Static meaning if you want to surpass the safety factor of the building and bring it down using gravity. This is of course very inefficient way. To build up kinetic energy, you need to have less structural resistance than weight on to of that, otherwise collapse slows down, like what happened with WTC2 hitting WTC3Thanks. So you think that explosives shredded both people and a large part of the building
Then a lot of doubtful statements. I put numbers in square brackets behind details I'll comment, as to not break the readability of the text by breaking it down to multiple single quotes:
[1] "static": Strawman. No one claims that "static weight" crushed the structure below. Everybody claims instead that dynamic weight did it. Do I need to explain the difference? It's easy: Place a brick on your head and see how that feels. No drop the same brick on your head from 3 meters up and tells us how that feels differently, and why!
Obviously it's much less energy, work, etc, to bring down a skyscraper with some exlplosives than gravity, otherwise CD's would be done by loading stuff on top of the building.[2] "is much harder than": You make a comparison and claim that some property A has a greater value than a property B. A being: How "hard" it is for "weight" to break the building. B being: How "hard" it is to "just" cut the columns. So, in terms of formal argument, you have claimed an inequality to be true. But have you actually evaluated A and B? Since we are talking about a physical phenomenon, it should be possible to state A and B in objective physical terms, they must have the same dimension to be comparable, and then your job would be to show that A > B, numerically.
So, can you provide a lower bound for A, and an upper bound for B?
And what are we talking about here, anyway? Energy? Power? Force? Work?
for the core structure to disapper, it had to be blown up. It was the single most strongest part of the building. If just the floor connections would have failed, the core would be left standing and maybe tipped over.[3] You think of "columns etc.", so I assume you chiefly think that columns failed as the tower collapses progressed at ca. 70% of g. This is largely not true. The main failure mode was the breaking of floor joist-to-column connectors, which required a lot less energy, work, force and/or power than "cutting" columns, for the simple reason that these connectors were thinner, and designed to hold much smaller loads (only their share of the weight of1 office floor, rather than a share of the weight of the entire tower section above up to the roof). It is a matter of observation that both the core and perimeter walls remained upright and in large connected slabs when the floors crushed down. Much of the perimeter peeled off in large slabs only then, and a good portion of the core likewise only fell seconds after all the rest had gone, including all the concrete and the body parts.
When you use explosive that releases it's energy fast, you can demolish buildings, but if you release it slow, like burning some jet fuel, you are left with just a big fireball. Key is to attach the explosive right to the part which is to be demolished, direct the all the energy towards the object(shaped charge) and release the energy very rapidly(nano technology). this is how you can do the same demolition job with much less energy.[4] "much less energy was used" See [2] - you now say specifically "energy" when making this claim of an inequality. Have you evaluated this inequality? I.e. when you claim that EA > EB, can you define both Energies, and provide numerical bounds for both to prove that the claimed inequality is true?
The point was to bring down the building, and I would assume that explosives were attached to core columns and places where floors were attached to outer wall and columns. The explosive was apparently derived from this patent, where other layer is thermite and other layer protects the explosive from say fire, and also produces gas when ignited producing blast wave: http://patft.uspto.gov/netacgi/nph-Parser?Sect1=PTO1&Sect2=HITOFF&d=PALL&p=1&u=%2Fnetahtml%2FPTO%2Fsrchnum.htm&r=1&f=G&l=50&s1=5505799.PN.&OS=PN/5505799&RS=PN/5505799 The shredding of people happened from flying concrete/steel/other stuff and/or flying molten iron droplets. There was many different kind of trauma to the people, other dissappeared in the dust, other were in big pieces. So naturally they all got hit a bit differently. The Nature of the two-layer explosive as stated in the it produces both, thermitic reaction and blast wave.[5] "steel was not cut with mere blast wave"
May I remind you that you claimed in a post earlier today: "detonations vaporized floors etc and threw stuff like concrete with strong force against peoples bodies, which acted a little like a shotgun blast, shredding the torsos." - and you implied that explosions away from people would not shred them to pieces. So while you need to talk about the steel, you must not forget to also discuss the explosives that you imply were attached to the concrete floors, away from the steel columns and columns connectors.
As earlier stated, its easier and more energy efficient to break a building with[6] "thermite ... requiring less energy": Now you specifically seem to be claiming that thermite needs less energy to cut through columns than ... what? Please define what you compare this too. Explosives? Or the buckling of steel members through dynamic overloading? Which failure modes are you thinking of? And again, can you provide objective reasons for why you think that some A > B?
For starters: How much thermite would it take to cut ... a steel piece from WTC that you may freely choose?
well placed explosives, than pushing it down from above.
With thermite based explosives I was talking about the patented two layer explosive, with an oxide component. so it has both heat and shockwave components. Yes there was a lot of sound - just like all the eyewitnesses etc talked about, but no, there were no typical RDX sounds. Just like in this thermite demolition patent, the advantage with thermite demolition is that is produces LESS sound. Some sound, but LESS than typical RDX:[7] "thermite ... producing less noice" You claimed earlier that there were "thermite based explosives". Explosives, able to crush concrete and cut steel, by definition produce noise: The work to break material that an explosive does is through a shockwave, and that shockwave is identical to the noise you here - it literrally IS the very sound that does it. Or are you now insinuating that thermite was used to quietly melt steel? Or some melting, some shockwave action? Think about this, and try to get a feel for how oxymoronic your fantasy is!
http://www.google.com/patents/US5532449