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originally posted by: Floridagoat
a reply to: neutronflux
Steel fragments and bone fragments are different weights and densities and therefore would not likely wind up landing in the same place.
originally posted by: Urantia1111
originally posted by: Mandroid7
Could they have been smashed to pieces and blown out the windows as the floors pancaked?
The weight and air pressure would be astronomical.
😂😂😂😂😂
No, but thats hillarious.
Reasonable points. But it's actually very difficult to crush or blow a human body to bits, and especially multitudes of people. I think you are right that once in little pieces air pressure could eject something 250 feet.
originally posted by: neutronflux
originally posted by: Quetzalcoatl14
Without commenting on anything else, it's very doubtful that the air pressure would be sufficient to virtually vaporize people, or turn them into little tiny bits. Even most explosives won't do that to a human body.
originally posted by: Mandroid7
Could they have been smashed to pieces and blown out the windows as the floors pancaked?
The weight and air pressure would be astronomical.
The falling millions of pounds of mass was sufficient to pulverize bones into fragments. The height of the towers, and the pressure waves created by floors crushing together displaying large volumes of air was sufficient to eject bone fragments to their found location.
From: EMT - Blast Injuries
Secondary blast injuries: Are caused by debris propelled by the blast wind of
the explosion, resulting in both penetrating and blunt trauma. Individuals far
from the scene of an explosion can be struck and injured by this debris. For
example, after the 1998 terrorist bombing of the U.S. Embassy in Nairobi, Kenya,
flying glass wounded victims up to 2 kilometers away. Terrorist devices often
have additional objects such as nails, nuts and bolts, etc added to the explosive
mixture to increase the effects of secondary blast injury. Military devices such as
shells and grenades may be designed in such a way as to increase the number of
fragments (shrapnel) flung by the explosion.
originally posted by: TrueBrit
a reply to: neutronflux
Only if shrapnel was embedded in bone, you mean?
Floridagoat is right. The different weights and densities of materials, dictate how far they fly when propelled. Bone and metal have different weight per cubic inch, different densities too, so they would not normally find themselves in the same layer of the debris field.
originally posted by: neutronflux
originally posted by: Floridagoat
a reply to: neutronflux
Steel fragments and bone fragments are different weights and densities and therefore would not likely wind up landing in the same place.
Not necessarily. If the argument was the detonation of explosives fragmented bones, then the resultant blast should have ejected shrapnel. Shrapnel created by demolitions should be found with the body fragments the blast created. Especially if shrapnel was embedded in bone.
originally posted by: pteridine
originally posted by: Urantia1111
originally posted by: Mandroid7
Could they have been smashed to pieces and blown out the windows as the floors pancaked?
The weight and air pressure would be astronomical.
😂😂😂😂😂
No, but thats hillarious.
Why is that hilarious? Do you think that people died for your amusement?
originally posted by: neutronflux
a reply to: TrueBrit
Nope. Watch a video of an explosion. Large pieces of shrapnel and metal travel faster and father than resultant dust cloud. F=m*a. Large objects are thrown with more force if acceleration is more or less about equal.
Or momentum = mass * velocity.
If objects have about the same velocity from a resultant explosion, items of mass will have more momentum.
From: EMT - Blast Injuries
Secondary blast injuries: Are caused by debris propelled by the blast wind of
the explosion, resulting in both penetrating and blunt trauma. Individuals far
from the scene of an explosion can be struck and injured by this debris. For
example, after the 1998 terrorist bombing of the U.S. Embassy in Nairobi, Kenya,
flying glass wounded victims up to 2 kilometers away. Terrorist devices often
have additional objects such as nails, nuts and bolts, etc added to the explosive
mixture to increase the effects of secondary blast injury. Military devices such as
shells and grenades may be designed in such a way as to increase the number of
fragments (shrapnel) flung by the explosion.
There should have been shrapnel with the bone fragments.
originally posted by: neutronflux
a reply to: Floridagoat
Like I said, shrapnel not absorb by the human body will have gone further. Simple fact. If a body was fragmented by shrapnel, there would be shrapnel with the bone fragments.
originally posted by: Urantia1111
originally posted by: pteridine
originally posted by: Urantia1111
originally posted by: Mandroid7
Could they have been smashed to pieces and blown out the windows as the floors pancaked?
The weight and air pressure would be astronomical.
😂😂😂😂😂
No, but thats hillarious.
Why is that hilarious? Do you think that people died for your amusement?
Not laughing at the deaths, genius...jeez.
The EXPLANATION offered by the member is what I find absurd to the point of comedy.
www.scientificamerican.com...
"The gravitational energy of a building is like water backed up behind a dam," he explained. When released, the accumulated potential energy is converted to kinetic energy. With a mass of about 500,000 tons (5 x 108 kilograms), a height of about 1,350 ft. (411 meters), and the acceleration of gravity at 9.8 meters per second 2, he came up with a potential energy total of 1019 ergs (1012 Joules or 278 Megawatt-hours). "That's about 1 percent of the energy released by a small atomic bomb," he noted.
originally posted by: neutronflux
And don't forget demolition explosives strong enough to create and eject bone fragments would have been recorded on video and be audible.