Originally posted by GriBiT
NOT a laughing matter. Tacky
Originally posted by Gazrok
In the end, we'd all lose....of course...
Finally, whether you believe it or not...there IS an anti-missile defense system in place in the US.
Originally posted by Kormy
Umm, that i s a lie. Europe could defend as good as you jenks could.
And dont bring me .... of the World War 2, its history
that comment made me laugh, what a load of crap your missle defence is, it shot down a british plane in iraq!!!
Originally posted by baked
It's the weapons that we don't know about that would decide the war.
Aside from nukes, what weapons would be unleashed apon the world?
Honestly, I think everyone would end up loosing, including the ones that chose to stay nuteral.
A rather large chunk of America is either from Europe and still have family there or are from there and have ties there. This also means that alot of Europeans have American family here. If it did happen, it would most likely not be the whole of Europe that would fight. Probably not the whole of America either. I guess it would have to take something MAJOR to spark that one.
Just my opinion on it.
Originally posted by ragingsystem
I agree, europe just has a smaller army but as good as defence as America, oh and maybe even better, i mean how da hell to you allow a plane to fly low into new york city. Thats bad defence.
Originally posted by Cearbhall
Russia is so backwards that they put there clothes on that way. Russia can't compare to the US's technology, get with it man!
I'd bet GB would side with the US, they have more in common and the US is their rebellious child.
[Edited on 1-27-2004 by Cearbhall]
Originally posted by ktprktpr
about nukes: I read somewhere that if you set a nuke off underwater you'd devour the planet in an all consuming catratrophe. The logic goes like this: Nukes work by spliting Oxygen, which releases a lot of energy. So if you put a nuke under water there would a practically unlimited amount of H20, Oxygen, to split. Can someone refute or verify this?
The visible phenomena of explosion followed the predictions made by civilian and service phenomenologists attached to Joint Task Force One. At the moment of explosion, a dome, which showed the light of incandescent material within, rose upon the surface of the lagoon. The blast was followed by an opaque cloud, which rapidly enveloped about half of the target array. The cloud vanished in about two seconds to reveal, as predicted, a column of ascending water. From some of the photographs it appears that this column lifted the 26,000-ton battleship ARKANSAS for a brief interval before the vessel plunged to the bottom of the lagoon. Confirmation of this occurrence must await the analysis of high-speed photographs, which are not yet available. The diameter of the column of water was about 2200 feet, and it rose to a height of about 5500 feet. Spray rose to a much greater height. The column contained roughly ten million tons of water. For several minutes after the column reached maximum height, water fell back, forming an expanding cloud of spray, which engulfed about half of the target array. Surrounding the base of the column was a wall of foaming water several hundred feet high. Waves outside the water column, about 1000 feet from the center of explosion, were 80 to 100 feet in height. These waves rapidly diminished in size as they proceeded outward, the highest wave reaching the beach of Bikini Island being seven feet. Waves did not pass over the island, and no material damage occurred there. Measurements of the underwater shock wave are not yet available. There were no seismic phenomena of significant magnitude. The explosion produced intense radioactivity in the waters of the lagoon. Radioactivity immediately after the burst is estimated to have been the equivalent of many hundred tons of radium. A few minutes exposure to this intense radiation at its peak would, within a brief interval, have incapacitated human beings and have resulted in their death within days or weeks….the second bomb, bursting under water, sank a battleship immediately at a distance of well over 500 feet. It damaged an aircraft carrier so that it sank in a few hours, while another battleship sank after five days. In the case of the underwater explosion, the airburst wave was far less intense and there was no heat wave of significance. Moreover, because of the absorption of neutrons and gamma rays by water, the lethal quality of the first flash of radiation was not of high order. But the second bomb threw large masses of highly radioactive water onto the decks and into the hulls of vessels. These contaminated ships became radioactive stoves, and would have burned all living things aboard them with invisible and painless but deadly radiation.
A ban on nuclear testing is the oldest item on the current arms control agenda. Efforts to curtail nuclear tests have been made since the 1940s. In the 1950s, the United States and Soviet Union conducted hundreds of tests of newly developed hydrogen bombs. The radioactive fallout from these tests spurred public protest around the world. These pressures, reinforced by a desire to reduce U.S.-Soviet confrontation in the wake of the Cuban Missile Crisis of 1962, led to the Limited Test Ban Treaty of 1963, which banned nuclear explosions in the atmosphere, in space, and under water.
A view from the rim of Moruroa atoll into the central lagoon.
The blast from the nuclear test explosion has raised a dome of water, and turned the surface white - not from heat, but from the shock wave driving out air bubbles.
Insufficient monitoring means that little is known about the potential effects of nuclear testing on nearby island populations
A number of near-surface nuclear blasts were carried out in the shallow waters (< 60 m) of the Bay of
Chernaya (Novaya Zemlya) in the late 50’s and early 60’s. Data is available from three of these explosions.
The first underwater nuclear blast (October 10, 1957) was reported with yield of 10 kt and charge depth of
30 m. Seven peak-pressure measurements are available from this explosion, which average about 300
kg/cm2 at a 235-m distance and sensor depths 10 to 50 m. Hydrophone records from the two other nuclear
blasts (October 23 and 27, 1961) are available at much larger distances, 35 km to 160 km, at sensor depths
of 1 m above the bottom. These records show levels of sound pressure measured in three different bands
from low to high frequencies. The records from the first of these nuclear explosions, of yield 4.8 kt and
charge depth 20 m, indicate peak levels of sound pressure between 103 dB and 125 dB. The records from
the second 1961 nuclear explosion, of 16-kt yield and height above water 1.1 m, show levels between 90
dB and 130 dB, with the pressure of the direct shock wave being diminished to ~4% of the pressure that
would have been observed in boundless water. Distinct arrivals are seen for both 1961 blasts, such as direct
shock waves in water (T-phase), refractions in the crust and the bottom layers, and signals corresponding to
sound speed of shock waves in air.