Katherine Mangu-Ward | September 3, 2008
Ever wondered
if you could whip up
your own A-bomb? No? I haven't either, really. But I find it
strangely comforting to know that I could:
In his mid-20s, working entirely as an amateur and equipped with little more than a notebook and a library card, [Dave Dobson] designed a nuclear bomb. Today his experiences in 1964—the year he was enlisted into a covert Pentagon operation known as the Nth Country Project - suddenly seem as terrifyingly relevant as ever. The question the project was designed to answer was a simple one: could a couple of non-experts, with brains but no access to classified research, crack the "nuclear secret"?
The flip side, of course, is that anyone could. Darn.
If you'd rather not go to all this trouble, you can always borrow Peter Bagge's bazooka.
Via BoingBoing
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Designing it isn't the problem. The general notion of how a
nuclear bomb works has been in public view for fifty fucking
years.
Getting the requisite materials, and then putting them in a bomb is
engineered precisely enough that it will actually *go off* is the
trouble.
As the article illustrated.
"I'm sure in 1984 you can just buy Plutonium at any corner store,
but in 1955 it's a little hard to come by!"
In 1984 I bought Potasium Nitrate and Sulphur at drug stores to do boy stuff with. We had good neighbors. Bad neighbors would have called the police.
I'm pretty sure a nuclear bomb doesn't qualify as a "firearm." Or does it? How about a bazooka? What is the technical definition of "firearm" anyway?
Designing a bomb seems to be a lot easier than designing equipment that can process and maintain fissile material.
Ever wondered if you could whip up your own A-bomb?
No?
No, illegal possession of a nuclear weapon is a 15 year sentence
under federal law. A long time, but shorter than the sentence for
possession of a kilo of cocaine, which I think is 25 to life. Does
that really make sense?
Steven, that depends. Which is more fun?
My first instinct would be to say "the bomb". But upon reflection,
seeing what people will go through to get their hands on some coke,
I would probably be forced to conclude that the coke is more fun,
and is punished accordingly.
I would probably be forced to conclude that the coke is more
fun
You don't know already?
Elemenope and joe are correct. Casting and machining radioactive metal into precise shapes in a no-oxygen atmosphere is not trivial.
Which is more fun?
Trick question. If you have an atomic bomb, you can get all the
coke you want.
Building an efficient nuclear bomb with a low critical mass is difficult. Building an inefficient nuclear bomb is easy. If you keep adding enriched uranium to the mix, sooner or later there is enough to sustain fission.
Trick question. If you have an atomic bomb, you can get all
the coke you want.
I like the way you think.
You don't know already?
I'm an addictive enough personality to know that me trying coke
would be a monstrously stupid thing to do.
I'll stick to being addicted to relatively harmless things, like
sci-fi, Hit & Run posting, and Marijuana.
I'm an addictive enough personality to know that me trying
coke would be a monstrously stupid thing to do.
You're missing out. I too have the addictive impulse but I've
managed to control myself with it.
Epi --
There's also the part where I don't really have enough money to
maintain a habit. That has been a practical valve against the
occasional impulse to try new drugs & other things to which I
am readily addicted.
Meh. This was my high school physics report. In theory, a
low-yield uranium device isn't too difficult to build and detonate.
But a low yield device is just not that impressive, or particularly
useful. For the time and hassle you'd go through, the Ryder truck
with the ANFO is really a better option. More bang for the buck, as
it were.
A high yield device using plutonium is several orders of magnitude
more difficult. Plutonium is highly toxic, difficult to machine,
and hard to come by. You also have the issues involved in making it
function correctly, which are far from trivial. Plus, it ain't like
you can test it out to see if you've done it right.
And you can just forget about doing a fusion device. That really
does require the resource level of a government to get right.
The problem is not the design, but the manufacturing. The interviews with the FBI were at first scary, then boring. We weren't allowed to keep our notes.
I might note that Dobson and his associate (two of them were put
on the case) both had a Ph.D. in physics. So, two guys who are
physics Ph.D.s, given two years and access to a good library, could
figure out how to build a "Fat Boy" implosion device, given the
assumption that they would have the requisite plutonium.
The idea is that you create a hollow sphere of plutonium, which,
when compressed, would be a critical mass (create a self-sustaining
chain reaction that would run off about 2 to the eightieth power
rounds of fission before physically tearing apart).
You do that by surrounding the hollow sphere with a cluster of
shaped charges that, when detonated in the proper sequence, would
create a spherical imploding shock wave. So all you need is access
to TNT, blasting caps, sophisticated timing devices, a competent
machine shop, and about 20 kg. of pure plutonium, preferably not in
one big lump.
How did that old Chinese recipe for rabbit stew begin? Oh yeah.
"First, catch rabbit."
# Brian24 | September 3, 2008, 10:47am | #
# I'm pretty sure a nuclear bomb doesn't
# qualify as a "firearm." Or does it?
# How about a bazooka? What is the
# technical definition of "firearm" anyway?
I think a "firearm" is what we would call a "gun," big or small, as
long as it could conceivably be a personal weapon. A rocket
launcher would probably not be classified as a firearm. A bomb is
not a firearm. Even a flamethrower is not, technically, a
"firearm," even though it is a "fire"-arm.
But the interesting thing about the 2nd Amendment, in case that is
why you were asking about what did and didn't "qualify," is that it
does not specify "firearm." It simply says "arms," which is a much
broader category that conceivably includes all of those non-firearm
things and many more (e.g., bowie knives, throwing stars, bare
hands and feet, wielded according to especially deadly martial arts
methods, etc.).
In the Supreme Court's Miller decision, the justices declared that,
if the 2nd Amendment protected anything at all, it protected the
right to keep and bear weapons that might typically be used by
individual soldiers in the army and militia (as opposed to, say,
heavy artillery). The ruling at the time was that a sawed-off
shotgun was not such a weapon. But we have seen that type of gun
employed by soldiers and police forces in the decades since. If
Miller were decided today, I think the sawed-off shotgun would pass
muster. But what about the bazooka, the suitcase nuke, the 50
caliber machine gun, or even the broadsword? There is a whole
universe of "personal arms" out there, more and more of which are
coming into more-or-less common use in the military and
para-military (e.g., police, DEA, etc.) What about the "armored
personnel carrier" (tank) that one local police force in South
Carolina just got with grant money? It seems to me that, once a
great many police forces have their own tanks, the lawyers and
judges will have to use their best weasel words and misdirection to
keep the general public from seeing those things as "arms" eligible
for citizen ownership under the 2nd Amendment. "Let's watch!"
T | September 3, 2008, 1:02pm | #
# And you can just forget about doing a
# fusion device. That really does require
# the resource level of a government to
# get right.
A fusion bomb, perhaps. But true fusion can be done by high school
students, using the farnsworth fusor apparatus or one of its
variants. The "toys" generate neutron radiation while operating
(and for this reason, fusors are used as neutron sources in such
applications as medical radiation therapy), but do not generate net
power, which is why various governments have pursued tokamak-based
fusion for decades. Recent developments in fusor technology have,
however, suggested that the Polywell style of fusor can yield
net-positive energy output, provided that the right fuels are used
and/or the size of the device exceeds a particular threshhold
value.
Polywells built and tested to-date have not been big enough to
generate more energy than they consume -- though they generated a
lot more than the kinds of fusors that are built by high school and
college students. But if the most recent experiments with model
Polywells are successful, the next step will be to build a
full-scale unit that will consume less energy than it
provides.
For more info, see http://www.emc2fusion.org/
Every source I've seen that confronts the question answers that
Polywell-style fusion would not, could not lead to bombs, but who
can say? One thing I can say is that, if power-utility-grade
polywells prove practical, then high schools and colleges will
theoretically be able to build them. The devices are a lot simpler
than the fusion apparatus used in fusion bombs or as-yet-unrealized
fusion powerplants.
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