The Chinese have been appropriating our technology with our full approval (remember IBM selling Lenovo their PC business?) due in large part to our policies developed to increase profits for corporations. We're our own worst enemy, the Chinese simply take advantage of our lack of foresight and greed. Also, our colleges make money catering to foreign students and I doubt that they'd not send lobbyists to Congress if there were any such attempt to send Chinese students home.
The fact is that REE in China are the property of the Chinese, and as they are their resource, they have a good argument as to controlling their export and we chose to send our technology to China because it brought a few well connected people more wealth. Perhaps we'd have more trade leverage had we not given China so much in the first place.
Maybe it's time to re-engineer our society to be far more efficient such that we don't require REE and conventional magnets can produce what we need. Oh, and reconsider our trade and business policies such that they don't benefit only a few. As far as I'm concerned this is all about sustainability.
I can't speak for Warren, but in an earlier post, I mentioned that there are about 110,000 or more Chinese students here at any given time taking our technology to China. It would be fair to send these students home until China opens up thier rare earth markets again.
Good point, ChasChas. I would imagine a craft could be build in orbit, much like the space station was. Then rockets would only be necessary to ferry passengers back and forth to the craft. Getting the payload from the craft down to earth could be tricky.
Speculators do not stabilize prices, they create bubbles. Markets stabilize prices only when those bidding on the commodity have an actual stake in the commodity and not merely whether others will pay more for the commodity later than they did.
Sorry but RE motors are not close to many times smaller than other types. They won't be replaced by ferrite magnets but by far better tech like Telsa's and the EV-1's motors that use no RE and smaller than a similar RE motor. No?
So much hype and little substance here.
The article on UC's is far worse, just pure hype by the manufacturer. I can't wait to see his response. It should be enlightening for all of us.
Our missing link to successful space mining is that we have no space drive like all the science fiction crafts and what has been observed in "UFO's". We need something to replace the rocket to break earth's gravity before real economic feasibility is here.
Where are we at on the carbon nanotube ribbon hooked to a geosynchronous satellite?
As a user of rare-earth magnets I hear there are large quantities of the resources necessary here in the USA but for the cost of getting it out of the earth. I guess the "rare" part is the permits, etc.
China broke international agreements in withholding this material from the world. I think it is a brilliant maneuver to raise prices. Saudi Arabia, et al, do it with oil. I do it with my vast mental capacity and my stunning good looks. So, the solution is an engineering one. How can we get around China? We got around the buggy whip cartel with the automobile. We can find ways to extract it from our own soil effectively, safely, and cleanly (unless the government has another hidden agenda in agreements with China). Or we can find substitutes. Maybe there is a substance we can use like "I Can't Believe It's Not Neodymium!"
I don't know if I buy the "hoarding" excuse. Speculators tend to stabilize prices. I think dark-side politics are at play, Mr. Watson.
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For industrial control applications, or even a simple assembly line, that machine can go almost 24/7 without a break. But what happens when the task is a little more complex? That’s where the “smart” machine would come in. The smart machine is one that has some simple (or complex in some cases) processing capability to be able to adapt to changing conditions. Such machines are suited for a host of applications, including automotive, aerospace, defense, medical, computers and electronics, telecommunications, consumer goods, and so on. This discussion will examine what’s possible with smart machines, and what tradeoffs need to be made to implement such a solution.