Sand
Footballguy
Looks like the Japanese are looking to thorium for their future reactors. Love it. If this catches on the energy landscape of the world could see a sea change.
I just saw this as a result of the bump. Prohibiting buying alcohol on Sunday is based on religion and the government shouldn't do this, but at least there is a reason. There is no, let me repeat no, reason to make hemp illegal. Making pot illegal is stupid, but I can come up with reasons, albeit bad ones. Again, there are no reasons why hemp should be illegal. To reiterate:Making hemp being illegal is the single stupidest thing our government has ever done.As long as pot is illegal, hemp will be illegal. Now pot being illegal may be stupid, but prohibiting buying alcohol on Sunday is stupider.Hemp being illegal is the single stupidest thing about our government. It is also so emblematic of many of our other problems.Actually there is very little we use oil for that a bio replacement isn't available for. Hemp can be used to produce plastics for example.Thoughtful post. Made me think that the other stuff we make out of petroleum is a more important reason for conserving the supply than is fuel for transportation. If we find alternative energy, electric car/roadway technology is advancing rapidly enough that we'll be able to make the transition efficiently. But we need oil for all that other stuff.But Charlie, we'll live to see it.Two responses. Two very different outlooks.
Like Rayderr, internally I think we gradually adjust. Lots of people in related industries lose their jobs but some of those will be absorbed by other sectors which will find business improved as consumers have more discretionary cash to burn. Still, it will bring pain in the short haul.
Geo-politically, the ramifications could be as huge as Sarnoff predicts. Certain national economies will crash and burn. Nations in serious economic trouble have a tendency to lash out.
None of this disruption will be enough to squelch affordable technology that will replace oil, however.I would be curious to see what the ratio is for (non gas)petroleum products vs gas produced. We make an awful lot of other stuff besides gasoline out of oil. The impact may not be as bad as we would think. Sure some jobs would disappear but I would think that they would be replaced by new jobs created from the new tech that would come about as a result of the changes from switching to thorium.
I think it will happen just not in our lifetimes.
Hemp is the same plant as pot. If one is illegal, the other one will be.I just saw this as a result of the bump. Prohibiting buying alcohol on Sunday is based on religion and the government shouldn't do this, but at least there is a reason. There is no, let me repeat no, reason to make hemp illegal. Making pot illegal is stupid, but I can come up with reasons, albeit bad ones. Again, there are no reasons why hemp should be illegal. To reiterate:Making hemp being illegal is the single stupidest thing our government has ever done.As long as pot is illegal, hemp will be illegal. Now pot being illegal may be stupid, but prohibiting buying alcohol on Sunday is stupider.Hemp being illegal is the single stupidest thing about our government. It is also so emblematic of many of our other problems.Actually there is very little we use oil for that a bio replacement isn't available for. Hemp can be used to produce plastics for example.Thoughtful post. Made me think that the other stuff we make out of petroleum is a more important reason for conserving the supply than is fuel for transportation. If we find alternative energy, electric car/roadway technology is advancing rapidly enough that we'll be able to make the transition efficiently. But we need oil for all that other stuff.But Charlie, we'll live to see it.Two responses. Two very different outlooks.
Like Rayderr, internally I think we gradually adjust. Lots of people in related industries lose their jobs but some of those will be absorbed by other sectors which will find business improved as consumers have more discretionary cash to burn. Still, it will bring pain in the short haul.
Geo-politically, the ramifications could be as huge as Sarnoff predicts. Certain national economies will crash and burn. Nations in serious economic trouble have a tendency to lash out.
None of this disruption will be enough to squelch affordable technology that will replace oil, however.I would be curious to see what the ratio is for (non gas)petroleum products vs gas produced. We make an awful lot of other stuff besides gasoline out of oil. The impact may not be as bad as we would think. Sure some jobs would disappear but I would think that they would be replaced by new jobs created from the new tech that would come about as a result of the changes from switching to thorium.
I think it will happen just not in our lifetimes.
I was typing too fast and ,missed a word. Corrected it above.Recoverable resources of uranium are about 5.4 million metric tons. As to thorium, the report says the world has 1.2 million metric tons of reserves. Reserve base includes those reserves plus material that is either marginally economic or non-economic. However, thorium reserves are mainly a by-product of other forms of mining. That is, an increase in demand (and/or price) of thorium may not result in accelerated mining of those reserves, no more than an increase in price/demand of indium would be incentive for zinc miners to increase production. (Most indium reserves are a by-product of zinc mining) The economics simply don't work.Add to that - if all nuclear plants today were run on thorium fission, known reserves of thorium are sufficient for about ten years of energy production.That report confirms USGS and IAEA estimates of 2 million tons reasonally accessible globally. I don't know how much we'd need if we ramped up our usage for cars but 2 million tons sounds like a lot of fission. Isn't that four times the amount of uranium supplies?Another thought that occurred to me: if it's scalable enough to place under the hood of a car, could it not also be scalable enough to use for residential power generation?Not that much really. Not as much as we would need for it to be "our future." LinkyBecause Thorium doesn't concentrate in economic quantities as easily as uranium.Sounds like we might have a lot real handy.America has buried tons as a by-product of rare earth metals mining.Though I'm confused....fission isn't the driver of all nuclear power plants in operation today?
![]()
Good stuff about mining thorium. We traffic in metals like indium, gallium, germanium, rhenium, etc....all by-products. When demand increases, so does the price and it can do so in a hurry. Like you said, there are no indium mines. The other thing is you have to PROCESS and REFINE these elements. This is a labor intensive, highly skilled, big money stakes business. Finding these sorts of elements is not like panning for gold.
This is not really true in practical terms.Hemp is the same plant as pot. If one is illegal, the other one will be.I just saw this as a result of the bump. Prohibiting buying alcohol on Sunday is based on religion and the government shouldn't do this, but at least there is a reason. There is no, let me repeat no, reason to make hemp illegal. Making pot illegal is stupid, but I can come up with reasons, albeit bad ones. Again, there are no reasons why hemp should be illegal. To reiterate:Making hemp being illegal is the single stupidest thing our government has ever done.As long as pot is illegal, hemp will be illegal. Now pot being illegal may be stupid, but prohibiting buying alcohol on Sunday is stupider.Hemp being illegal is the single stupidest thing about our government. It is also so emblematic of many of our other problems.Actually there is very little we use oil for that a bio replacement isn't available for. Hemp can be used to produce plastics for example.Thoughtful post. Made me think that the other stuff we make out of petroleum is a more important reason for conserving the supply than is fuel for transportation. If we find alternative energy, electric car/roadway technology is advancing rapidly enough that we'll be able to make the transition efficiently. But we need oil for all that other stuff.But Charlie, we'll live to see it.Two responses. Two very different outlooks.
Like Rayderr, internally I think we gradually adjust. Lots of people in related industries lose their jobs but some of those will be absorbed by other sectors which will find business improved as consumers have more discretionary cash to burn. Still, it will bring pain in the short haul.
Geo-politically, the ramifications could be as huge as Sarnoff predicts. Certain national economies will crash and burn. Nations in serious economic trouble have a tendency to lash out.
None of this disruption will be enough to squelch affordable technology that will replace oil, however.I would be curious to see what the ratio is for (non gas)petroleum products vs gas produced. We make an awful lot of other stuff besides gasoline out of oil. The impact may not be as bad as we would think. Sure some jobs would disappear but I would think that they would be replaced by new jobs created from the new tech that would come about as a result of the changes from switching to thorium.
I think it will happen just not in our lifetimes.
If you want to say it is the low tetrahydrocannabinol (THC) strain of Cannabis, fine. It is the same plant.This is not really true in practical terms.Hemp is the same plant as pot. If one is illegal, the other one will be.I just saw this as a result of the bump. Prohibiting buying alcohol on Sunday is based on religion and the government shouldn't do this, but at least there is a reason. There is no, let me repeat no, reason to make hemp illegal. Making pot illegal is stupid, but I can come up with reasons, albeit bad ones. Again, there are no reasons why hemp should be illegal. To reiterate:Making hemp being illegal is the single stupidest thing our government has ever done.As long as pot is illegal, hemp will be illegal. Now pot being illegal may be stupid, but prohibiting buying alcohol on Sunday is stupider.Hemp being illegal is the single stupidest thing about our government. It is also so emblematic of many of our other problems.Actually there is very little we use oil for that a bio replacement isn't available for. Hemp can be used to produce plastics for example.Thoughtful post. Made me think that the other stuff we make out of petroleum is a more important reason for conserving the supply than is fuel for transportation. If we find alternative energy, electric car/roadway technology is advancing rapidly enough that we'll be able to make the transition efficiently. But we need oil for all that other stuff.But Charlie, we'll live to see it.Two responses. Two very different outlooks.
Like Rayderr, internally I think we gradually adjust. Lots of people in related industries lose their jobs but some of those will be absorbed by other sectors which will find business improved as consumers have more discretionary cash to burn. Still, it will bring pain in the short haul.
Geo-politically, the ramifications could be as huge as Sarnoff predicts. Certain national economies will crash and burn. Nations in serious economic trouble have a tendency to lash out.
None of this disruption will be enough to squelch affordable technology that will replace oil, however.I would be curious to see what the ratio is for (non gas)petroleum products vs gas produced. We make an awful lot of other stuff besides gasoline out of oil. The impact may not be as bad as we would think. Sure some jobs would disappear but I would think that they would be replaced by new jobs created from the new tech that would come about as a result of the changes from switching to thorium.
I think it will happen just not in our lifetimes.
What part of it is the same plant don't you understand? A field of pot looks like a field of hemp. Can't tell them apart. So how would you know that Farmer Brown isn't growing pot in his hemp field? You can't. This if one is illegal, the other would be.It doesn't seem like it would be too difficult to craft a law that would differentiate between the two.
here's the whole articleChina blazes trail for 'clean' nuclear power from thorium'joffer said:
The original crux of this most interesting thread was a tiny outfit in Connecticut called Laser Power Systems who claimed they were close to completing this technology. Eight ounces of thorium was presumably good for 300,000 miles of power, which now takes about 10,000 gallons of gasoline (or about the cost of the car itself). I haven't seen any progress out of LPS in recent months and it may be an unworkable concept. But if the Chinese can crack the problem of scalability to even a modest level, then the sky is the limit for cheap and plentiful electrical power. And if we have cheap and plentiful electricity, then we can replace oil as power for cars indirectly -- and we won't need miracle battery technology to do it.If China figures out a way to make gasless cars using Thorium, they will have just hatched the biggest car revolution since the car was made in the first place.
As cool as this is I have a hard time seeing this come around. The populace tends to be very leery of anything with the radioactive tag on it. The paranoia over nuclear power supplies on exploration satellites is off the charts (I work on this problem - so I speak from experience here). I can see the rhetoric now - and it ain't good.Laser Power Systems (LPS) from Connecticut, USA, is developing a new method of automotive propulsion with one of the most dense materials known in nature: thorium. Because thorium is so dense it has the potential to produce tremendous amounts of heat. The company has been experimenting with small bits of thorium, creating a laser that heats water, produces steam and powers a mini turbine.
I don't know. If they can sell it as a roided up battery that may go. It wouldn't bother me anyway but I definitely see what you are saying.As cool as this is I have a hard time seeing this come around. The populace tends to be very leery of anything with the radioactive tag on it. The paranoia over nuclear power supplies on exploration satellites is off the charts (I work on this problem - so I speak from experience here). I can see the rhetoric now - and it ain't good.Laser Power Systems (LPS) from Connecticut, USA, is developing a new method of automotive propulsion with one of the most dense materials known in nature: thorium. Because thorium is so dense it has the potential to produce tremendous amounts of heat. The company has been experimenting with small bits of thorium, creating a laser that heats water, produces steam and powers a mini turbine.
Yes, you can.What part of it is the same plant don't you understand? A field of pot looks like a field of hemp. Can't tell them apart. So how would you know that Farmer Brown isn't growing pot in his hemp field? You can't. This if one is illegal, the other would be.It doesn't seem like it would be too difficult to craft a law that would differentiate between the two.
On one of your pages, you state: "While industrial hemp and marijuana may look somewhat alike to an untrained eye, an easily trained eye can distinguish the difference." I work for the sheriff's department in San Bernardino County in California and would like to know the difference - physically, microscopically and THC and other cannabinol concentrations.
A#1. The difference in appearance and growing methods is akin to the difference between growing corn and roses. Industrial hemp and feral ditchweed are grown closely together (rows are as close as 4 inches apart), it is grown in large multi-acre plots, it grows thin and tall, as tall as 20 feet high in many cases, has few branches or leaves below the tops, and is grown 108-120 days.
Contrast that with medicinal cannabis: grown 6 feet apart, it is a shorter fatter bush with many branches, smaller plots with fewer plants, and is grown for 60-90 days. When ready to harvest, the corn vs. roses analogy is even more striking. I have pictures of medicinal cannabis grown legally in Europe, where it is next to an orchard and vineyard, and it is clearly very different from the industrial hemp pictures from Canada.
There are differences in leaf structure that are apparent even after harvest, as most medicinal cannabis plants are either broad leafed with a 5 or 7 leaf pattern (cannabis Indica) or a tight bud or nugget with orange "hairs" (from an Afghani strain, preferable to growers because it is ready to harvest quickest, and their customers prefer it). The cannabis Sativa that is typically industrial hemp matures the slowest, and Sativa is not preferred by most customers any more.
THC content in feral hemp is probably around 0-2 percent. Industrial hemp in Canada is 0.3 percent or less, and better commercial varieties of medicinal cannabis are up to 25 percent. Don't buy the argument that 1 percent THC in hemp is enough to get high, because industrial hemp also has high CBD (cannabidiol, a cannabinoid in hemp) that is essentially a THC antagonist. More CBD means the THC is less effective, and hemp is highest in CBD and medicinal is lowest. So even if there is 1 percent THC in hemp, the CBD makes it useless to smoke. As for extracting the THC from hemp: why bother? If you can buy pot (even in your jail) for as low as $100/oz., why try and extract it at great cost and hassle? Just go down to the local park and buy real pot and save the inconvenience. It's much like saying only people over 21 can buy potatoes, since kids might make vodka out of it!
And remember, industrial hemp pollens will make the sinsemilla (seedless, highest potency, requires an absence of cannabis pollen) downwind for many miles less potent.
Officer, please remember that you are among the finest, best trained police in the world. If every other police force in the industrialized world can tell the difference, I'm sure that when the time is appropriate POST or DEA or USDA or California AG or someone to whom it is important will provide the necessary information to show you the difference between the two.
The U.S. is helping China build a novel, superior nuclear reactor
The Department of Energy is dusting off one of the old betamaxes of nuclear technology: The molten salt reactor. But with political will lacking at home, it will rise in China.
In 1973, the Nixon administration made a momentous decision that altered the course of civilian nuclear power: It fired the director of the renowned Oak Ridge National Laboratory, scuppering development of a reactor widely regarded as safer and superior to the complicated, inferior behemoths that define the global industry to this day.
Nixon banished a reactor that was virtually meltdown-proof, left comparatively little long-lived waste, made it more difficult to fashion a bomb from the waste, ran at friendlier atmospheric pressure instead of the potentially explosive pressurized environments of conventional reactors, and ran at much higher temperatures, making it more cost-effective as an electricity generator.
Under director Alvin Weinberg, Oak Ridge had built and run a small, experimental version of the so-called molten-salt reactor for five years. It wasn’t perfect but it was a good start, and inventor Weinberg was preparing to improve it. Then Nixon’s axe fell, leaving Oak Ridge all dressed up and nowhere to go as the keeper of a valuable, clean, safe nuclear energy technology—a technology that today could go a long way toward moving the world onto a much needed source of power that doesn’t emit carbon dioxide.
Decades later, the U.S. Department of Energy (which owns Oak Ridge) is slowly reawakening to Weinberg’s vision. But this time, rather than build a molten-salt reactor itself—the country currently lacks the political will and funding to do so—the U.S. is helping others.
Fortune has learned that DOE plans to sign a 10-year collaboration agreement with China to help that country build at least one molten-salt machine within the next decade. And in a smaller development, Oak Ridge publicly announced in January that it will advise Terrestrial Energy, a privately held Canadian start-up, on development of a molten-salt reactor that draws on Weinberg designs and on the reactor scheme that briefly hatched at Oak Ridge after Weinberg left.
The idea from the U.S. perspective—especially with the larger DOE collaboration with the Chinese Academy of Sciences—is to foster a reactor that could eventually gain hold in the U.S.
“The Chinese will be doing work and sharing information with us, and we’ll be applying our expertise and supporting them,” Oak Ridge nuclear engineer Jess Gehin tells Fortune. “They’re going to build a reactor there [in China]. Hopefully one will get built in the U.S., but there isn’t any concrete plan for that.”
In recent years, China has committed some $400 million to development of two molten-salt reactors at the Shanghai Institute of Applied Physics, which is part of the Academy. China first announced its plans in early 2011, and at one point was targeting this year for completion of a tiny pilot version of its first, on the way to a full blown demonstrator by 2024, rated at 100 megawatts—a size that fits the emerging trend for small reactors. Its target dates have shifted a few times; it could benefit from DOE’s help. A second molten-salt reactor based on a variation of the first is due within 10 to 20 years.
“The Chinese, being relatively new to it, need technical support,” says Gehin, who leads Oak Ridge’s efforts to integrate reactor technology research and development projects. “If they follow through and build a test reactor, there’s a lot of useful information that we could get from that.”
The 10-year cooperative research and development agreement, or CRADA, ratchets up a smaller “memorandum of understanding” that the Department of Energy and China signed in late 2011 to collaborate on the same technology. With the new installment, China is contributing “a significant amount of money,” Gehin says.
The collaboration will not initially focus on a replica of Weinberg’s experimental reactor. Weinberg used a liquid fuel, mixing uranium with molten salts that would flow through the reactor serving as both the fuel and the coolant. The U.S. Department of Energy is specifically helping China develop a machine that uses solid, pebble-shaped fuel, but that will use flowing molten salts as the reactor’s “coolant.” (In a nuclear power system, coolants absorb heat from fission reactions and transfer it to water, creating steam to drive a turbine. Conventional reactors typically use ordinary water to cool reactions, and are called Light Water Reactors, or LWRs.)
China plans to eventually build a liquid fuel molten-salt reactor as well. The DOE collaboration will help. To help increase their effectiveness, China plans to run the reactors not on uranium but on thorium, which enhances the reactor benefits.
Nuclear energy is a strong part of China’s plans to cut back its reliance on the coal-fired power plants that are choking its cities with deadly pollution and spewing environmentally hazardous carbon dioxide. The two molten-salt reactors are just one of several reactors under development in China based on unconventional designs; China is also building more conventional reactors than any country.
The new reactors have high level support in China, where Jiang Mianheng, the son of former Chinese president Jiang Zemin, oversees them. Last March, Beijing ordered the Shanghai Institute to accelerate development of them.
The younger Jiang has outlined plans to use alternative reactors not only for electricity, but also as sources of clean heat for high temperature industrial processes which today run on CO2-emitting fossil fuels, to help gasify coal, to help produce environmentally friendly methanol fuel, and for other purposes.
Meanwhile, Canada’s Terrestrial Energy is also eyeing the industrial heat market, as well as electricity generation—especially for off-grid locations—for its molten-salt reactor. Terrestrial’s development deal with Oak Ridge is a short term consulting arrangement which could help meet its goal of building such a reactor by the early 2020s.
Oak Ridge will advise Terrestrial on things like salts and heat exchangers, and how to combat corrosion. The Terrestrial reactor will initially run on liquid uranium fuel. It’s based on a designed called the “Denatured Molten Salt Reactor,” which Oak Ridge conceptualized but never built in the 1970s as a follow up to the earlier reactor. The DMSR uses low-enriched uranium, rather than the more highly enriched uranium that Oak Ridge used in the experimental MSR which was to have bred additional fuel. Weinberg wanted to ultimately use thorium.
“If the DMSR is the basis of your design, you’d obviously want to go back to the original lab that has all the data, that has all the know-how; Oak Ridge National Laboratory is that lab for the DMSR,” Terrestrial CEO Simon Irish says.
China probably wouldn’t dispute that.
http://static-6.nexusmods.com/15/mods/120/images/16134-1-1305083135.jpgHollywood loves making films where gas-powered cars explode in flames after bumping into a curb. I can only imagine how big they would depict the explosions of thorium-powered cars.
1. Glad to see this idea isn't dead yet.