report continued. “The action reflects difficulty in integrating the young wind industry into a power grid that dates to the Northwest dam-building campaign that began in the Depression and kicked into high gear after World War II.”

    This decision follows a Northwest Power and Conservation Council study that estimates wind power could more than double by 2025, according to another AP report “Northwest wind power could double, cause grid problems“. The council is charged by the President with “developing long-term power plans that balance the region’s energy and environmental needs”.

    Wind power in the Pacific Northwest can currently “generate a peak output of about 6,000 Megawatts, or the equivalent of 15 good-size natural gas-fired power plants …… most added in the past five years” and could add “another 5000 to 10,000 Megawatts of wind capacity by 2025.”

    I want to believe that renewable energy can be a primary energy source, but rapidly deteriorating world affairs have not yet swayed the biggest consumers to forsake hydrocarbons and adopt renewable energy. Nor has it stopped the developing hardware infrastructure under construction elsewhere.  Fossil fuels have a century of history and built a colossal reality of cement and steel.  The numbers for RE contributions are low and successive doublings of output from RE seems unlikely.

    There is a viable alternative to traditional renewable energy.
    Breakthroughs in low-energy nuclear reaction LENR science have achieved a major advance in power generation technology. Clean, energy-dense commercial devices based on LENR are set to enter the market, perhaps within the year.

    LENR energy reactors create power using small amounts of hydrogen and metals like nickel, palladium, and others, both plentiful on Earth to create large amounts of energy, much more than burning hydrocarbons.  One of the main components in H2O or water, there is enough hydrogen in the oceans to provide global energy for tens of millions of years. Metals are also abundant over the planet. Nickel is the fifth most common element on Earth, including the Earth’s core of iron and nickel.

    Andrea Rossi and Energy Catalyzer
    New LENR technology can be adopted quickly throughout the planet, empowering local communities to better control their own energy source.

    This ultra-clean technology could replace radioactive nuclear fission assemblies one-for-one generating power at a centralized location and delivering at a distance, but a new 1 MW LENR reactor called the Energy Catalyzeris relatively small, being only 3 x 3 x 2 meters”  making the big attraction to LENR reactors the ability to be off-grid, allowing both communities and individuals an independent, sustainable lifestyle with greater local control over their own energy supply.

    Currently, there is a non-0% contribution from LENR reactors to global primary energy supply, for somewhere in the world, there are purportedly 97 Energy Catalyzers steaming forth, and there are many more labs around the globe testing LENR reactors of their own.

    In the space of twenty years, a digital revolution occurred across the planet.  We believe, whenever the first commercial devices are available, that the energy revolution has the potential to transform our world with clean energy in less than half that time, and most certainly well before 2050.

    Cold Fusion Now!

    Supporting Links:

    IPCC publishes Special Report on Renewable Energy Sources and Climate Change Mitigation Special Report on Renewable Energy Sources and Climate Change Mitigation’ (SRREN)

    National Geographic blog When is objectivity not enough?

    Industrial Fuel and Power blog Brazil in hot water

    Between the Poles European Smart Grids Will Require 500 Billion Euro

    Bonneville Power Administration Wind Power

    Pure Energy Systems News Ampenergo Amps Up Rossi’s Energy Catalyzer in America

    No fear of radiation from cold fusion

    [latexpage]
    This article organizes information about radiation in three sections.

    1 Difference between radioactive materials and radiation.
    2 Types of radiation emitted by nuclear processes.
    3 No dangerous radiation in cold fusion.

    1 Difference between radioactive materials and radiation.
    Today’s nuclear fission reactors are more than a poor choice for a primary energy source because of the growing risk of contamination by radioactive materials, which can emit harmful radiation. Humans are not ready to take the responsibility for disaster that could last for geological time, when the amount, and type, of radioactive fuel used in these reactors has the potential to create dead zones for hundreds, if not tens-of-thousands of years.

    Why go down this path when there exists an alternative ultra-clean nuclear power? Low-energy nuclear reactions LENR, or cold fusion, is nuclear power from hydrogen, the most common element in the universe, with oceans of it here on Earth. Cold fusion does not use radioactive fuel. Cold fusion does not create harmful radioactive waste. The nuclear reaction occurs inside a tiny piece of metal, like palladium or nickel, in a small device that sits on your tabletop.

    Radiation is all around us, everyday, and some radiation of certain kinds can be good and healthy, while other radiation, or too much of the good kind, is bad. For instance, too much solar radiation can cause burns that lead to skin cancers later in life, while too little causes a vitamin D deficiency.

    And all radiation is not alike. Of the sunlight reaching Earth’s surface, the ultra-violet portion can burn the skin while the radio-wave portion appears to have left life at the surface unaffected. Both sunlight and X-rays are forms of radiation that are created by nuclear and atomic reactions. But some materials spontaneously and naturally emit radiation, and they are called radioactive.  Here is a nice chart about the radiation around us and dosage.

    Radioactive materials contain particles of atomic elements that are unstable, and decay, emitting electromagnetic radiation, or photons, as well as other particles, which may themselves also be radioactive.

    Radiation describes the particles and photons emitted by a radioactive material.

    Hydrogen and its Isotopes
    Hydrogen and its Isotopes
    An example of a radioactive material and the radiation emitted from it is given by the simplest element hydrogen. The element hydrogen H is composed of one proton and one electron. Hydrogen has two isotopes, deuterium $^{2}H$ and tritium $^{3}H$. Isotopes are atoms that have extra neutrons in their nucleus. Deuterium has have one extra neutron, making a total of two nucleons, while tritium has two extra neutrons, making a total of three nucleons.

    While hydrogen $^{1}H$ and deuterium $^{2}H$ both are found naturally on Earth in abundance, tritium is not, for tritium is unstable, and decays with a half-life of about 12 years, meaning there is only half as much material left as there was 12 years earlier. This decay characterizes radioactivity.

    Tritium is an example of a radioactive particle. During radioactive decay for tritium, the nucleus of the tritium atom, called a triton, which has one proton and two neutrons, turns into a Helium-3 atom $^{3}He$, an electron, and another tiny energetic particle called a neutrino, all releasing 18.6 keV of energy.[1]

    A triton has one proton and two neutrons. The nucleus of the $^{3}He$ has two protons and one neutron. During radioactive decay of the tritium atom, one of the original neutrons in the triton turned into a proton, along with creating an electron and a neutrino in a process called Beta decay, written β−.

    Beta decay
    Beta decay
    Beta decay describes when an electron, called a beta particle, and a neutrino fly out of a neutron, leaving a proton in its place. The radioactive material is the tritium, and the radiation is the electron and neutrino. Many elements that have an abundance of neutrons are radioactive this way, and sometimes decay splitting into two smaller atoms, naturally fissioning.

    Electrons are usually thought of as carrying electrical current to power our appliances. But a large charge of current can be deadly. A beta particle (electron) will fly out with a varying kinetic energy averaging 5.7 keV. [1] This particle is incapable of penetrating the skin. External sources of beta decay from tritium will not harm the body.

    But if a radioactive particle is inhaled or ingested, then beta-decay can cause damage to the cells of the body. The radioactive particle will eventually decay and emit a Beta particle that can then collide with internal tissue, perhaps ionizing the atoms in cells. If the Beta particle hits a DNA molecule, lasting genetic consequences can ensue.

    Exit sign is powered by tritium.
    Tritium and beta decay is used to light red Exit signs and glow-in-the-dark watch hands.
    As long as you don’t breathe it in, or eat it, tritium decay poses little threat to humans and tritium is used in devices such as betalights, which use the electrons emitted by tritium just like electrons that provide electrical current, to provide power to stand-alone illuminated night signs, as well as provide illumination for watches.

    There is little naturally occurring tritium here on Earth because most of it has decayed away. Tritium is manufactured for commercial use and for use in hot fusion reactors selling for \$30,000US a gram.[1]

    Tritium is not used in cold fusion research. Cold fusion cells use hydrogen $^{1}H$ and deuterium $^{2}H$, both cheap, plentiful, and evenly distributed around the earth in sea-water. No radioactive fuel is used in the cold fusion process.

    2 Types of radiation emitted by nuclear processes.
    In the conventional nuclear reactions of fission and hot fusion, the main types of radiation seen are particles like alpha particles, beta particles, and electromagnetic radiation such as gamma rays or x-rays. The three main types of radiation are named in the order that they were discovered and after the first three letters of the Greek alphabet. Conventional nuclear fission which relies on a chain-reaction, also produces neutrons.

    Alpha particles are helium nuclei. That is to say that alpha particles are the nucleus of helium atoms, consisting of two protons and two neutrons $^{4}He$. Alpha particles are emitted by the natural radioactivity of the heavier elements and their isotopes. Alpha particles are larger clusters of nucleons and generally have low energy that a piece of paper will shield against alpha particles.

    Beta particles β−, are electrons that are emitted during beta decay. Beta-emitting isotopes can have a half-life as long as $10^{16}$ years or as short as milliseconds. Beta particles can also be positively- charged positrons denoted β+. Beta particles can be stopped by ”a few millimeters of aluminum”.[2]

    Gamma radiation is made up of light, or high-energy photons, that have an extremely small wavelength. They are similar to x-rays, with gamma rays carrying more energy. ”X-rays result when electrons return to a lower energy by emitting electromagnetic radiation and gamma radiation result when particles in the nucleus return to a lower energy.” [1,153]

    Electromagnetic spectrum is composed of radiation.
    The light we see is radiation; radio waves are radiation; the whole electromagnetic spectrum is radiation -- of photons.

    Both gamma radiation and x-rays will penetrate the body easily and they can be harmful to living tissue.  Only shielding made of lead will stop gamma radiation.

    Some nuclear reactions can also create neutrons. Neutrons can be dangerous as they can penetrate the body, ionizing cells and creating genetic damage.

    3 No dangerous radiation in cold fusion.
    While no source of energy is 100% clean, cold fusion ranks cleaner over oil, gas, coal, today’s nuclear fission, hot fusion, solar and wind. Solar and wind are renewable sources, but the materials and manufacturing of solar panels and wind turbines given their energy density don’t compare to cold fusion.

    First of all, LENR is a process of that does not involve today’s nuclear fission power designs, so there is no chain-reaction. A cold fusion cell will not ”runaway” like critical masses and fission bombs. Cold fusion energy devices will turn on and off when you want them to.

    Edmund StormsEdmund Storms, a nuclear scientist who has researched cold fusion for over two decades wrote a survey of the field called The Science of Low Energy Nuclear Reaction. Published in 2007, it is a technical summary of results for a scientific reader. In it, there are clear statements about the lack of radiation from cold fusion cells.

    This table from Storms’ Science provides the general experimental results regarding radiation from LENR experiments.

    Table 14 Expected but missing behavior. [1,176]
    1. Gamma emission is rare.
    2. Neutron emission is rare.
    3. Alpha emission rate is not consistent with accumulated helium.
    4. X-rays expected when a significant alpha flux is absorbed are missing.
    5. The second nuclear product resulting from transformation is frequently missing.

    A listing of the reported studies showing radiation detected in LENR experiments can be found in Table 11 of Storms’ Science[1]. Each entry is listed with radiation type and strength, along with the kind of cell that produced it. He writes:

    Fortunately none of this radiation is a health hazard nor is it easy to detect outside of the apparatus, which makes the process sate to study and safe as an eventual source of energy.” [1,105]

    Quite simply, the type and quantity of radiation seen in today’s nuclear power does not show up LENR.

    Cold fusion cells do not behave at all like conventional theories of nuclear reactions dictate. The fact that dangerous levels are missing from this reaction was in part responsible for many scientists dismissal of this as a nuclear effect. To quote Nobel laureate Julian Schwinger ”The circumstances of cold fusion are not those of hot fusion.”

    Infinite Energy magazine published an FAQ containing this question: Why doesn’t cold fusion produce dangerous ionizing radiation and neutrons?

    Nobody knows for certain why the primary signature of cold fusion is excess heat, not deadly radiation. Nevertheless, many LENR theorists have put forth very intriguing proposals for the mechanism of these reactions. There are, in fact, many dozens of competing theories smaller number of which are very well fleshed out. The exact nature of the LENR reactions is one of the many unsolved scientific mysteries surrounding them. Some scientists think that because the effect does not produce intense radiation, it cannot be a nuclear process. Others say the energy is produced, but then somehow absorbed by the metal lattice either as high frequency vibrations, or through coherent processes in which many delocalized vibrations are involved.” [7]

    LENR devices do not have any appreciable radiation from alpha particles, beta particles, high- energy neutrons, and there is no danger of a runaway chain reaction. What about the x-rays and gamma radiation, those high-energy photons that could pose a risk to biological life? Storms writes:

    ”Most X-radiation will be absorbed by the apparatus, thereby making its detection unlikely.”[1,153]

    Andrea Rossi’s LENR-powered hot-water boiler, the Energy Catalyzer ECat, is expected to be the first commercial application of this new energy science and uses micro-sized nickel particles infused with hydrogen gas to initiate power production. The ECat is currently being tested and evaluated at the University of Bologna in Bologna, Italy. This device will be commercially implemented in a factory in Athens, Greece, where it will undergo further tests on its safety in an industrial setting.[3]

    Andrea Rossi's E-Cat
    Andrea Rossi's E-Cat prototype. Photo: Daniele Passerini

    For wide-spread use of cold fusion technology, these devices must be safe for the public. This was noted by Jed Rothwell in his Cold Fusion and the Future.

    Some people fear there may be a hidden, long term threat to the health of people who work in close proximity to cold fusion reactors. So far, nobody has detected dangerous levels of x-rays or other emissions from a cold fusion cell. The autoradiographs prove that cold fusion does produce low levels of radioactivity, but the levels are so low that scientists have difficulty detecting them with sensitive instruments. Compared to the radiation from televisions and the natural background of radiation from space, radon and other sources, cold fusion radiation seems likely to remain so low as to be nearly undetectable. Still, cold fusion might conceivably produce some unknown form of radiation or some other deleterious effect. We will have to make sure this is not the case, by exposing rats and other laboratory animals to unshielded cold fusion reactors, and by carefully monitoring the health of the first group of people who work with the reactors every day.“[4]

    On Rossi’s device, ”about 50 kilograms of lead shielding, about 2 centimeters thick, protects against any gamma radiation.”[6] During an open Q&A after the NyTeknik interview, the question of gamma radiation from the ECat was posed to inventor Rossi by a member of the public, Goran Ericsson. ”If no gammas are observed, what is the reason to believe nuclear reactions are involved?”

    Andrea Rossi: We observed gammas under the 300 keV range. We did not find, so far, the couple at 180 degrees at 511 keV, and the research we are continuing with the University of Bologna is aimed also to better probe the specter of the gamma produced. It will take some month of research, after which we will able to better understand the theory at the root of the thermal effect.

    We have to calculate also the recoil energy, integrated with the kinetic energy we produce. We want to correlate the thermal effect with the gamma specter we will define. We also are continuing to analyze the atomic and isotopical transmutation, to correlate it to the gamma and to the thermal effect. I want to know if Cu-59, 60, 61, 62 decay by electron capture, instead of beta plus emission; if so a very interesting consideration can be derived.

    This a very difficult research we are investing on (my money). And, at last, if we will not find high energy gamma and 511 keV couples, well, we will have to think about a new rule. It would not be the first time: they have digged a big hole, there in Geneva, to understand things, and they are finding things by the classic physics could not happen, particle that by the classic physics could not exist. But those things, evidently, are not good Physics students, so they insist to exist. Just read the ”Nuclear Models” of Greiner Maruhn to get a taste of this.“[5]

    Speculating on what could happen if Rossi’s device broke, Hank Mills of Pure Energy Systems news wrote:

    There could potentially be a very brief spike of radioactivity for a moment if the vessel cracked or failed, but the venting of the hydrogen gas would immediately end the nuclear reactions taking place and any production of radioactivity.” [4]

    An additional batch of questions from Ny Teknik’s readers was answered by Mr. Rossi, some of which addressed the question of radiation from beta decay and radioactivity.

    Peter Ekstrm: In the fusion of a proton with Ni-58 a substantial activity of Cu-59 is formed. Cu-59 decays with a half-life of 82 seconds by beta+ decay. In the Focardi and Rossi article it is stated that: ”No radioactivity has been found also in the Nickel residual from the process”. Considering the very high activity of Cu-59 that is produced, it is surprising that no activity is detected. Even ten half-lives after the end of a run the activity should be of the order of 1013 Bq, which is not only easily measurable (with a detector far away from the source) but also deadly for everybody present in the room! (Could you explain?)

    Rossi: No radioactivity has been found in the residual metals, it is true, but the day after the stop of the operation. In any case you are right, if 59-Cu is formed from 58-Ni we should have the couples of 511 keV at 180 and we never found them, while we found keV in the range of 100-300 keV. I think no 59Cu is produced, I suppose only stable Cu is produced from the transmutation of the isotopes 62Ni and 64Ni. I desume this from what we find after the operations. Your observation is correct.

    Cold fusion technology is just beginning to emerge from a science into a technology. Much is still unknown about the science, and further testing will be taken over the next several years to ensure the safety of this technology. To date, cold fusion devices have not produced any appreciable dangerous radiation like that of today’s nuclear fission reactors. Scientists who have worked in this field for the past two decades are healthy and safe.

    More importantly, LENR reactions produce energy that is cleaner than any source of power used today. Whether it’s hydrocarbons like oil, gas, or coal, or renewable technologies such a solar and wind, the power of cold fusion lies in its incredible energy density, a nuclear power from hydrogen and greener than today’s nuclear fission power plants.

    References:

    1 The Science of Low Energy Nuclear Reaction by Edmund Storms World Scientific 2007

    2 http://en.wikipedia.org/wiki/Beta_particle

    3 http://en.wikipedia.org/wiki/Tritium

    4 Jed Rothwell: Cold Fusion and the Future Part 1 – Revolutionary Technology http://www. infinite-energy.com/iemagazine/issue12/coldfusion5.html

    5 Welcome Worry-Free Nuclear Power: Rossi’s Energy Catalyzer by Hank Mills Pure Energy Systems news

    6  36 more ques- tions asked by the readers of NyTeknik http://www.nyteknik.se/nyheter/energi_miljo/energi/article3126617.ece

    7  Why doesn’t cold fusion produce dangerous ionizing radiation and neutrons? Infinite- energy FAQ http://www.infinite-energy.com/resources/faq. html#Q21

    8 UC Davis Training in Radiation http://www.research.ucdavis.edu/home.cfm?id=mrt,13,1137,1139

    M. King Hubbert on nuclear energy

    Nuclear Energy and the Fossil Fuels was written by the eminent geophysicist Dr. M. King Hubbert in 1956 and contains the seeds of his Peak Oil theory. Notable as well is his obvious interest in nuclear power as a source of energy for the future.

    This was earlier in his career, and he had only recently learned about nuclear energy – many of the details were still top secret. He teased out information, did his own computations, and became excited about nuclear power for its super-high energy density. Here’s a graphic that ends the paper:

    In 1955, he had become a member of the Nuclear Regulatory Commission Advisory Committee on Land Disposal of Nuclear Wastes. In Session V of the Oral History Transcript, Mr. Hubbert speaks about his time with the then-named Atomic Energy Commission.

    We probably ought to bring this session to a close fairly soon. There are just a few more questions I wanted to ask you about work in Shell and concurrent research. It was 1953 that you became on the NRC Advisory Committee on Land Disposal of Nuclear Wastes.
    Hubbert:
    In 1955, I think it was.
    Doel:
    We can check. Around that time. The Advisory Committee to the Atomic Energy Commission.
    Hubbert:
    I think it was ’55.
    Doel:
    We’ll check on that.
    Hubbert:
    They just broke up that summer, this Conference on Peaceful Uses of Atomic Energy. That was in Vienna. That was the point when they began to open up. Everything was under tight wraps prior to that time. That was the first time they began to take it out of Top Secret.
    Doel:
    Had you been aware of many of those issues before they became declassified?
    Hubbert:
    Well, I was an outsider, and not only that, but I’d studied very little nuclear physics. I had studied radioactivity and related things in the physics department at Chicago. There was an elementary course in this. I was familiar with that, but I just had very little knowledge, other than that I knew the geological occurrences roughly of uranium and thorium, and something about the radioactive disintegration theories and the amount of heat energy that were released. But I knew that for example, in granitic rocks that uranium was only so many parts per million, 12 or so, as I recall, and thorium was a little different. I forget now what, just what it was. But these things were very rare elements. For that reason I was very skeptical that uranium could ever amount to anything as a source of power. Atom bombs, yes, they had enough atom bombs to blow us off the earth. But it was not very promising for power. It wasn’t until I was on this committee that I began to get information that enabled me to determine that that scarcity or rarity of uranium was offset by the enormous amount of energy you could gain. A little bit of uranium still had a hell of a lot of energy.
    Doel:
    What was your role on the committee?
    Hubbert:
    Just a member.
    Doel:
    Do you remember any particular discussions of issues?
    Hubbert:
    Well, the committee was set up — I don’t remember quite the details. There was a tie-up with Johns Hopkins Department of Sanitary Engineering. They had an extending contractual relation with the AEC. That was under Abel Wolman who was the chairman of the department. I don’t remember the date of our first meeting but I think it was the spring, or maybe early summer, of I think 1955. I do know that we met in one of those little temporary buildings that were over on the Mall. And we were just about everything but fingerprinted to get in the place. I had a badge on me — we all wore badges — that said that we had to be accompanied by somebody. I got arrested for trying to go to the gents room without an escort.
    Doel:
    Is that so?
    Hubbert:
    The whole thing was silly. So here we were, gathered in this room, and there were about a dozen of us outsiders. All the rest were the AEC people and Abel Wolman’s people, kind of giving us an orientation as to the nature of the problems. Well, they were reeling off facts and figures — they had their chemist from Oak Ridge and various other technical people from here, there and the other place. They were reeling off these things that were familiar to them but totally unfamiliar to people like me. So you just got this was this isotope, that isotope and the other one, and so on, and these wastes. They had a tape machine running taping everything that everybody said, in case they inadvertently let out a secret you could erase. This thing went on from morning, 9 o’clock or so in the morning, a break for lunch, and into the afternoon. It finally came to a slowdown. He said, “All right now, what we want you to do is tell us what to do with this stuff.”
    Doel:
    You had no preparations before that?
    Hubbert:
    No. I don’t think we had. I think that was the first meeting. I said to the chairman, “I’ve sat here all morning and up until now and I’ve been trying to get an answer to a couple of questions that it seems to me we need to know. Maybe you’ve told us but if so I missed it. Approximately how much of this stuff per year are you producing? And approximately what are its physical properties?” He kind of looked around. Oh, that was classified and they couldn’t tell us. The whole thing was ridiculous. Here was the very information we had to have, and that was secret. Well, I was sufficiently annoyed by that — I don’t remember whether it was just after or before, but we had had a meeting with the Hopkins people. Out of this we had got the information that on the average one fission produced so and so much heat on the average, and that was one of the very few basic facts that we had. Well, as I say, I was just especially annoyed over that performance. The next big meeting we had was a two day conference at Princeton. I now don’t remember the dates of these things, but this was either the same year or the next year. We’d invited in quite a spectrum of outsiders, mining engineers, ground water people, and so on, that hadn’t been present in these earlier meetings. Well, I determined, OK, this can’t be all that mysterious. I did a little work with a handbook of physics and chemistry. All right, how many atoms of uranium would there be in a kilogram, say, of uranium? And whether the ratio of U-235 to U-238, etc. And then if we held so much energy released per fission, and that was put in oh, some unorthodox units. I forget what they were, but anyhow, you can convert from one physical unit to another. We had things like electron volts. I guess that was it, so many electron volts. And you could convert that.
    Doel:
    From volts back into calories?
    Hubbert:
    To heat, say, and so, I did a little work with this. I put a handbook of physics and chemistry and a slide rule in my bag on the way over to that meeting. I did a little bit theoretical work and a little bit of computation, and one of the questions that I was asking was, suppose we produced all the electric power in the United States as of that date from uranium? From then to the year 2000, how much uranium would that take, or how much U-235 would that take? Actual tonnage of it. I made the calculation, and came out with a certain figure. I wasn’t sure of myself, I was just feeling my way along, an outsider. I wasn’t at all sure what I was doing was correct. But I came up with a certain answer. It was a very useful figure. I don’t remember what it was now. But I was determined, when we got to the meeting and they pulled this secrecy on us, I was going to put it on the blackboard.
    Doel:
    At this Princeton meeting?
    Hubbert:
    Yes, this forthcoming meeting. I was just loaded for bear, so to speak. Well, when we got there, and after some preliminaries, we finally broke meeting into two sections. One dealt with surface disposal of waste, on the near-surface. The other was deep disposals and deep wells. And so on. Well, I wound up as chairman of the second meeting. I had in my group Floyd Cutter, who was the chief chemist of Oak Ridge. We worked our way around to where this question was needed. We were putting this thing down, say, a well. Well, how much volume of sand would be occupied? And so on. I posed this question and sent Floyd Cutter to the board to work it out. He got the same answer I did. Then I got a letter from him a week or two after that meeting, very much relieved. They’d just made a terrific bugaboo out of this thing. They were relieved to discover that the magnitudes they were looking at were not as awful as they thought they were.
    Doel:
    Really? This is one of the first times that they had begun to seriously look at waste volumes?
    Hubbert:
    His letter was expressing a relief to discover that this bugaboo was not as bad as they had thought it was. Well, one of the things that came out of these meetings and this earlier review was what they were doing in various of these locations. One of them was at Hanford. They had dug a well down this loose sand, clay things where the plant is located right up on the border of the Columbia River. This stuff was all worked over by the Columbia River, and so they had dug what amounted to a mine shaft. They’d lined it with wood and cribbing like a mine shaft, to hold the loose material back. They were running this stuff down that hole, it was disappearing and they didn’t have the remotest idea where it was going. It just disappeared. They expressed considerable misgivings about that practice.
    Doel:
    I can imagine.
    Hubbert:
    Supposing that they’d just got rid of it. They hadn’t got rid of it, it would be coming out somewhere, including the Columbia River, which it was right close to. Then in Oak Ridge, why, they’d bored out a dirt tank in the local clay area, shale outcrop, and were running all waste into these big tanks.
    Doel:
    Just plain dirt floor tanks?
    Hubbert:
    Hoping that they wouldn’t leak. We said to them, they damn well would leak. Then, following that, later on we went out and spent time at Oak Ridge, Savannah River, and these various places, Idaho, and Hanford. We made stops of a day or two in each one with the staff at each one of these places. We saw on the ground what they were doing, and got a notion of what the situation was in each of these places. Savannah River not immediately; that came about later. But we had Oak Ridge, we had Idaho, and we had Hanford, among the places we visited the first summer, I think it was. Gradually, well, we wrote up a report about so thick on this conference at Princeton, the summer results. One thing that came out there was this. They always wanted, for every one of these things right from the beginning, to dispose of these things at the site where they were produced. And we said, “Gentlemen, these sites weren’t selected with regard to waste disposal, they were selected for totally different purposes. It doesn’t follow that because you’re producing wastes here, it’s a suitable location for their disposal.”
    Doel:
    Right. They were worried about transport of materials?
    Hubbert:
    Yes. Of course. Well, what about putting it in hard rock mines? There were mines up and down the piedmont, New Jersey, Pennsylvania and so on. We said, “Well, have you ever been down in one of those mines? If it’s an operating mine, you’ll find water coming in through all the chinks and cracks and crevices, and the pumps are running. If they don’t, the mine will fill up with water. If it’s an abandoned mine, it’s full of water. And if you don’t keep the pumps running, the working mines would flood. So we suggest that you go out and go down one of these mines and take a look at it, and then consider whether you want to put wastes down there or not. We don’t regard that as a practical solution right now.” And as in this dirt tank thing at Oak Ridge, over and over again they wanted disposal sites where they were producing the wastes. All we could come up with at that conference was really two possibilities. One was deep wells in a basin like the Illinois Salt Basin, in deep sand, which is now full of, say, salt water brine. There you would pump the brine, dilute the wastes very considerably, and pump them down into this sand and displace the existing brines down there. Put them at a density high enough that they would stay down on the basis that they were of a higher density than any displaced water. The other thing was you had to account for the heat problem. You had to have enough dilution so that your heat wasn’t too concentrated. That was one possibility. But the practical problems of drilling the wells and handling these wastes down the hole and so on, presented enough practical difficulty that alternatives were to be considered. One of them was a proposal of a member of the committee, that would be Heroy [unclear], of rock salt, and I was very skeptical about that.
    Doel:
    What made you skeptical at first?
    Hubbert:
    Well, bedded salt in particular. Salt domes. I’d been in salt domes, I knew they were tight. Bedded salts would be salts of a few feet or a few meters thick, and overlaid by water filled sediments. To me, I anticipated that they would be pretty leaky. Well, Heroy insisted that the salt mines even under Detroit were bone dry. He also did a considerable amount of looking into the various salt mine areas of the country, including out in central Kansas. So we finally made a trip out to Kansas, to see these abandoned salt mines out there. It turned out that at a depth of around eight hundred feet or so, there was an old abandoned mine that had been mined out about 1920 or so. There was not a drop of water in the place. At least, maybe a little suture occasionally and a little bit of moisture along the lines or so.
    Doel:
    Right, but very different from a hard rock mine.
    Hubbert:
    Yes. And this was quite impressive. So we recommended they clean up part of this old mine where the roof had caved in and so on, and use it as a place to do experimental work on properties of salt including using simulated wastes which had the same chemicals, but with the heat supplied laterally. Putting things in salt cavities and observing the effects on the mechanical properties of the salt. Well, what we didn’t know was that right next door almost, there was a solution salt mine in operation. Nobody knows the outer boundaries of a solution mine. So we wound up after the preliminaries recommending this salt disposal, but not in a slurry or liquid form but in solid chroamics tubs so big around, maybe ten feet around, put into a honeycomb series of rows in the salt, widely enough spaced so you could keep the temperature controlled. We made such a recommendation. As far as locality is concerned, I don’t know if we expressly said so, but we had the understanding that this whole abandoned mine was only for experimental observations, if they’d buy up the property out there and completely own, completely control, do their own mining and have the thing under control. Instead of that, pinching pennies, they wanted to work it to buy up this old mined out mine that we’d looked at, and that’s where they had trouble with the state of Kansas. Kansas Geological Survey started raising hell about it, because there was a solution mine around there next door. Not only that, but they were running into some abandoned oil wells for which there were no records. Maybe it was in this solution mine or somewhere. So the Kansas Geological Survey got into the act to objecting to what they were doing, and got the whole state government involved. The result was that the AEC got thrown out of the state of Kansas.
    Doel:
    So that was the end of that?
    Hubbert:
    That was the end of that particular project. Then they went to New Mexico. They’re still arguing with southeastern New Mexico right now.
    Doel:
    Were there any other matters related to the work that you did on disposal of atomic wastes that you recall during that time?
    Hubbert:
    Well, I was involved in this from 1955 right on through 1965. But I was the chairman of the Research Council of the National Research Council of the Geology Science Division from 1963 to 1965. Well, what happened was that we’d been so critical of the things the AEC were doing with these various establishments that here we still existed as a committee, but they weren’t doing anything with us. So when I came on, I called in the AEC representatives and said, “Look, I will not have a committee standing around holding its hands. Either there’s something for the committee to do, or discharge the committee.” Well, the point was that they didn’t like the criticism that we’d given them consistently right down the line, when they were doing something wrong. All right, they somewhat grudgingly said, “Well, let’s make one last round of these sites, and you write a report on this. After that we’ll decide what to do.” We did. We made the rounds. By this time I was ex officio member of the committee, but I had been a member of the committee straight up to that time, including these two years. So we made the rounds, and they wrote their report, and the AEC suppressed it.
    Doel:
    Is that so?
    Hubbert:
    They looked it over themselves and wrote a rejoinder of it internally, but they wouldn’t agree to allowing it to be published.
    Doel:
    Was there a specific ground, or was it again because of the past criticism and sensitivity to the issue?
    Hubbert:
    Well, the whole thing, see, the AEC was accustomed to being almighty, doing any damned thing they pleased, as they did with this. So in the late 1960s, they ran into something they’d never encountered before. That’s about the time they were having this bout with Kansas. They had a public meeting up in Vermont, and the whole countryside of Vermont rose up against the proposed electric power plant up there. That was the first time they’d ever really been talked back to by a public meeting. It kind of jolted them. The next thing was, an uprising was building up in St. Paul-Minneapolis, because they were trying to build a plant up river from St. Paul-Minneapolis. There was an uprising, a public uprising there. Well, I didn’t know much about this thing until I got a phone call from a man at the University of Minnesota. It was all very mysterious and very cryptic, but would I come to this meeting and would I prepare a paper, give a paper that was ready for publication? I had very little information on what the meeting was about. So I agreed to do it, and took a train to Minneapolis. I got there in the late afternoon, and instead of taking a taxi to my hotel, I found myself surrounded by a bunch of AEC people and a private limousine for my hotel.
    Doel:
    That must have been a surprise.
    Hubbert:
    So I called up the man I knew in the university there and said, “What the hell is going on here? There’s something mysterious about this whole business.” And then the next morning, the same thing.
    Doel:
    At your hotel?
    Hubbert:
    They picked me up at the hotel, and got me back but when I got over to the meeting place, around the university buildings, there were people all around the outside carrying placards. What they were doing was isolating us from anybody talking to us or us talking to anybody.
    Doel:
    How did you feel about that?
    Hubbert:
    Well, I didn’t like any part of it. So this meeting went on, and there were people there from as far away as the state of Washington, Colorado and so on at this meeting. The first talk was by the governor who was bitterly opposed to the whole business. The point was that they were being very scared. It was the first time they’d ever been talked back to, seriously. This Vermont thing had happened just before, and here they were.
    Doel:
    What was your own testimony at that meeting?
    Hubbert:
    Well, it wasn’t testimony. I was invited to give a general paper over the energy situation, which I did. But what got me was the tricky behavior of the AEC people over this whole business. So it came time for the general sign-off, the second afternoon, I guess. And I had this suppressed report with me, of 1965. This was, I don’t know, 1968 or something. And I was just waiting for an opportunity in the discussion to mention this suppressed report. But no opportunity occurred, and so I couldn’t get it into the record. But later on they wanted to publish a book on this, the papers at this meeting, and I was reviewing the galleys. At an appropriate place, I wrote a footnote about this suppressed report, and I got it back blue-penciled by this same guy who’d made the mysterious call in the first place, who had, he was with the University of Minnesota but he also had inside connections with the AEC. He was really an AEC representative.
    Doel:
    Do you recall his name?
    Hubbert:
    No, I don’t at the moment. But there was another man, I mean, the committee, the university committee for this meeting had the same distortion. There was a man by the name of Gene Abrahamson who was a medical doctor, an MD. He saw the blue pencil, he made a note in the blue-penciling, by this AEC guy, and he raised hell about it. He sent this thing to Senator Muskie.
    Doel:
    That’s interesting.
    Hubbert:
    And Muskie demanded from the AEC a copy of this suppressed report, and he published it in the records of his Committee on the Environment or whatever it was called.
    Doel:
    That’s interesting. This would have been 1968, 1969?
    Hubbert:
    Yes, somewhere about then. So that’s how it got in print.

    His recounting of the meetings is very educating with respect to the early discussion on nuclear fission radioactive waste disposal. Apparently, the nascent industry wanted to to dispose of the spent radioactive fuel onsite of the reactors, despite the power plants’ sites being chosen without regard to disposal issues, the methods of which were just being discussed, and were primitive to say the least. From Session VIII of the oral history:

    Doel:
    The AEC’s concern at that time was to find a relatively easy way, painless way of disposing waste?
    Hubbert:
    No, what they really wanted was to have a disposal site at each one of these places, and we told them emphatically that these places weren’t located with regard to waste disposal. There was no place to dispose, no suitable waste disposable site at any one of these major institutions. The last go round was Savannah River, and at Savannah River, you have Tertiary, young sediments, to roughly a thousand feet. The bottom of that was a thick sand, Tuscaloosa sand, of two or three hundred feet thick, which is one of the major fresh water bearing aquifers on the Eastern seaboard. Immediately under that were these basement rocks. And they were proposing at the time to mine out a tunnel, about a quarter of a mile long or so. And they were going to put these nuclear wastes in this tunnel under the assumption that they wouldn’t leak.
    Doel:
    Where was it to be located? Underneath the plant and below the bedrock?
    Hubbert:
    Yes. But just by the Savannah River plant. These rocks were full of cracks, fractures going like this, and I recommended to them that they send men to go down into mines on the Eastern seaboard. The water is coming in all these cracks, if you get a lot of rain you flood the mines. I don’t think they ever did. But that’s a long story all by itself.

    In session 7 of the oral history, he discusses “penny-pinching” of the Atomic Energy Commission, and “treating waste disposal as kind of an orphan child, in effect sweeping it under the rug.”

    Hubbert:
    I don’t remember now. One thing was legitimate, because I’d talked about 235 or something or other and he’d pointed out that it was natural uranium in the original fission reactor in Chicago. Which was a mistake on my part. But with regard to the waste problem, I’d visited all these sites. I knew a good deal about it and they didn’t.
    Doel:
    And you were on the committee.
    Hubbert:
    Yes. And so after I got back, and endured this heckling of Wilson, why, I wrote some very specific things, data into this nuclear problem. Oh yes, also including this letter that we’d written to the AEC commissioners. I put it into this report, and also the data from Floyd Culler on the chemistry of the various waste components. With regard to waste disposal, I said they’d been treating waste disposal as kind of an orphan child, in effect sweeping it under the rug. So in my final recommendations, I recommended, here’s the letter to McCohn, pages 118 to 119, and Table 12. Somewhere I’ve got that waste disposal recommendation — well, I don’t see it, but it’s somewhere in here.
    Doel:
    In this report?
    Hubbert:
    Somewhere in there I put in, from the report by Floyd Culler who was the chief chemist at Oak Ridge, a whole graph of the isotopes and whatnot in these wastes were involved in. I recommended that the budget for the disposal of nuclear wastes be increased several fold over what it had been. That the people who were doing the job couldn’t do it any better because they didn’t have enough money. And they didn’t have enough money because the AEC was pinching pennies to try to promote nuclear power, and they were cutting all the other costs in sight in the process. OK. When the committee, these reviews were completed, the committee then had its final session. When it came my time, knowing the issue that was afoot, I said, “Gentlemen, what do you propose to do with this report, burn it?”
    Doel:
    What was the reaction to that?
    Hubbert:
    I said, “This is my report. I wrote it. Any errors in this report will be gladly corrected. Aside from that, the report stands. If you don’t accept the report, other than that, I resign from the committee and publish it on the outside.” I backed them down.

    M. King Hubbert recognized the need for nuclear energy, but later in his career, he balked at using a technology that created tons of radioactive waste with no good way to deal with it.

    It is for this reason, he turned to renewable energy as an alternative, despite the recognition that these technologies didn’t have the energy density to match fossil fuels let alone nuclear power.

    Had Mr. Hubbert known about low-energy nuclear reactions, he would most likely have supported a nuclear power that that uses no radioactive fuel and creates no radioactive waste to dispose of.

    Behind schedule, but catching up soon – this graph of Dr. Hubbert’s may very well represent our future energy mix yet.

    Cold Fusion Now!

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    Dangers of nuclear fission plants exposed; stand in contrast to cold fusion

    Cold fusion is called low-energy nuclear reactions and though it is a nuclear process, cold fusion is nothing like the nuclear fission reaction that powers today’s nuclear plants.

  • Low-energy nuclear reactions describe a 21rst century process of extracting energy from atoms involving fractal superwave phonons, quantum waves, and the Heisenberg Uncertainty Principle.
  • In low-energy nuclear reactions, there is no radioactive fuel or toxic metals involved. Energy is created by quantum interactions inside small amounts of nano-sized metals like nickel and palladium infused with hydrogen, the main element in water.
  • Low-energy nuclear reactions do not involve a fission chain reaction.
  • Low-energy nuclear reactions do not produce any of the dangerous fission products seen in current nuclear technology.
  • Low-energy nuclear reactions do not produce radioactive waste. In fact, the effect of transmutations may allow for a process to clean-up existing stockpiles of radioactive waste, “transmuting” them into non-lethal materials.
  • Low-energy nuclear reactions do not require huge power plant infrastructure, but will be scaled small for personal use or large for industrial use. Current prototype cells sit on tabletops, operating at room temperatures.
  • Low-energy nuclear reactions do not have the geo-political impacts of oil and gas. Using a fuel of hydrogen from water, access to water means access to fuel, giving communities around the globe true energy security.
  • Low-energy nuclear reactions do not have a history in weapons research.
  • Low-energy nuclear reactions are being developed by young, new-energy companies concerned about the environment and the future of life on Earth.
  • Choose cold fusion for a peaceful next-generation nuclear power.

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    A natural disaster. A human tragedy.

    A 9.0 magnitude earthquake followed by a wall of water over 3 meters high in the open ocean (and a few times higher upon hitting the coast), moving an astounding 800 kilometers per hour. The shock and trauma defies words. Superimpose a nuclear fission plant disaster and the mind is numbed into an empty and quiet desperation.

    How do you prepare any large-scale power facility for that kind of geological event? The short answer is, you don’t. These events have been statistically rare enough that design costs outweigh the remote probability of an extreme event. In other words, a cost-benefit analysis concludes it is not economically feasible to construct facilities to withstand these kinds of extreme events. In some cases, current technology is not evolved enough to respond to the geological conditions.

    Note that this type of extreme event ”had been” statistically rare enough, based on previous data, which of course doesn’t guarantee any future outcome. At some point, the black swan casts a dark shadow, and from the realm of possibility, a probability of one. Thales said, ”The past is certain, the future obscure” in 600BC.

    There is always risk. Yet the amount of risk one takes should be commensurate with the reward. Space exploration is risky, but the rewards, real or intangible, outweigh those risks, and we agree to take those risks to continue expand our physical reach into the universe.

    But some risks are not worth the price. What are some of the elements of nuclear fission technology that contribute to its high levels of risk?

    FISSION FUEL IS RADIOACTIVE
    Fission is the process of splitting large atoms apart into smaller atoms whose combined mass is smaller than the original atom. The missing mass converts to energy. This process begins when a heavy element, like an uranium atom, for instance, absorbs a neutron. Having an extra neutron, it becomes an isotope of uranium, and even heavier. Now unstable, the atom then falls apart into two smaller atoms, releasing heat energy in the process. It is this heat that turns water into steam, which turns a turbine, creating electricity.

    The fission process uses the heaviest elements that exist naturally, like uranium and plutonium. These elements are characterized by their natural radioactivity called radioactive decay. During radioactive decay, alpha and beta particles, and high-energy gamma ray photons are spontaneously emitted. These particles and gamma rays are what make-up the radiation.

    Radiation is dangerous to biological life forms as these particles and photons interact with living tissue at the sub-atomic level, ionizing the atoms in a body. The effects of ionizing radiation can be sickness, cancer, death, and genetic birth defects for generations. There is shielding against this radiation, but when the shielding breaks down, the environment, and people, are exposed.

    An explosion at a nuclear fission power plant can spread radioactive fuel into the environment where, depending on the material, radioactivity can last for decades, or millennia. These particles could then settle in the water tables, in food or clothing, or be inhaled in. The radioactive particles polluting the environment then decay, causing the radiation that is harmful to life.

    Fukushima nuclear fission power plant explosion.
    A building at the Fukushima nuclear fission power plant after an explosion.

    Beyond a nuclear meltdown, or other catastrophic accident, radioactive fuel must be mined, transported, and processed before it’s ready to use, providing ample opportunity to mishandle the toxic metal fuel. The International Atomic Energy Agency IAEA reports in their International Status and Prospects of Nuclear Power, published in September 2010, that ”uranium mining now takes place in 19 countries, with eight countries accounting for 93% of world capacity.” These materials are at risk by those who would make ”dirty bombs”, conventional explosives laced with radioactive material, the purpose of which is to further spread radioactive poisons to biological systems.

    The fuel for nuclear fission plants is a finite resource, geographically located, with all the geo-political ramifications that come with a strategic resource. Currently, the full demand for uranium has not be met by mining, but by recycled materials. According to the IAEA, ”Currently, 35% of uranium needs are covered by secondary supplies – stored uranium or ex-military material – and recycled materials.” Dramatic price rises since 2004 by a factor of 10 anticipate a possible deficit. When industry estimates include low fuel costs, the supply deficit from mining that has been made up by recycled sources must be factored in.

    ACCIDENTS WILL HAPPEN
    Nuclear fission power relies on a process of chain reaction instigated by neutrons. When an uranium atom absorbs a neutron and subsequently splits apart, on average, 2.5 new neutrons are liberated from that reaction. These newly freed neutrons can then be absorbed by more uranium, creating more fission reactions and more neutrons, continuing the self-sustaining fission process.

    The trillions of reactions from all the uranium atoms splitting apart needs moderating. If the reaction goes too fast, and becomes uncontrolled, the fuel will become hot enough to melt. The radioactive liquid mix will form a pool at the bottom of the container, at which point, it can melt through the containment vessels and out into the environment.

    A nuclear fission meltdown can leave a region uninhabitable for centuries. Some materials will remain radioactive for geological time, essentially creating a dead zone for humans, as well as other lifeforms who live on this planet.

    Japan sits in one of the most seismically active regions of the world and, before March 11, had 55 operating nuclear fission plants. Over the last several decades, power plant designs have evolved into structures with maximum safety features for magnitude 7.9 earthquakes, but not 9.0. Every area of the globe has some type of extreme weather or natural threat that could disrupt or destroy a nuclear infrastructure. Earthquake, tsunami, or super-hurricanes can exact a crushing dominance of Mother Nature over human technology. It doesn’t happen often, but when a statistically rare event does occur, the consequences from damaged or destroyed fission power plants can last millennia.

    In the US, there are 104 operating nuclear reactors, 97% of them more than twenty years old, and more than half over 30 years old. This graph from the U.S. Nuclear Regulatory Commission NRC shows the average number of unplanned automatic scrams, or emergency shut-downs per plant for all 104 plants.

    Did lots of fission plants have no unplanned emergency shut-down, and a mere few have many more scrams? The chart doesn’t answer that. All it shows is a non-zero number of automatic emergency shut-downs.

    FISSION REACTORS ARE AGING FLEET
    Worldwide, ”about three quarters of all reactors in operation today are over 20 years old, and one quarter are over 30 years old.”, according to the IAEA, and age appears to be a factor in reactor safety. While newer fission nuclear plants have multiple safety back-up systems, the Fukushima plant in Japan was built in 1971, and had only the diesel generators, sitting above ground, as a back-up. When the back-up diesel generators stopped, a partial meltdown occurred.

    A survey of the age of the nuclear fleet in the United States shows the majority of nuclear reactors are between 20 to 40 years old, the result of successful efforts by concerned citizens to block the building of new nuclear fission plants after Three Mile Island accident in 1979.

    A specially-skilled individual is required to operate, maintain, and troubleshoot the various designs of reactors of this age. Lack of experienced personnel with this decades old technology is a cause for concern in the industry, and nuclear agencies are stepping up recruitment efforts to replace an aging workforce ready to retire. The IAEA reports that countries entering into the nuclear fission power production will have to rely on “their technology providers” for training.

    NO GOOD WASTE DISPOSAL
    Dangers from mining, processing, transporting, and fission reactor accidents are further compounded by back end radioactive waste disposal. Currently, there is no good method for storing radioactive waste generated by fission plants. Depending on the reactor, hundreds or even thousands of kilograms of radioactive fuel is used. Used fuel rods continue to accumulate in larger quantities and needs to be stored for longer time periods than initially envisaged (over 100 years), according to the IAEA.

    This photo showing “temporary storage” of radioactive waste is from the NRC website.

    Radioactive waste disposal in the US. Disaster in the making.
    Nuclear waste disposal in the US is "non-permanent", despite there being no acceptable solution on the horizon.

    In the US, a planned radioactive waste site at Yucca Mountain, Nevada, had a license revoked and will be closed. Finland, France, and Sweden are hailed as ”advanced” in waste storage, with Finland currently constructing an ”exploratory tunnel to disposal depth” in hopes of ”applying for a repository construction license in 2012 so that final disposal can begin in 2020.”

    Beyond storage, some spent fuel is ”reprocessed” for weapons, continuing the intimate link between nuclear fission and weapons research. Reprocessing takes used fission fuel rods and transforms the material into another form, like a powder. This procedure has been criticized for creating a product easier to steal than the original heavy array of fuel rods would be. Reprocessing also makes accounting for the radioactive material much more difficult as small amounts may go missing, and not be noticed for years.

    A GLOBAL NEED FOR POWER
    Look at the top of this page at the Earth at Night montage by NASA. Japan shines bright, indicating a high-technology culture with a need for electrical power. And Japan is not alone.

    Many regions of the world shine just as bright. It is these regions that have had the benefits of petroleum that the unlit regions haven’t had, and due to peak oil, won’t have. Yet all the regions of the world want some form of a technological culture requiring more energy. The US Energy Information Administration predicts a 2.3% increase in world demand for electricity through 2035, using a baseline of 18.8 trillion kilowatt hours generated in 2007.

    Currently coal generates 39% of the world’s electricity [OECD]. As hydrocarbons continue their slide down Hubbert’s curve, new sources of energy are needed, and fission nuclear power plants are being discussed as a solution.

    MORE FISSION NUCLEAR PLANTS ARE BEING BUILT
    ”Nuclear energy from fission produces slightly less than 14% of the world’s electricity supplies, and it is a mere 5.7% of total primary energy used worldwide”, according the IAEA’s most recent International Status and Prospects of Nuclear Power report.

    Yet there are 440 nuclear fission power plants operating today on the planet, creating less than 14% of the electricity supplies. This graph from the US Nuclear Regulatory Commission shows the distribution of nuclear fission power plants around the world.

    Currently, 60 new nuclear fission plants are being built world wide, with a third of them beginning construction in just the last few years. Ten new reactors broke ground in 2008. This increased to 12 new construction starts in 2009.

    The IAEA also reports that 18% of the fission reactors under construction have been under construction for over 20 years.

    ”Of the 60 plants, 11 have been under construction since before 1990, and of the 11 possibly only three are predicted to be commissioned in the next three years. There are a few reactors which have been under construction for over 20 years and which currently have little progress and activity.”

    Asia is a newcomer to nuclear fission technology, but it is this region of the globe that has the highest rate of new construction. Key industries have been ramped up to supply materials and engineering to this young industry.

    ”All 22 of the construction starts in 2008 and 2009 were pressurized water reactors (PWRs) in three countries: China, Repubic of Korea and Russian Federation”, says the IAEA report. China claims the ”capability to produce heavy equipment for six large reactors per year”. The Japan Steel Works (JSW), a maker of key fission reactor parts, had only a few months ago planned to triple it’s capacity.

    This chart from the US NRC shows the number of applications for new nuclear power plants. The US, which had a virtual halt to new fission plant constructions after the 1979 Three Mile Island disaster, also has increased applications for licenses in recent years.

    POWER PLANTS ARE EXPENSIVE
    New construction costs are rising higher than official inflation as commodities increase in nominal value and stricter design constraints are enforced. The permitting and building of a new plant can easily take ten to twenty years which also contributes to higher costs.

    It is currently cheaper to permit and build a natural gas plant than a nuclear fission plant, though this analysis has not taken into consideration the costs of environmental damage in either production or consumption of hydrocarbons.

    From the IAEA Nuclear Technology Review 2010:

    ”The Nuclear Technology Review 2009 reported that the range of cost estimates for new nuclear power plants had grown at its upper end compared to the range of $1200-2500 per kW(e) that had been reported in the Nuclear Technology Review 2006. In the past year, cost estimates remained high…..

    ”The Massachusetts Institute of Technology (MIT) updated a cost study for the USA that it had done in 2003 – its updated overnight cost estimate of $4000/kW(e) is very close to the name of the estimates for north America….. The updated MIT study concludes that, in the USA, the cost of capital will be higher for nuclear power than for coal and natural gas-fired power because of the lack of recent experience and resulting uncertainty among investors. Without this ’risk premium”, nuclear power’s estimated levelized cost of electricity (LCOE) would be comparable to the LCOEs for coal- and gas-fired power, even without fee or taxes on carbon dioxide emissions and even with an overnight cost of $4000/kW(e).”

    The private Citigroup Investment Research, estimated ”overnight costs for generic new nuclear reactors in the UK at $3700-5200/kW(e)”, while costs for new nuclear fission plants in Asia are significantly lower. The NRC IAEA report mentions the Republic of Korea where new reactor costs are $1556/kW(e), allowing Korea to bring ”four new reactors on-line since 2000 and has six under construction.”

    The chart here was supplied to the US Nuclear Regulatory Commission by the Federal Energy Regulatory Commission FERC and shows production expenses, which does not include upfront capital and construction costs. Also, fission fuel costs have risen significantly recently.

    The US Energy Information Administration published this table comparing the relative costs of producing electricity for its Annual Energy Outlook 2011, and it does appear to include a ”levelized” capital cost.

    Robert Alvarez, a nuclear expert from the Institute of Policy Studies, wrote ”A 1997 report for the Nuclear Regulatory Commission (NRC) by Brookhaven National Laboratory also found that a severe pool fire could render about 188 square miles uninhabitable, cause as many as 28,000 cancer fatalities, and cost $59 billion in damage.”

    We find this cost incalculable.

    INDUSTRY SAYS IT CAN’T HAPPEN HERE
    Whether it’s natural disasters or human error, things will go wrong. Looking at the various facts that cause risk, nuclear fission is a poor choice for Earth’s electrical energy source.

    The nuclear fission industry claims a nuclear crisis like what happened in Japan, can’t happen in the US. But Wall Street investment banks said a crash couldn’t happen, and BP claimed they had the technology to deal with anything on the ”horizon”.

    COLD FUSION IS THE BETTER PATH
    There are services to radiation in medical technology, and the natural radiation that exists in our environment allows for the dating of ancient objects from humankind’s early history. But the various factors that contribute to the disservices of large scale nuclear fission plants to generate electricity are overwhelming, and we conclude that fission nuclear power plants are not safe or cost-effective, especially when the ultra-clean alternative of cold fusion exists.

    Cold fusion is called low-energy nuclear reactions and though it is a nuclear process, cold fusion is nothing like the nuclear fission reaction that powers today’s nuclear plants.

  • Low-energy nuclear reactions describe a 21rst century process of extracting energy from atoms involving fractal superwave phonons, quantum waves, and the Heisenberg Uncertainty Principle. Energy is created as converting small bits of mass to energy as Einstein described in his famous equation
  • In low-energy nuclear reactions, there is no radioactive fuel or toxic metals involved. Energy is created by quantum interactions inside small amounts of nano-sized metals like nickel and palladium infused with the hydrogen from water.
  • Low-energy nuclear reactions do not involve a fission chain reaction.
  • Low-energy nuclear reactions do not produce the amount of harmful radiation seen in nuclear fission reactions.
  • Low-energy nuclear reactions do not produce radioactive waste. In fact, the effect of transmutations may allow for a process to clean-up existing stockpiles of radioactive waste, “transmuting” them into non-lethal materials.
  • Low-energy nuclear reactions do not require huge power plant infrastructure, but will be scaled small for personal use or large for industrial use. Current prototype cells sit on tabletops, operating at room temperatures.
  • Low-energy nuclear reactions do not have the geo-political impacts of oil and gas. Using a fuel of hydrogen from water, access to water means access to fuel, giving communities around the globe true energy security.
  • Low-energy nuclear reactions do not have a history in weapons research.
  • Low-energy nuclear reactions are being developed by young, new-energy companies concerned about the environment and the future of life on Earth.
  • For these reasons, we reject current nuclear fission technologies and we support cold fusion as the only viable alternative for ultra-clean next-generation nuclear power from water.

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    International Red Cross
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    Supporting links:

    1. Nuclear Technology Review 2010 International Atomic Energy Agency http://www.iaea.org/

    2. International Status and Prospects of Nuclear Power International Atomic Energy Agency http://www.iaea.org/

    3. United States Nuclear Regulatory Commission http://www.nrc.gov/

    4. NRC Probability Risk Assessment
    http://www. nrc.gov/reading-rm/doc-collections/fact-sheets/probabilistic-risk-asses.html

    5. United States Department of Energy Nuclear Office http://www.ne.doe.gov/

    6. United States Energy Information Administration http://www.eia.doe.gov/

    7. Guide to the Nuclear Wallchart
    http://www. lbl.gov/abc/wallchart/outline.html

    8. The Oil Drum http://www.theoildrum.com/node/3877

    9. Cost of Nuclear Power
    http://nuclearinfo.net/Nuclearpow/WebHomeCostOfNuclearPower

    10. Nuclear Power Costs
    http://www.world-nuclear.org/info/inf02.html

    11. Nuclear Reprocessing: Dangerous, Dirty and Expensive Union of Concerned Scientists
    http:// www.ucsusa.org/nuclear_power/nuclear_power_risk/nuclear_proliferation_and_terrorism/ nuclear-reprocessing.html

    12. Federal Energy Regulatory Commission http://www.ferc.gov/

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