Monday, November 19, 2012
Quasars illustrate dark energy's roller coaster ride
original article: http://www.bbc.co.uk/news/science-environment-20303592
Scientists have used a novel technique to probe the nature of dark energy some 10 billion years into the past.
They hope it will bring them closer to an explanation for the strange force that appears to be driving the Universe apart at an accelerating rate.
The method relies on bright but distant objects known as quasars to map the spread of hydrogen gas clouds in space.
The 3D distribution of these clouds can be used as a tracer for the influence of dark energy through time.
A scholarly paper describing the approach has been submitted to the journal Astronomy & Astrophysics and posted on the arXiv.org preprint site.
It is authored by the BOSS (Baryon Oscillation Spectroscopic Survey) team, which uses the 2.5m Sloan Foundation Telescope in New Mexico, US, to make its observations of the sky.
The international group's new data is said to be a very neat fit with theory, confirming ideas that dark energy did not have a dominant role in the nascent Universe. Back then, gravity actually held sway, decelerating cosmic expansion. Only later did dark energy come to the fore.
"We know very little about dark energy but one of our ideas is that it is a property of space itself - when you have more space, you have more energy," explained Dr Matthew Pieri, a BOSS team-member.
"So, dark energy is something that increases with time. As the Universe expands, it gives us more space and therefore more energy, and at some point dark energy takes over from gravity to end the deceleration and drive an acceleration," the Portsmouth University, UK, researcher told BBC News.
The discovery that everything in the cosmos is now moving apart at a faster and faster rate was one of the major breakthroughs of the 20th Century. But scientists have found themselves grasping for new physics to try to explain this extraordinary phenomenon.
A number of techniques are being deployed to try to get some insight. One concerns so-called baryon acoustic oscillations.
These refer to the pressure-driven waves that passed through the post-Big-Bang Universe and which subsequently became frozen into the distribution of matter once it had cooled to a sufficient level.
Today, those oscillations show themselves as a "preferred scale" in the spread of galaxies - a slight excess in the numbers of such objects with separations of 500 million light-years.
It is an observation that can be used as a kind of standard ruler to measure the geometry of the cosmos.
The BOSS team used 48,000 distant quasars to "back-light" and map the distribution of clouds of hydrogen gas in the early Universe
The BOSS team has already done this using a large volume of galaxies that stretch some six billion light-years from Earth. But at greater distances - and hence deeper in cosmic time - these standard galaxies are simply too faint for the Sloan telescope to see.
Instead, the BOSS team has used quasars (quasi-stellar radio sources) to help it map the cosmos.
Quasars are far flung galaxies where a massive central black hole is driving the emission of huge amounts of electromagnetic radiation. These are visible to Sloan.
- Gravity acting across vast distances does not seem to explain what astronomers see
- Galaxies, for example, should fly apart; some other mass must be there holding them together
- Astrophysicists have thus postulated "dark matter" - invisible to us but clearly acting on galactic scales.
- At the greatest distances, the Universe's expansion is accelerating
Thus we have also "dark energy" which acts to drive the expansion, in opposition to gravity
- The current theory holds that 73% of the Universe is dark energy, 23% is dark matter, and just 4% the kind of matter we know well
As the quasars' light travels through space towards Earth, it passes through clouds of hydrogen gas.
Some of the light is absorbed in a very characteristic way, and the pattern of absorption betrays how the density of gas varies with distance along the line of sight to the telescope.
By observing almost 50,000 closely spaced quasars, the BOSS team has now been able to build a detailed 3D map of the distribution of hydrogen gas clouds reaching 11 billion light-years away, and recording an epoch just two billion years after the Big Bang itself.
"Each line of sight may have several hundred clouds, and so with 48,000 quasars we have many millions of these clouds," said Portsmouth colleague Prof Bob Nichol.
"Then what we do is take their 3D positions and we look at how they're clustered, and we say, 'is there a preferred scale in this clustering?'" And, lo and behold, there is, just as there is a preferred scale in the clustering of nearby galaxies."
The BOSS maps allow scientists to check the pace of expansion at different cosmological epochs, helping them to determine whether gravity and dark energy are behaving as theory predicts.
"What we're basically confirming is this nice roller-coaster analogy," said Dr Pieri. "From the Big Bang, the expansion of the Universe was decelerating, and then we crested the hill about seven billion years ago, and it was like something putting the foot on the pedal and the acceleration occurred."
BOSS is so far only a third of the way through its work. The goal in the next few years is to map the locations of a million and a half galaxies and more than 160,000 quasars.
- Before Nobel Prize-winning research in 1998, it was assumed gravity was slowing the post-Big Bang expansion of the Universe
- Now scientists say the expansion - far from slowing - is accelerating, pushing galaxies apart at a faster and faster rate
- The BOSS team has traced dark energy's part in the expansion over more than 10 billion years of cosmic history
Wednesday, August 1, 2012
Dust-Bowlification, 450ppm, and the Permafrost
http://thinkprogress.org/climate/2011/10/26/353997/nature-dust-bowlification-food-insecurity/?mobile=nc
Which impact of anthropogenic global warming will harm the most people in the coming decades? I believe that the answer is extended or permanent drought over large parts of currently habitable or arable land — a drastic change in climate that will threaten food security and may be irreversible over centuries.
A basic prediction of climate science is that many parts of the world will experience longer and deeper droughts, thanks to the synergistic effects of drying, warming and the melting of snow and ice.
Precipitation patterns are expected to shift, expanding the dry subtropics. What precipitation there is will probably come in extreme deluges, resulting in runoff rather than drought alleviation. Warming causes greater evaporation and, once the ground is dry, the Sun’s energy goes into baking the soil, leading to a further increase in air temp- erature.
That is why, for instance, so many temperature records were set for the United States in the 1930s Dust Bowl; and why, in 2011, drought-stricken Texas saw the hottest summer ever recorded for a US state. Finally, many regions are expected to see earlier snowmelt, so less water will be stored on mountain tops for the summer dry season. Added to natural climatic variation, such as the El Niño–La Niña cycle, these factors will intensify seasonal or decade-long droughts. Although the models don’t all agree on the specifics, the overall drying trends are clear.
I used to call the confluence of these processes ‘desertification’ on my blog, ClimateProgress.org, until some readers pointed out that many deserts are high in biodiversity, which isn’t where we’re heading. ‘Dust- bowlification’ is perhaps a more accurate and vivid term, particularly for Americans — many of whom still believe that climate change will only affect far-away places in far-distant times.
Prolonged drought will strike around the globe, but it is surprising to many that it would hit the US heartland so strongly and so soon.
The coming droughts ought to be a major driver — if not the major driver — of climate policies. Yet few policy-makers and journalists seem to be aware of dust-bowlification and its potentially devastating impact on food security. That’s partly understandable, because much of the key research cited in this article post-dates the 2007 Fourth Assessment Report of the Intergovernmental Panel on Climate Change (IPCC). Raising public awareness of, and scientific focus on, the likelihood of severe effects of drought is the first step in prompting action.
I first heard of the risks in a 2005 talk by climatologist Jonathan Overpeck of the Uni- versity of Arizona in Tucson. He pointed to emerging evidence that temperature and annual precipitation were heading in oppo- site directions over many regions and raised the question of whether we are at the “dawn of the super-interglacial drought”.
The idea wasn’t new. As far back as 1990, scientists at NASA’s Goddard Institute for Space Studies in New York projected that severe to extreme drought in the United States, then occurring every 20 years or so, could become an every-other-year phenom- enon by mid-century.
Events are starting to bear out these worrying predictions. Snowpack reduction, early snowmelt and a decrease in dry-season river flow in the American West, forecast more than two decades ago, have now been measured. In much of the northern Rockies, the peak of the annual stream runoff is up to three or four weeks earlier than it was half a century ago. Heat and drought — coupled with the greater impact of destruc- tive species, such as bark beetles, aided by warming — have increased forest die-off and the risk of wildfire.
The palaeoclimate record dating back to the medieval period reveals droughts lasting many decades. But the extreme droughts that the United States faces this century will be far hotter than the worst of those: recent decades have been warmer than the driest decade of the worst drought in the past 1,200 years.
And much warmer conditions are pro- jected. According to a 2009 report of the US Global Change Research Program, warming over mid-latitude land masses, such as the continental United States, is predicted to be higher than the forecast average global warming: much of the inland United States faces a rise of between 5 °C and 6 °C on the current emissions path (that is, ‘business as usual’) by the century’s end, with a substantial fraction of that warming occurring by mid-century.
A 2007 analysis of 19 climate projections estimated that levels of aridity comparable to those in the Dust Bowl could stretch from Kansas to California by mid-century. To make matters worse, the regions at risk of reduced water supply, such as Nevada, have seen a massive population boom in the past decade. Overuse of water in these areas has long been rife, depleting groundwater stores.
Of course, the United States is not alone in facing such problems. Since 1950, the global percentage of dry areas has increased by about 1.74% of global land area per decade. Recent studies have projected ‘extreme drought’ conditions by mid-century over some of the most populated areas on Earth—southern Europe, south-east Asia, Brazil, the US Southwest, and large parts of Australia and Africa. These dust-bowl conditions are projected to worsen for many decades and be “largely irreversible for 1,000 years after emissions stopped”….
In the past six years, the Amazon has seen two droughts of the sort expected once in 100 years, each of which may have released as much carbon dioxide from vegetation die-off as the United States emits from fossil-fuel combustion in a year. More frequent wildfires also threaten to increase carbon emissions
The PDSI [Palmer Drought Severity Index] in the Great Plains during the Dust Bowl apparently spiked very briefly to -6, but otherwise rarely exceeded -3 for the decade (see here).
A very large population will be severely affected in the coming decades over the whole United States, southern Europe, Southeast Asia, Brazil, Chile, Australia, and most of Africa.
The National Center for Atmospheric Research notes “By the end of the century, many populated areas, including parts of the United States, could face readings in the range of -8 to -10, and much of the Mediterranean could fall to -15 to -20. Such readings would be almost unprecedented.”
What will happen to global food security if dust-bowl conditions become the norm for both food-importing and food- exporting countries? Extreme, widespread droughts will be happening at the same time as sea level rise and salt-water intrusion threaten some of the richest agricultural deltas in the world, such as those of the Nile and the Ganges. Meanwhile, ocean acidification, warming and overfishing may severely deplete the food available from the sea….
Human adaptation to prolonged, extreme drought is difficult or impossible. Historically, the primary adaptation to dust-bowlification has been abandonment; the very word ‘desert’ comes from the Latin desertum for ‘an abandoned place’. During the relatively short-lived US Dust-Bowl era, hundreds of thousands of families fled the region. We need to plan how the world will deal with drought-spurred migrations (see page 447) and steadily growing areas of non- arable land in the heart of densely populated countries and global bread-baskets.
Feeding some 9 billion people by mid-century in the face of a rapidly worsening climate may well be the greatest challenge the human race has ever faced.
http://thinkprogress.org/climate/2008/06/19/202806/nature-publishes-my-climate-analysis-and-solution/
Some may believe that stabilizing atmospheric carbon dioxide concentrations below 450 p.p.m. is so difficult that we should seek to stabilize them at 550 p.p.m. or higher. But from a policy perspective, stabilizing at 550 p.p.m. is not much easier to achieve than levelling off at 450 p.p.m. — it still requires employing the vast majority of the wedges described here in under five decades, starting very soon. And yet the scientific evidence suggests that reaching 550 p.p.m. could have much graver consequences, for example destroying a large fraction of the permafrost, which houses a third of the carbon stored in soils globally. Much of this carbon would be released in the form of methane, a far more potent greenhouse gas than carbon dioxide, and could thus trigger more rapid climate change. Delay therefore risks crossing climate thresholds that would make efforts at emissions reduction far harder, if not almost impossible.
In fact, such is the urgent need to reverse emissions trends by deploying a multitude of low-carbon technologies that we must rely on technologies that either are already commercial or will very shortly be so. Fortunately, venture capitalists and public companies have begun to inject many billions of dollars into the development and short-term commercialization of most plausible low-carbon technologies. Governments should now focus their R&D spending on a longer-term eff ort aimed at a new generation of technologies for the emissions reduction eff ort aft er 2040, but the notion that we need a Manhattan Project or Apollo programme for technology development is mistaken. Instead, what is urgently needed is an effort of that scale focused on the deployment of technology.
http://thinkprogress.org/climate/2008/04/26/202588/is-450-ppm-or-less-politically-possible-part-0-the-alternative-is-humanitys-self-destruction/
The idea of stabilizing at, say, 550 or 650 ppm, widely held a decade ago, is becoming increasingly implausible given the likelihood that major carbon cycle feedbacks would go into overdrive, swiftly taking the planet to 800 ppm or more. In particular, the top 11 feet of the tundra would probably not survive 550 ppm (a point I will be blogging about soon) and two other key carbon sinks — land-based vegetation and the oceans — already appear to be saturating. That said, even if stabilizing at 550 ppm were possible, it would probably bring catastrophic impacts and in any case requires implementing some 10 wedges starting now.
At 800 to 1000 ppm, the world faces multiple miseries, including:
-Sea level rise of 80 feet to 250 feet at a rate of 6 inches a decade (or more).
-Desertification of one third the planet and drought over half the planet, plus the loss of all inland glaciers.
-More than 70% of all species going extinct, plus extreme ocean acidification.
Imagine sea level rise of nearly 20 inches a decade lasting centuries — a trend perhaps interrupted occasionally by large chunks of the West Antarctic ice sheet disintegrating, causing huge sea level jumps in a span of a few years. And imagine that by 2100, we lose all the inland glaciers, which Are currently the primary water supply for more than a billion people. Now imagine what future generations will think of us if we let it happen.
A year ago Science published research that “predicted a permanent drought by 2050 throughout the Southwest” — levels of aridity comparable to the 1930s Dust Bowl would stretch from Kansas to California. And they were only looking at a 720 ppm case! The Dust Bowl was a sustained decrease in soil moisture of about 15% (“which is calculated by subtracting evaporation from precipitation”).
Even the one-third desertification of the planet by 2100 scenario by the Hadley Center is only based on 850 ppm (in 2100). Princeton has done an analysis on “Century-scale change in water availability: CO2-quadrupling experiment,” which is to say 1100 ppm. The grim result: Most of the South and Southwest ultimately sees a 20% to 50% (!) decline in soil moisture.
You may be interested in how fast we can hit 1000 ppm. The Hadley Center has one of the few models that incorporates many of the major carbon cycle feedbacks. In a 2003 Geophysical Research Letters paper, “Strong carbon cycle feedbacks in a climate model with interactive CO2 and sulphate aerosols,” the Hadley Center, the U.K.’s official center for climate change research, finds that the world would hit 1000 ppm in 2100 even in a scenario that, absent those feedbacks, we would only have hit 700 ppm in 2100. I would note that the Hadley Center, though more inclusive of carbon cycle feedbacks than most other models, still does not model any feedbacks from the melting of the tundra even though it is probably the most serious of those amplifying feedbacks.
Clearly, 800 to 1000 ppm would be ruinous to the nation and the world, creating unimaginable suffering and misery for billions and billions of people for centuries to come. No one who believes in science and cares about humanity can possibly believe that adaptation is a more rational or moral policy than focusing 99% of our climate efforts on staying far, far below 800 ppm and far away from the tipping points in the carbon cycle.
And that means current CO2 levels are already too high. And that means immediate action is required. So our choice is really to stay below 450 ppm or risk self-destruction.
Which impact of anthropogenic global warming will harm the most people in the coming decades? I believe that the answer is extended or permanent drought over large parts of currently habitable or arable land — a drastic change in climate that will threaten food security and may be irreversible over centuries.
A basic prediction of climate science is that many parts of the world will experience longer and deeper droughts, thanks to the synergistic effects of drying, warming and the melting of snow and ice.
Precipitation patterns are expected to shift, expanding the dry subtropics. What precipitation there is will probably come in extreme deluges, resulting in runoff rather than drought alleviation. Warming causes greater evaporation and, once the ground is dry, the Sun’s energy goes into baking the soil, leading to a further increase in air temp- erature.
That is why, for instance, so many temperature records were set for the United States in the 1930s Dust Bowl; and why, in 2011, drought-stricken Texas saw the hottest summer ever recorded for a US state. Finally, many regions are expected to see earlier snowmelt, so less water will be stored on mountain tops for the summer dry season. Added to natural climatic variation, such as the El Niño–La Niña cycle, these factors will intensify seasonal or decade-long droughts. Although the models don’t all agree on the specifics, the overall drying trends are clear.
I used to call the confluence of these processes ‘desertification’ on my blog, ClimateProgress.org, until some readers pointed out that many deserts are high in biodiversity, which isn’t where we’re heading. ‘Dust- bowlification’ is perhaps a more accurate and vivid term, particularly for Americans — many of whom still believe that climate change will only affect far-away places in far-distant times.
Prolonged drought will strike around the globe, but it is surprising to many that it would hit the US heartland so strongly and so soon.
The coming droughts ought to be a major driver — if not the major driver — of climate policies. Yet few policy-makers and journalists seem to be aware of dust-bowlification and its potentially devastating impact on food security. That’s partly understandable, because much of the key research cited in this article post-dates the 2007 Fourth Assessment Report of the Intergovernmental Panel on Climate Change (IPCC). Raising public awareness of, and scientific focus on, the likelihood of severe effects of drought is the first step in prompting action.
I first heard of the risks in a 2005 talk by climatologist Jonathan Overpeck of the Uni- versity of Arizona in Tucson. He pointed to emerging evidence that temperature and annual precipitation were heading in oppo- site directions over many regions and raised the question of whether we are at the “dawn of the super-interglacial drought”.
The idea wasn’t new. As far back as 1990, scientists at NASA’s Goddard Institute for Space Studies in New York projected that severe to extreme drought in the United States, then occurring every 20 years or so, could become an every-other-year phenom- enon by mid-century.
Events are starting to bear out these worrying predictions. Snowpack reduction, early snowmelt and a decrease in dry-season river flow in the American West, forecast more than two decades ago, have now been measured. In much of the northern Rockies, the peak of the annual stream runoff is up to three or four weeks earlier than it was half a century ago. Heat and drought — coupled with the greater impact of destruc- tive species, such as bark beetles, aided by warming — have increased forest die-off and the risk of wildfire.
The palaeoclimate record dating back to the medieval period reveals droughts lasting many decades. But the extreme droughts that the United States faces this century will be far hotter than the worst of those: recent decades have been warmer than the driest decade of the worst drought in the past 1,200 years.
And much warmer conditions are pro- jected. According to a 2009 report of the US Global Change Research Program, warming over mid-latitude land masses, such as the continental United States, is predicted to be higher than the forecast average global warming: much of the inland United States faces a rise of between 5 °C and 6 °C on the current emissions path (that is, ‘business as usual’) by the century’s end, with a substantial fraction of that warming occurring by mid-century.
A 2007 analysis of 19 climate projections estimated that levels of aridity comparable to those in the Dust Bowl could stretch from Kansas to California by mid-century. To make matters worse, the regions at risk of reduced water supply, such as Nevada, have seen a massive population boom in the past decade. Overuse of water in these areas has long been rife, depleting groundwater stores.
Of course, the United States is not alone in facing such problems. Since 1950, the global percentage of dry areas has increased by about 1.74% of global land area per decade. Recent studies have projected ‘extreme drought’ conditions by mid-century over some of the most populated areas on Earth—southern Europe, south-east Asia, Brazil, the US Southwest, and large parts of Australia and Africa. These dust-bowl conditions are projected to worsen for many decades and be “largely irreversible for 1,000 years after emissions stopped”….
In the past six years, the Amazon has seen two droughts of the sort expected once in 100 years, each of which may have released as much carbon dioxide from vegetation die-off as the United States emits from fossil-fuel combustion in a year. More frequent wildfires also threaten to increase carbon emissions
The PDSI [Palmer Drought Severity Index] in the Great Plains during the Dust Bowl apparently spiked very briefly to -6, but otherwise rarely exceeded -3 for the decade (see here).
A very large population will be severely affected in the coming decades over the whole United States, southern Europe, Southeast Asia, Brazil, Chile, Australia, and most of Africa.
The National Center for Atmospheric Research notes “By the end of the century, many populated areas, including parts of the United States, could face readings in the range of -8 to -10, and much of the Mediterranean could fall to -15 to -20. Such readings would be almost unprecedented.”
What will happen to global food security if dust-bowl conditions become the norm for both food-importing and food- exporting countries? Extreme, widespread droughts will be happening at the same time as sea level rise and salt-water intrusion threaten some of the richest agricultural deltas in the world, such as those of the Nile and the Ganges. Meanwhile, ocean acidification, warming and overfishing may severely deplete the food available from the sea….
Human adaptation to prolonged, extreme drought is difficult or impossible. Historically, the primary adaptation to dust-bowlification has been abandonment; the very word ‘desert’ comes from the Latin desertum for ‘an abandoned place’. During the relatively short-lived US Dust-Bowl era, hundreds of thousands of families fled the region. We need to plan how the world will deal with drought-spurred migrations (see page 447) and steadily growing areas of non- arable land in the heart of densely populated countries and global bread-baskets.
Feeding some 9 billion people by mid-century in the face of a rapidly worsening climate may well be the greatest challenge the human race has ever faced.
http://thinkprogress.org/climate/2008/06/19/202806/nature-publishes-my-climate-analysis-and-solution/
Some may believe that stabilizing atmospheric carbon dioxide concentrations below 450 p.p.m. is so difficult that we should seek to stabilize them at 550 p.p.m. or higher. But from a policy perspective, stabilizing at 550 p.p.m. is not much easier to achieve than levelling off at 450 p.p.m. — it still requires employing the vast majority of the wedges described here in under five decades, starting very soon. And yet the scientific evidence suggests that reaching 550 p.p.m. could have much graver consequences, for example destroying a large fraction of the permafrost, which houses a third of the carbon stored in soils globally. Much of this carbon would be released in the form of methane, a far more potent greenhouse gas than carbon dioxide, and could thus trigger more rapid climate change. Delay therefore risks crossing climate thresholds that would make efforts at emissions reduction far harder, if not almost impossible.
In fact, such is the urgent need to reverse emissions trends by deploying a multitude of low-carbon technologies that we must rely on technologies that either are already commercial or will very shortly be so. Fortunately, venture capitalists and public companies have begun to inject many billions of dollars into the development and short-term commercialization of most plausible low-carbon technologies. Governments should now focus their R&D spending on a longer-term eff ort aimed at a new generation of technologies for the emissions reduction eff ort aft er 2040, but the notion that we need a Manhattan Project or Apollo programme for technology development is mistaken. Instead, what is urgently needed is an effort of that scale focused on the deployment of technology.
http://thinkprogress.org/climate/2008/04/26/202588/is-450-ppm-or-less-politically-possible-part-0-the-alternative-is-humanitys-self-destruction/
The idea of stabilizing at, say, 550 or 650 ppm, widely held a decade ago, is becoming increasingly implausible given the likelihood that major carbon cycle feedbacks would go into overdrive, swiftly taking the planet to 800 ppm or more. In particular, the top 11 feet of the tundra would probably not survive 550 ppm (a point I will be blogging about soon) and two other key carbon sinks — land-based vegetation and the oceans — already appear to be saturating. That said, even if stabilizing at 550 ppm were possible, it would probably bring catastrophic impacts and in any case requires implementing some 10 wedges starting now.
At 800 to 1000 ppm, the world faces multiple miseries, including:
-Sea level rise of 80 feet to 250 feet at a rate of 6 inches a decade (or more).
-Desertification of one third the planet and drought over half the planet, plus the loss of all inland glaciers.
-More than 70% of all species going extinct, plus extreme ocean acidification.
Imagine sea level rise of nearly 20 inches a decade lasting centuries — a trend perhaps interrupted occasionally by large chunks of the West Antarctic ice sheet disintegrating, causing huge sea level jumps in a span of a few years. And imagine that by 2100, we lose all the inland glaciers, which Are currently the primary water supply for more than a billion people. Now imagine what future generations will think of us if we let it happen.
A year ago Science published research that “predicted a permanent drought by 2050 throughout the Southwest” — levels of aridity comparable to the 1930s Dust Bowl would stretch from Kansas to California. And they were only looking at a 720 ppm case! The Dust Bowl was a sustained decrease in soil moisture of about 15% (“which is calculated by subtracting evaporation from precipitation”).
Even the one-third desertification of the planet by 2100 scenario by the Hadley Center is only based on 850 ppm (in 2100). Princeton has done an analysis on “Century-scale change in water availability: CO2-quadrupling experiment,” which is to say 1100 ppm. The grim result: Most of the South and Southwest ultimately sees a 20% to 50% (!) decline in soil moisture.
You may be interested in how fast we can hit 1000 ppm. The Hadley Center has one of the few models that incorporates many of the major carbon cycle feedbacks. In a 2003 Geophysical Research Letters paper, “Strong carbon cycle feedbacks in a climate model with interactive CO2 and sulphate aerosols,” the Hadley Center, the U.K.’s official center for climate change research, finds that the world would hit 1000 ppm in 2100 even in a scenario that, absent those feedbacks, we would only have hit 700 ppm in 2100. I would note that the Hadley Center, though more inclusive of carbon cycle feedbacks than most other models, still does not model any feedbacks from the melting of the tundra even though it is probably the most serious of those amplifying feedbacks.
Clearly, 800 to 1000 ppm would be ruinous to the nation and the world, creating unimaginable suffering and misery for billions and billions of people for centuries to come. No one who believes in science and cares about humanity can possibly believe that adaptation is a more rational or moral policy than focusing 99% of our climate efforts on staying far, far below 800 ppm and far away from the tipping points in the carbon cycle.
And that means current CO2 levels are already too high. And that means immediate action is required. So our choice is really to stay below 450 ppm or risk self-destruction.
Wednesday, June 27, 2012
Thursday, May 31, 2012
It All Turns On Affection
AWARDS & HONORS: 2012 JEFFERSON LECTURER
Wendell E. Berry Lecture
“It All Turns On Affection”
original article:
http://www.neh.gov/about/awards/jefferson-lecture/wendell-e-berry-lecture
“Because a thing is going strong now, it need not go strong for ever,” [Margaret] said. “This craze for motion has only set in during the last hundred years. It may be followed by a civilization that won’t be a movement, because it will rest upon the earth.
E. M. Forster, Howards End (1910)1
One night in the winter of 1907, at what we have always called “the home place” in Henry County, Kentucky, my father, then six years old, sat with his older brother and listened as their parents spoke of the uses they would have for the money from their 1906 tobacco crop. The crop was to be sold at auction in Louisville on the next day. They would have been sitting in the light of a kerosene lamp, close to the stove, warming themselves before bedtime. They were not wealthy people. I believe that the debt on their farm was not fully paid, there would have been interest to pay, there would have been other debts. The depression of the 1890s would have left them burdened. Perhaps, after the income from the crop had paid their obligations, there would be some money that they could spend as they chose. At around two o’clock the next morning, my father was wakened by a horse’s shod hooves on the stones of the driveway. His father was leaving to catch the train to see the crop sold.
He came home that evening, as my father later would put it, “without a dime.” After the crop had paid its transportation to market and the commission on its sale, there was nothing left. Thus began my father’s lifelong advocacy, later my brother’s and my own, and now my daughter’s and my son’s, for small farmers and for land-conserving economies.
#
The economic hardship of my family and of many others, a century ago, was caused by a monopoly, the American Tobacco Company, which had eliminated all competitors and thus was able to reduce as it pleased the prices it paid to farmers. The American Tobacco Company was the work of James B. Duke of Durham, North Carolina, and New York City, who, disregarding any other consideration, followed a capitalist logic to absolute control of his industry and, incidentally, of the economic fate of thousands of families such as my own.
My effort to make sense of this memory and its encompassing history has depended on a pair of terms used by my teacher, Wallace Stegner. He thought rightly that we Americans, by inclination at least, have been divided into two kinds: “boomers” and “stickers.” Boomers, he said, are “those who pillage and run,” who want “to make a killing and end up on Easy Street,” whereas stickers are “those who settle, and love the life they have made and the place they have made it in.”2 “Boomer” names a kind of person and a kind of ambition that is the major theme, so far, of the history of the European races in our country. “Sticker” names a kind of person and also a desire that is, so far, a minor theme of that history, but a theme persistent enough to remain significant and to offer, still, a significant hope.
The boomer is motivated by greed, the desire for money, property, and therefore power. James B. Duke was a boomer, if we can extend the definition to include pillage in absentia. He went, or sent, wherever the getting was good, and he got as much as he could take.
Stickers on the contrary are motivated by affection, by such love for a place and its life that they want to preserve it and remain in it. Of my grandfather I need to say only that he shared in the virtues and the faults of his kind and time, one of his virtues being that he was a sticker. He belonged to a family who had come to Kentucky from Virginia, and who intended to go no farther. He was the third in his paternal line to live in the neighborhood of our little town of Port Royal, and he was the second to own the farm where he was born in 1864 and where he died in 1946.
We have one memory of him that seems, more than any other, to identify him as a sticker. He owned his farm, having bought out the other heirs, for more than fifty years. About forty of those years were in hard times, and he lived almost continuously in the distress of debt. Whatever has happened in what economists call “the economy,” it is generally true that the land economy has been discounted or ignored. My grandfather lived his life in an economic shadow. In an urbanizing and industrializing age, he was the wrong kind of man. In one of his difficult years he plowed a field on the lower part of a long slope and planted it in corn. While the soil was exposed, a heavy rain fell and the field was seriously eroded. This was heartbreak for my grandfather, and he devoted the rest of his life, first to healing the scars and then to his obligation of care. In keeping with the sticker’s commitment, he neither left behind the damage he had done nor forgot about it, but stayed to repair it, insofar as soil loss can be repaired. My father, I think, had his father’s error in mind when he would speak of farmers attempting, always uselessly if not tragically, “to plow their way out of debt.” From that time, my grandfather and my father were soil conservationists, a commitment that they handed on to my brother and to me.
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It is not beside the point, or off my subject, to notice that these stories and their meanings, have survived because of my family’s continuing connection to its home place. Like my grandfather, my father grew up on that place and served as its caretaker. It has now belonged to my brother for many years, and he in turn has been its caretaker. He and I have lived as neighbors, allies, and friends. Our long conversation has often taken its themes from the two stories I have told, because we have been continually reminded of them by our home neighborhood and topography. If we had not lived there to be reminded and to remember, nobody would have remembered. If either of us had lived elsewhere, both of us would have known less. If both of us, like most of our generation, had moved away, the place with its memories would have been lost to us and we to it—and certainly my thoughts about agriculture, if I had thought of it at all, would have been much more approximate than they have been.
Because I have never separated myself from my home neighborhood, I cannot identify myself to myself apart from it. I am fairly literally flesh of its flesh. It is present in me, and to me, wherever I go. This undoubtedly accounts for my sense of shock when, on my first visit to Duke University, and by surprise, I came face-to-face with James B. Duke in his dignity, his glory perhaps, as the founder of that university. He stands imperially in bronze in front of a Methodist chapel aspiring to be a cathedral. He holds between two fingers of his left hand a bronze cigar. On one side of his pedestal is the legend: INDUSTRIALIST. On the other side is another single word: PHILANTHROPIST. The man thus commemorated seemed to me terrifyingly ignorant, even terrifyingly innocent, of the connection between his industry and his philanthropy. But I did know the connection. I felt it instantly and physically. The connection was my grandparents and thousands of others more or less like them. If you can appropriate for little or nothing the work and hope of enough such farmers, then you may dispense the grand charity of “philanthropy.”
After my encounter with the statue, the story of my grandfather’s 1906 tobacco crop slowly took on a new dimension and clarity in my mind. I still remembered my grandfather as himself, of course, but I began to think of him also as a kind of man standing in thematic opposition to a man of an entirely different kind. And I could see finally that between these two kinds there was a failure of imagination that was ruinous, that belongs indelibly to our history, and that has continued, growing worse, into our own time.
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The term “imagination” in what I take to be its truest sense refers to a mental faculty that some people have used and thought about with the utmost seriousness. The sense of the verb “to imagine” contains the full richness of the verb “to see.” To imagine is to see most clearly, familiarly, and understandingly with the eyes, but also to see inwardly, with “the mind’s eye.” It is to see, not passively, but with a force of vision and even with visionary force. To take it seriously we must give up at once any notion that imagination is disconnected from reality or truth or knowledge. It has nothing to do either with clever imitation of appearances or with “dreaming up.” It does not depend upon one’s attitude or point of view, but grasps securely the qualities of things seen or envisioned.
I will say, from my own belief and experience, that imagination thrives on contact, on tangible connection. For humans to have a responsible relationship to the world, they must imagine their places in it. To have a place, to live and belong in a place, to live from a place without destroying it, we must imagine it. By imagination we see it illuminated by its own unique character and by our love for it. By imagination we recognize with sympathy the fellow members, human and nonhuman, with whom we share our place. By that local experience we see the need to grant a sort of preemptive sympathy to all the fellow members, the neighbors, with whom we share the world. As imagination enables sympathy, sympathy enables affection. And it is in affection that we find the possibility of a neighborly, kind, and conserving economy.
Obviously there is some risk in making affection the pivot of an argument about economy. The charge will be made that affection is an emotion, merely “subjective,” and therefore that all affections are more or less equal: people may have affection for their children and their automobiles, their neighbors and their weapons. But the risk, I think, is only that affection is personal. If it is not personal, it is nothing; we don’t, at least, have to worry about governmental or corporate affection. And one of the endeavors of human cultures, from the beginning, has been to qualify and direct the influence of emotion. The word “affection” and the terms of value that cluster around it—love, care, sympathy, mercy, forbearance, respect, reverence—have histories and meanings that raise the issue of worth. We should, as our culture has warned us over and over again, give our affection to things that are true, just, and beautiful. When we give affection to things that are destructive, we are wrong. A large machine in a large, toxic, eroded cornfield is not, properly speaking, an object or a sign of affection.
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My grandfather knew, urgently, the value of money, but only of such comparatively small sums as would have paid his debts and allowed to his farm and his family a decent prosperity. He certainly knew of the American Tobacco Company. He no doubt had read and heard of James B. Duke, and could identify him as the cause of a hard time, but nothing in his experience could have enabled him to imagine the life of the man himself.
James B. Duke came from a rural family in the tobacco country of North Carolina. In his early life he would have known men such as my grandfather. But after he began his rise as an industrialist, the life of a small tobacco grower would have been to him a negligible detail incidental to an opportunity for large profits. In the minds of the “captains of industry,” then and now, the people of the land economies have been reduced to statistical numerals. Power deals “efficiently” with quantities that affection cannot recognize.
It may seem plausible to suppose that the head of the American Tobacco Company would have imagined at least that a dependable supply of raw material to his industry would depend upon a stable, reasonably thriving population of farmers and upon the continuing fertility of their farms. But he imagined no such thing. In this he was like apparently all agribusiness executives. They don’t imagine farms or farmers. They imagine perhaps nothing at all, their minds being filled to capacity by numbers leading to the bottom line. Though the corporations, by law, are counted as persons, they do not have personal minds, if they can be said to have minds. It is a great oddity that a corporation, which properly speaking has no self, is by definition selfish, responsible only to itself. This is an impersonal, abstract selfishness, limitlessly acquisitive, but unable to look so far ahead as to preserve its own sources and supplies. The selfishness of the fossil fuel industries by nature is self-annihilating; but so, always, has been the selfishness of the agribusiness corporations. Land, as Wes Jackson has said, has thus been made as exhaustible as oil or coal.
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There is another difference between my grandfather and James B. Duke that may finally be more important than any other, and this was a difference of kinds of pleasure. We may assume that, as a boomer, moving from one chance of wealth to another, James B. Duke wanted only what he did not yet have. If it is true that he was in this way typical of his kind, then his great pleasure was only in prospect, which excludes affection as a motive.
My grandfather, on the contrary, and despite his life’s persistent theme of hardship, took a great and present delight in the modest good that was at hand: in his place and his affection for it, in its pastures, animals, and crops, in favorable weather.
He did not participate in the least in what we call “mobility.” He died, after eighty-two years, in the same spot he was born in. He was probably in his sixties when he made the one longish trip of his life. He went with my father southward across Kentucky and into Tennessee. On their return, my father asked him what he thought of their journey. He replied: “Well, sir, I’ve looked with all the eyes I’ve got, and I wouldn’t trade the field behind my barn for every inch I’ve seen.”
In such modest joy in a modest holding is the promise of a stable, democratic society, a promise not to be found in “mobility”: our forlorn modern progress toward something indefinitely, and often unrealizably, better. A principled dissatisfaction with whatever one has promises nothing or worse.
James B. Duke would not necessarily have thought so far of the small growers as even to hold them in contempt. The Duke trust exerted an oppression that was purely economic, involving a mechanical indifference, the indifference of a grinder to what it grinds. It was not, that is to say, a political oppression. It did not intend to victimize its victims. It simply followed its single purpose of the highest possible profit, and ignored the “side effects.” Confronting that purpose, any small farmer is only one, and one lost, among a great multitude of others, whose work can be quickly transformed into a great multitude of dollars.
Corporate industrialism has tended to be, and as its technological and financial power has grown it has tended increasingly to be, indifferent to its sources in what Aldo Leopold called “the land-community”: the land, all its features and “resources,” and all its members, human and nonhuman, including of course the humans who do, for better or worse, the work of land use.3 Industrialists and industrial economists have assumed, with permission from the rest of us, that land and people can be divorced without harm. If farmers come under adversity from high costs and low prices, then they must either increase their demands upon the land and decrease their care for it, or they must sell out and move to town, and this is supposed to involve no ecological or economic or social cost. Or if there are such costs, then they are rated as “the price of progress” or “creative destruction.”
But land abuse cannot brighten the human prospect. There is in fact no distinction between the fate of the land and the fate of the people. When one is abused, the other suffers. The penalties may come quickly to a farmer who destroys perennial cover on a sloping field. They will come sooner or later to a land-destroying civilization such as ours.
And so it has seemed to me less a choice than a necessity to oppose the boomer enterprise with its false standards and its incomplete accounting, and to espouse the cause of stable, restorative, locally adapted economies of mostly family-sized farms, ranches, shops, and trades. Naïve as it may sound now, within the context of our present faith in science, finance, and technology—the faith equally of “conservatives” and “liberals”—this cause nevertheless has an authentic source in the sticker’s hope to abide in and to live from some chosen and cherished small place—which, of course, is the agrarian vision that Thomas Jefferson spoke for, a sometimes honored human theme, minor and even fugitive, but continuous from ancient times until now. Allegiance to it, however, is not a conclusion but the beginning of thought.
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The problem that ought to concern us first is the fairly recent dismantling of our old understanding and acceptance of human limits. For a long time we knew that we were not, and could never be, “as gods.” We knew, or retained the capacity to learn, that our intelligence could get us into trouble that it could not get us out of. We were intelligent enough to know that our intelligence, like our world, is limited. We seem to have known and feared the possibility of irreparable damage. But beginning in science and engineering, and continuing, by imitation, into other disciplines, we have progressed to the belief that humans are intelligent enough, or soon will be, to transcend all limits and to forestall or correct all bad results of the misuse of intelligence. Upon this belief rests the further belief that we can have “economic growth” without limit.
Economy in its original—and, I think, its proper—sense refers to household management. By extension, it refers to the husbanding of all the goods by which we live. An authentic economy, if we had one, would define and make, on the terms of thrift and affection, our connections to nature and to one another. Our present industrial system also makes those connections, but by pillage and indifference. Most economists think of this arrangement as “the economy.” Their columns and articles rarely if ever mention the land-communities and land-use economies. They never ask, in their professional oblivion, why we are willing to do permanent ecological and cultural damage “to strengthen the economy?”
In his essay, “Notes on Liberty and Property,” Allen Tate gave us an indispensable anatomy of our problem. His essay begins by equating, not liberty and property, but liberty and control of one’s property. He then makes the crucial distinction between ownership that is merely legal and what he calls “effective ownership.” If a property, say a small farm, has one owner, then the one owner has an effective and assured, if limited, control over it as long as he or she can afford to own it, and is free to sell it or use it, and (I will add) free to use it poorly or well. It is clear also that effective ownership of a small property is personal and therefore can, at least possibly, be intimate, familial, and affectionate. If, on the contrary, a person owns a small property of stock in a large corporation, then that person has surrendered control of the property to larger shareholders. The drastic mistake our people made, as Tate believed and I agree, was to be convinced “that there is one kind of property—just property, whether it be a thirty-acre farm in Kentucky or a stock certificate in the United States Steel Corporation.” By means of this confusion, Tate said, “Small ownership . . . has been worsted by big, dispersed ownership—the giant corporation.”4 (It is necessary to append to this argument the further fact that by now, owing largely to corporate influence, land ownership implies the right to destroy the land-community entirely, as in surface mining, and to impose, as a consequence, the dangers of flooding, water pollution, and disease upon communities downstream.)
Tate’s essay was written for the anthology, Who Owns America? the publication of which was utterly without effect. With other agrarian writings before and since, it took its place on the far margin of the national dialogue, dismissed as anachronistic, retrogressive, nostalgic, or (to use Tate’s own term of defiance) reactionary in the face of the supposedly “inevitable” dominance of corporate industrialism. Who Owns America? was published in the Depression year of 1936. It is at least ironic that talk of “effective property” could have been lightly dismissed at a time when many rural people who had migrated to industrial cities were returning to their home farms to survive.
In 1936, when to the dominant minds a thirty-acre farm in Kentucky was becoming laughable, Tate’s essay would have seemed irrelevant as a matter of course. At that time, despite the Depression, faith in the standards and devices of industrial progress was nearly universal and could not be shaken.
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But now, three-quarters of a century later, we are no longer talking about theoretical alternatives to corporate rule. We are talking with practical urgency about an obvious need. Now the two great aims of industrialism—replacement of people by technology and concentration of wealth into the hands of a small plutocracy—seem close to fulfillment. At the same time the failures of industrialism have become too great and too dangerous to deny. Corporate industrialism itself has exposed the falsehood that it ever was inevitable or that it ever has given precedence to the common good. It has failed to sustain the health and stability of human society. Among its characteristic signs are destroyed communities, neighborhoods, families, small businesses, and small farms. It has failed just as conspicuously and more dangerously to conserve the wealth and health of nature. No amount of fiddling with capitalism to regulate and humanize it, no pointless rhetoric on the virtues of capitalism or socialism, no billions or trillions spent on “defense” of the “American dream,” can for long disguise this failure. The evidences of it are everywhere: eroded, wasted, or degraded soils; damaged or destroyed ecosystems; extinction of species; whole landscapes defaced, gouged, flooded, or blown up; pollution of the whole atmosphere and of the water cycle; “dead zones” in the coastal waters; thoughtless squandering of fossil fuels and fossil waters, of mineable minerals and ores; natural health and beauty replaced by a heartless and sickening ugliness. Perhaps its greatest success is an astounding increase in the destructiveness, and therefore the profitability, of war.
In 1936, moreover, only a handful of people were thinking about sustainability. Now, reasonably, many of us are thinking about it. The problem of sustainability is simple enough to state. It requires that the fertility cycle of birth, growth, maturity, death, and decay—what Albert Howard called “the Wheel of Life”—should turn continuously in place, so that the law of return is kept and nothing is wasted. For this to happen in the stewardship of humans, there must be a cultural cycle, in harmony with the fertility cycle, also continuously turning in place. The cultural cycle is an unending conversation between old people and young people, assuring the survival of local memory, which has, as long as it remains local, the greatest practical urgency and value. This is what is meant, and is all that is meant, by “sustainability.” The fertility cycle turns by the law of nature. The cultural cycle turns on affection.
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That we live now in an economy that is not sustainable is not the fault only of a few mongers of power and heavy equipment. We all are implicated. We all, in the course of our daily economic life, consent to it, whether or not we approve of it. This is because of the increasing abstraction and unconsciousness of our connection to our economic sources in the land, the land-communities, and the land-use economies. In my region and within my memory, for example, human life has become less creaturely and more engineered, less familiar and more remote from local places, pleasures, and associations. Our knowledge, in short, has become increasingly statistical.
Statistical knowledge once was rare. It was a property of the minds of great rulers, conquerors, and generals, people who succeeded or failed by the manipulation of large quantities that remained, to them, unimagined because unimaginable: merely accountable quantities of land, treasure, people, soldiers, and workers. This is the sort of knowledge we now call “data” or “facts” or “information.” Or we call it “objective knowledge,” supposedly untainted by personal attachment, but nonetheless available for industrial and commercial exploitation. By means of such knowledge a category assumes dominion over its parts or members. With the coming of industrialism, the great industrialists, like kings and conquerors, become exploiters of statistical knowledge. And finally virtually all of us, in order to participate and survive in their system, have had to agree to their substitution of statistical knowledge for personal knowledge. Virtually all of us now share with the most powerful industrialists their remoteness from actual experience of the actual world. Like them, we participate in an absentee economy, which makes us effectively absent even from our own dwelling places. Though most of us have little wealth and perhaps no power, we consumer–citizens are more like James B. Duke than we are like my grandfather. By economic proxies thoughtlessly given, by thoughtless consumption of goods ignorantly purchased, now we all are boomers.
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The failure of imagination that divided the Duke monopoly and such farmers as my grandfather seems by now to be taken for granted. James B. Duke controlled remotely the economies of thousands of farm families. A hundred years later, “remote control” is an unquestioned fact, the realization of a technological ideal, and we have remote entertainment and remote war. Statistical knowledge is remote, and it isolates us in our remoteness. It is the stuff itself of unimagined life. We may, as we say, “know” statistical sums, but we cannot imagine them.
It is by imagination that knowledge is “carried to the heart” (to borrow again from Allen Tate).5 The faculties of the mind—reason, memory, feeling, intuition, imagination, and the rest—are not distinct from one another. Though some may be favored over others and some ignored, none functions alone. But the human mind, even in its wholeness, even in instances of greatest genius, is irremediably limited. Its several faculties, when we try to use them separately or specialize them, are even more limited.
The fact is that we humans are not much to be trusted with what I am calling statistical knowledge, and the larger the statistical quantities the less we are to be trusted. We don’t learn much from big numbers. We don’t understand them very well, and we aren’t much affected by them. The reality that is responsibly manageable by human intelligence is much nearer in scale to a small rural community or urban neighborhood than to the “globe.”
When people succeed in profiting on a large scale, they succeed for themselves. When they fail, they fail for many others, sometimes for us all. A large failure is worse than a small one, and this has the sound of an axiom, but how many believe it? Propriety of scale in all human undertakings is paramount, and we ignore it. We are now betting our lives on quantities that far exceed all our powers of comprehension. We believe that we have built a perhaps limitless power of comprehension into computers and other machines, but our minds remain as limited as ever. Our trust that machines can manipulate to humane effect quantities that are unintelligible and unimaginable to humans is incorrigibly strange.
As there is a limit only within which property ownership is effective, so is there a limit only within which the human mind is effective and at least possibly beneficent. We must assume that the limit would vary somewhat, though not greatly, with the abilities of persons. Beyond that limit the mind loses its wholeness, and its faculties begin to be employed separately or fragmented according to the specialties or professions for which it has been trained.
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In my reading of the historian John Lukacs, I have been most instructed by his understanding that there is no knowledge but human knowledge, that we are therefore inescapably central to our own consciousness, and that this is “a statement not of arrogance but of humility. It is yet another recognition of the inevitable limitations of mankind.”6 We are thus isolated within our uniquely human boundaries, which we certainly cannot transcend or escape by means of technological devices.
But as I understand this dilemma, we are not completely isolated. Though we cannot by our own powers escape our limits, we are subject to correction from, so to speak, the outside. I can hardly expect everybody to believe, as I do (with due caution), that inspiration can come from the outside. But inspiration is not the only way the human enclosure can be penetrated. Nature too may break in upon us, sometimes to our delight, sometimes to our dismay.
As many hunters, farmers, ecologists, and poets have understood, Nature (and here we capitalize her name) is the impartial mother of all creatures, unpredictable, never entirely revealed, not my mother or your mother, but nonetheless our mother. If we are observant and respectful of her, she gives good instruction. As Albert Howard, Wes Jackson, and others have carefully understood, she can give us the right patterns and standards for agriculture. If we ignore or offend her, she enforces her will with punishment. She is always trying to tell us that we are not so superior or independent or alone or autonomous as we may think. She tells us in the voice of Edmund Spenser that she is of all creatures “the equall mother, / And knittest each to each, as brother unto brother.”7 Nearly three and a half centuries later, we hear her saying about the same thing in the voice of Aldo Leopold: “In short, a land ethic changes the role of Homo sapiens from conqueror of the land-community to plain member and citizen of it.”8
We cannot know the whole truth, which belongs to God alone, but our task nevertheless is to seek to know what is true. And if we offend gravely enough against what we know to be true, as by failing badly enough to deal affectionately and responsibly with our land and our neighbors, truth will retaliate with ugliness, poverty, and disease. The crisis of this line of thought is the realization that we are at once limited and unendingly responsible for what we know and do.
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The discrepancy between what modern humans presume to know and what they can imagine—given the background of pride and self-congratulation—is amusing and even funny. It becomes more serious as it raises issues of responsibility. It becomes fearfully serious when we start dealing with statistical measures of industrial destruction.
To hear of a thousand deaths in war is terrible, and we “know” that it is. But as it registers on our hearts, it is not more terrible than one death fully imagined. The economic hardship of one farm family, if they are our neighbors, affects us more painfully than pages of statistics on the decline of the farm population. I can be heartstruck by grief and a kind of compassion at the sight of one gulley (and by shame if I caused it myself), but, conservationist though I am, I am not nearly so upset by an accounting of the tons of plowland sediment borne by the Mississippi River. Wallace Stevens wrote that “Imagination applied to the whole world is vapid in comparison to imagination applied to a detail”9—and that appears to have the force of truth.
It is a horrible fact that we can read in the daily paper, without interrupting our breakfast, numerical reckonings of death and destruction that ought to break our hearts or scare us out of our wits. This brings us to an entirely practical question: Can we—and, if we can, how can we—make actual in our minds the sometimes urgent things we say we know? This obviously cannot be accomplished by a technological breakthrough, nor can it be accomplished by a big thought. Perhaps it cannot be accomplished at all.
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Yet another not very stretchable human limit is in our ability to tolerate or adapt to change. Change of course is a constant of earthly life. You can’t step twice into exactly the same river, nor can you live two successive moments in exactly the same place. And always in human history there have been costly or catastrophic sudden changes. But with relentless fanfare, at the cost of almost indescribable ecological and social disorder, and to the almost incalculable enrichment and empowerment of corporations, industrialists have substituted what they fairly accurately call “revolution” for the slower, kinder processes of adaptation or evolution. We have had in only about two centuries a steady and ever-quickening sequence of industrial revolutions in manufacturing, transportation, war, agriculture, education, entertainment, homemaking and family life, health care, and so-called communications.
Probably everything that can be said in favor of all this has been said, and it is true that these revolutions have brought some increase of convenience and comfort and some easing of pain. It is also true that the industrialization of everything has incurred liabilities and is running deficits that have not been adequately accounted. All of these changes have depended upon industrial technologies, processes, and products, which have depended upon the fossil fuels, the production and consumption of which have been, and are still, unimaginably damaging to land, water, air, plants, animals, and humans. And the cycle of obsolescence and innovation, goaded by crazes of fashion, has given the corporate economy a controlling share of everybody’s income.
The cost of this has been paid also in a social condition which apologists call “mobility,” implying that it has been always “upward” to a “higher standard of living,” but which in fact has been an ever-worsening unsettlement of our people, and the extinction or near-extinction of traditional and necessary communal structures.
For this also there is no technological or large-scale solution. Perhaps, as they believe, the most conscientiously up-to-date people can easily do without local workshops and stores, local journalism, a local newspaper, a local post office, all of which supposedly have been replaced by technologies. But what technology can replace personal privacy or the coherence of a family or a community? What technology can undo the collateral damages of an inhuman rate of technological change?
The losses and damages characteristic of our present economy cannot be stopped, let alone restored, by “liberal” or “conservative” tweakings of corporate industrialism, against which the ancient imperatives of good care, homemaking, and frugality can have no standing. The possibility of authentic correction comes, I think, from two already-evident causes. The first is scarcity and other serious problems arising from industrial abuses of the land-community. The goods of nature so far have been taken for granted and, especially in America, assumed to be limitless, but their diminishment, sooner or later unignorable, will enforce change.
A positive cause, still little noticed by high officials and the media, is the by now well-established effort to build or rebuild local economies, starting with economies of food. This effort to connect cities with their surrounding rural landscapes has the advantage of being both attractive and necessary. It rests exactly upon the recognition of human limits and the necessity of human scale. Its purpose, to the extent possible, is to bring producers and consumers, causes and effects, back within the bounds of neighborhood, which is to say the effective reach of imagination, sympathy, affection, and all else that neighborhood implies. An economy genuinely local and neighborly offers to localities a measure of security that they cannot derive from a national or a global economy controlled by people who, by principle, have no local commitment.
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In this age so abstracted and bewildered by technological magnifications of power, people who stray beyond the limits of their mental competence typically find no guide except for the supposed authority of market price. “The market” thus assumes the standing of ultimate reality. But market value is an illusion, as is proven by its frequent changes; it is determined solely by the buyer’s ability and willingness to pay.
By now our immense destructiveness has made clear that the actual value of some things exceeds human ability to calculate or measure, and therefore must be considered absolute. For the destruction of these things there is never, under any circumstances, any justification. Their absolute value is recognized by the mortal need of those who do not have them, and by affection. Land, to people who do not have it and who are thus without the means of life, is absolutely valuable. Ecological health, in a land dying of abuse, is not worth “something”; it is worth everything. And abused land relentlessly declines in value to its present and succeeding owners, whatever its market price.
But we need not wait, as we are doing, to be taught the absolute value of land and of land health by hunger and disease. Affection can teach us, and soon enough, if we grant appropriate standing to affection. For this we must look to the stickers, who “love the life they have made and the place they have made it in.”
By now all thoughtful people have begun to feel our eligibility to be instructed by ecological disaster and mortal need. But we endangered ourselves first of all by dismissing affection as an honorable and necessary motive. Our decision in the middle of the last century to reduce the farm population, eliminating the allegedly “inefficient” small farmers, was enabled by the discounting of affection. As a result, we now have barely enough farmers to keep the land in production, with the help of increasingly expensive industrial technology and at an increasing ecological and social cost. Far from the plain citizens and members of the land-community, as Aldo Leopold wished them to be, farmers are now too likely to be merely the land’s exploiters.
I don’t hesitate to say that damage or destruction of the land-community is morally wrong, just as Leopold did not hesitate to say so when he was composing his essay, “The Land Ethic,” in 1947. But I do not believe, as I think Leopold did not, that morality, even religious morality, is an adequate motive for good care of the land-community. The primary motive for good care and good use is always going to be affection, because affection involves us entirely. And here Leopold himself set the example. In 1935 he bought an exhausted Wisconsin farm and, with his family, began its restoration. To do this was morally right, of course, but the motive was affection. Leopold was an ecologist. He felt, we may be sure, an informed sorrow for the place in its ruin. He imagined it as it had been, as it was, and as it might be. And a profound, delighted affection radiates from every sentence he wrote about it.
Without this informed, practical, and practiced affection, the nation and its economy will conquer and destroy the country.
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In thinking about the importance of affection, and of its increasing importance in our present world, I have been guided most directly by E. M. Forster’s novel, Howards End, published in 1910. By then, Forster was aware of the implications of “rural decay,”10 and in this novel he spoke, with some reason, of his fear that “the literature of the near future will probably ignore the country and seek inspiration from the town. . . . and those who care for the earth with sincerity may wait long ere the pendulum swings back to her again.”11 Henry Wilcox, the novel’s “plain man of business,” speaks the customary rationalization, which has echoed through American bureaus and colleges of agriculture, almost without objection, for at least sixty years: “the days for small farms are over.”12
In Howards End, Forster saw the coming predominance of the machine and of mechanical thought, the consequent deracination and restlessness of populations, and the consequent ugliness. He saw an industrial ugliness, “a red rust,”13 already creeping out from the cities into the countryside. He seems to have understood by then also that this ugliness was the result of the withdrawal of affection from places. To have beautiful buildings, for example, people obviously must want them to be beautiful and know how to make them beautiful, but evidently they also must love the places where the buildings are to be built. For a long time, in city and countryside, architecture has disregarded the nature and influence of places. Buildings have become as interchangeable from one place to another as automobiles. The outskirts of cities are virtually identical and as depressingly ugly as the corn-and-bean deserts of industrial agriculture.
What Forster could not have foreseen in 1910 was the extent of the ugliness to come. We still have not understood how far at fault has been the prevalent assumption that cities could be improved by pillage of the countryside. But urban life and rural life have now proved to be interdependent. As the countryside has become more toxic, more eroded, more ecologically degraded and more deserted, the cities have grown uglier, less sustainable, and less livable.
#
The argument of Howards End has its beginning in a manifesto against materialism:
It is the vice of a vulgar mind to be thrilled by bigness, to think that a thousand square miles are a thousand times more wonderful than one square mile . . . That is not imagination. No, it kills it. . . . Your universities? Oh, yes, you have learned men who collect . . . facts, and facts, and empires of facts. But which of them will rekindle the light within?14
“The light within,” I think, means affection, affection as motive and guide. Knowledge without affection leads us astray every time. Affection leads, by way of good work, to authentic hope. The factual knowledge, in which we seem more and more to be placing our trust, leads only to hope of the discovery, endlessly deferrable, of an ultimate fact or smallest particle that at last will explain everything.
The climactic scene of Forster’s novel is the confrontation between its heroine, Margaret Schlegel, and her husband, the self-described “plain man of business,” Henry Wilcox. The issue is Henry’s determination to deal, as he thinks, “realistically” with a situation that calls for imagination, for affection, and then forgiveness. Margaret feels at the start of their confrontation that she is “fighting for women against men.”15 But she is not a feminist in the popular or political sense. What she opposes with all her might is Henry’s hardness of mind and heart that is “realistic” only because it is expedient and because it subtracts from reality the life of imagination and affection, of living souls. She opposes his refusal to see the practicality of the life of the soul.
Margaret’s premise, as she puts it to Henry, is the balance point of the book: “It all turns on affection now . . . Affection. Don’t you see?”16
In a speech delivered in 2006, “Revitalizing Rural Communities,” Frederick Kirschenmann quoted his friend Constance Falk, an economist: “There is a new vision emerging demonstrating how we can solve problems and at the same time create a better world, and it all depends on collaboration, love, respect, beauty, and fairness.”17
Those two women, almost a century apart, speak for human wholeness against fragmentation, disorder, and heartbreak. The English philosopher and geometer, Keith Critchlow, brings his own light to the same point: “The human mind takes apart with its analytic habits of reasoning but the human heart puts things together because it loves them . . .” 18
#
The great reassurance of Forster’s novel is the wholeheartedness of his language. It is to begin with a language not disturbed by mystery, by things unseen. But Forster’s interest throughout is in soul-sustaining habitations: houses, households, earthly places where lives can be made and loved. In defense of such dwellings he uses, without irony or apology, the vocabulary that I have depended on in this talk: truth, nature, imagination, affection, love, hope, beauty, joy. Those words are hard to keep still within definitions; they make the dictionary hum like a beehive. But in such words, in their resonance within their histories and in their associations with one another, we find our indispensable humanity, without which we are lost and in danger.
No doubt there always will be some people willing to do anything at all that is economically or technologically possible, who look upon the world and its creatures without affection and therefore as exploitable without limit. Against that limitlessness, in which we foresee assuredly our ruin, we have only our ancient effort to define ourselves as human and humane. But this ages-long, imperfect, unendable attempt, with its magnificent record, we have virtually disowned by assigning it to the ever more subordinate set of school subjects we call “arts and humanities” or, for short, “culture.” Culture, so isolated, is seen either as a dead-end academic profession or as a mainly useless acquisition to be displayed and appreciated “for its own sake.” This definition of culture as “high culture” actually debases it, as it debases also the presumably low culture that is excluded: the arts, for example, of land use, life support, healing, housekeeping, homemaking.
I don’t like to deal in categorical approvals, and certainly not of the arts. Even so, I do not concede that the “fine arts,” in general, are useless or unnecessary or even impractical. I can testify that some works of art, by the usual classification fine, have instructed, sustained, and comforted me for many years in my opposition to industrial pillage.
But I would insist that the economic arts are just as honorably and authentically refinable as the fine arts. And so I am nominating economy for an equal standing among the arts and humanities. I mean, not economics, but economy, the making of the human household upon the earth: the arts of adapting kindly the many human households to the earth’s many ecosystems and human neighborhoods. This is the economy that the most public and influential economists never talk about, the economy that is the primary vocation and responsibility of every one of us.
#
My grandparents were fortunate. They survived their debts and kept their farm—finally, and almost too late, with help from my father, who had begun his law practice in the county seat. But in the century and more since that hard year of 1907, millions of others have not been so fortunate. Owing largely to economic constraints, they have lost their hold on the land, and the land has lost its hold on them. They have entered into the trial of displacement and scattering that we try to dignify as “mobility.”
Even so, land and people have suffered together, as invariably they must. Under the rule of industrial economics, the land, our country, has been pillaged for the enrichment, supposedly, of those humans who have claimed the right to own or exploit it without limit. Of the land-community much has been consumed, much has been wasted, almost nothing has flourished.
But this has not been inevitable. We do not have to live as if we are alone.
Textual Notes
1. Everyman’s Library, Alfred A. Knopf, New York, 1991, page 355.
2. Where the Bluebird Sings to the Lemonade Springs, Random House, New York, 1992, pages xxii & 4.
3. A Sand County Almanac, Oxford University Press, New York, 1966, pages 219–220.
4. Who Owns America? edited by Herbert Agar and Allen Tate, ISI Books, Wilmington, DE, 1999, pages 109–114. (First published by Houghton Mifflin Company, Boston, 1936.)
5. “Ode to the Confederate Dead,” Collected Poems, 1919–1976, Louisiana State University Press, Baton Rouge, 1989, page 22.
6. Last Rites, Yale University Press, New Haven and London, 2009, pages 31 and 35.
7. The Faerie Queene, VII, vii, stanza XIV.
8. A Sand County Almanac, pages 219–220.
9. Opus Posthumous, edited, with an Introduction by Samuel French Morse, Alfred A. Knopf, New York, 1957, page 176.
10. Howards End, page 15.
11. Ibid., page 112.
12. Ibid., page 214.
13. Ibid., page 355.
14. Ibid., page 30.
15. Ibid., page 303.
16. Ibid., page 304.
17. In Cultivating an Ecological Conscience, Counterpoint, Berkeley, 2011, pages 329–330.
18. The Hidden Geometry of Flowers, Floris Books, Edinburgh, 2011, page 39.
As an Unrealistic Dreamer
Haruki Murakami’s acceptance speech on receiving the Catalunya International Prize 2011
original article:
http://www.senrinomichi.com/?p=2541
The last time I visited Barcelona was in spring two years ago. I took part in a book-signing event, and was surprised at how many readers queued up for my autograph. It took more than one and a half hours to sign for all of them, because many of my female readers wanted to kiss me. It all took quite some time.
I’ve taken part in book-signing events in many other cities throughout the world, but only in Barcelona were there women who wanted to kiss me. If only for this reason, it struck me that Barcelona was a quite extraordinary place. I’m very glad to be back here in this beautiful city, which has such a rich history and wonderful culture.
But I’m sorry to say that today, I must talk about something more serious than kisses.
As you surely know, at 2:46 pm on March 11, a massive earthquake struck the northeast area of Japan. The force of this quake was so great that the earth spun faster on its axis, and the day was shortened by 1.8 millionth of a second.
The damage caused by the earthquake itself was quite extensive, but the tsunami triggered by the earthquake caused much greater devastation. In some places, the tsunami wave reached a height of 39 metres. In the face of such an enormous wave, even the tenth storey of normal buildings would not provide refuge for those caught in its path. People living near the coast had no time to escape, and about 24,000 people lost their lives — some 9,000 of whom are still reported missing. The great wave that broke the barriers carried them away, and we’ve not yet been able to find their bodies. Many were most likely lost in the depths of the icy sea. When I stop to think about this and imagine that I too could suffer such a terrible fate, my chest tightens. Many survivors lost their families, friends, houses, properties, communities and the very foundations of their lives. Entire villages were destroyed completely. Many people have lost all hope for living.
I think that being Japanese means living with natural disasters. From summer to autumn, typhoons pass through much of Japan. Every year they cause extensive damage, and many lives are lost. There are many active volcanoes in every region. And of course, there are many earthquakes. Japan sits precariously on the four tectonic plates at the eastern extremity of the Asian continent. It is as if we are living on a very nest of earthquakes.
We can predict the timing and route of typhoons to a greater or lesser extent, but we can’t predict when and where an earthquake will occur. All that we do know is that this was not the last great earthquake, and that another will surely happen in the near future. Many specialists predict that a magnitude 8 earthquake will strike the Tokyo area within the next twenty or thirty years. It may happen in ten years time, or it may strike tomorrow afternoon. No one can predict with any certitude the extent of the damage that would follow if an inland earthquake were to strike such a densely populated city as Tokyo.
Despite this fact, there are 13 million people living “ordinary” lives in the Tokyo area alone. They take crowded commuter trains to go to their offices, and they work in skyscrapers. Even after this earthquake, I haven’t heard that the population of Tokyo is on the decline.
Why? You might ask. How can so many people go about their daily lives in such a terrible place? Don’t they go out of their minds with fear?
In Japanese, we have the word “mujō (無常)”. It means that everything is ephemeral. Everything born into this world changes, and will ultimately disappear. There is nothing that can be considered eternal or immutable. This view of the world was derived from Buddhism, but the idea of “mujo” was burned into the spirit of Japanese people beyond the strictly religious context, taking root in the common ethnic consciousness from ancient times.
The idea that all things are transient is an expression of resignation. We believe that it serves no purpose to go against nature. On the contrary, Japanese people have found positive expressions of beauty in this resignation.
If we think about nature, for example, we cherish the cherry blossoms of spring, the fireflies of summer and the red leaves of autumn. For us, it is natural to observe them passionately, collectively and as a tradition. It can be difficult to find a hotel room near the best known sites of cherry blossoms, fireflies and red leaves in their respective seasons, as such places are invariably milling with visitors.
Why is this so?
The answer may be found in the fact that cherry blossoms, fireflies and red leaves all lose their beauty within a very short space of time. We travel from afar to witness this glorious moment. And we are somehow relieved to confirm that they are not merely beautiful, but are already beginning to fall to the ground, to lose their small lights or their vivid beauty. We find peace of mind in the fact that the peak of beauty has been reached and is already starting to fade.
I don’t know if natural disasters have affected such a mentality. I’m sure, however, that in some sense we have been able to collectively overcome successive natural disasters and to accept the unavoidable by virtue of this mentality. Perhaps such experiences have also shaped our notion of the aesthetic.
The overwhelming majority of Japanese people were deeply shocked by this earthquake. While we may be accustomed to earthquakes, we still have not been able to come to terms with the scale of the destruction. We feel helpless, and are anxious about the future of our country.
Ultimately, we’ll summon up the necessary mental energy, pick ourselves up and rebuild. In this regard, I have no particular worries.
This is how we have survived throughout our long history. This time as well, we certainly will not remain frozen and in a state of shock forever. Broken houses can be rebuilt, and broken roads can be restored.
You might say that we are living as uninvited guests on planet earth. Planet earth never asked us to live here. If she shakes a little, we can’t complain, because shaking from time to time is just one of the earth’s natural behaviours. Whether we like it or not, we must live with nature.
What I want to talk about here isn’t something like buildings or roads, which can be rebuilt; but rather about things which can’t be reconstructed easily, such as ethics and values. Such things are not physically tangible. Once they are broken, it’s difficult to restore them, as this cannot be achieved with machines, labour and materials.
What I’m talking about concretely is the Fukushima nuclear power plant.
As you probably know, at least three of the six nuclear reactors damaged by the earthquake and tsunami have not yet been restored, and continue to leak radiation around them. Meltdowns occurred, and the surrounding soil has been contaminated. Water that probably contains high levels of radioactivity has been dispersed in the surrounding ocean, and the wind is carrying radiation to more distant areas.
Hundreds of thousands of people have had to evacuate their homes. Farms, ranches, factories, commercial centres and ports are now deserted, having been completely abandoned. Those who lived there may not ever be able to return. It also grieves me to say that the damage from this accident is not limited to Japan, but will spread to neighbouring countries as well.
The reason why such a tragic accident occurred is more or less clear. The people who built these nuclear plants had not imagined that such a large tsunami would strike them. Some experts pointed out that tsunami of similar scale had struck these regions previously, and insisted that the safety standards should be revised. The electrical power companies, however, ignored them. As commercial ventures, these companies did not want to invest massively in preparing for a tsunami which may occur only once every few hundred years.
It seems to me that the government, which is supposed to ensure the strictest possible safety and security measures for nuclear plants, downgraded these safety standards in order to promote nuclear power generation.
We should investigate this situation, and if mistakes are found they should be rectified. Hundreds of thousands of people have been forced to leave their land, and have seen their lives turned upside down. We are angry about this; such anger is only natural.
For some reason, Japanese people seldom get angry. We know how to be patient, but aren’t very good at showing our anger. We are surely different from the people of Barcelona in this respect. But this time, even the Japanese people have become seriously angry.
At the same time, we must be critical of ourselves for having tolerated and allowed these corrupted systems to exist until now.
This accident cannot be dissociated from our ethics and values.
As you know, we, the Japanese people, are unique in having experienced nuclear attacks. In August 1945, US military aircraft dropped atomic bombs on the two major cities of Hiroshima and Nagasaki, resulting in the deaths of more than two hundred thousand people. Most of the victims were unarmed, ordinary people. Now, however, is not the moment for me to consider the rights and wrongs of this.
What I want to point out here is not only that two hundred thousand people died in the immediate aftermath of the nuclear bombing, but also that many survivors would subsequently die from the effects of radiation over a prolonged period of time. It was the suffering of these victims that showed us the terrible destruction that radioactivity has brought to the world and to the lives of ordinary people.
We had two fundamental policies after World War II. One was economic recovery; the other was the renunciation of war. We would forego the use of armed force, we would grow more prosperous, and we would pursue peace. These ideas became the new policies of post-war Japan.
The following words are carved on the memorial for the victims of the atomic bomb in Hiroshima:
“Let all the souls here rest in peace, for we shall not repeat the evil.”
These are lofty words indeed, which recognise that we are in fact both victims and perpetrators at the same time. This is true where nuclear power is concerned as well. Insofar as we are threatened by the force of nuclear power, we are all victims. Moreover, since we unleashed this power and were then unable to prevent ourselves from using it, we are also all perpetrators.
Sixty-six years after the nuclear bombings, the Fukushima Dai-ichi nuclear reactors have now been spreading radioactivity for three months, contaminating the soil, the ocean and the air around them. No one knows how and when we can stop this. This is the second source of devastation caused by nuclear power in Japan, but this time nobody dropped an atomic bomb. We, the Japanese people, paved our own way for this tragedy, making grave errors and contributing to the destruction of our own lands and lives.
Why did this occur? What happened to our rejection of nuclear power after World War II? What was it that corrupted our goal of a peaceful and prosperous society, which we had been pursuing so diligently?
The reason is simple. The reason is “efficiency”.
The electrical power companies insisted that nuclear plants offered an efficient power generation system. In other words, it was a system from which they could derive profit. For its part, the Japanese government doubted the stability of petroleum supplies, particularly since the oil crisis, and promoted nuclear power generation as national policy. The electrical power companies spent huge amounts of money on advertisements, thereby bribing the media to indoctrinate the Japanese people with the illusion that nuclear power generation was completely safe.
Before we knew it, 30 percent of electricity generation was being supplied by nuclear power. Japan, a small island nation frequently struck by earthquakes, thus became the third leading nuclear power-generating country, without the Japanese people even realizing what was happening.
We had gone beyond the point of no return. The deed was done. Those who doubted nuclear power generation were now asked the intimidating question, “Would you be in favour of power shortages?” Japanese people had come to believe that reliance on nuclear power was inevitable. Living without air conditioning during a hot and humid Japanese summer is almost akin to torture. Consequently, those who harbour doubts about nuclear power generation came to be labelled as “unrealistic dreamers”.
And so we arrived where we are today. Nuclear power plants, which were supposed to be efficient, instead offer us a vision of hell. This is the reality.
The so-called “reality” that has been proclaimed by those who promote nuclear power however, isn’t reality at all. It is nothing more than superficial “convenience”, which their flawed logic confused with reality itself.
This situation marked the collapse of the myth regarding Japan’s technological prowess, of which the Japanese people had been so proud. In addition, allowing this distorted logic represented the defeat of existing Japanese ethics and values. We now blame the electrical companies and Japanese government, which is right and necessary. At the same time however, we must also point the finger at ourselves. We are at once victims and perpetrators, and we must consider this fact seriously. If we fail to do so, we will make the same mistake again.
“Let all the souls here rest in peace, for we shall not repeat the evil.”
We must take these words to our hearts.
Dr Robert Oppenheimer, who was the primary architect of the development of the atomic bomb, was appalled by the devastation inflicted upon Hiroshima and Nagasaki by the nuclear attacks. He once said to President Truman, “Mr President, there is blood on my hands”.
Truman took a clean and neat white handkerchief from his pocket and said, “Go ahead and wipe them.”
Of course, there is no clean handkerchief in the world large enough to wipe away so much blood.
We, the Japanese, should have been unrelenting in saying “No” to nuclear power. This is what I believe.
We should have been working to develop alternative energy sources to replace nuclear power at a national level, by harvesting all existing technologies, wisdom and social capital. Even if people throughout the world had mocked us, saying, “Nuclear power is the most effective power generation system, and Japanese people are really stupid not to use it”, we should have retained the aversion to nuclear power that was triggered by our experience of nuclear weapons.
We should have made the development of non-nuclear power generation the cornerstone of our policy after World War II. This should have been the way to assume our collective responsibility for the victims of Hiroshima and Nagasaki. In Japan, we needed strong ethics, strong values, and a strong social message. This would have been a chance for the Japanese people to make a real contribution to the world. We neglected to take that important road, however, preferring to pursue the fast track of “efficiency” in support of our rapid economic development.
As I mentioned earlier, we can overcome the damage caused by natural disasters, however dreadful and extensive they might be. And sometimes our spirits may grow stronger and more profound through the process of overcoming. This is most certainly something that we can achieve.
It is the job of experts to rebuild broken roads and buildings, but it is the duty of each of us to restore our damaged ethics and values. We can start by mourning those who died, by taking care of the victims of this disaster, and by nurturing our natural desire not to let their pain and injuries have been in vain. This will take the form of a carefully crafted, silent and painstaking endeavour. We must join forces to this end, in the manner of the entire population of a village that goes out together to cultivate the fields and plant seeds on a sunny spring morning. Everyone doing what they can do, all hearts together.
We, professional writers, who are versed in the use of words, also have a positive contribution to make toward this large-scale collective mission. We must connect new ethics and values to new words, thereby creating and building new, vibrant stories. We will then be able to share these stories. They will have a rhythm that can encourage people, just like the songs which villagers sing while planting their seeds. We rebuilt Japan, which had been completely destroyed by World War II. We must now return to this same starting point once again.
As I mentioned at the beginning of this speech, we are living in a changing and transient “mujō (無常)” world. Every life will change and ultimately fade away. Human beings are powerless in the face of the greater forces of nature. The recognition of the ephemeral is one of the basic concepts of Japanese culture. While we respect the fact that all things are transient and understand that we live in a fragile and precarious world, at the same time we are imbued both with a silent will to live and with positive minds.
I am proud that my works are highly regarded by the Catalan people, and to have been awarded such a prestigious prize. We live a long way from each other and speak different languages. We have different cultures. But at the same time we are citizens of the world, who share the same problems, joy and sadness. That’s why stories written by a Japanese author have been translated into the Catalan language and Catalan people have embraced them. I’m glad to share the same stories with you. Dreaming is the day job of novelists, but sharing our dreams is a still more important task for us. We cannot be novelists without this sense of sharing something.
I know that the Catalan people have overcome many hardships, while living life to the fullest and retaining a rich culture through your history. I believe that we have many things to share.
How wonderful it would be if we, in Japan and Catalonia, could build a house of “unrealistic dreamers” and forge a “community of spirit” that would transcend both country and culture. I believe this would be the starting point for our rebirth, as we have both experienced many natural disasters and wanton acts of terrorism in recent times. We must not be afraid to dream. We should never allow the crazed dogs named “efficiency” and “convenience” to catch up with us. We must be “unrealistic dreamers”, who stride forward vigorously. Human beings will die and disappear, but humanity will prevail and will be constantly regenerated. Above all, we must believe in this force.
In closing, I will donate this prize money to the victims of the earthquake and the accident at the nuclear plant. I am deeply grateful to the Catalan people and to the Generalitat de Cataluña for offering me this award and this opportunity. I would also like to express my deepest sympathies to the victims of the recent earthquake in Lorca.
U.S. Nuclear Accidents
original article:
http://www.lutins.org/nukes.html
text:
U.S. Nuclear Accidents
Compiled by allen lutins (allen@lutins.org)
Last updated 18 December 2011
Copyright © 2012. Click here for information about reproducing this article.
Introduction
The following is a compilation of some known events involving nuclear devices and facilities under U.S. jurisdiction, many involving fatalities. Note that this work is NOT an anti-nuclear diatribe, but rather an encyclopedic listing of facts pertaining to a particular topic; I am well aware of the dangers and negative ecological consequences of alternate energy forms (especially coal and petroleum-based fuels), but a discussion of those is beyond the subject matter of this page.
Please DO NOT mail me with requests for additional information; all that i know about this subject is presented on this page, and i regret that i am unable to assist the internet community with additional information on this topic. More information along these lines is available at the following:
Criticality Accidents (Trinity Atomic Web Site): www.cddc.vt.edu/host/atomic/accident/critical.html
Government Accountability Project's Nuclear Oversight page: www.whistleblower.org/program-areas/environment/nuclear-oversight
Radioactive America: www.cdi.org/adm/1341/
Nuclear Information and Resource Service: www.nirs.org
U.S. Nuclear Weapons Accidents: www.cdi.org/issues/nukeaccidents/accidents.htm
If you can document items which i've yet to include, or have corrections or comments regarding this page, please send them to me.
Contents
Research Facilities
Power Plants
Bombs and Bombers
Submarines and Ships
Nuclear Bomb Tests and Testing Facilities
Processing, Storage, Shipping, and Disposal
Research Facilities
29 November 1955
Experimental breeder reactor EBR-1 experienced a core meltdown due to operator error.
2 September 1944
Peter Bragg and Douglas Paul Meigs, two Manhattan Project chemists, were killed when their attempt to unclog a tube in a uranium enrichment device led to an explosion of radioactive uranium hexafluoride gas exploded at the Naval Research Laboratory in Philadelphia, PA. The explosion ruptured nearby steam pipes, leading to a gas and steam combination that bathed the men in a scalding, radioactive, acidic cloud of gas which killed them a short while later.
21 August 1945
Harry K. Daghlian Jr. was killed during the final stages of the Manhattan Project (undertaken at Los Alamos, New Mexico to develop the first atomic bomb) from a radiation burst released when a critical assembly of fissile material was accidentally brought together by hand. This incident pre-dated remote-control assembly of such components, but the hazards of manual assembly were known at the time (the accident occurred during a procedure known as "tickling the dragon's tail"). A similar incident, involving another fatality, occurred the following year (see next entry), after which hand-maniuplations of critical assemblies was abandoned.
21 May 1946
A nuclear criticality accident occured at the Los Alamos Scientific Laboratory in New Mexico. Eight people were exposed to radiation, and one, Louis Slotin, died nine days later later of acute radiation sickness.
2 July 1956
Nine persons were injured when two explosions destroyed a portion of Sylvania Electric Products' Metallurgy Atomic Research Center in Bayside, Queens, New York.
1957
A radiation release at the the Keleket company resulted in a five-month decontamination at a cost of $250,000. A capsule of radium salt (used for calibrating the radiation-measuring devices produced there) burst, contaminating the building for a full five months.
30 December 1958
A chemical operator was exposed to a lethal dose of radiation following an incident involving the mixing of plutonium solutions, dying 35 hours later of severe radiation exposure.
26 July 1959
A clogged coolant channel resulted in damage to 30% of the fuel elements at the Santa Susana Field Laboratory (now known as the Boeing-Rocketdyne Nuclear Facility) in the Simi Hills area of Ventura County, California. Later discovery of the incident prompted a class-action suit by local residents, who successfully sued for $30 million over cancer and thyroid abnormalities contracted due to their proximity to the facility.
2 April 1962
An "unplanned nuclear excursion" occurred in a plutonium processing facility in Richland, Washington. Several employees were hospitalized for observation following exposure to the resultant radiation, and radiation was detected in the surrounding atmosphere for sevearl days following the incident.
26 March 1963
A mechanical failure led to a nuclear leak and subsequent fire at an experimental facility in Livermore, California, resulting in serious damage to the shielded vault where the experiment was conducted.
5 October 1966
A sodium cooling system malfunction caused a partial core meltdown at Detroit Edison's Enrico Fermi I demonstration breeder reactor near Detroit, Michigan. Radioactive gases leaked into the containment structures, but radiation was reportedly contained. The incident is documented in John Fuller's We Almost Lost Detroit.
1974
Whistleblowers at the Isomedix company in New Jersey reported that radioactive water was flushed down toilets and had contaminated pipes leading to sewers. The same year a worker received a dose of radiation considered lethal, but was saved by prompt hospital treatment.
1982
International Nutronics in Dover, New Jersey, which used radiation baths to purify gems, chemicals, food, and medical supplies, experienced an accident that completely contaminated the plant, forcing its closure. A pump malfunctioned, siphoning water from the baths onto the floor; the water eventually was drained into the sewer system of the heavily populated town of Dover. The NRC wasn't informed of the accident until ten months later -- and then by a whistleblower, not the company. In 1986, the company and one of its top executives were convicted by a federal jury of conspiracy and fraud. Radiation has been detected in the vicinity of the plant, but the NRC claims the levels "aren't hazardous."
1986
The NRC revoked the license of a Radiation Technology, Inc. (RTI) plant in New Jersey for repeated worker safety violations. RTI was cited 32 times for various violations, including throwing radioactive garbage out with the regular trash. The most serious violation was bypassing a safety device to prevent people from entering the irradiation chamber during operation, resulting in a worker receiving a near-lethal dose of radiation.
ca. December 1991
One of four cold fusion cells in a Menlo Park, CA, laboratory exploded while being moved; electrochemist Andrew Riley was killed and three others were injured. The other three cells were buried on site, leading to rumors that a nuclear reaction had taken place. A report concluded that it was a chemical explosion; a mixture of oxygen and deuterium produced by electrolysis ignited when a catalyst was exposed. The Electric Power Research Institute, which spent $2 million on the SRI cold fusion research, suspended support for the work pending the outcome of an investigation.
Power Plants
3 January 1961
The world's first nuclear-related fatalities occurred following a reactor explosion at the National Reactor Testing Station in Idaho Falls, Idaho. Three technicians, were killed, with radioactivity "largely confined" (words of John A. McCone, Director of the Atomic Energy Commission) to the reactor building. The men were killed as they moved fuel rods in a "routine" preparation for the reactor start-up. One technician was blown to the ceiling of the containment dome and impaled on a control rod. His body remained there until it was taken down six days later. The men were so heavily exposed to radiation that their hands had to be buried separately with other radioactive waste, and their bodies were interred in lead coffins. Another incident three weeks later (on 25 January) resulted in a release of radiation into the atmosphere.
24 July 1964
Robert Peabody, 37, died at the United Nuclear Corp. fuel facility in Charlestown, Rhode Island, when liquid uranium he was pouring went critical, starting a reaction that exposed him to a lethal dose of radiation.
19 November 1971
The water storage space at the Northern States Power Company's reactor in Monticello, Minnesota filled to capacity and spilled over, dumping about 50,000 gallons of radioactive waste water into the Mississippi River. Some was taken into the St. Paul water system.
March 1972
Senator Mike Gravel of Alaska submitted to the Congressional Record facts surrounding a routine check in a nuclear power plant which indicated abnormal radioactivity in the building's water system. Radioactivity was confirmed in the plant drinking fountain. Apparently there was an inappropriate cross-connection between a 3,000 gallon radioactive tank and the water system.
27 July 1972
Two workers at the Surry Unit 2 facility in Virginia were fatally scalded after a routine valve adjustment led to a steam release in a gap in a vent line. [See also 9 December 1986]
28 May 1974
The Atomic Energy Commission reported that 861 "abnormal events" had occurred in 1973 in the nation's 42 operative nuclear power plants. Twelve involved the release of radioactivity "above permissible levels."
22 March 1975
A technician checking for air leaks with a lighted candle caused $100 million in damage when insulation caught fire at the Browns Ferry reactor in Decatur, Alabama. The fire burned out electrical controls, lowering the cooling water to dangerous levels, before the plant could be shut down.
28 March 1979
A major accident at the Three Mile Island nuclear plant near Middletown, Pennsylvania. At 4:00 a.m. a series of human and mechanical failures nearly triggered a nuclear disaster. By 8:00 a.m., after cooling water was lost and temperatures soared above 5,000 degrees, the top portion of the reactor's 150-ton core melted. Contaminated coolant water escaped into a nearby building, releasing radioactive gasses, leading as many as 200,000 people to flee the region. Despite claims by the nuclear industry that "no one died at Three Mile Island," a study by Dr. Ernest J. Sternglass, professor of radiation physics at the University of Pittsburgh, showed that the accident led to a minimum of 430 infant deaths.
1981
The Critical Mass Energy Project of Public Citizen, Inc. reported that there were 4,060 mishaps and 140 serious events at nuclear power plants in 1981, up from 3,804 mishaps and 104 serious events the previous year.
11 February 1981
An Auxiliary Unit Operator, working his first day on the new job without proper training, inadvertently opened a valve which led to the contamination of eight men by 110,000 gallons of radioactive coolant sprayed into the containment building of the Tennessee Valley Authority's Sequoyah I plant in Tennessee.
July 1981
A flood of low-level radioactive wastewater in the sub-basement at Nine Mile Point's Unit 1 (in New York state) caused approximately 150 55-gallon drums of high-level waste to overturn, some of which released their highly radioactive contents. Some 50,000 gallons of low-level radioactive water were subsequently dumped into Lake Ontario to make room for the cleanup. The discharge was reported to the Nuclear Regulatory Commission, but the sub-basement contamination was not. A report leaked to the press 8 years later resulted in a study which found that high levels of radiation persisted in the still flooded facility.
1982
The Critical Mass Energy Project of Public Citizen, Inc. reported that 84,322 power plant workers were exposed to radiation in 1982, up from 82,183 the previous year.
25 January 1982
A steam generator pipe broke at the Rochester Gas & Electric Company's Ginna plant near Rochester, New York. Fifteen thousand gallons of radioactive coolant spilled onto the plant floor, and small amounts of radioactive steam escaped into the air.
15-16 January 1983
Nearly 208,000 gallons of water with low-level radioactive contamination was accidentally dumped into the Tennesee River at the Browns Ferry power plant.
25 February 1983
A catastrophe at the Salem 1 reactor in New Jersey was averted by just 90 seconds when the plant was shut down manually, following the failure of automatic shutdown systems to act properly. The same automatic systems had failed to respond in an incident three days before, and other problems plagued this plant as well, such as a 3,000 gallon leak of radioactive water in June 1981 at the Salem 2 reactor, a 23,000 gallon leak of "mildly" radioactive water (which splashed onto 16 workers) in February 1982, and radioactive gas leaks in March 1981 and September 1982 from Salem 1.
9 December 1986
A feedwater pipe ruptured at the Surry Unit 2 facility in Virginia, causing 8 workers to be scalded by a release of hot water and steam. Four of the workers later died from their injuries. In addition, water from the sprinkler systems caused a malfunction of the security system, preventing personnel from entering the facility. This was the second time that an incident at the Surry 2 unit resulted in fatal injuries due to scalding [see also 27 July 1972].
1988
It was reported that there were 2,810 accidents in U.S. commercial nuclear power plants in 1987, down slightly from the 2,836 accidents reported in 1986, according to a report issued by the Critical Mass Energy Project of Public Citizen, Inc.
28 May 1993
The Nuclear Regulatory Commission released a warning to the operators of 34 nuclear reactors around the country that the instruments used to measure levels of water in the reactor could give false readings during routine shutdowns and fail to detect important leaks. The problem was first bought to light by an engineer at Northeast Utilities in Connecticut who had been harassed for raising safety questions. The flawed instruments at boiling-water reactors designed by General Electric utilize pipes which were prone to being blocked by gas bubbles; a failure to detect falling water levels could have resulted, potentially leading to a meltdown.
15 February 2000
New York's Indian Point II power plant vented a small amount of radioactive steam when a an aging steam generator ruptured. The Nuclear Regulatory Commission initially reported that no radioactive material was released, but later changed their report to say that there was a leak, but not of a sufficient amount to threaten public safety.
6 March 2002
Workers discovered a foot-long cavity eaten into the reactor vessel head at the Davis-Besse nuclear plant in Ohio. Borated water had corroded the metal to a 3/16 inch stainless steel liner which held back over 80,000 gallons of highly pressurized radioactive water. In April 2005 the Nuclear Regulatory Commission proposed fining plant owner First Energy 5.4 million dollars for their failure to uncover the problem sooner (similar problems plaguing other plants were already known within the industry), and also proposed banning System Engineer Andrew Siemaszko from working in the industry for five years due to his falsifying reactor vessel logs. As of this writing the fine and suspension were under appeal.
November 2005
High tritium levels, the result of leaking pipes, were discovered to have contaminated groundwater immediately adjacent to the Braidwood Generating Station in Braceville, Illinois.
June 2011
An AP investigation revealed that three quarters of all nuclear plants in the U.S. were found to be leaking radioactive tritium. Over half the plants studied had concentrations exceeding the federal drinking water standard, and while none had reached public drinking supplies, leaks at three plants had contaminated the drinking wells of nearby homes.
Bombs and Bombers
13 February 1950
A B-36 en route from Alaska to Carswell Air Force Base in Fort Worth, Texas, developed serious mechanical difficulties, complicated by severe icing conditions. The crew headed out over the Pacific Ocean and dropped the nuclear weapons from 8,000 feet off the coast of British Columbia. The weapons' high-explosive material detonated on impact, but the crew parachuted to safety.
11 April 1950
A B-29 carrying a nuclear weapon crashed into a mountain near Manzano Base in Albuquerque, New Mexico, killing all 13 crewmembers aboard.
10 November 1950
A B-50 en route to Davis-Monthan Air Force Base in Tucson, Arizona, was forced to jettison a nuclear weapon over the St. Lawrence River near St. Alexandre-de-Kamouraska, Canada.
10 March 1956
A B-47 with two nuclear weapons aboard disappeared over the Mediterranean Sea after flying out of MacDill Air Force Base in Tampa, Florida. An exhaustive search failed to locate the aircraft, its weapons, nor its crew.
27 July 1956
A U.S. B-47 practicing a touch-and-go landing at Lakenheath Royal Air Force Station near Cambridge, England went out of control and smashed into a storage igloo housing three Mark 6 nuclear bombs, each of which had about 8,000 pounds of TNT in its trigger mechanism. No crewmen were killed, and fire fighters were able to extinguish the blazing jet fuel before it ignited the TNT.
22 May 1957
A 10 megaton hydrogen bomb was accidentally dropped from a bomber in an uninhabited area near Albuquerque, New Mexico owned by the University of New Mexico. The conventional explosives detonated, creating a 12 foot deep crater 25 feet across in which some radiation was detected.
28 July 1957
A C-124 Globemaster transporting three nuclear weapons and a nuclear capsule from Dover Air Force Base in Delaware to Europe experienced loss of power in two engines. The crew jettisoned two of the weapons somewhere east of Rehobeth, Del., and Cape May/Wildwood, New Jersey. A search for the weapons was unsuccessful and it is a fair assumption that they still lie at the bottom of the ocean.
11 October 1957
A B-47 carrying a single nuclear weapon crashed shortly after takeoff. The weapon was partially destroyed in the ensuing fire, but the nuclear core was recovered intact.
31 January 1958
Unbeknownst to Moroccan officials, a B-47 loaded with a fully-armed nuclear weapon collapsed and caught fire on the runway at a U.S. Strategic Air Command base 90 miles northeast of Rabat. The Air Force considered evacuating the base, but instead allowed the bomber to continue to burn for seven hours. During cleanup operations a large number of vehicles and aircraft were contaminated with radiation.
5 February 1958
A B-47 carrying a Mark 15, Mod 0, nuclear bomb on a simulated combat mission from Homestead Air Force Base in Florida collided with an F-86. After three unsuccessful attempts to land at Hunter Air Force Base in Georgia, the B-47 crew jettisoned the nuclear bomb into the Atlantic Ocean off Savannah. The Air Force conducted a nine-week search of a 3-square-mile area in Wassaw Sound where the bomb was dropped, but declared on April 16 that the bomb was irretrievably lost. More details can be read on this Wikipedia article.
11 March 1958
A B-47 on its way from Hunter Air Force Base in Georgia to an overseas base accidentally dropped an unarmed nuclear weapon into the garden of Walter Gregg and his family in Mars Bluff, South Carolina. The conventional explosives detonated, destroying Gregg's house and injuring six family members. The blast resulted in the formation of a crater 50-70 feet wide and 25-30 feet deep. Five other houses and a church were also damaged; five months later the Air Force paid the Greggs $54,000 in compensation.
4 November 1958
A B-47 carrying a nuclear weapon caught fire and crashed during takeoff from Dyess Air Force Base in Abilene, Texas, killing one crew member.
26 November 1958
A B-47 caught fire on the ground at Chennault Air Force Base in Lake Charles, Louisiana, destroying a nuclear weapon onboard, resulting in minor radioactive contamination of the immediate vicinity.
15 October 1959
A B-52 with two nuclear bombs collided in mid-air with a KC-135 jet tanker and crashed near Hardinsberg, Kentucky. Both bombs were recovered intact, but eight crewmembers lost their lives.
7 June 1960
A BOMARC-A nuclear missile burst into flames after its fuel tank was ruptured by the explosion of a high pressure helium tank at McGuire Air Force Base in New Egypt, New Jersey. The missile melted, causing plutonium contamination at the facility and in the ground water below.
21 January 1961
A B-52 bomber carrying one or more nuclear weapons disintegrated in midair following an engine fier and explosion approximately 10 miles north of Monticello, Utah, killing all five crewmembers.
24 January 1961
A B-52 bomber suffered structural failure and disintegrated in mid-air 12 miles north of Seymour Johnson Air Force Base in Goldsboro, NC, releasing two hydrogen bombs. Five crewmen parachuted to safety, while three others died when the aircraft exploded in mid-air. The bombs jettisoned as the plane descended, one parachuting to earth intact, the other plunging deep into waterlogged farmland. To this day, parts of the nuclear bomb remain embedded deep in the muck. The area is off-limits, and is tested regularly for radiation releases. More information can be found at the Broken Arrow: Goldsboro, NC site at www.ibiblio.org/bomb/.
14 March 1961
A B-52 with nuclear bombs crashed in California while on a training mission.
13 January 1964
A B-52 with two nuclear weapons crashed near Cumberland, Maryland.
8 December 1964
A B-58 slid off a runway at Bunker Hill (now Grissom) Air Force Base in Peru, Indiana. The resulting fire consumed portions of five onboard nuclear weapons, leading to radioactive contamination of the surrounding area.
5 December 1965
An A-4E aircraft accidentally fell overboard off the USS Toconderoga, with the loss of pilot LTJG D.M. Webster and a nuclear weapon. The incident, which occurred in the Pacific Ocean approximately 200 miles east of Okinawa, was not reported by the Department of Defense until 1981.
17 January 1966
A B-52 collided with an Air Force KC-135 jet tanker while refueling over the coast of Spain, killing eight of the eleven crew members and igniting the KC-135's 40,000 gallons of jet fuel. Two hydrogen bombs ruptured, scattering radioactive particles over the fields of Palomares; a third landed intact near the village of Palomares; the fourth was lost at sea 12 miles off the coast of Palomares and required a search by thousands of men working for three months to recover it. Approximately 1,500 tons of radioactive soil and tomato plants were removed to the U.S. for burial at a nuclear waste dump in Aiken, S.C. The U.S. eventually settled claims by 522 Palomares residents at a cost of $600,000, and gave the town the gift of a $200,000 desalinizing plant.
22 January 1968
A B-52 crashed 7 miles south of Thule Air Force Base in Greenland, scattering the radioactive fragments of three hydrogen bombs over the terrain and dropping one bomb into the sea after a fire broke out in the navigator's compartment. Contaminated ice and airplane debris were sent back to the U.S., with the bomb fragments going back to the manufacturer in Amarillo, Texas. The incident outraged the people of Denmark (which owned Greenland at the time, and which prohibits nuclear weapons over its territory) and led to massive anti-U.S. demonstrations. One of the warheads was reportedly recovered by Navy Seals and Seabees in 1979, but an August 2000 report suggests that in fact it may still be lying at the bottom of Baffin Bay. Additional details, including footage of the recovery efforts, can be viewed at news.bbc.co.uk/2/hi/europe/7720049.stm courtesy of the BBC.
2 November 1981
A fully-armed Poseidon missile was accidentally dropped 17 feet from a crane in Scotland during a transfer operation between a U.S. submarine and its mother ship.
Submarines and Ships
Some of the following incidents involve the discharge of radioactive coolant water by ships and submarines. While water from the primary coolant system stays radioactive for only a few seconds, it picks up bits of cobalt, chromium and other elements (from rusting pipes and the reactor) which remain radioactive for years. In realization of this fact, the U.S. Navy has curtailed its previously frequent practice of dumping coolant at sea.
18 April 1959
An experimental sodium-cooled reactor utilized aboard the USS Seawolf, the U.S.'s second nuclear submarine, was scuttled in 9,000 feet of water off the Delaware/Maryland coast in a stainless steel containment vessel. The reactor was plagued by persistent leaks in its steam system (caused by the corrosive nature of the sodium) and was later replaced with a more conventional model. The reactor is estimated to have contained 33,000 curies of radioactivity and is likely the largest single radioactive object ever dumped deliberately into the ocean. Subsequent attempts to locate the reactor proved to be futile.
October 1959
One man was killed and another three were seriously burned in the explosion and fire of a prototype reactor for the USS Triton at the Navy's training center in West Milton, New York. The Navy stated, "The explosion...was completely unrelated to the reactor or any of its principal auxiliary systems," but sources familiar with the operation claim that the high-pressure air flask which exploded was utilized to operate a critical back-up system in the event of a reactor emergency.
1961
The USS Theodore Roosvelt was contaminated when radioactive waste from its demineralization system, blew back onton the ship after an attempt to dispose of the material at sea. This happened on other occasions as well with other ships (for example, the USS Guardfish in 1975).
10 April 1963
The nuclear submarine Thresher imploded during a test dive east of Boston, killing all 129 men aboard.
5 December 1965
This write-up is drawn from the US Nuclear Weapons Accidents page at www.cdi.org/Issues/NukeAccidents/accidents.htm.
An A-4E Skyhawk strike aircraft carrying a nuclear weapon rolled off an elevator on the U.S. aircraft carrier Ticonderoga and fell into the sea. Because the bomb was lost at a depth of approximately 16,000 feet, Pentagon officials feared that intense water pressure could have caused the B-43 hydrogen bomb to explode. It is still unknown whether an explosion did occur. The pilot, aircraft, and weapon were lost.
The Pentagon claimed that the bomb was lost "500 miles away from land." However, it was later revealed that the aircraft and nuclear weapon sank only miles from the Japanese island chain of Ryukyu. Several factors contributed to the Pentagon's secretiveness. The USS Ticonderoga was returning from a mission off North Vietnam; confirming that the carrier had nuclear weapons aboard would document their introduction into the Vietnam War. Furthermore, Japan's anti-nuclear law prohibited the introduction of atomic weapons into its territory, and U.S. military bases in Japan are not exempt from this law. Thus, confirming that the USS Ticonderoga carried nuclear weapons would signify U.S. violation of its military agreements with Japan. The carrier was headed to Yokosuka, Japan, and disclosure of the accident in the mid-1980s caused a strain in U.S.-Japanese relations.
1968
Radioactive coolant water may have been released by the USS Swordfish, which was moored at the time in Sasebo Harbor in Japan. According to one source, the incident was alleged by activists but a nearby Japanese government vessel failed to detect any such radiation leak. The purported incident was protested bitterly by the Japanese, with Premier Eisaku Sate warning that U.S. nuclear ships would no longer be allowed to call at Japanese ports unless their safety could be guaranteed.
22 May 1968
The U.S.S. Scorpion, a nuclear-powered attack submarine carrying two Mark 45 ASTOR torpedoes with nuclear warheads, sank mysteriously on this day. It was eventually photographed lying on the bottom of the ocean, where all ninety-nine of its crew were lost. Details of the accident remained classified until November 1993, when a Navy report detailing the incident was made public. The report suggested that a malfunction in one of Scorpion's torpedoes could have caused the sinking, but evidence from subsequent dives to the location suggest that this was not the culprit.
14 January 1969
A series of explosions aboard the nuclear aircraft carrier Enterprise left 17 dead and 85 injured.
16 May 1969
The U.S.S. Guitarro, a $50 million nuclear submarine undergoing final fitting in San Francisco Bay, sank to the bottom as water poured into a forward compartment. A House Armed Services subcommittee later found the Navy guilty of "inexcusable carelessness" in connection with the event.
12 December 1971
Five hundred gallons of radioactive coolant water spilled into the Thames River near New London, Connecticut as it was being transferred from the submarine Dace to the sub tender Fulton.
October-November 1975
The USS Proteus, a disabled submarine tender, discharged significant amounts of radioactive coolant water into Guam's Apra Harbor. A geiger counter check of the harbor water near two public beaches measured 100 millirems/hour, fifty times the allowable dose.
22 May 1978
Up to 500 gallons of radioactive water was released when a valve was mistakenly opened aboard the USS Puffer near Puget Sound in Washington.
November 1992
Due to a valve failure, the nuclear-powered USS Long Beach leaked 109 gallons of radioactive cooling water over a 44-day period while docked at San Diego Naval Station. An additional 50 gallons had leaked out there the previous April and May. The San Diego Union reported that coolant had also been released at Pearl Harbor (Hawaii) and Indian Island (Washington). U.S. Navy officials insist that the level of radiation posed no threat, and that a "very small amount of valve leakage that is unavoidable and occurs on all ships is well understood, controlled and accounted for."
Nuclear Bomb Tests and Testing Facilities
26 April 1953
Radioactive rain, the result of above-ground nuclear tests, fell on Troy, New York.
5 September 1961
President Kennedy ordered the resumption of nuclear testing, "underground, with no fallout."
10 December 1961
Clouds of radioactive steam escaped from an underground nuclear test, closing several New Mexico highways.
4 June 1962 The Bluegill nuclear test, designed to detonate a nuclear device in the atmosphere, was aborted 10 minutes after launch when the missile tracking system failed prior to nuclear detonation. The nuclear device was lost at sea.
20 June 1962 A failure of the Starfish nuclear test, designed to detonate a nuclear device in space, caused radioactive debris to be scattered across Johnston Island in the Pacific Ocean.
9 December 1968
Clouds of radioactive steam from a nuclear test in Nevada broke through the ground, releasing fallout and violating the Limited Nuclear Test Ban Treaty signed 5 years earlier.
18 December 1970
An underground nuclear test in Nevada resulted in a cloud of radioactive steam to be thrust 8,000 feet in the air over Wyoming.
15 July 1999
A spokesperson for President Clinton announced that thousands of contract workers at U.S. nuclear weapons facilities, exposed to toxic and radioactive substances during the previous 50 years, could seek federal compensation for related illnesses.
Processing, Storage, Shipping and Disposal
From 1946 to 1970 approximately 90,000 cannisters of radioactive waste were jettisoned in 50 ocean dumps up and down the East and West coasts of the U.S., including prime fishing areas, as part of the early nuclear waste disposal program from the military's atomic weapons program. The waste also included contaminated tools, chemicals, and laboratory glassware from weapons laboratories, and commercial/medical facilities
December 1962 A summary report was presented at an Atomic Energy Commission symposium in Germantown, Maryland, listing 47 accidents involving shipment of nuclear materials to that date, 17 of which were considered "serious."
11 May 1969
A plutonium fire broke out in Building 776 at the Atomic Energy Commission's Rocky Flats Nuclear Weapons Plant. Plutonium was released into the atmosphere and tracked out of the building on the boots of firefighters, and several buildings at the factory were so badly contaminated that they had to be dismantled.
1971
After experimenting with disposal of radioactive waste in salt, the Atomic Energy Commission announced that "Project Salt Vault" would solve the waste problem. But when 180,000 gallons of contaminated water was pumped into a borehole; it promptly and unexpectedly disappeared. The project was abandoned two years later.
1972
The West Valley, NY fuel reprocessing plant was closed after 6 years in operation, leaving 600,000 gallons of high-level wastes buried in leaking tanks. The site caused measurable contamination of Lakes Ontario and Erie.
December 1972
A major fire and two explosions occurred at a Pauling, New York plutonium fabrication plant. An undetermined amount of radioactive plutonium was scattered inside and outside the plant, resulting in its permanent shutdown.
1979
The Critical Mass Energy Project (part of Ralph Nader's Public Citizen, Inc.) tabulated 122 accidents involving the transport of nuclear material in 1979, including 17 involving radioactive contamination.
16 July 1979
A dam holding radioactive uranium mill tailings broke, sending an estimated 100 million gallons of radioactive liquids and 1,100 tons of solid wastes downstream at Church Rock, New Mexico.
August 1979
Highly enriched uranium was released from a top-secret nuclear fuel plant near Erwin, Tennessee. About 1,000 people were contaminated with up to 5 times as much radiation as would normally be received in a year. Between 1968 and 1983 the plant "lost" 234 pounds of highly enriched uranium, forcing the plant to be closed six times during that period.
January 1980
A 5.5 Richter earthquake at Lawrence Livermore National Laboratory, where large amounts of nuclear material are kept, caused a tritium leak.
19 September 1980
An Air Force repairman doing routine maintenance in a Titan II ICBM silo in Damascus, Arkansas dropped a wrench socket, which rolled off a work platform and fell to the bottom of the silo. The socket struck the missile, causing a leak from a pressurized fuel tank. The missile complex and surrounding areas were evacuated. Eight and a half hours later, the fuel vapors ignited, causing an explosion which killed an Air Force specialist and injured 21 others. The explosion also blew off the 740-ton reinforced concrete-and-steel silo door and catapulted the warhead 600 feet into the air. The silo has since been filled in with gravel, and operations have been transferred to a similar installation at Rock, Kansas.
21 September 1980
Two canisters containing radioactive materials fell off a truck on New Jersey's Route 17. The driver, en route from Pennsylvania to Toronto, did not notice the missing cargo until he reached Albany, New York.
1983
The Department of Energy confirmed that 1,200 tons of mercury had been released over the years from the Y-12 Nuclear Weapons Components Plant at Oak Ridge, Tennessee, the U.S.'s earliest nuclear weapons production plant. In 1987, the DOE also reported that PCBs, heavy metals, and radioactive substances were all present in the groundwater beneath Y-12. Y-12 and the nearby K-25 and X-10 plants were found to have contaminated the atmosphere, soil and streams in the area.
December 1984
The Fernald Uranium Plant, a 1,050-acre uranium fuel production complex 20 miles northwest of Cincinnati, Ohio, was temporarily shut down after the Department of Energy disclosed that excessive amounts of radioactive materials had been released through ventilating systems. Subsequent reports revealed that 230 tons of radioactive material had leaked into the Greater Miami River valley during the previous thirty years, 39 tons of uranium dust had been released into the atmosphere, 83 tons had been discharged into surface water, and 5,500 tons of radioactive and other hazardous substances had been released into pits and swamps where they seeped into the groundwater. In addition, 337 tons of uranium hexafluoride was found to be missing, its whereabouts completely unknown. In 1988 nearby residents sued and were granted a $73 million settlement by the government. The plant was not permanently shut down until 1989.
1986
A truck carrying low-level radioactive material swerved to avoid a farm vehicle, went off a bridge on Route 84 in Idaho, and dumped part of its cargo in the Snake River. Officials reported the release of radioactivity.
6 January 1986
A container of highly toxic gas exploded at The Sequoyah Fuels Corp. uranium processing factory in Gore, Oklahoma, causing one worker to die (when his lungs were destroyed) and 130 others to seek medical treatment. In response, the Government kept the plant closed for more than a year and fined owners Kerr-McGee $310,000, citing poorly trained workers, poorly maintained equipment and a disregard for safety and the environment. [See also 24 November 1992.]
1986
After almost 40 years of cover-ups, the U.S. Government released 19,000 pages of previously classified documents which revealed that the Hanford Engineer Works was responsible for the release of significant amounts of radioactive materials into the atmosphere and the adjacent Columbia River. Between 1944 and 1966, the eight reactors, a source of plutonium production for atomic weapons, discharged billions of gallons of liquids and billions of cubic meters of gases containing plutonium and other radioactive contaminants into the Columbia River, and the soil and air of the Columbia Basin. Although detrimental effects were noticed as early as 1948, all reports critical of the facilities remained classified. By the summer of 1987, the cost of cleaning up Hanford was estimated to be $48.5 billion. The Technical Steering Panel of the government-sponsored Hanford Environmental Dose Reconstruction Project released the following statistics in July 1990: Of the 270,000 people living in the affected area, most received low doses of radiation from Iodine, but about 13,500 received a total dose some 1,300 times the annual amount of airborne radiation considered safe for civilians by the Department of Energy. Approximately 1,200 children received doses far in excess of this number, and many more received additional doses from contaminants other than Iodine. [See also May 1997 and July 2000.]
1988
The National Research Council panel released a report listing 30 "significant unreported incidents" at the Savannah River production plants over the previous 30 years. As at Hanford (see 1986), ground water contamination resulted from pushing production of radioactive materials past safe limits at this weapons complex. In January 1989, scientists discovered a fault running under the entire site through which contaminants reached the underground aquifer, a major source of drinking water for the southeast. Turtles in nearby ponds were found to contain radioactive strontium of up to 1,000 times the normal background level.
6 June 1988
Radiation Sterilizers, Incorporated reported that a leak of Cesium-137 had occurred at their Decatur, Georgia facility. Seventy thousand medical supply containers and milk cartons were recalled as they had been exposed to radiation. Ten employees were also exposed, three of whom "had enough on them that they contaminated other surfaces" including materials in their homes and cars, according to Jim Setser at the Georgia Department of Natural Resources.
October 1988
The Rocky Flats, Colorado plutonium bomb manufacturing site was partially closed after two employees and a Department of Energy inspector inhaled radioactive particles. Subsequent investigations revealed safety violations (including uncalibrated monitors and insufficient fire-response equipment) and leaching of radioactive contaminants into the local groundwater.
24 November 1992
The Sequoyah Fuels Corp. uranium processing factory in Gore, Oklahoma closed after repeated citations by the Government for violations of nuclear safety and environmental rules. It's record during 22 years of operation included an accident in 1986 that killed one worker and injured dozens of others and the contamination of the Arkansas River and groundwater. The Sequoyah Fuels plant, one of two privately-owned American factories that fabricated fuel rods and armor-piercing bullet shells, had been shut down a week before by the Nuclear Regulatory Commission when an accident resulted in the release of toxic gas. Thirty-four people sought medical attention as a result of the accident. The plant had also been shut down the year before when unusually high concentrations of uranium were detected in water in a nearby construction pit. [Also see 6 January 1986 for details of an additional incident.] A Government investigation revealed that the company had known for years that uranium was leaking into the ground at levels 35,000 times higher than Federal law allows; Carol Couch, the plant's environmental manager, was cited by the Government for obstructing the investigation and knowingly giving Federal agents false information.
31 March 1994
Fire at a nuclear research facility on Long Island, New York resulted in the nuclear contamination of three fire fighters, three reactor operators, and one technician. Measurable amounts of radioactive substances were released into the immediate environment.
May 1997
A 40 gallon tank of toxic chemicals, stored illegally at the U.S. Government's Hanford Engineer works exploded, causing the release of 20,000-30,000 gallons of plutonium-contaminated water. A cover-up ensued, involving the contractors doing clean-up and the Department of Energy, who denied the release of radioactive materials. They also told eight plant workers that tests indicated that they hadn't been exposed to plutonium even though no such tests actually were conducted (later testing revealed that in fact they had not been exposed). Fluor Daniel Hanford Inc., operator of the Hanford Site, was cited for violations of the Department of Energy's nuclear safety rules and fined $140,625. Violations associated with the explosion included the contractor's failure to assure that breathing devices operated effectively, failure to make timely notifications of the emergency, and failure to conduct proper radiological surveys of workers. Other violations cited by the DOE included a number of events between November 1996 and June 1997 involving Fluor Daniel Hanford's failure to assure adherence to PFP "criticality" safety procedures. ("Criticality" features are defined as those features used "to assure safe handling of fissile materials and prevention of...an unplanned and uncontrolled chain reaction that can release large amounts of radiation.") [See also 1986 and July 2000.]
8 August 1999
The Washington Post reported that thousands of workers were unwittingly exposed to plutonium and other highly radioactive metals over a 23-year period (beginning in the mid-1950's) at the Department of Energy's Paducah Gaseous Diffusion Plant in Kentucky. Workers, told they were handling Uranium (rather than the far more toxic plutonium), inhaled radioactive dust while processing the materials as part of a government experiment to recycle used nuclear reactor fuel.
June 2000
U.S. Senator Mike DeWine (R-OH) led a field senate hearing regarding workers exposed to hazardous materials while working in the nation's atomic plants. At the hearing, which revealed information about potential on and off-site contamination at the Portsmouth Gaseous Diffusion Plant in Piketon, Ohio, DeWine noted, "We know that as a result of Cold War efforts, the government, yes, our federal government, allowed thousands of workers at its facilities across the country to be exposed to poisonous materials, such as beryllium dust, plutonium, and silicon, without adequate protection." Testimony also indicated that the Piketon plant altered workers' radiation dose readings and worked closely with medical professionals to fight worker's compensation claims.
July 2000
Wildfires in the vicinity of the Hanford facility hit the highly radioactive "B/C" waste disposal trenches, raising airborne plutonium radiation levels in the nearby cities of Pasco and Richland to 1,000 above normal. Wildfires also threatened the Los Alamos National Laboratory in New Mexico and the DOE's Idaho National Engineering and Environmental Laboratory. In the latter case, the fires closely approached large amounts of stored radioactive waste and forced the evacuation of 1,800 workers. [See also 1986 and May 1997.]
http://www.lutins.org/nukes.html
text:
U.S. Nuclear Accidents
Compiled by allen lutins (allen@lutins.org)
Last updated 18 December 2011
Copyright © 2012. Click here for information about reproducing this article.
Introduction
The following is a compilation of some known events involving nuclear devices and facilities under U.S. jurisdiction, many involving fatalities. Note that this work is NOT an anti-nuclear diatribe, but rather an encyclopedic listing of facts pertaining to a particular topic; I am well aware of the dangers and negative ecological consequences of alternate energy forms (especially coal and petroleum-based fuels), but a discussion of those is beyond the subject matter of this page.
Please DO NOT mail me with requests for additional information; all that i know about this subject is presented on this page, and i regret that i am unable to assist the internet community with additional information on this topic. More information along these lines is available at the following:
Criticality Accidents (Trinity Atomic Web Site): www.cddc.vt.edu/host/atomic/accident/critical.html
Government Accountability Project's Nuclear Oversight page: www.whistleblower.org/program-areas/environment/nuclear-oversight
Radioactive America: www.cdi.org/adm/1341/
Nuclear Information and Resource Service: www.nirs.org
U.S. Nuclear Weapons Accidents: www.cdi.org/issues/nukeaccidents/accidents.htm
If you can document items which i've yet to include, or have corrections or comments regarding this page, please send them to me.
Contents
Research Facilities
Power Plants
Bombs and Bombers
Submarines and Ships
Nuclear Bomb Tests and Testing Facilities
Processing, Storage, Shipping, and Disposal
Research Facilities
29 November 1955
Experimental breeder reactor EBR-1 experienced a core meltdown due to operator error.
2 September 1944
Peter Bragg and Douglas Paul Meigs, two Manhattan Project chemists, were killed when their attempt to unclog a tube in a uranium enrichment device led to an explosion of radioactive uranium hexafluoride gas exploded at the Naval Research Laboratory in Philadelphia, PA. The explosion ruptured nearby steam pipes, leading to a gas and steam combination that bathed the men in a scalding, radioactive, acidic cloud of gas which killed them a short while later.
21 August 1945
Harry K. Daghlian Jr. was killed during the final stages of the Manhattan Project (undertaken at Los Alamos, New Mexico to develop the first atomic bomb) from a radiation burst released when a critical assembly of fissile material was accidentally brought together by hand. This incident pre-dated remote-control assembly of such components, but the hazards of manual assembly were known at the time (the accident occurred during a procedure known as "tickling the dragon's tail"). A similar incident, involving another fatality, occurred the following year (see next entry), after which hand-maniuplations of critical assemblies was abandoned.
21 May 1946
A nuclear criticality accident occured at the Los Alamos Scientific Laboratory in New Mexico. Eight people were exposed to radiation, and one, Louis Slotin, died nine days later later of acute radiation sickness.
2 July 1956
Nine persons were injured when two explosions destroyed a portion of Sylvania Electric Products' Metallurgy Atomic Research Center in Bayside, Queens, New York.
1957
A radiation release at the the Keleket company resulted in a five-month decontamination at a cost of $250,000. A capsule of radium salt (used for calibrating the radiation-measuring devices produced there) burst, contaminating the building for a full five months.
30 December 1958
A chemical operator was exposed to a lethal dose of radiation following an incident involving the mixing of plutonium solutions, dying 35 hours later of severe radiation exposure.
26 July 1959
A clogged coolant channel resulted in damage to 30% of the fuel elements at the Santa Susana Field Laboratory (now known as the Boeing-Rocketdyne Nuclear Facility) in the Simi Hills area of Ventura County, California. Later discovery of the incident prompted a class-action suit by local residents, who successfully sued for $30 million over cancer and thyroid abnormalities contracted due to their proximity to the facility.
2 April 1962
An "unplanned nuclear excursion" occurred in a plutonium processing facility in Richland, Washington. Several employees were hospitalized for observation following exposure to the resultant radiation, and radiation was detected in the surrounding atmosphere for sevearl days following the incident.
26 March 1963
A mechanical failure led to a nuclear leak and subsequent fire at an experimental facility in Livermore, California, resulting in serious damage to the shielded vault where the experiment was conducted.
5 October 1966
A sodium cooling system malfunction caused a partial core meltdown at Detroit Edison's Enrico Fermi I demonstration breeder reactor near Detroit, Michigan. Radioactive gases leaked into the containment structures, but radiation was reportedly contained. The incident is documented in John Fuller's We Almost Lost Detroit.
1974
Whistleblowers at the Isomedix company in New Jersey reported that radioactive water was flushed down toilets and had contaminated pipes leading to sewers. The same year a worker received a dose of radiation considered lethal, but was saved by prompt hospital treatment.
1982
International Nutronics in Dover, New Jersey, which used radiation baths to purify gems, chemicals, food, and medical supplies, experienced an accident that completely contaminated the plant, forcing its closure. A pump malfunctioned, siphoning water from the baths onto the floor; the water eventually was drained into the sewer system of the heavily populated town of Dover. The NRC wasn't informed of the accident until ten months later -- and then by a whistleblower, not the company. In 1986, the company and one of its top executives were convicted by a federal jury of conspiracy and fraud. Radiation has been detected in the vicinity of the plant, but the NRC claims the levels "aren't hazardous."
1986
The NRC revoked the license of a Radiation Technology, Inc. (RTI) plant in New Jersey for repeated worker safety violations. RTI was cited 32 times for various violations, including throwing radioactive garbage out with the regular trash. The most serious violation was bypassing a safety device to prevent people from entering the irradiation chamber during operation, resulting in a worker receiving a near-lethal dose of radiation.
ca. December 1991
One of four cold fusion cells in a Menlo Park, CA, laboratory exploded while being moved; electrochemist Andrew Riley was killed and three others were injured. The other three cells were buried on site, leading to rumors that a nuclear reaction had taken place. A report concluded that it was a chemical explosion; a mixture of oxygen and deuterium produced by electrolysis ignited when a catalyst was exposed. The Electric Power Research Institute, which spent $2 million on the SRI cold fusion research, suspended support for the work pending the outcome of an investigation.
Power Plants
3 January 1961
The world's first nuclear-related fatalities occurred following a reactor explosion at the National Reactor Testing Station in Idaho Falls, Idaho. Three technicians, were killed, with radioactivity "largely confined" (words of John A. McCone, Director of the Atomic Energy Commission) to the reactor building. The men were killed as they moved fuel rods in a "routine" preparation for the reactor start-up. One technician was blown to the ceiling of the containment dome and impaled on a control rod. His body remained there until it was taken down six days later. The men were so heavily exposed to radiation that their hands had to be buried separately with other radioactive waste, and their bodies were interred in lead coffins. Another incident three weeks later (on 25 January) resulted in a release of radiation into the atmosphere.
24 July 1964
Robert Peabody, 37, died at the United Nuclear Corp. fuel facility in Charlestown, Rhode Island, when liquid uranium he was pouring went critical, starting a reaction that exposed him to a lethal dose of radiation.
19 November 1971
The water storage space at the Northern States Power Company's reactor in Monticello, Minnesota filled to capacity and spilled over, dumping about 50,000 gallons of radioactive waste water into the Mississippi River. Some was taken into the St. Paul water system.
March 1972
Senator Mike Gravel of Alaska submitted to the Congressional Record facts surrounding a routine check in a nuclear power plant which indicated abnormal radioactivity in the building's water system. Radioactivity was confirmed in the plant drinking fountain. Apparently there was an inappropriate cross-connection between a 3,000 gallon radioactive tank and the water system.
27 July 1972
Two workers at the Surry Unit 2 facility in Virginia were fatally scalded after a routine valve adjustment led to a steam release in a gap in a vent line. [See also 9 December 1986]
28 May 1974
The Atomic Energy Commission reported that 861 "abnormal events" had occurred in 1973 in the nation's 42 operative nuclear power plants. Twelve involved the release of radioactivity "above permissible levels."
22 March 1975
A technician checking for air leaks with a lighted candle caused $100 million in damage when insulation caught fire at the Browns Ferry reactor in Decatur, Alabama. The fire burned out electrical controls, lowering the cooling water to dangerous levels, before the plant could be shut down.
28 March 1979
A major accident at the Three Mile Island nuclear plant near Middletown, Pennsylvania. At 4:00 a.m. a series of human and mechanical failures nearly triggered a nuclear disaster. By 8:00 a.m., after cooling water was lost and temperatures soared above 5,000 degrees, the top portion of the reactor's 150-ton core melted. Contaminated coolant water escaped into a nearby building, releasing radioactive gasses, leading as many as 200,000 people to flee the region. Despite claims by the nuclear industry that "no one died at Three Mile Island," a study by Dr. Ernest J. Sternglass, professor of radiation physics at the University of Pittsburgh, showed that the accident led to a minimum of 430 infant deaths.
1981
The Critical Mass Energy Project of Public Citizen, Inc. reported that there were 4,060 mishaps and 140 serious events at nuclear power plants in 1981, up from 3,804 mishaps and 104 serious events the previous year.
11 February 1981
An Auxiliary Unit Operator, working his first day on the new job without proper training, inadvertently opened a valve which led to the contamination of eight men by 110,000 gallons of radioactive coolant sprayed into the containment building of the Tennessee Valley Authority's Sequoyah I plant in Tennessee.
July 1981
A flood of low-level radioactive wastewater in the sub-basement at Nine Mile Point's Unit 1 (in New York state) caused approximately 150 55-gallon drums of high-level waste to overturn, some of which released their highly radioactive contents. Some 50,000 gallons of low-level radioactive water were subsequently dumped into Lake Ontario to make room for the cleanup. The discharge was reported to the Nuclear Regulatory Commission, but the sub-basement contamination was not. A report leaked to the press 8 years later resulted in a study which found that high levels of radiation persisted in the still flooded facility.
1982
The Critical Mass Energy Project of Public Citizen, Inc. reported that 84,322 power plant workers were exposed to radiation in 1982, up from 82,183 the previous year.
25 January 1982
A steam generator pipe broke at the Rochester Gas & Electric Company's Ginna plant near Rochester, New York. Fifteen thousand gallons of radioactive coolant spilled onto the plant floor, and small amounts of radioactive steam escaped into the air.
15-16 January 1983
Nearly 208,000 gallons of water with low-level radioactive contamination was accidentally dumped into the Tennesee River at the Browns Ferry power plant.
25 February 1983
A catastrophe at the Salem 1 reactor in New Jersey was averted by just 90 seconds when the plant was shut down manually, following the failure of automatic shutdown systems to act properly. The same automatic systems had failed to respond in an incident three days before, and other problems plagued this plant as well, such as a 3,000 gallon leak of radioactive water in June 1981 at the Salem 2 reactor, a 23,000 gallon leak of "mildly" radioactive water (which splashed onto 16 workers) in February 1982, and radioactive gas leaks in March 1981 and September 1982 from Salem 1.
9 December 1986
A feedwater pipe ruptured at the Surry Unit 2 facility in Virginia, causing 8 workers to be scalded by a release of hot water and steam. Four of the workers later died from their injuries. In addition, water from the sprinkler systems caused a malfunction of the security system, preventing personnel from entering the facility. This was the second time that an incident at the Surry 2 unit resulted in fatal injuries due to scalding [see also 27 July 1972].
1988
It was reported that there were 2,810 accidents in U.S. commercial nuclear power plants in 1987, down slightly from the 2,836 accidents reported in 1986, according to a report issued by the Critical Mass Energy Project of Public Citizen, Inc.
28 May 1993
The Nuclear Regulatory Commission released a warning to the operators of 34 nuclear reactors around the country that the instruments used to measure levels of water in the reactor could give false readings during routine shutdowns and fail to detect important leaks. The problem was first bought to light by an engineer at Northeast Utilities in Connecticut who had been harassed for raising safety questions. The flawed instruments at boiling-water reactors designed by General Electric utilize pipes which were prone to being blocked by gas bubbles; a failure to detect falling water levels could have resulted, potentially leading to a meltdown.
15 February 2000
New York's Indian Point II power plant vented a small amount of radioactive steam when a an aging steam generator ruptured. The Nuclear Regulatory Commission initially reported that no radioactive material was released, but later changed their report to say that there was a leak, but not of a sufficient amount to threaten public safety.
6 March 2002
Workers discovered a foot-long cavity eaten into the reactor vessel head at the Davis-Besse nuclear plant in Ohio. Borated water had corroded the metal to a 3/16 inch stainless steel liner which held back over 80,000 gallons of highly pressurized radioactive water. In April 2005 the Nuclear Regulatory Commission proposed fining plant owner First Energy 5.4 million dollars for their failure to uncover the problem sooner (similar problems plaguing other plants were already known within the industry), and also proposed banning System Engineer Andrew Siemaszko from working in the industry for five years due to his falsifying reactor vessel logs. As of this writing the fine and suspension were under appeal.
November 2005
High tritium levels, the result of leaking pipes, were discovered to have contaminated groundwater immediately adjacent to the Braidwood Generating Station in Braceville, Illinois.
June 2011
An AP investigation revealed that three quarters of all nuclear plants in the U.S. were found to be leaking radioactive tritium. Over half the plants studied had concentrations exceeding the federal drinking water standard, and while none had reached public drinking supplies, leaks at three plants had contaminated the drinking wells of nearby homes.
Bombs and Bombers
13 February 1950
A B-36 en route from Alaska to Carswell Air Force Base in Fort Worth, Texas, developed serious mechanical difficulties, complicated by severe icing conditions. The crew headed out over the Pacific Ocean and dropped the nuclear weapons from 8,000 feet off the coast of British Columbia. The weapons' high-explosive material detonated on impact, but the crew parachuted to safety.
11 April 1950
A B-29 carrying a nuclear weapon crashed into a mountain near Manzano Base in Albuquerque, New Mexico, killing all 13 crewmembers aboard.
10 November 1950
A B-50 en route to Davis-Monthan Air Force Base in Tucson, Arizona, was forced to jettison a nuclear weapon over the St. Lawrence River near St. Alexandre-de-Kamouraska, Canada.
10 March 1956
A B-47 with two nuclear weapons aboard disappeared over the Mediterranean Sea after flying out of MacDill Air Force Base in Tampa, Florida. An exhaustive search failed to locate the aircraft, its weapons, nor its crew.
27 July 1956
A U.S. B-47 practicing a touch-and-go landing at Lakenheath Royal Air Force Station near Cambridge, England went out of control and smashed into a storage igloo housing three Mark 6 nuclear bombs, each of which had about 8,000 pounds of TNT in its trigger mechanism. No crewmen were killed, and fire fighters were able to extinguish the blazing jet fuel before it ignited the TNT.
22 May 1957
A 10 megaton hydrogen bomb was accidentally dropped from a bomber in an uninhabited area near Albuquerque, New Mexico owned by the University of New Mexico. The conventional explosives detonated, creating a 12 foot deep crater 25 feet across in which some radiation was detected.
28 July 1957
A C-124 Globemaster transporting three nuclear weapons and a nuclear capsule from Dover Air Force Base in Delaware to Europe experienced loss of power in two engines. The crew jettisoned two of the weapons somewhere east of Rehobeth, Del., and Cape May/Wildwood, New Jersey. A search for the weapons was unsuccessful and it is a fair assumption that they still lie at the bottom of the ocean.
11 October 1957
A B-47 carrying a single nuclear weapon crashed shortly after takeoff. The weapon was partially destroyed in the ensuing fire, but the nuclear core was recovered intact.
31 January 1958
Unbeknownst to Moroccan officials, a B-47 loaded with a fully-armed nuclear weapon collapsed and caught fire on the runway at a U.S. Strategic Air Command base 90 miles northeast of Rabat. The Air Force considered evacuating the base, but instead allowed the bomber to continue to burn for seven hours. During cleanup operations a large number of vehicles and aircraft were contaminated with radiation.
5 February 1958
A B-47 carrying a Mark 15, Mod 0, nuclear bomb on a simulated combat mission from Homestead Air Force Base in Florida collided with an F-86. After three unsuccessful attempts to land at Hunter Air Force Base in Georgia, the B-47 crew jettisoned the nuclear bomb into the Atlantic Ocean off Savannah. The Air Force conducted a nine-week search of a 3-square-mile area in Wassaw Sound where the bomb was dropped, but declared on April 16 that the bomb was irretrievably lost. More details can be read on this Wikipedia article.
11 March 1958
A B-47 on its way from Hunter Air Force Base in Georgia to an overseas base accidentally dropped an unarmed nuclear weapon into the garden of Walter Gregg and his family in Mars Bluff, South Carolina. The conventional explosives detonated, destroying Gregg's house and injuring six family members. The blast resulted in the formation of a crater 50-70 feet wide and 25-30 feet deep. Five other houses and a church were also damaged; five months later the Air Force paid the Greggs $54,000 in compensation.
4 November 1958
A B-47 carrying a nuclear weapon caught fire and crashed during takeoff from Dyess Air Force Base in Abilene, Texas, killing one crew member.
26 November 1958
A B-47 caught fire on the ground at Chennault Air Force Base in Lake Charles, Louisiana, destroying a nuclear weapon onboard, resulting in minor radioactive contamination of the immediate vicinity.
15 October 1959
A B-52 with two nuclear bombs collided in mid-air with a KC-135 jet tanker and crashed near Hardinsberg, Kentucky. Both bombs were recovered intact, but eight crewmembers lost their lives.
7 June 1960
A BOMARC-A nuclear missile burst into flames after its fuel tank was ruptured by the explosion of a high pressure helium tank at McGuire Air Force Base in New Egypt, New Jersey. The missile melted, causing plutonium contamination at the facility and in the ground water below.
21 January 1961
A B-52 bomber carrying one or more nuclear weapons disintegrated in midair following an engine fier and explosion approximately 10 miles north of Monticello, Utah, killing all five crewmembers.
24 January 1961
A B-52 bomber suffered structural failure and disintegrated in mid-air 12 miles north of Seymour Johnson Air Force Base in Goldsboro, NC, releasing two hydrogen bombs. Five crewmen parachuted to safety, while three others died when the aircraft exploded in mid-air. The bombs jettisoned as the plane descended, one parachuting to earth intact, the other plunging deep into waterlogged farmland. To this day, parts of the nuclear bomb remain embedded deep in the muck. The area is off-limits, and is tested regularly for radiation releases. More information can be found at the Broken Arrow: Goldsboro, NC site at www.ibiblio.org/bomb/.
14 March 1961
A B-52 with nuclear bombs crashed in California while on a training mission.
13 January 1964
A B-52 with two nuclear weapons crashed near Cumberland, Maryland.
8 December 1964
A B-58 slid off a runway at Bunker Hill (now Grissom) Air Force Base in Peru, Indiana. The resulting fire consumed portions of five onboard nuclear weapons, leading to radioactive contamination of the surrounding area.
5 December 1965
An A-4E aircraft accidentally fell overboard off the USS Toconderoga, with the loss of pilot LTJG D.M. Webster and a nuclear weapon. The incident, which occurred in the Pacific Ocean approximately 200 miles east of Okinawa, was not reported by the Department of Defense until 1981.
17 January 1966
A B-52 collided with an Air Force KC-135 jet tanker while refueling over the coast of Spain, killing eight of the eleven crew members and igniting the KC-135's 40,000 gallons of jet fuel. Two hydrogen bombs ruptured, scattering radioactive particles over the fields of Palomares; a third landed intact near the village of Palomares; the fourth was lost at sea 12 miles off the coast of Palomares and required a search by thousands of men working for three months to recover it. Approximately 1,500 tons of radioactive soil and tomato plants were removed to the U.S. for burial at a nuclear waste dump in Aiken, S.C. The U.S. eventually settled claims by 522 Palomares residents at a cost of $600,000, and gave the town the gift of a $200,000 desalinizing plant.
22 January 1968
A B-52 crashed 7 miles south of Thule Air Force Base in Greenland, scattering the radioactive fragments of three hydrogen bombs over the terrain and dropping one bomb into the sea after a fire broke out in the navigator's compartment. Contaminated ice and airplane debris were sent back to the U.S., with the bomb fragments going back to the manufacturer in Amarillo, Texas. The incident outraged the people of Denmark (which owned Greenland at the time, and which prohibits nuclear weapons over its territory) and led to massive anti-U.S. demonstrations. One of the warheads was reportedly recovered by Navy Seals and Seabees in 1979, but an August 2000 report suggests that in fact it may still be lying at the bottom of Baffin Bay. Additional details, including footage of the recovery efforts, can be viewed at news.bbc.co.uk/2/hi/europe/7720049.stm courtesy of the BBC.
2 November 1981
A fully-armed Poseidon missile was accidentally dropped 17 feet from a crane in Scotland during a transfer operation between a U.S. submarine and its mother ship.
Submarines and Ships
Some of the following incidents involve the discharge of radioactive coolant water by ships and submarines. While water from the primary coolant system stays radioactive for only a few seconds, it picks up bits of cobalt, chromium and other elements (from rusting pipes and the reactor) which remain radioactive for years. In realization of this fact, the U.S. Navy has curtailed its previously frequent practice of dumping coolant at sea.
18 April 1959
An experimental sodium-cooled reactor utilized aboard the USS Seawolf, the U.S.'s second nuclear submarine, was scuttled in 9,000 feet of water off the Delaware/Maryland coast in a stainless steel containment vessel. The reactor was plagued by persistent leaks in its steam system (caused by the corrosive nature of the sodium) and was later replaced with a more conventional model. The reactor is estimated to have contained 33,000 curies of radioactivity and is likely the largest single radioactive object ever dumped deliberately into the ocean. Subsequent attempts to locate the reactor proved to be futile.
October 1959
One man was killed and another three were seriously burned in the explosion and fire of a prototype reactor for the USS Triton at the Navy's training center in West Milton, New York. The Navy stated, "The explosion...was completely unrelated to the reactor or any of its principal auxiliary systems," but sources familiar with the operation claim that the high-pressure air flask which exploded was utilized to operate a critical back-up system in the event of a reactor emergency.
1961
The USS Theodore Roosvelt was contaminated when radioactive waste from its demineralization system, blew back onton the ship after an attempt to dispose of the material at sea. This happened on other occasions as well with other ships (for example, the USS Guardfish in 1975).
10 April 1963
The nuclear submarine Thresher imploded during a test dive east of Boston, killing all 129 men aboard.
5 December 1965
This write-up is drawn from the US Nuclear Weapons Accidents page at www.cdi.org/Issues/NukeAccidents/accidents.htm.
An A-4E Skyhawk strike aircraft carrying a nuclear weapon rolled off an elevator on the U.S. aircraft carrier Ticonderoga and fell into the sea. Because the bomb was lost at a depth of approximately 16,000 feet, Pentagon officials feared that intense water pressure could have caused the B-43 hydrogen bomb to explode. It is still unknown whether an explosion did occur. The pilot, aircraft, and weapon were lost.
The Pentagon claimed that the bomb was lost "500 miles away from land." However, it was later revealed that the aircraft and nuclear weapon sank only miles from the Japanese island chain of Ryukyu. Several factors contributed to the Pentagon's secretiveness. The USS Ticonderoga was returning from a mission off North Vietnam; confirming that the carrier had nuclear weapons aboard would document their introduction into the Vietnam War. Furthermore, Japan's anti-nuclear law prohibited the introduction of atomic weapons into its territory, and U.S. military bases in Japan are not exempt from this law. Thus, confirming that the USS Ticonderoga carried nuclear weapons would signify U.S. violation of its military agreements with Japan. The carrier was headed to Yokosuka, Japan, and disclosure of the accident in the mid-1980s caused a strain in U.S.-Japanese relations.
1968
Radioactive coolant water may have been released by the USS Swordfish, which was moored at the time in Sasebo Harbor in Japan. According to one source, the incident was alleged by activists but a nearby Japanese government vessel failed to detect any such radiation leak. The purported incident was protested bitterly by the Japanese, with Premier Eisaku Sate warning that U.S. nuclear ships would no longer be allowed to call at Japanese ports unless their safety could be guaranteed.
22 May 1968
The U.S.S. Scorpion, a nuclear-powered attack submarine carrying two Mark 45 ASTOR torpedoes with nuclear warheads, sank mysteriously on this day. It was eventually photographed lying on the bottom of the ocean, where all ninety-nine of its crew were lost. Details of the accident remained classified until November 1993, when a Navy report detailing the incident was made public. The report suggested that a malfunction in one of Scorpion's torpedoes could have caused the sinking, but evidence from subsequent dives to the location suggest that this was not the culprit.
14 January 1969
A series of explosions aboard the nuclear aircraft carrier Enterprise left 17 dead and 85 injured.
16 May 1969
The U.S.S. Guitarro, a $50 million nuclear submarine undergoing final fitting in San Francisco Bay, sank to the bottom as water poured into a forward compartment. A House Armed Services subcommittee later found the Navy guilty of "inexcusable carelessness" in connection with the event.
12 December 1971
Five hundred gallons of radioactive coolant water spilled into the Thames River near New London, Connecticut as it was being transferred from the submarine Dace to the sub tender Fulton.
October-November 1975
The USS Proteus, a disabled submarine tender, discharged significant amounts of radioactive coolant water into Guam's Apra Harbor. A geiger counter check of the harbor water near two public beaches measured 100 millirems/hour, fifty times the allowable dose.
22 May 1978
Up to 500 gallons of radioactive water was released when a valve was mistakenly opened aboard the USS Puffer near Puget Sound in Washington.
November 1992
Due to a valve failure, the nuclear-powered USS Long Beach leaked 109 gallons of radioactive cooling water over a 44-day period while docked at San Diego Naval Station. An additional 50 gallons had leaked out there the previous April and May. The San Diego Union reported that coolant had also been released at Pearl Harbor (Hawaii) and Indian Island (Washington). U.S. Navy officials insist that the level of radiation posed no threat, and that a "very small amount of valve leakage that is unavoidable and occurs on all ships is well understood, controlled and accounted for."
Nuclear Bomb Tests and Testing Facilities
26 April 1953
Radioactive rain, the result of above-ground nuclear tests, fell on Troy, New York.
5 September 1961
President Kennedy ordered the resumption of nuclear testing, "underground, with no fallout."
10 December 1961
Clouds of radioactive steam escaped from an underground nuclear test, closing several New Mexico highways.
4 June 1962 The Bluegill nuclear test, designed to detonate a nuclear device in the atmosphere, was aborted 10 minutes after launch when the missile tracking system failed prior to nuclear detonation. The nuclear device was lost at sea.
20 June 1962 A failure of the Starfish nuclear test, designed to detonate a nuclear device in space, caused radioactive debris to be scattered across Johnston Island in the Pacific Ocean.
9 December 1968
Clouds of radioactive steam from a nuclear test in Nevada broke through the ground, releasing fallout and violating the Limited Nuclear Test Ban Treaty signed 5 years earlier.
18 December 1970
An underground nuclear test in Nevada resulted in a cloud of radioactive steam to be thrust 8,000 feet in the air over Wyoming.
15 July 1999
A spokesperson for President Clinton announced that thousands of contract workers at U.S. nuclear weapons facilities, exposed to toxic and radioactive substances during the previous 50 years, could seek federal compensation for related illnesses.
Processing, Storage, Shipping and Disposal
From 1946 to 1970 approximately 90,000 cannisters of radioactive waste were jettisoned in 50 ocean dumps up and down the East and West coasts of the U.S., including prime fishing areas, as part of the early nuclear waste disposal program from the military's atomic weapons program. The waste also included contaminated tools, chemicals, and laboratory glassware from weapons laboratories, and commercial/medical facilities
December 1962 A summary report was presented at an Atomic Energy Commission symposium in Germantown, Maryland, listing 47 accidents involving shipment of nuclear materials to that date, 17 of which were considered "serious."
11 May 1969
A plutonium fire broke out in Building 776 at the Atomic Energy Commission's Rocky Flats Nuclear Weapons Plant. Plutonium was released into the atmosphere and tracked out of the building on the boots of firefighters, and several buildings at the factory were so badly contaminated that they had to be dismantled.
1971
After experimenting with disposal of radioactive waste in salt, the Atomic Energy Commission announced that "Project Salt Vault" would solve the waste problem. But when 180,000 gallons of contaminated water was pumped into a borehole; it promptly and unexpectedly disappeared. The project was abandoned two years later.
1972
The West Valley, NY fuel reprocessing plant was closed after 6 years in operation, leaving 600,000 gallons of high-level wastes buried in leaking tanks. The site caused measurable contamination of Lakes Ontario and Erie.
December 1972
A major fire and two explosions occurred at a Pauling, New York plutonium fabrication plant. An undetermined amount of radioactive plutonium was scattered inside and outside the plant, resulting in its permanent shutdown.
1979
The Critical Mass Energy Project (part of Ralph Nader's Public Citizen, Inc.) tabulated 122 accidents involving the transport of nuclear material in 1979, including 17 involving radioactive contamination.
16 July 1979
A dam holding radioactive uranium mill tailings broke, sending an estimated 100 million gallons of radioactive liquids and 1,100 tons of solid wastes downstream at Church Rock, New Mexico.
August 1979
Highly enriched uranium was released from a top-secret nuclear fuel plant near Erwin, Tennessee. About 1,000 people were contaminated with up to 5 times as much radiation as would normally be received in a year. Between 1968 and 1983 the plant "lost" 234 pounds of highly enriched uranium, forcing the plant to be closed six times during that period.
January 1980
A 5.5 Richter earthquake at Lawrence Livermore National Laboratory, where large amounts of nuclear material are kept, caused a tritium leak.
19 September 1980
An Air Force repairman doing routine maintenance in a Titan II ICBM silo in Damascus, Arkansas dropped a wrench socket, which rolled off a work platform and fell to the bottom of the silo. The socket struck the missile, causing a leak from a pressurized fuel tank. The missile complex and surrounding areas were evacuated. Eight and a half hours later, the fuel vapors ignited, causing an explosion which killed an Air Force specialist and injured 21 others. The explosion also blew off the 740-ton reinforced concrete-and-steel silo door and catapulted the warhead 600 feet into the air. The silo has since been filled in with gravel, and operations have been transferred to a similar installation at Rock, Kansas.
21 September 1980
Two canisters containing radioactive materials fell off a truck on New Jersey's Route 17. The driver, en route from Pennsylvania to Toronto, did not notice the missing cargo until he reached Albany, New York.
1983
The Department of Energy confirmed that 1,200 tons of mercury had been released over the years from the Y-12 Nuclear Weapons Components Plant at Oak Ridge, Tennessee, the U.S.'s earliest nuclear weapons production plant. In 1987, the DOE also reported that PCBs, heavy metals, and radioactive substances were all present in the groundwater beneath Y-12. Y-12 and the nearby K-25 and X-10 plants were found to have contaminated the atmosphere, soil and streams in the area.
December 1984
The Fernald Uranium Plant, a 1,050-acre uranium fuel production complex 20 miles northwest of Cincinnati, Ohio, was temporarily shut down after the Department of Energy disclosed that excessive amounts of radioactive materials had been released through ventilating systems. Subsequent reports revealed that 230 tons of radioactive material had leaked into the Greater Miami River valley during the previous thirty years, 39 tons of uranium dust had been released into the atmosphere, 83 tons had been discharged into surface water, and 5,500 tons of radioactive and other hazardous substances had been released into pits and swamps where they seeped into the groundwater. In addition, 337 tons of uranium hexafluoride was found to be missing, its whereabouts completely unknown. In 1988 nearby residents sued and were granted a $73 million settlement by the government. The plant was not permanently shut down until 1989.
1986
A truck carrying low-level radioactive material swerved to avoid a farm vehicle, went off a bridge on Route 84 in Idaho, and dumped part of its cargo in the Snake River. Officials reported the release of radioactivity.
6 January 1986
A container of highly toxic gas exploded at The Sequoyah Fuels Corp. uranium processing factory in Gore, Oklahoma, causing one worker to die (when his lungs were destroyed) and 130 others to seek medical treatment. In response, the Government kept the plant closed for more than a year and fined owners Kerr-McGee $310,000, citing poorly trained workers, poorly maintained equipment and a disregard for safety and the environment. [See also 24 November 1992.]
1986
After almost 40 years of cover-ups, the U.S. Government released 19,000 pages of previously classified documents which revealed that the Hanford Engineer Works was responsible for the release of significant amounts of radioactive materials into the atmosphere and the adjacent Columbia River. Between 1944 and 1966, the eight reactors, a source of plutonium production for atomic weapons, discharged billions of gallons of liquids and billions of cubic meters of gases containing plutonium and other radioactive contaminants into the Columbia River, and the soil and air of the Columbia Basin. Although detrimental effects were noticed as early as 1948, all reports critical of the facilities remained classified. By the summer of 1987, the cost of cleaning up Hanford was estimated to be $48.5 billion. The Technical Steering Panel of the government-sponsored Hanford Environmental Dose Reconstruction Project released the following statistics in July 1990: Of the 270,000 people living in the affected area, most received low doses of radiation from Iodine, but about 13,500 received a total dose some 1,300 times the annual amount of airborne radiation considered safe for civilians by the Department of Energy. Approximately 1,200 children received doses far in excess of this number, and many more received additional doses from contaminants other than Iodine. [See also May 1997 and July 2000.]
1988
The National Research Council panel released a report listing 30 "significant unreported incidents" at the Savannah River production plants over the previous 30 years. As at Hanford (see 1986), ground water contamination resulted from pushing production of radioactive materials past safe limits at this weapons complex. In January 1989, scientists discovered a fault running under the entire site through which contaminants reached the underground aquifer, a major source of drinking water for the southeast. Turtles in nearby ponds were found to contain radioactive strontium of up to 1,000 times the normal background level.
6 June 1988
Radiation Sterilizers, Incorporated reported that a leak of Cesium-137 had occurred at their Decatur, Georgia facility. Seventy thousand medical supply containers and milk cartons were recalled as they had been exposed to radiation. Ten employees were also exposed, three of whom "had enough on them that they contaminated other surfaces" including materials in their homes and cars, according to Jim Setser at the Georgia Department of Natural Resources.
October 1988
The Rocky Flats, Colorado plutonium bomb manufacturing site was partially closed after two employees and a Department of Energy inspector inhaled radioactive particles. Subsequent investigations revealed safety violations (including uncalibrated monitors and insufficient fire-response equipment) and leaching of radioactive contaminants into the local groundwater.
24 November 1992
The Sequoyah Fuels Corp. uranium processing factory in Gore, Oklahoma closed after repeated citations by the Government for violations of nuclear safety and environmental rules. It's record during 22 years of operation included an accident in 1986 that killed one worker and injured dozens of others and the contamination of the Arkansas River and groundwater. The Sequoyah Fuels plant, one of two privately-owned American factories that fabricated fuel rods and armor-piercing bullet shells, had been shut down a week before by the Nuclear Regulatory Commission when an accident resulted in the release of toxic gas. Thirty-four people sought medical attention as a result of the accident. The plant had also been shut down the year before when unusually high concentrations of uranium were detected in water in a nearby construction pit. [Also see 6 January 1986 for details of an additional incident.] A Government investigation revealed that the company had known for years that uranium was leaking into the ground at levels 35,000 times higher than Federal law allows; Carol Couch, the plant's environmental manager, was cited by the Government for obstructing the investigation and knowingly giving Federal agents false information.
31 March 1994
Fire at a nuclear research facility on Long Island, New York resulted in the nuclear contamination of three fire fighters, three reactor operators, and one technician. Measurable amounts of radioactive substances were released into the immediate environment.
May 1997
A 40 gallon tank of toxic chemicals, stored illegally at the U.S. Government's Hanford Engineer works exploded, causing the release of 20,000-30,000 gallons of plutonium-contaminated water. A cover-up ensued, involving the contractors doing clean-up and the Department of Energy, who denied the release of radioactive materials. They also told eight plant workers that tests indicated that they hadn't been exposed to plutonium even though no such tests actually were conducted (later testing revealed that in fact they had not been exposed). Fluor Daniel Hanford Inc., operator of the Hanford Site, was cited for violations of the Department of Energy's nuclear safety rules and fined $140,625. Violations associated with the explosion included the contractor's failure to assure that breathing devices operated effectively, failure to make timely notifications of the emergency, and failure to conduct proper radiological surveys of workers. Other violations cited by the DOE included a number of events between November 1996 and June 1997 involving Fluor Daniel Hanford's failure to assure adherence to PFP "criticality" safety procedures. ("Criticality" features are defined as those features used "to assure safe handling of fissile materials and prevention of...an unplanned and uncontrolled chain reaction that can release large amounts of radiation.") [See also 1986 and July 2000.]
8 August 1999
The Washington Post reported that thousands of workers were unwittingly exposed to plutonium and other highly radioactive metals over a 23-year period (beginning in the mid-1950's) at the Department of Energy's Paducah Gaseous Diffusion Plant in Kentucky. Workers, told they were handling Uranium (rather than the far more toxic plutonium), inhaled radioactive dust while processing the materials as part of a government experiment to recycle used nuclear reactor fuel.
June 2000
U.S. Senator Mike DeWine (R-OH) led a field senate hearing regarding workers exposed to hazardous materials while working in the nation's atomic plants. At the hearing, which revealed information about potential on and off-site contamination at the Portsmouth Gaseous Diffusion Plant in Piketon, Ohio, DeWine noted, "We know that as a result of Cold War efforts, the government, yes, our federal government, allowed thousands of workers at its facilities across the country to be exposed to poisonous materials, such as beryllium dust, plutonium, and silicon, without adequate protection." Testimony also indicated that the Piketon plant altered workers' radiation dose readings and worked closely with medical professionals to fight worker's compensation claims.
July 2000
Wildfires in the vicinity of the Hanford facility hit the highly radioactive "B/C" waste disposal trenches, raising airborne plutonium radiation levels in the nearby cities of Pasco and Richland to 1,000 above normal. Wildfires also threatened the Los Alamos National Laboratory in New Mexico and the DOE's Idaho National Engineering and Environmental Laboratory. In the latter case, the fires closely approached large amounts of stored radioactive waste and forced the evacuation of 1,800 workers. [See also 1986 and May 1997.]
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