Reproduced with permission, in fact encouragement of beyondnulear.org (301) 270-2209 Very tiny changes have been made for brevity, but I will attempt to refrain from editorializing or from changing the content for the sake of my readers.
DIRTY
FUEL:
Nuclear reactors use uranium. Therefore, they release radioactive waste into the environment at every stage of the fuel cycle-starting at the mines, then at mills, where enormous piles of tailings are left behind, and during chemical conversion, enrichment and fuel fabrication. Radioactive radon gas that escapes in the West can float across the the U.S., over the Atlantic, and beyond.
Valid concerns exist about climate change caused by carbon dioxide from coal fired power stations. Yet, production of uranium fuel also results in "greenhouse gas" emissions. Indeed, uranium mining and milling are among the most carbon dioxide-intensive industrial operations.
Nuclear reactors use uranium to power turbines by releasing intense heat and radiation through a process called fission. Old fuel rods must be replaced periodically with fresh ones. The irradiated rods rods are stored in water-filled pools within the reactor building or in an adjacent building. After a few years, rods may be placed in steel-lined concrete casks outside to a still-nonexistent permanent repository.
Because no such repository has been built anywhere in the world, the nuclear industry would like to reprocess the irradiated rods. The rods would be cut up, soaked in acid and reprocessed so that residues of plutonium and uranium could be extracted and turned into usable reactor fuel. However, the leftover radioactive fission products, liberated from the fuel rods, remain a containment problem for many thousands of years. Reprocessing is extremely hazardous for workers and to the public downstream and downwind. It produces it's own massive wastes and releases of radioactive CO2 as well as other radioactive materials into the environment.
ROUTINE RELEASES:
Nuclear power facilities don't have to blow up or melt down to release their radioactive poisons. During routine operation, they release pollutants to the atmosphere and into rivers, lakes and oceans that provide cooling water.
It is impossible to run a reactor without these routine releases. No economically feasible technology exists to filter out all the radioactive isotopes, including tritium (radioactive hydrogen) and radioactive krypton and xenon gasses, some of which convert to radioactive strontium and cesium.
No one knows how much radioactivity is released. Some radioactive wastes are released into the environment from a nuclear power system whenever the level of radioactivity in the waste water is below the level that the monitoring equipment is set to detect. The U.S. government has approved this level to be "permissible." But,"permissible" does not mean safe. It means "as low as reasonably achievable"-that is, as low as the nuclear industry claims it can afford to achieve.
The Nuclear Regulatory Commission (NRC) relies on the reactor owner's self-reporting and computer modeling to estimate a facility's radioactive releases. A significant portion of the data is extrapolated-so it is virtual, not real. Therefore, no one really knows how much radioactive poison is released. Radioactive gasses, liquids and soils spread near and far.
No permanent repository exists for the irradiated fuel rods (termed high-level waste), and may never exist. In fact no facility exists for so-called "low level" waste either- that is, for the radioactive sludges and saturated air-and water-filters, as well as pipes, pumps and other components that must be replaced as they wear out and malfunction. Much of this "low-level" waste is so highly radioactive that it must be handled by remote-control equipment. The longer the facility operates, the greater accumulation of radioactive waste.
LETHAL LEGACY:
Radioactive waste is dangerous not only now, but some remains dangerous virtually forever. Each type of radioactive isotope emits appreciable radiation for over ten times it's half-life (After one half-life, half the radioactivity is gone. After two half-lives, three quarters is gone. After three half-lives three quarters is gone. But even after ten half lives, some radioactivity remains) This means that some radioisotopes,like plutonium-239 with its 24,000 year half-life, will be dangerous much longer than modern humans have walked the Earth.
DANGEROUS
ACCIDENTS HAPPEN:
An article in an MIT (Massachusetts Institute of Technology) publication describes an unfortunate fact: "Human factors and the effectiveness of people determine success or failure at every stage, from the design of a facility and its equipment, through manufacture, construction, installation and calibration, to testing, maintenance, repair and management." ("Human Error in Nuclear Power Plants," Technology Review, February 1980, page 28)
Every nuclear facility is extremely complex, with thousands of pumps, valves, motors and miles of electric circuits. Therefore, human error, design flaws and equipment malfunctions are common.
"All nuclear-power-plant systems, structures, components, procedures and personnel are potential sources of failures and malfunctions. Problems can arise from defects in design, manufacturing, installation and construction; from testing, operational and maintenance errors; from explosions and fires; from excessive corrosion, vibration, stress, heating, cooling, radiation damage and other physical phenomena; from deterioration due to component aging and from externally initiated events such as floods, earthquakes, tornadoes and sabotage." (Daniel F. Ford: Three Mile Island 1982 page 29)
Because many experienced workers have retired or are nearing retirement age, the industry is faced with a serious shortage of qualified personnel, including some who have important memories of past facility problems.
An average reactor contains equivalent long-lived radioactivity of at least 1,000 Hiroshima bombs. An accident can be catastrophic, causing the release of tremendous amounts of radioactivity.
Few, if any, communities have adequate emergency plans, including reliable warning systems and emergency responders who are trained and equipped to deal with radiological devastation on this scale. They lack isolated hospital space for the treatment of irradiated victims. It is unrealistic to assume that a large, panicked population could be evacuated safely. No emergency plan addresses the permanent relocation of people from their homes and communities because of long-term radioactive contamination.
HEALTH HAZARDS:
Exposure to ionizing radiation increases the risk of damaging cells, tissues and DNA, potentially causing mutations, cancer, birth defects and reproductive, immune, cardiovascular and endocrine disorders.
Radioactive hydrogen and carbon, produced in great quantities, can be incorporated into protein, carbohydrate and fat molecules throughout the body. Fetuses and children are especially susceptible to radiation injury because of the rapid and abundant cell division in their bodies during growth.
According to the national Research Council's BEIR VII report ("Health Risks from Exposure to Low Levels of Ionizing Radiation," 2005) no level of radiation exposure is harmless.
WORKPLACE RISKS:
The nuclear industry depends on workers who are allowed to be exposed to much more radiation than members of the public. Many of the aging metal components and even just the rust, in nuclear facilities give off penetrating gamma rays. When clogged or leaking pipes must be repaired or replaced, a worker can receive a maximum permissible annual dose of radiation in mere minutes while making even a minor repair.
TERRORISTS:
A typical commercial reactor produces enough plutonium every year to make at least forty nuclear bombs. If irradiated fuel rods are reprocessed, the extracted plutonium can be diverted to make nuclear bombs. The remaining radioactive materials can be used with conventional explosives to make "dirty bombs", capable of dispersing radioactivity.
Every nuclear facility is a potential candidate for a terrorist attack-by land, water and air, as well as by persons employed within the facility or outsiders who gain access. Terrorists could attack a reactor, the fuel storage pools or other critical components, causing the release of vast amounts of radioactivity. No existing U.S. nuclear power generating station was built to withstand deliberate attack by a jumbo jet.
RADIOACTIVE ROADS, RAILS AND NEIGHBORHOODS:
If a permanent disposal facility for irradiated fuel rods were ever built, transport of the waste on trains, trucks and barges would put countless communities at risk. If a site were chosen in a Western state, long-distance transport would be required because 77 of the 104 operating reactors are East of the Mississippi River.
The potential for an accident, terrorist attack or theft of nuclear materials during this transit is real.
EXPENSIVE
A CONTINUING FINANCIAL BURDEN:
Nuclear power cannot survive in a market economy without massive subsidies.
Federal subsidies include loan guarantees for construction and funds for research and development, including the search for a solution to the problem of radioactive waste.
In the event of a major disaster, the Price-Anderson Act requires the nuclear industry to pay for only the first $10 billlion-for deaths, injuries and property damage-a mere fraction of the liability costs federal taxpayers would have to cover. According to the 1982 NRC CRAC2 report, damages could run as high as $314 billion, depending on a reactor's surrounding population density and other factors. That would be approximately a trillion dollars today.
If a new reactor were to be built, state regulators would have to be willing to boost electric rates.
Because nuclear power facilities are so complicated and dangerous, construction costs are extremely high; lengthy delays are common. Because of a shortage of certified "nuclear grade" parts manufacturers, substandard or counterfeit components from domestic or foreign vendors may be installed, increasing reactor hazards.
OPERATING COSTS:
From the start, nuclear stations become radioactively contaminated. Large and small components and whole buildings get "hot." Therefore, operation is expensive. As reactors age and become more radioactive, operation becomes even more expensive. Repair or replacement of defective, obsolete or worn-out equipment requires shielding for workers as well as protective clothing, monitors and respirators. Far more workers, time and money are required to fix a nuclear generating system than a coal-or gas-fired power facility, wind-or solar farm.
As high-quality uranium becomes more scarce, it's use as a reactor fuel will become even more expensive and its manufacture will into fuel will increase the emission of greenhouse gasses.
PERPETUAL COSTS:
Dismantling a decommissioned nuclear facility would also be expensive. Because no disposal site exists for most radioactive wastes from most states, contaminated buildings and equipment may remain on site for many years. Because of the dangers, environmental monitoring and armed guards will be needed indefinitely.
DIRTY
FUEL:
Nuclear reactors use uranium. Therefore, they release radioactive waste into the environment at every stage of the fuel cycle-starting at the mines, then at mills, where enormous piles of tailings are left behind, and during chemical conversion, enrichment and fuel fabrication. Radioactive radon gas that escapes in the West can float across the the U.S., over the Atlantic, and beyond.
Valid concerns exist about climate change caused by carbon dioxide from coal fired power stations. Yet, production of uranium fuel also results in "greenhouse gas" emissions. Indeed, uranium mining and milling are among the most carbon dioxide-intensive industrial operations.
Nuclear reactors use uranium to power turbines by releasing intense heat and radiation through a process called fission. Old fuel rods must be replaced periodically with fresh ones. The irradiated rods rods are stored in water-filled pools within the reactor building or in an adjacent building. After a few years, rods may be placed in steel-lined concrete casks outside to a still-nonexistent permanent repository.
Because no such repository has been built anywhere in the world, the nuclear industry would like to reprocess the irradiated rods. The rods would be cut up, soaked in acid and reprocessed so that residues of plutonium and uranium could be extracted and turned into usable reactor fuel. However, the leftover radioactive fission products, liberated from the fuel rods, remain a containment problem for many thousands of years. Reprocessing is extremely hazardous for workers and to the public downstream and downwind. It produces it's own massive wastes and releases of radioactive CO2 as well as other radioactive materials into the environment.
ROUTINE RELEASES:
Nuclear power facilities don't have to blow up or melt down to release their radioactive poisons. During routine operation, they release pollutants to the atmosphere and into rivers, lakes and oceans that provide cooling water.
It is impossible to run a reactor without these routine releases. No economically feasible technology exists to filter out all the radioactive isotopes, including tritium (radioactive hydrogen) and radioactive krypton and xenon gasses, some of which convert to radioactive strontium and cesium.
No one knows how much radioactivity is released. Some radioactive wastes are released into the environment from a nuclear power system whenever the level of radioactivity in the waste water is below the level that the monitoring equipment is set to detect. The U.S. government has approved this level to be "permissible." But,"permissible" does not mean safe. It means "as low as reasonably achievable"-that is, as low as the nuclear industry claims it can afford to achieve.
The Nuclear Regulatory Commission (NRC) relies on the reactor owner's self-reporting and computer modeling to estimate a facility's radioactive releases. A significant portion of the data is extrapolated-so it is virtual, not real. Therefore, no one really knows how much radioactive poison is released. Radioactive gasses, liquids and soils spread near and far.
No permanent repository exists for the irradiated fuel rods (termed high-level waste), and may never exist. In fact no facility exists for so-called "low level" waste either- that is, for the radioactive sludges and saturated air-and water-filters, as well as pipes, pumps and other components that must be replaced as they wear out and malfunction. Much of this "low-level" waste is so highly radioactive that it must be handled by remote-control equipment. The longer the facility operates, the greater accumulation of radioactive waste.
LETHAL LEGACY:
Radioactive waste is dangerous not only now, but some remains dangerous virtually forever. Each type of radioactive isotope emits appreciable radiation for over ten times it's half-life (After one half-life, half the radioactivity is gone. After two half-lives, three quarters is gone. After three half-lives three quarters is gone. But even after ten half lives, some radioactivity remains) This means that some radioisotopes,like plutonium-239 with its 24,000 year half-life, will be dangerous much longer than modern humans have walked the Earth.
DANGEROUS
ACCIDENTS HAPPEN:
An article in an MIT (Massachusetts Institute of Technology) publication describes an unfortunate fact: "Human factors and the effectiveness of people determine success or failure at every stage, from the design of a facility and its equipment, through manufacture, construction, installation and calibration, to testing, maintenance, repair and management." ("Human Error in Nuclear Power Plants," Technology Review, February 1980, page 28)
Every nuclear facility is extremely complex, with thousands of pumps, valves, motors and miles of electric circuits. Therefore, human error, design flaws and equipment malfunctions are common.
"All nuclear-power-plant systems, structures, components, procedures and personnel are potential sources of failures and malfunctions. Problems can arise from defects in design, manufacturing, installation and construction; from testing, operational and maintenance errors; from explosions and fires; from excessive corrosion, vibration, stress, heating, cooling, radiation damage and other physical phenomena; from deterioration due to component aging and from externally initiated events such as floods, earthquakes, tornadoes and sabotage." (Daniel F. Ford: Three Mile Island 1982 page 29)
Because many experienced workers have retired or are nearing retirement age, the industry is faced with a serious shortage of qualified personnel, including some who have important memories of past facility problems.
An average reactor contains equivalent long-lived radioactivity of at least 1,000 Hiroshima bombs. An accident can be catastrophic, causing the release of tremendous amounts of radioactivity.
Few, if any, communities have adequate emergency plans, including reliable warning systems and emergency responders who are trained and equipped to deal with radiological devastation on this scale. They lack isolated hospital space for the treatment of irradiated victims. It is unrealistic to assume that a large, panicked population could be evacuated safely. No emergency plan addresses the permanent relocation of people from their homes and communities because of long-term radioactive contamination.
HEALTH HAZARDS:
Exposure to ionizing radiation increases the risk of damaging cells, tissues and DNA, potentially causing mutations, cancer, birth defects and reproductive, immune, cardiovascular and endocrine disorders.
Radioactive hydrogen and carbon, produced in great quantities, can be incorporated into protein, carbohydrate and fat molecules throughout the body. Fetuses and children are especially susceptible to radiation injury because of the rapid and abundant cell division in their bodies during growth.
According to the national Research Council's BEIR VII report ("Health Risks from Exposure to Low Levels of Ionizing Radiation," 2005) no level of radiation exposure is harmless.
WORKPLACE RISKS:
The nuclear industry depends on workers who are allowed to be exposed to much more radiation than members of the public. Many of the aging metal components and even just the rust, in nuclear facilities give off penetrating gamma rays. When clogged or leaking pipes must be repaired or replaced, a worker can receive a maximum permissible annual dose of radiation in mere minutes while making even a minor repair.
TERRORISTS:
A typical commercial reactor produces enough plutonium every year to make at least forty nuclear bombs. If irradiated fuel rods are reprocessed, the extracted plutonium can be diverted to make nuclear bombs. The remaining radioactive materials can be used with conventional explosives to make "dirty bombs", capable of dispersing radioactivity.
Every nuclear facility is a potential candidate for a terrorist attack-by land, water and air, as well as by persons employed within the facility or outsiders who gain access. Terrorists could attack a reactor, the fuel storage pools or other critical components, causing the release of vast amounts of radioactivity. No existing U.S. nuclear power generating station was built to withstand deliberate attack by a jumbo jet.
RADIOACTIVE ROADS, RAILS AND NEIGHBORHOODS:
If a permanent disposal facility for irradiated fuel rods were ever built, transport of the waste on trains, trucks and barges would put countless communities at risk. If a site were chosen in a Western state, long-distance transport would be required because 77 of the 104 operating reactors are East of the Mississippi River.
The potential for an accident, terrorist attack or theft of nuclear materials during this transit is real.
EXPENSIVE
A CONTINUING FINANCIAL BURDEN:
Nuclear power cannot survive in a market economy without massive subsidies.
Federal subsidies include loan guarantees for construction and funds for research and development, including the search for a solution to the problem of radioactive waste.
In the event of a major disaster, the Price-Anderson Act requires the nuclear industry to pay for only the first $10 billlion-for deaths, injuries and property damage-a mere fraction of the liability costs federal taxpayers would have to cover. According to the 1982 NRC CRAC2 report, damages could run as high as $314 billion, depending on a reactor's surrounding population density and other factors. That would be approximately a trillion dollars today.
If a new reactor were to be built, state regulators would have to be willing to boost electric rates.
Without assurance of such state and federal handouts, private investors would refuse to finance construction of new nuclear reactors.
CONSTRUCTION COSTS:Because nuclear power facilities are so complicated and dangerous, construction costs are extremely high; lengthy delays are common. Because of a shortage of certified "nuclear grade" parts manufacturers, substandard or counterfeit components from domestic or foreign vendors may be installed, increasing reactor hazards.
OPERATING COSTS:
From the start, nuclear stations become radioactively contaminated. Large and small components and whole buildings get "hot." Therefore, operation is expensive. As reactors age and become more radioactive, operation becomes even more expensive. Repair or replacement of defective, obsolete or worn-out equipment requires shielding for workers as well as protective clothing, monitors and respirators. Far more workers, time and money are required to fix a nuclear generating system than a coal-or gas-fired power facility, wind-or solar farm.
As high-quality uranium becomes more scarce, it's use as a reactor fuel will become even more expensive and its manufacture will into fuel will increase the emission of greenhouse gasses.
PERPETUAL COSTS:
Dismantling a decommissioned nuclear facility would also be expensive. Because no disposal site exists for most radioactive wastes from most states, contaminated buildings and equipment may remain on site for many years. Because of the dangers, environmental monitoring and armed guards will be needed indefinitely.
NUCLEAR POWER CAN AND SHOULD BE PHASED OUT AND REPLACED WITH CLEAN, SAFE AND ECONOMICALLY SUSTAINABLE ENERGY ALTERNATIVES. SPREAD THE WORD: NUCLEAR POWER IS BASED ON FALSE PROMISES AND REAL DANGERS.
for information on clean, safe, sustainable electrical power generation, check out themrea.org