Moving forward into obscurity.The duh, is that truth movement action is, moving forward, and the OP is evidence of such.
Duh...
And, do you have a link to the Boston Seminar?
Moving forward into obscurity.
The link was on this site but the "tea party" page seams to be down.
http://boston911truth.org/site/
Its got to be on youtube but I don't have the time to look.
Hi Sizzler:
Sorry I missed all the fun last night!
I just want to get back to Jones' 0.04 % estimate.
It it true that Jones only considered the two largest particles he could see with the "unaided eye", but, as I will now explain, this does not seriously affect his estimate.
Consider what Jones' sample was: it consisted of TWO particles that were about 1 mm in diameter and let's say 100 particles that were ten times smaller or 100 microns in diameter. Now the volume of a particle varies as the radius cubed, i.e. r^3, so if the large particles are 1 volume unit, the ten times smaller particles are (0.1)^3 or 0.001 volume units. So for 100 such small particles we have a total additional volume of 0.1 units to be added to our 1 (or 2!) volume units. Hence our one hundred 0.1 mm particles add only 10 % more volume to our single 1 mm particle. Thus Jones is introducing a small error by ignoring the smaller particles. I would say that even if there were one thousand 100 micron particles for every 1 mm particle, Jones' estimate will only double. So now we have 0.08 % iron spheres in the sample. This is still a very small fraction of the total iron (~ 2 %) present in the sample.
The duh, is that truth movement action is, moving forward, and the OP is evidence of such.
Duh...
And, do you have a link to the Boston Seminar?
I just want to get back to Jones' 0.04 % estimate.
It it true that Jones only considered the two largest particles he could see with the "unaided eye", but, as I will now explain, this does not seriously affect his estimate.
Consider what Jones' sample was: it consisted of TWO particles that were about 1 mm in diameter and let's say 100 particles that were ten times smaller or 100 microns in diameter. Now the volume of a particle varies as the radius cubed, i.e. r^3, so if the large particles are 1 volume unit, the ten times smaller particles are (0.1)^3 or 0.001 volume units. So for 100 such small particles we have a total additional volume of 0.1 units to be added to our 1 (or 2!) volume units. Hence our one hundred 0.1 mm particles add only 10 % more volume to our single 1 mm particle. Thus Jones is introducing a small error by ignoring the smaller particles. I would say that even if there were one thousand 100 micron particles for every 1 mm particle, Jones' estimate will only double. So now we have 0.08 % iron spheres in the sample. This is still a very small fraction of the total iron (~ 2 %) present in the sample.
Lets assume that of the 2% iron content, 1% is microspheres. So that is half of the iron content and certainly worth paying attention to.
Can we all have a pony as well?
Assuming we all have the space and means, why not?
Bump!
The pyrolysis process is subdivided into four stages: 1. Drying (II). The temperature shall not exceed 150 °C. This is an endothermic process; 2. (III) Disintegration of hemicellulose, removal of part of chemically bonded water and formation of CO, CO2, methane, acetic acid, methanol. The temperature is within 150-275°C. This is an endothermic process; 3.(IV) disintegration of cellulose and lignin. Secondary reactions of polymerization. Formation of the main groups of resin. The temperature shall be within the range of 275...450 °C. This is an exothermic process. The process is especially complicated for control; 4. (V) Coal heating. Removal of volatile matters that are kept by means of adsorption from carbonic framework. Formation of carbon crystalloid structures. Detachment of functional groups held by carbon. Endothermic and exothermic reactions go parallel. Total balance is endothermic. Coal heated up to 500° is not pure carbon. Should the temperature of charcoal heating be increased up to 600 ° C in this case emission of carbohydrates (methane, ethane, ethylene, etc) will take place.
At temperature range within 700-950°C emissions of hydrogen will take place mostly. The majority of consumers consider that high quality charcoal is coal heated up to 450… 550 °C. In case of high-speed pyrolysis yield of charcoal is by 30…50 % lower than in case when coal is subjected to heating in hot zone for a longer period. In case of oxidizing pyrolysis (with additives of oxygen) also reduces charcoal yield but improves its quality as raw material for activated charcoal production and for some other applications. If we regard wood material as a whole we may note that the heating rate in ordinary retorts with external heating is specified by emission and heat-transfer speed from heat carrier through the wall due to heat conductivity and inside the retort by heat convection from the wall to wood (1).
However since micro spheres can be found in car fires from the oxidation of thin metals, and in office fires from the same.
And you spend your time on a site debunking a movement that never left the station.
Looks like the joke is on you![]()

Thanks for your reply CC. I don't like ponies anyway.
you wrote:
My question is simple. Can you link me to an article that demonstrates such?
Ultimately, if the GOAL of the TM is "the truth" then eventually, through MOVING FORWARD on this point, the TM should drop much, if not all, of the "inside job" theory.
TAM![]()
Apollo and CC:
Thanks for your replies and additional information.
Oxidization of Steel
When steel is exposed to a fire the oxide which forms depends on the temperature. Fe2O3 (hematite) forms at lower temperatures, Fe3O4 (magnetite) in a higher range. The low temperature form tends to be brown-reddish and turns into common rust as it picks up moisture from the atmosphere. When the thickness increases the rust tends to form flakes. X-ray diffraction analysis shows it to be a hydrated iron hydroxide, FeO(OH) x H2O.
Execution:
This is one of several photos I took during Patterson's exercise. I was curious "what lies underneth" so I flipped my old neglected metal plant pot over. I have a scientific mind as it's my background, I decide to call rust by it's scientific name. I looked closely and see an explosion of colors -- not just rust color. I was even surprised to see "blue" in there.
1. In a process for preparing equiaxial magnetite starting from a ferrous sulphate solution comprising
a first step in which 2/3 of the Fe++ ion is precipitated as Fe(OH)2 with an alkali at a temperature ranging from 15° to 40° C, said Fe(OH)2 being oxidized to alpha-FeO(OH), and
a second step, in which the remaining Fe++ is precipitated as Fe(OH)2 with an alkali and the slurry is heated to a temperature ranging from 70° to 100° C, thus obtaining equiaxial magnetite;
the improvement characterized in that in the aforesaid second step, before the heating of the slurry, gamma-FeO(OH) is added in such an amount that the Fe of the gamma-FeO(OH) is 0.1-10% of the Fe++ initially present in the solution, the higher the percentage of gamma-FeO(OH), the lower the average diameter of the resulting magnetite.
2. In a process for preparing equiaxial magnetite starting from a ferrous sulphate solution, in which, at a temperature ranging from 15° to 40° C, the Fe++ present in solution is precipitated with an alkali in the form of Fe(OH)2, then the slurry is heated to a temperature ranging from 70° to 100° C and the ferrous hydroxide is oxidized with air to magnetite;
the improvement characterized in that after heating and before oxidation, gamma-FeO(OH) is added in such an amount that the Fe of the gamma-FeO(OH) is 0.1-10% of the Fe++ initially present in the solution, the higher the percentage of gamma FeO(OH), the lower the average diameter of the resulting magnetite.