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Originally posted by ULTIMA1
Well for 1 why would they blame it on uranium in the planes? Didn't they think that people who now a little about planes or can do some simple research could find out that 757s and 767s do not carry uranium.
Originally posted by Zaphod58
Oh sorry, how stupid of me not to jump on the mini nuke bandwagon, and try to point out that there are OTHER causes of tritium release. I mean, why use stupid things like logic, and evidence, when you just point at something and scream "OH MY GOD! TRITIUM! IT MUST BE A MINI NUKE!"
Originally posted by Zaphod58
And you have NO reports of radiation sickness (not cancer, the actual sickness you get from radiation poisoning),
NO massive blast damage to OTHER structures in the area,
NO massive shock wave (which ANY nuke would produce),
NO EMP effects, NO flash damage (shadows burned into walls, etc).
Originally posted by gottago
They would have been placed deep in the sub-basements, to cut the core columns at the foundations.
Originally posted by Zaphod58
Please READ what I said.
Originally posted by gottago
I did. The vast majority of it was simply wrong. You seem to use any argument at any time, regardless of the evidence. It's tiresome.
"NO shock wave," but there was a massive shock wave.
Nothing but jets and kerosene, yet masive energy being released and massively elevated tritium levels.
Etc. etc. ad nauseum.
This is not reasonable debate, its like chasing fleas.
There were too many effects that are associated with a nuke that WEREN'T there.
Nonchalant, even if there IS a low radiation device out there, you STILL should have had an EMP effect that we didn't have. And there still should have been enough of a shock wave to cause a lot more damage than there was, not just knock people around. It should have caused massive damage to other structures around the towers.
And not to mention as was asked a couple posts ago, how did they set off a mini nuke in the basement, but start the collapse from where the planes hit the towers? WHY? If you're going to use this miracle bomb in the basement, but thermite/thermate/other explosives in the rest of the tower, why now use them in the basement as well? It doesn't make sense!
Originally posted by Zaphod58
If you're just looking for massive damage, and don't want the radioactivity, and other side effects just use an FAE, or a GBU-28 type device? Much cleaner, with similar damage effects since the WTC is a soft target.
Originally posted by Zaphod58Where in the center though? If you put it up above ground level then you ARE going to have a shock wave escape the building. And if the building absorbed the shock wave, what knocked the people down?
Source Region Electro-magnetic Pulse [SREMP] is produced by low-altitude nuclear bursts. An effective net vertical electron current is formed by the asymmetric deposition of electrons in the atmosphere and the ground, and the formation and decay of this current emits a pulse of electromagnetic radiation in directions perpendicular to the current. The asymmetry from a low-altitude explosion occurs because some electrons emitted downward are trapped in the upper millimeter of the Earth�s surface while others, moving upward and outward, can travel long distances in the atmosphere, producing ionization and charge separation. A weaker asymmetry can exist for higher altitude explosions due to the density gradient of the atmosphere.
Within the source region, peak electric fields greater than 10 5 V/m and peak magnetic fields greater than 4,000 A/m can exist. These are much larger than those from HEMP and pose a considerable threat to military or civilian systems in the affected region. The ground is also a conductor of electricity and provides a return path for electrons at the outer part of the deposition region toward the burst point. Positive ions, which travel shorter distances than electrons and at lower velocities, remain behind and recombine with the electrons returning through the ground. Thus, strong magnetic fields are produced in the region of ground zero. When the nuclear detonation occurs near to the ground, the SREMP target may not be located in the electromagnetic far field but may instead lie within the electro-magnetic induction region. In this regime the electric and magnetic fields of the radiation are no longer perpendicular to one another, and many of the analytic tools with which we understand EM coupling in the simple plane-wave case no longer apply. The radiated EM field falls off rapidly with increasing distance from the deposition region (near to the currents the EMP does not appear to come from a point source).
As a result, the region where the greatest damage can be produced is from about 3 to 8 km from ground zero. In this same region structures housing electrical equipment are also likely to be severely damaged by blast and shock. According to the third edition of The Effects of Nuclear Weapons, by S. Glasstone and P. Dolan, �the threat to electrical and electronic systems from a surface-burst EMP may extend as far as the distance at which the peak overpressure from a 1-megaton burst is 2 pounds per square inch.�
Originally posted by Zaphod58
Where was the radiation poisoning?
Where was the EMP?
Where was the flash?
In a nuclear detonation, gamma rays are produced. These gamma rays interact with the surrounding air molecules by the Compton effect to produce electrons. In this effect,
"...the gamma ray (primary) photon collides with an electron and some of the energy of the photon is transferred to the electron. Another (secondary) photon, with less energy, then moves off in a new direction at an angle to the direction of motion of the primary photon. Consequently, Compton interaction results in a change of direction (or scattering) of the gamma-ray photon and degradation in its energy. The electron which, after colliding with the primary photon, recoils in such a manner as to conserve energy and momentum is called a Compton (recoil) electron"(2)
These Compton-recoil electrons travel outward at a faster rate than the remaining heavier, positively charged ions. This separation of charges produces a strong electric field. The lower-energy electrons produced by collisions with the Compton electrons are attracted to the positive ions. These ions produce a conduction current. This current is directly related to the strength of the Compton effect. Also, this conduction current flows in a direction opposite to the electrical field produced by the Compton effect. Because of this, the conduction current limits the electrical field and stops it from increasing.(3-5)