Brainster
Penultimate Amazing
- Joined
- May 26, 2006
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lgf is Little Green Footballs I believe.
Yes, here's a post by Charles that goes into Dylan's LGF trolling phase.
lgf is Little Green Footballs I believe.
I don't understand. Can you elaborate?
I assume you guys must be speaking about the little space cadet meeting on saturday. Quite funny that Dylan and Jason were held to the last portion of the party and even then Dylann was cut off because AJ realized that Dylan is a supreme brown noser.
[...]
Keep defending ground zero.
Take care everyone.
Sentinel
Yes, here's a post by Charles that goes into Dylan's LGF trolling phase.
link: http://littlegreenfootballs.com/weblog/?entry=8132&only9/9/2003: Nazimedia: Love Me, Daddy!
The foul antisemites at Nazimedia, dropped from Google News for their insane hatred of Israel, are now trying to lash out at LGF by getting the drones to complain to Amazon and Paypal about us: Independent Media Center. Aren’t they sweet? The Morlock who posted this is probably the one who was looking for love from his daddy here under the name “Dylan Avery” recently, and he accompanies this rant with the usual libelous, badly Photoshopped picture that lends so much credibility to their cause.
UPDATE: If you’d like to help counteract this latest Indymedia smear campaign by expressing support for LGF at Amazon and Paypal, here are the pages where you can do so:
Amazon.com: Help / Contact Us / General Questions
PayPal - Help Center
posted by Charles at 10:03 PM PST | rss
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Sulfur is so common it is scary. The absence of Sulfur anywhere in the WTC site would be more suspicious.
Sulfur is a part of rubber, and a part of gypsum (drywall is made from this).
The list goes on...
Mild attempt to re-steer the ship...
Pertaining to S. Jones's paper regarding Sulphur found at WTC, I'm not sure I've seen it mentioned but is Sulphur going to be found after the thermite burns? Any chemists / experts know the results of the Thermite reaction, and would Sulphur still be detectable afterwards?
the thermite find gets bandied about on the IMDB board for LC2...
Trif
source: http://www.emedicine.com/emerg/topic917.htmBackground: Two major types of metal incendiaries exist, those that are magnesium based and those of the thermite/thermate type. Most types generally are encountered only in the military or industrial setting.
Magnesium, a silvery white metal of atomic weight 24.32, ignites at 632°C and burns at 1982°C, with magnesium oxide (MgO) as its combustion product. In an exothermic reaction, metallic magnesium can ignite to produce magnesium dihydroxide (ie, Mg(OH)2) and hydrogen. Magnesium is used in either powdered or solid form as an incendiary agent for both illumination and antipersonnel purposes. Various alloys of magnesium (eg, aluminum/zinc/magnesium alloy found in US M126 round) are mechanically sturdier but also can be ignited easily.
Thermite is a mixture of powdered or granular aluminum and powdered iron oxide. When combined with other substances, such as binders, the material is termed a "thermate." All such materials react vigorously when heated to the combustion temperature of aluminum. This reaction produces aluminum oxide, elemental iron, and sufficient heat to melt the iron. The reaction temperature is approximately 2200°C.
Because the burning temperature of these chemicals is so high, standard hazardous-materials clothing (even Level A self-contained and chemical-proof clothing) is not protective.
Pathophysiology: Burning thermite or magnesium produces predominantly thermal injury, but residual particles (especially of magnesium) may produce chemical injury to the eyes, skin, and respiratory tract.
source: wikipedia.orgBlack or blue iron oxide (Fe3O4), produced by oxidizing iron in an oxygen-rich environment under high heat, is the most commonly used thermite oxidizing agent because it is inexpensive and easily produced. Red iron (III) oxide (Fe2O3, commonly known as rust) can also be used to make thermite but yields a less energetic reaction. Other oxides are occasionally used, such as in manganese thermite and chromium thermite, but only for highly specialized purposes. Both examples use aluminium as the reactive metal.
In principle, any reactive metal could be used instead of aluminum. This is rarely done, however, because the properties of aluminium are ideal for this reaction. It is by far the cheapest of the highly reactive metals; it also forms a passivation layer making it safer to handle than many other reactive metals. The melting and boiling points of aluminum also make it ideal for thermite reactions. Its relatively low melting point (660°C, 1221°F) means that it is easy to melt the metal, so that the reaction can occur mainly in the liquid phase[1] and thus proceeds fairly quickly. At the same time, its high boiling point (2519°C, 4566°F) enables the reaction to reach very high temperatures, since several processes tend to limit the maximum temperature to just below the boiling point.[2] Such a high boiling point is common among transition metals (e.g. iron and copper boil at 2887°C and 2582°C respectively), but is especially unusual among the highly reactive metals (cf. magnesium and sodium which boil at 1090°C and 883°C respectively).
Although the reactants are stable at room temperature, they burn with an extremely intense exothermic reaction when they are heated to ignition temperature. The products emerge as liquids due to the high temperatures reached (up to 2500°C (4532°F) with iron (III) oxide)—although the actual temperature reached depends on how quickly heat can escape to the surrounding environment. Thermite contains its own supply of oxygen and does not require any external source of air. Consequently, it cannot be smothered and may ignite in any environment, given sufficient initial heat. It will burn well while wet and cannot be extinguished with water. Small amounts of water will boil before reaching the reaction. If thermite is ignited underwater, the molten iron produced will extract oxygen from water and generate hydrogen gas in a single-replacement reaction. This gas may, in turn, burn by combining with oxygen in the air.
...
When thermite is made using iron (III) oxide, for maximum efficiency it should contain, by mass, 25.3% aluminum and 74.7% iron oxide. (This mixture is sold under the brand name Thermit as a heat source for welding.) The complete formula for the reaction using iron (III) oxide is as follows:
Fe2O3(s) + 2Al(s) → Al2O3(s) + 2Fe(s); ΔH = -851.5 kJ/mol
When thermite is made using iron (II,III) oxide, for maximum efficiency it should contain, by mass, 23.7% aluminium and 76.3% iron oxide. The formula for the reaction using iron (II,III) oxide:
3Fe3O4(s) + 8Al(s) → 4Al2O3(s) + 9Fe(s); ΔH = -3347.6 kJ/mol
The reaction using Fe3O4 produces a substantially larger amount of energy pr. mol reaction than the reaction using Fe2O3, which produces more energy pr. gram of thermite mixture.
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http://72.14.203.104/search?q=cache...due+-wtc+-9/11+-911&hl=en&gl=us&ct=clnk&cd=3113–23. Chemical Group D fillers
a. Thermite (TH). TH, a mixture of iron oxide, aluminum, and other substances, is a dark gray granular mass that
requires an igniter to start burning; it burns with great rapidity at a temperature of 4300 degress F, with the iron oxide
being reduced to molten iron. Thermate is a mixture of TH aluminum, barium nitrate, sulfur, and lubricating oil.
Thanks for the information...but stop posting and finish your video, already!![]()
I just finished reading the link to the LGF site and D.A.s comments. Make no wonder he hides behind his wingnut kooks over at the LC Forum. The Guy is extremely poor when it comes to his communication or debating skills.