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makemap
Here is the Uranium bomb proof(the usual mushroom cloud)
Remember mushroom clouds are dangerous.
A mushroom cloud is a distinctive pyrocumulus mushroom-shaped cloud of condensed water vapor or debris resulting from a very large explosion. They are most commonly associated with nuclear explosions, but any sufficiently large blast will produce the same sort of effect. They can be caused by powerful conventional weapons, like vacuum bombs, including the ATBIP and GBU-43/B Massive Ordnance Air Blast bomb. Volcanic eruptions and impact events can produce natural mushroom clouds.
makemap
reply to post by Zaphod58
Well not like they make the bomb anyways now a days. It could secretly be nuclear/uranium rich(until dropped).
www.cbc.ca...
You have to look at the explosion effects to tell if it is Uranium.
Here is a WW2 bomb effect.
www.youtube.com...
Here is the Uranium bomb proof(the usual mushroom cloud)
www.youtube.com...
Even a comments says it is Mark82 bomb. I searched that on google and someone says it uses depleted uranium.
Remember mushroom clouds are dangerous.
Mushroom clouds are formed by many sorts of large explosions under earth's gravity, though they are best known for their appearance after nuclear detonations
A mushroom cloud is a distinctive pyrocumulus mushroom-shaped cloud of condensed water vapor or debris resulting from a very large explosion. They are most commonly associated with nuclear explosions, but any sufficiently large blast will produce the same sort of effect. They can be caused by powerful conventional weapons, like vacuum bombs, including the ATBIP and GBU-43/B Massive Ordnance Air Blast bomb. Volcanic eruptions and impact events can produce natural mushroom clouds.
Mushroom clouds form as a result of the sudden formation of a large mass of hot, low-density gases near the ground creating a Rayleigh–Taylor instability. The mass of gas rises rapidly, resulting in turbulent vortices curling downward around its edges, forming a vortex ring and drawing up a column of additional smoke and debris in the center to form the "mushroom stem".
pikestaff
So is it the two bombs did not explode if they are 'live'? live means the ground safeties are taken out, then when the bomb is released from the aircraft, small propeller at the rear end starts to spin with air flowing over it while the bomb drops, the spinning propeller draws out the last safety, and then the bomb is fully armed.
The Argentinians attacked the British navy in the Falklands war, the argie pilots were too low for the bombs to arm, which is why the pilots aim was good, but not many strikes. (Although, sadly, HMS Sheffield burnt out when a bomb squad tried to defuse a bomb stuck amidships) It later sank when being towed back to Blighty.........
Shana91aus
I dont know thats quite odd but i know only a little about all this!
but why do we need all these US marines in Australia? I saw the other week they are putting even more up in Darwin.. There will be 2500 in Darwin by 2017 This link mentions that and also about their training etc.
f0xbat
reply to post by makemap
Wow, talk about reviving a year old thread.
Depleted uranium (DU; also referred to in the past as Q-metal, depletalloy or D-38) is uranium with a lower content of the fissile isotope U-235 than natural uranium.[2] (Natural uranium is about 99.27% U-238, 0.72% U-235—the fissile isotope, and 0.0055% U-234). Uses of DU take advantage of its very high density of 19.1 g/cm3 (68.4% denser than lead). Civilian uses include counterweights in aircraft, radiation shielding in medical radiation therapy and industrial radiography equipment and containers used to transport radioactive materials. Military uses include defensive armor plating and armor-piercing projectiles.
Most depleted uranium arises as a byproduct of the production of enriched uranium for use in nuclear reactors and in the manufacture of nuclear weapons. Enrichment processes generate uranium with a higher-than-natural concentration of lower-mass uranium isotopes (in particular U-235, which is the uranium isotope supporting the fission chain reaction) with the bulk of the feed ending up as depleted uranium, in some cases with mass fractions of U-235 and U-234 less than a third of those in natural uranium. U-238 has a much longer halflife than the lighter isotopes, and DU therefore emits less alpha radiation than the same mass of natural uranium: the US Defense Department states DU used in US munitions has 60% of the radioactivity of natural uranium.[3]