Post by moody on Nov 20, 2024 18:04:32 GMT -6
Of course it’s simulated. Do you think they would actually construct a 47 story building to destroy it? Meanwhile, NIST REFUSED TO SHARE THEIR COLLAPSE MODEL. DOING SO WOULD “JEOPARDIZE PUBLIC SAFETY.” You and Onemizzou never mention that.
I predicted this would happen. I show you evidence and you find every excuse not to review it. Nothing has changed. Just stop.
Ask and he shall receive.
We have discovered distinctive red/gray chips in significant numbers in dust associated with the World Trade Center destruction. We have applied SEM/XEDS and other methods to characterize the small-scale structure and chemical signature of these chips, especially of their red component. The red material is most interesting and has the following characteristics:
It is composed of intimately mixed aluminum, iron, oxygen, silicon and carbon. Lesser amounts of other potentially reactive elements are sometimes present, such as potassium, sulfur, barium, lead and copper. [4,6]
The primary elements (Al, Fe, O, Si, C) are typically all present in particles at the scale of tens to hundreds of nanometers, and detailed XEDS mapping shows intimate mixing.
On treatment with methyl-ethyl ketone solvent, some segregation of components was observed. Elemental aluminum became sufficiently concentrated to be clearly identified in the pre-ignition material.
Iron oxide appears in faceted grains roughly 100 nm across whereas the aluminum appears in plate-like structures. The small size of the iron oxide particles qualifies the material to be characterized as nano-thermite or super-thermite. Analysis shows that iron and oxygen are present in a ratio consistent with Fe2O3. The red material in all four WTC dust samples was similar in this way. Iron oxide was found in the pre-ignition material whereas elemental iron was not.
From the presence of elemental aluminum and iron oxide in the red material, we conclude that it contains the ingredients of thermite.
As measured using DSC, the material ignites and reacts vigorously at a temperature of approximately 430ºC, with a rather narrow exotherm, matching fairly closely an independent observation on a known super-thermite sample. The low temperature of ignition and the presence of iron-oxide grains less than 120 nm show that the material is not conventional thermite (which ignites at temperatures above 900ºC) but very likely a form of super-thermite.
After igniting several red/gray chips in a differential scanning calorimeter run to 700ºC, we found numerous iron-rich spheres and spheroids in the residue, indicating that a very high-temperature reaction had occurred, since the iron-rich product clearly must have been molten to form these shapes. In several spheres, elemental iron was verified since the iron content significantly exceeded the oxygen content. We conclude that a high-temperature reduction-oxidation reaction has occurred in the heated chips, namely, the thermite reaction.
The spheroids produced by the DSC tests and by the flame test have an XEDS signature (Al, Fe, O, Si, C) which is depleted in carbon and aluminum relative to the original red material. This chemical signature strikingly matches the chemical signature of the spheroids produced by igniting commercial thermite, and of many of the micro-spheres found in the WTC dust. [5]
The presence of an organic substance in the red material is expected for super-thermite formulations in order to produce high gas pressures upon ignition and thus make them explosive. The nature of this organic material in these chips merits further exploration. We note that it is likely also an energetic material, in that the total energy release sometimes observed in DSC tests exceeds the theoretical maximum energy of the classic thermite reaction.
It is composed of intimately mixed aluminum, iron, oxygen, silicon and carbon. Lesser amounts of other potentially reactive elements are sometimes present, such as potassium, sulfur, barium, lead and copper. [4,6]
The primary elements (Al, Fe, O, Si, C) are typically all present in particles at the scale of tens to hundreds of nanometers, and detailed XEDS mapping shows intimate mixing.
On treatment with methyl-ethyl ketone solvent, some segregation of components was observed. Elemental aluminum became sufficiently concentrated to be clearly identified in the pre-ignition material.
Iron oxide appears in faceted grains roughly 100 nm across whereas the aluminum appears in plate-like structures. The small size of the iron oxide particles qualifies the material to be characterized as nano-thermite or super-thermite. Analysis shows that iron and oxygen are present in a ratio consistent with Fe2O3. The red material in all four WTC dust samples was similar in this way. Iron oxide was found in the pre-ignition material whereas elemental iron was not.
From the presence of elemental aluminum and iron oxide in the red material, we conclude that it contains the ingredients of thermite.
As measured using DSC, the material ignites and reacts vigorously at a temperature of approximately 430ºC, with a rather narrow exotherm, matching fairly closely an independent observation on a known super-thermite sample. The low temperature of ignition and the presence of iron-oxide grains less than 120 nm show that the material is not conventional thermite (which ignites at temperatures above 900ºC) but very likely a form of super-thermite.
After igniting several red/gray chips in a differential scanning calorimeter run to 700ºC, we found numerous iron-rich spheres and spheroids in the residue, indicating that a very high-temperature reaction had occurred, since the iron-rich product clearly must have been molten to form these shapes. In several spheres, elemental iron was verified since the iron content significantly exceeded the oxygen content. We conclude that a high-temperature reduction-oxidation reaction has occurred in the heated chips, namely, the thermite reaction.
The spheroids produced by the DSC tests and by the flame test have an XEDS signature (Al, Fe, O, Si, C) which is depleted in carbon and aluminum relative to the original red material. This chemical signature strikingly matches the chemical signature of the spheroids produced by igniting commercial thermite, and of many of the micro-spheres found in the WTC dust. [5]
The presence of an organic substance in the red material is expected for super-thermite formulations in order to produce high gas pressures upon ignition and thus make them explosive. The nature of this organic material in these chips merits further exploration. We note that it is likely also an energetic material, in that the total energy release sometimes observed in DSC tests exceeds the theoretical maximum energy of the classic thermite reaction.
911research.wtc7.net/essays/thermite/explosive_residues.html
