Moderators: Elvis, DrVolin, Jeff
"You Get 3,500,000 the Normal Dose. You Call That Safe? And What Media Have Reported This? None!"
What They're Covering Up at Fukushima
By HIROSE TAKASHI
Introduced by Douglas Lummis
Okinawa
Hirose Takashi has written a whole shelf full of books, mostly on the nuclear power industry and the military-industrial complex. Probably his best known book is Nuclear Power Plants for Tokyo in which he took the logic of the nuke promoters to its logical conclusion: if you are so sure that they're safe, why not build them in the center of the city, instead of hundreds of miles away where you lose half the electricity in the wires?
He did the TV interview that is partly translated below somewhat against his present impulses. I talked to him on the telephone today (March 22 , 2011) and he told me that while it made sense to oppose nuclear power back then, now that the disaster has begun he would just as soon remain silent, but the lies they are telling on the radio and TV are so gross that he cannot remain silent.
I have translated only about the first third of the interview (you can see the whole thing in Japanese on you-tube), the part that pertains particularly to what is happening at the Fukushima plants. In the latter part he talked about how dangerous radiation is in general, and also about the continuing danger of earthquakes.
After reading his account, you will wonder, why do they keep on sprinkling water on the reactors, rather than accept the sarcophagus solution [ie., entombing the reactors in concrete. Editors.] I think there are a couple of answers. One, those reactors were expensive, and they just can't bear the idea of that huge a financial loss. But more importantly, accepting the sarcophagus solution means admitting that they were wrong, and that they couldn't fix the things. On the one hand that's too much guilt for a human being to bear. On the other, it means the defeat of the nuclear energy idea, an idea they hold to with almost religious devotion. And it means not just the loss of those six (or ten) reactors, it means shutting down all the others as well, a financial catastrophe. If they can only get them cooled down and running again they can say, See, nuclear power isn't so dangerous after all. Fukushima is a drama with the whole world watching, that can end in the defeat or (in their frail, I think groundless, hope) victory for the nuclear industry. Hirose's account can help us to understand what the drama is about. Douglas Lummis
Hirose Takashi: The Fukushima Nuclear Power Plant Accident and the State of the Media
Broadcast by Asahi NewStar, 17 March, 20:00
Interviewers: Yo and Maeda Mari
Yo: Today many people saw water being sprayed on the reactors from the air and from the ground, but is this effective?
Hirose: . . . If you want to cool a reactor down with water, you have to circulate the water inside and carry the heat away, otherwise it has no meaning. So the only solution is to reconnect the electricity. Otherwise it’s like pouring water on lava.
Yo: Reconnect the electricity – that’s to restart the cooling system?
Hirose: Yes. The accident was caused by the fact that the tsunami flooded the emergency generators and carried away their fuel tanks. If that isn’t fixed, there’s no way to recover from this accident.
Yo: Tepco [Tokyo Electric Power Company, owner/operator of the nuclear plants] says they expect to bring in a high voltage line this evening.
Hirose: Yes, there’s a little bit of hope there. But what’s worrisome is that a nuclear reactor is not like what the schematic pictures show (shows a graphic picture of a reactor, like those used on TV). This is just a cartoon. Here’s what it looks like underneath a reactor container (shows a photograph). This is the butt end of the reactor. Take a look. It’s a forest of switch levers and wires and pipes. On television these pseudo-scholars come on and give us simple explanations, but they know nothing, those college professors. Only the engineers know. This is where water has been poured in. This maze of pipes is enough to make you dizzy. Its structure is too wildly complex for us to understand. For a week now they have been pouring water through there. And it’s salt water, right? You pour salt water on a hot kiln and what do you think happens? You get salt. The salt will get into all these valves and cause them to freeze. They won’t move. This will be happening everywhere. So I can’t believe that it’s just a simple matter of you reconnecting the electricity and the water will begin to circulate. I think any engineer with a little imagination can understand this. You take a system as unbelievably complex as this and then actually dump water on it from a helicopter – maybe they have some idea of how this could work, but I can’t understand it.
Yo: It will take 1300 tons of water to fill the pools that contain the spent fuel rods in reactors 3 and 4. This morning 30 tons. Then the Self Defense Forces are to hose in another 30 tons from five trucks. That’s nowhere near enough, they have to keep it up. Is this squirting of water from hoses going to change the situation?
Hirose: In principle, it can’t. Because even when a reactor is in good shape, it requires constant control to keep the temperature down to where it is barely safe. Now it’s a complete mess inside, and when I think of the 50 remaining operators, it brings tears to my eyes. I assume they have been exposed to very large amounts of radiation, and that they have accepted that they face death by staying there. And how long can they last? I mean, physically. That’s what the situation has come to now. When I see these accounts on television, I want to tell them, “If that’s what you say, then go there and do it yourself!” Really, they talk this nonsense, trying to reassure everyone, trying to avoid panic. What we need now is a proper panic. Because the situation has come to the point where the danger is real.
If I were Prime Minister Kan, I would order them to do what the Soviet Union did when the Chernobyl reactor blew up, the sarcophagus solution, bury the whole thing under cement, put every cement company in Japan to work, and dump cement over it from the sky. Because you have to assume the worst case. Why? Because in Fukushima there is the Daiichi Plant with six reactors and the Daini Plant with four for a total of ten reactors. If even one of them develops the worst case, then the workers there must either evacuate the site or stay on and collapse. So if, for example, one of the reactors at Daiichi goes down, the other five are only a matter of time. We can’t know in what order they will go, but certainly all of them will go. And if that happens, Daini isn’t so far away, so probably the reactors there will also go down. Because I assume that workers will not be able to stay there.
I’m speaking of the worst case, but the probability is not low. This is the danger that the world is watching. Only in Japan is it being hidden. As you know, of the six reactors at Daiichi, four are in a crisis state. So even if at one everything goes well and water circulation is restored, the other three could still go down. Four are in crisis, and for all four to be 100 per cent repaired, I hate to say it, but I am pessimistic. If so, then to save the people, we have to think about some way to reduce the radiation leakage to the lowest level possible. Not by spraying water from hoses, like sprinkling water on a desert. We have to think of all six going down, and the possibility of that happening is not low. Everyone knows how long it takes a typhoon to pass over Japan; it generally takes about a week. That is, with a wind speed of two meters per second, it could take about five days for all of Japan to be covered with radiation. We’re not talking about distances of 20 kilometers or 30 kilometers or 100 kilometers. It means of course Tokyo, Osaka. That’s how fast a radioactive cloud could spread. Of course it would depend on the weather; we can’t know in advance how the radiation would be distributed. It would be nice if the wind would blow toward the sea, but it doesn’t always do that. Two days ago, on the 15th, it was blowing toward Tokyo. That’s how it is. . . .
Yo: Every day the local government is measuring the radioactivity. All the television stations are saying that while radiation is rising, it is still not high enough to be a danger to health. They compare it to a stomach x-ray, or if it goes up, to a CT scan. What is the truth of the matter?
Hirose: For example, yesterday. Around Fukushima Daiichi Station they measured 400 millisieverts – that’s per hour. With this measurement (Chief Cabinet Secretary) Edano admitted for the first time that there was a danger to health, but he didn’t explain what this means. All of the information media are at fault here I think. They are saying stupid things like, why, we are exposed to radiation all the time in our daily life, we get radiation from outer space. But that’s one millisievert per year. A year has 365 days, a day has 24 hours; multiply 365 by 24, you get 8760. Multiply the 400 millisieverts by that, you get 3,500,000 the normal dose. You call that safe? And what media have reported this? None. They compare it to a CT scan, which is over in an instant; that has nothing to do with it. The reason radioactivity can be measured is that radioactive material is escaping. What is dangerous is when that material enters your body and irradiates it from inside. These industry-mouthpiece scholars come on TV and what to they say? They say as you move away the radiation is reduced in inverse ratio to the square of the distance. I want to say the reverse. Internal irradiation happens when radioactive material is ingested into the body. What happens? Say there is a nuclear particle one meter away from you. You breathe it in, it sticks inside your body; the distance between you and it is now at the micron level. One meter is 1000 millimeters, one micron is one thousandth of a millimeter. That’s a thousand times a thousand squared. That’s the real meaning of “inverse ratio of the square of the distance.” Radiation exposure is increased by a factor of a trillion. Inhaling even the tiniest particle, that’s the danger.
Yo: So making comparisons with X-rays and CT scans has no meaning. Because you can breathe in radioactive material.
Hirose: That’s right. When it enters your body, there’s no telling where it will go. The biggest danger is women, especially pregnant women, and little children. Now they’re talking about iodine and cesium, but that’s only part of it, they’re not using the proper detection instruments. What they call monitoring means only measuring the amount of radiation in the air. Their instruments don’t eat. What they measure has no connection with the amount of radioactive material. . . .
Yo: So damage from radioactive rays and damage from radioactive material are not the same.
Hirose: If you ask, are any radioactive rays from the Fukushima Nuclear Station here in this studio, the answer will be no. But radioactive particles are carried here by the air. When the core begins to melt down, elements inside like iodine turn to gas. It rises to the top, so if there is any crevice it escapes outside.
Yo: Is there any way to detect this?
Hirose: I was told by a newspaper reporter that now Tepco is not in shape even to do regular monitoring. They just take an occasional measurement, and that becomes the basis of Edano’s statements. You have to take constant measurements, but they are not able to do that. And you need to investigate just what is escaping, and how much. That requires very sophisticated measuring instruments. You can’t do it just by keeping a monitoring post. It’s no good just to measure the level of radiation in the air. Whiz in by car, take a measurement, it’s high, it’s low – that’s not the point. We need to know what kind of radioactive materials are escaping, and where they are going – they don’t have a system in place for doing that now.
Hirose wrote:Around Fukushima Daiichi Station they measured 400 millisieverts – that’s per hour. With this measurement (Chief Cabinet Secretary) Edano admitted for the first time that there was a danger to health, but he didn’t explain what this means. All of the information media are at fault here I think. They are saying stupid things like, why, we are exposed to radiation all the time in our daily life, we get radiation from outer space. But that’s one millisievert per year. A year has 365 days, a day has 24 hours; multiply 365 by 24, you get 8760. Multiply the 400 millisieverts by that, you get 3,500,000 the normal dose. You call that safe? And what media have reported this? None. They compare it to a CT scan, which is over in an instant; that has nothing to do with it. The reason radioactivity can be measured is that radioactive material is escaping. What is dangerous is when that material enters your body and irradiates it from inside. These industry-mouthpiece scholars come on TV and what to they say? They say as you move away the radiation is reduced in inverse ratio to the square of the distance. I want to say the reverse. Internal irradiation happens when radioactive material is ingested into the body. What happens? Say there is a nuclear particle one meter away from you. You breathe it in, it sticks inside your body; the distance between you and it is now at the micron level. One meter is 1000 millimeters, one micron is one thousandth of a millimeter. That’s a thousand times a thousand squared. That’s the real meaning of “inverse ratio of the square of the distance.” Radiation exposure is increased by a factor of a trillion.
Fukushima Update: Reactor 1 Core Now At 380 Degrees Celsius, 80 More Than Normal Running Temperature
Submitted by Tyler Durden on 03/22/2011 15:35 -0400
The latest news from Japan is not the radiation has now been found in various leaf vegetables in Fukushima, including cabbage and parsley: after all that was to be expected following the radioactive rain of the past few days. The news this time comes straight from TEPCO which finally admits that the temperature of Reactor 1 is 380-390 Celsius (715-735 Fahrenheit), which apparently is a "worry" as the reactor was meant to run at a temperature of 302 C (575 F). That is when the reactor is fully operational, not when it is supposed to be in a cold shut down mode.
From Reuters:
Hidehiko Nishiyama, the deputy-director general of Japan's nuclear safety agency, later said the smoke at reactor No.3 had stopped and there was only a small amount at No.2.
He gave no more details, but a TEPCO executive vice president, Sakae Muto, said the core of reactor No.1 was now a worry with its temperature at 380-390 Celsius (715-735 Fahrenheit).
"We need to strive to bring that down a bit," Muto told a news conference, adding that the reactor was built to run at a temperature of 302 C (575 F).
Asked if the situation at the problem reactors was getting worse, he said: "We need more time. It's too early to say that they are sufficiently stable."
As was reported only on Zero Hedge so far, the thermal imagery from Fukushima indicates that if reactor one is a "worry", then reactor 3 should be a "nightmare", as according to some it is now "operating" north of 500 degrees celsius, and possibly as high as a 1,000. That's three times what it is designed to withstand.
From yesterday:
http://www.zerohedge.com/article/fukush ... emporature
Why Fukushima made me stop worrying and love nuclear power
Japan's disaster would weigh more heavily if there were less harmful alternatives. Atomic power is part of the mix
George Monbiot
guardian.co.uk, Monday 21 March 2011 19.43 GMT
You will not be surprised to hear that the events in Japan have changed my view of nuclear power. You will be surprised to hear how they have changed it. As a result of the disaster at Fukushima, I am no longer nuclear-neutral. I now support the technology.
A crappy old plant with inadequate safety features was hit by a monster earthquake and a vast tsunami. The electricity supply failed, knocking out the cooling system. The reactors began to explode and melt down. The disaster exposed a familiar legacy of poor design and corner-cutting. Yet, as far as we know, no one has yet received a lethal dose of radiation.
Some greens have wildly exaggerated the dangers of radioactive pollution. For a clearer view, look at the graphic published by xkcd.com. It shows that the average total dose from the Three Mile Island disaster for someone living within 10 miles of the plant was one 625th of the maximum yearly amount permitted for US radiation workers. This, in turn, is half of the lowest one-year dose clearly linked to an increased cancer risk, which, in its turn, is one 80th of an invariably fatal exposure. I'm not proposing complacency here. I am proposing perspective.
If other forms of energy production caused no damage, these impacts would weigh more heavily. But energy is like medicine: if there are no side-effects, the chances are that it doesn't work.
Like most greens, I favour a major expansion of renewables. I can also sympathise with the complaints of their opponents. It's not just the onshore windfarms that bother people, but also the new grid connections (pylons and power lines). As the proportion of renewable electricity on the grid rises, more pumped storage will be needed to keep the lights on. That means reservoirs on mountains: they aren't popular, either.
The impacts and costs of renewables rise with the proportion of power they supply, as the need for storage and redundancy increases. It may well be the case (I have yet to see a comparative study) that up to a certain grid penetration – 50% or 70%, perhaps? – renewables have smaller carbon impacts than nuclear, while beyond that point, nuclear has smaller impacts than renewables.
Like others, I have called for renewable power to be used both to replace the electricity produced by fossil fuel and to expand the total supply, displacing the oil used for transport and the gas used for heating fuel. Are we also to demand that it replaces current nuclear capacity? The more work we expect renewables to do, the greater the impact on the landscape will be, and the tougher the task of public persuasion.
But expanding the grid to connect people and industry to rich, distant sources of ambient energy is also rejected by most of the greens who complained about the blog post I wrote last week in which I argued that nuclear remains safer than coal. What they want, they tell me, is something quite different: we should power down and produce our energy locally. Some have even called for the abandonment of the grid. Their bucolic vision sounds lovely, until you read the small print.
At high latitudes like ours, most small-scale ambient power production is a dead loss. Generating solar power in the UK involves a spectacular waste of scarce resources. It's hopelessly inefficient and poorly matched to the pattern of demand. Wind power in populated areas is largely worthless. This is partly because we have built our settlements in sheltered places; partly because turbulence caused by the buildings interferes with the airflow and chews up the mechanism. Micro-hydropower might work for a farmhouse in Wales, but it's not much use in Birmingham.
And how do we drive our textile mills, brick kilns, blast furnaces and electric railways – not to mention advanced industrial processes? Rooftop solar panels? The moment you consider the demands of the whole economy is the moment at which you fall out of love with local energy production. A national (or, better still, international) grid is the essential prerequisite for a largely renewable energy supply.
Some greens go even further: why waste renewable resources by turning them into electricity? Why not use them to provide energy directly? To answer this question, look at what happened in Britain before the industrial revolution.
The damming and weiring of British rivers for watermills was small-scale, renewable, picturesque and devastating. By blocking the rivers and silting up the spawning beds, they helped bring to an end the gigantic runs of migratory fish that were once among our great natural spectacles and which fed much of Britain – wiping out sturgeon, lampreys and shad, as well as most sea trout and salmon.
Traction was intimately linked with starvation. The more land that was set aside for feeding draft animals for industry and transport, the less was available for feeding humans. It was the 17th-century equivalent of today's biofuels crisis. The same applied to heating fuel. As EA Wrigley points out in his book Energy and the English Industrial Revolution, the 11m tonnes of coal mined in England in 1800 produced as much energy as 11m acres of woodland (one third of the land surface) would have generated.
Before coal became widely available, wood was used not just for heating homes but also for industrial processes: if half the land surface of Britain had been covered with woodland, Wrigley shows, we could have made 1.25m tonnes of bar iron a year (a fraction of current consumption) and nothing else. Even with a much lower population than today's, manufactured goods in the land-based economy were the preserve of the elite. Deep green energy production – decentralised, based on the products of the land – is far more damaging to humanity than nuclear meltdown.
But the energy source to which most economies will revert if they shut down their nuclear plants is not wood, water, wind or sun, but fossil fuel. On every measure (climate change, mining impact, local pollution, industrial injury and death, even radioactive discharges) coal is 100 times worse than nuclear power. Thanks to the expansion of shale gas production, the impacts of natural gas are catching up fast.
Yes, I still loathe the liars who run the nuclear industry. Yes, I would prefer to see the entire sector shut down, if there were harmless alternatives. But there are no ideal solutions. Every energy technology carries a cost; so does the absence of energy technologies. Atomic energy has just been subjected to one of the harshest of possible tests, and the impact on people and the planet has been small. The crisis at Fukushima has converted me to the cause of nuclear power.
http://www.guardian.co.uk/commentisfree ... NTCMP=SRCH
StarmanSkye wrote:Latest update on conditions; Apparently workers were evacuated when black smoke started erupting from reactor 3 along with a pressure rise; Lack of radiation spike has experts baffled. In short, more of the same inanity repeated as 'information' with very few details leaving the public to read between the lines. Radiation measures 400 times normal background at 40 km, 1600 times at 20 km. Seawater contamination noted.
http://www.istockanalyst.com/business/n ... sday-night
UPDATE1: Status of Fukushima nuclear power plants Tuesday night March 22, 2011 4:07 PM
TOKYO, Mar. 22, 2011 (Kyodo News International) --
(Editors: UPDATING)
The following is the known status as of Tuesday night of each of the six reactors at the Fukushima Daiichi nuclear power plant and the four reactors at the Fukushima Daini plant, both in Fukushima Prefecture, which were crippled by the magnitude 9.0 earthquake and ensuing tsunami on March 11.
Fukushima Daiichi plant
-- Reactor No. 1 (Operation suspended after quake)
Partial melting of core, cooling failure, vapor vented, building housing containment of reactor damaged by hydrogen explosion, roof blown off, seawater being pumped in, work to restore electric power in progress.
-- Reactor No. 2 (Operation suspended after quake)
Damage to reactor containment structure feared, cooling failure, seawater being pumped in, fuel rods fully exposed temporarily, vapor vented, building housing containment of reactor damaged by blast at adjacent reactor No. 3, blast heard near suppression chamber of containment vessel, access to external power restored Sunday, steam seen rising Monday, pool holding spent-fuel rods filled with water on Tuesday with water temperature at 51 C.
-- Reactor No. 3 (Operation suspended after quake)
Partial melting of core feared, cooling failure, vapor vented, seawater being pumped in, building housing containment of reactor badly damaged by hydrogen explosion, seawater dumped over spent-fuel storage pool by helicopter Thursday, water sprayed at it from the ground for six days through Tuesday, workers temporarily forced to evacuate due to grayish smoke seen billowing from roof on Monday, lighting back on in control room on Tuesday.
-- Reactor No. 4 (Under maintenance when quake struck)
No fuel rods in reactor core, renewed nuclear chain reaction feared at spent-fuel storage pool, fire at building housing containment of reactor, only frame remains of reactor building roof, temperature in the pool reached 84 C on March 14, water sprayed at pool for three days through Tuesday.
-- Reactor No. 5 (Under maintenance when quake struck)
Some fuel rods left in reactor core, cooling in spent-fuel storage pool resumed Saturday, cold shutdown at reactor on Sunday, access to external power restored, power source switched to external power from emergency power on Monday.
-- Reactor No. 6 (Under maintenance when quake struck)
Some fuel rods left in reactor core, emergency power generator and cooling functions restored Saturday, cold shutdown at reactor on Sunday.
Fukushima Daini plant
-- Reactors No. 1, 2, 3, 4 (Operation suspended after quake)
Cold shutdown, not under emergency status.
(Source: Quotemedia)
vanlose kid wrote:Why Fukushima made me stop worrying and love nuclear power
Japan's disaster would weigh more heavily if there were less harmful alternatives. Atomic power is part of the mix
George Monbiot
guardian.co.uk, Monday 21 March 2011 19.43 GMT
You will not be surprised to hear that the events in Japan have changed my view of nuclear power. You will be surprised to hear how they have changed it. As a result of the disaster at Fukushima, I am no longer nuclear-neutral. I now support the technology.
A crappy old plant with inadequate safety features was hit by a monster earthquake and a vast tsunami. The electricity supply failed, knocking out the cooling system. The reactors began to explode and melt down. The disaster exposed a familiar legacy of poor design and corner-cutting. Yet, as far as we know, no one has yet received a lethal dose of radiation.
Some greens have wildly exaggerated the dangers of radioactive pollution. For a clearer view, look at the graphic published by xkcd.com. It shows that the average total dose from the Three Mile Island disaster for someone living within 10 miles of the plant was one 625th of the maximum yearly amount permitted for US radiation workers. This, in turn, is half of the lowest one-year dose clearly linked to an increased cancer risk, which, in its turn, is one 80th of an invariably fatal exposure. I'm not proposing complacency here. I am proposing perspective.
If other forms of energy production caused no damage, these impacts would weigh more heavily. But energy is like medicine: if there are no side-effects, the chances are that it doesn't work.
Like most greens, I favour a major expansion of renewables. I can also sympathise with the complaints of their opponents. It's not just the onshore windfarms that bother people, but also the new grid connections (pylons and power lines). As the proportion of renewable electricity on the grid rises, more pumped storage will be needed to keep the lights on. That means reservoirs on mountains: they aren't popular, either.
The impacts and costs of renewables rise with the proportion of power they supply, as the need for storage and redundancy increases. It may well be the case (I have yet to see a comparative study) that up to a certain grid penetration – 50% or 70%, perhaps? – renewables have smaller carbon impacts than nuclear, while beyond that point, nuclear has smaller impacts than renewables.
Like others, I have called for renewable power to be used both to replace the electricity produced by fossil fuel and to expand the total supply, displacing the oil used for transport and the gas used for heating fuel. Are we also to demand that it replaces current nuclear capacity? The more work we expect renewables to do, the greater the impact on the landscape will be, and the tougher the task of public persuasion.
But expanding the grid to connect people and industry to rich, distant sources of ambient energy is also rejected by most of the greens who complained about the blog post I wrote last week in which I argued that nuclear remains safer than coal. What they want, they tell me, is something quite different: we should power down and produce our energy locally. Some have even called for the abandonment of the grid. Their bucolic vision sounds lovely, until you read the small print.
At high latitudes like ours, most small-scale ambient power production is a dead loss. Generating solar power in the UK involves a spectacular waste of scarce resources. It's hopelessly inefficient and poorly matched to the pattern of demand. Wind power in populated areas is largely worthless. This is partly because we have built our settlements in sheltered places; partly because turbulence caused by the buildings interferes with the airflow and chews up the mechanism. Micro-hydropower might work for a farmhouse in Wales, but it's not much use in Birmingham.
And how do we drive our textile mills, brick kilns, blast furnaces and electric railways – not to mention advanced industrial processes? Rooftop solar panels? The moment you consider the demands of the whole economy is the moment at which you fall out of love with local energy production. A national (or, better still, international) grid is the essential prerequisite for a largely renewable energy supply.
Some greens go even further: why waste renewable resources by turning them into electricity? Why not use them to provide energy directly? To answer this question, look at what happened in Britain before the industrial revolution.
The damming and weiring of British rivers for watermills was small-scale, renewable, picturesque and devastating. By blocking the rivers and silting up the spawning beds, they helped bring to an end the gigantic runs of migratory fish that were once among our great natural spectacles and which fed much of Britain – wiping out sturgeon, lampreys and shad, as well as most sea trout and salmon.
Traction was intimately linked with starvation. The more land that was set aside for feeding draft animals for industry and transport, the less was available for feeding humans. It was the 17th-century equivalent of today's biofuels crisis. The same applied to heating fuel. As EA Wrigley points out in his book Energy and the English Industrial Revolution, the 11m tonnes of coal mined in England in 1800 produced as much energy as 11m acres of woodland (one third of the land surface) would have generated.
Before coal became widely available, wood was used not just for heating homes but also for industrial processes: if half the land surface of Britain had been covered with woodland, Wrigley shows, we could have made 1.25m tonnes of bar iron a year (a fraction of current consumption) and nothing else. Even with a much lower population than today's, manufactured goods in the land-based economy were the preserve of the elite. Deep green energy production – decentralised, based on the products of the land – is far more damaging to humanity than nuclear meltdown.
But the energy source to which most economies will revert if they shut down their nuclear plants is not wood, water, wind or sun, but fossil fuel. On every measure (climate change, mining impact, local pollution, industrial injury and death, even radioactive discharges) coal is 100 times worse than nuclear power. Thanks to the expansion of shale gas production, the impacts of natural gas are catching up fast.
Yes, I still loathe the liars who run the nuclear industry. Yes, I would prefer to see the entire sector shut down, if there were harmless alternatives. But there are no ideal solutions. Every energy technology carries a cost; so does the absence of energy technologies. Atomic energy has just been subjected to one of the harshest of possible tests, and the impact on people and the planet has been small. The crisis at Fukushima has converted me to the cause of nuclear power.
http://www.guardian.co.uk/commentisfree ... NTCMP=SRCH
*
China's Rush for Salt Driven by Internet, State Media Reassurances
By Luo Ya | Epoch Times Staff | Created: Mar 19, 2011
A rush on salt began in coastal cities in China on March 16. As of March 18, the trend has spread to many provinces in China, including regions that are not on the eastern seaboard. Soy sauce has also been sought after as a salt replacement. Many people think that the ocean is being contaminated due to the nuclear crisis in Japan, and that it is only a matter of time before salt becomes hazardous.
Mr. Li from Shaanxi Province told The Epoch Times that he didn't hear about the salt rush until March 17. Everyone was rushing to buy salt. He said his friends had called and said that salt prices in Baoji City had surged 1,000 percent, and were still going up.
Li thinks that's an indicator that people don't trust the government. “Now everyone is getting information from the Internet, and is worried about his or her own safety,” he said. “The nuclear reactor problems in Japan will surely have an effect on China. It's only a matter of time.”
Cha Wenjun, a resident of Shanghai, said that the rush had a lot to do with the news on television in China. “There are rumors that the seawater is polluted, and that salt will not be safe to eat. [State-run] television stations are saying that this will not affect China,” she said.
“However, the people have lost all trust in the government. Every time the government emphasizes something, it's usually the opposite of the truth. Since the 16th, salt has been sold out. Even soy sauce has been sold out.”
Ms. Wenjun couldn't find salt in several major grocery stores in Shanghai, and friends in Beijing told her that salt was sold out there as well.
"The Shanghai government stated that there is abundant salt supply in storage, and said that there is no need to stock up on salt," she said.
“During the incidents involving contaminated milk powder, pork, rice wine, and salted duck eggs, the government all said that they were safe, yet they were not, and these problems still persist today.”
Another online commentator said that the recent rush on salt showed that the public had a deep distrust in the social order, and lacked a sense of security. He said that people could only feel safe when they had resources, even as simple as cans of salt, in their own hands.
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