The Fossil Fuel "Hoax" - Flat Earth (8 Minute Video)

Globe Skeptic YT Channel:

“Published on Dec 9, 2015 Excerpt from : https://www.youtube.com/watch?v=ck01K… Interesting whitepaper on the topic: http://www.viewzone.com/abioticoilx.html

The abiotic oil formation theory suggests that crude oil is the result of naturally occurring and possibly ongoing geological processes. This theory was developed in the Soviet Union during the Cold War, as the Union needed to be self sufficient in terms of producing its own energy. The science behind the theory is sound and is based on experimental evidence in both the laboratory and in the field. This theory has helped to identify and therefore develop large numbers of gas and oil deposits. Examples of such fields are the South Khylchuyu field and the controversial Sakhalin II field. In its simplest form, the theory is that carbon present in the magma beneath the crust reacts with hydrogen to form methane as well as a raft of other mainly alkane hydrocarbons. The reactions are more complicated than this, with several intermediate stages. Particular mineral rocks such as granite and other silicon based rocks act as catalysts, which speed up the reaction without actually becoming involved or consumed in the process. Experiments have shown that under extreme conditions of heat and pressure it is possible to convert iron oxide, calcium carbonate and water into methane, with hydrocarbons containing up to 10 carbon atoms being produced by Russian scientists last century and confirmed in recent US experiments. The absence of large quantities of free gaseous oxygen in the magma prevents the hydrocarbons from burning and therefore forming the lower energy state molecule carbon dioxide. The conditions present in the Earth’s mantle would easily be sufficient for these small hydrocarbon chains to polymerise into the longer chain molecules found in crude oil. Vladimir Kutcherov adds that there is no way that fossil oil, with the help of gravity or other forces, could have seeped down to a depth of 10.5 kilometers in the state of Texas, for example, which is rich in oil deposits. As Vladimir Kutcherov sees it, this is further proof, alongside his own research findings, of the genesis of these energy sources — that they can be created in other ways than via fossils. This has long been a matter of lively discussion among scientists. “There is no doubt that our research proves that crude oil and natural gas are generated without the involvement of fossils. All types of bedrock can serve as reservoirs of oil,” says Vladimir Kutcherov, who adds that this is true of land areas that have not yet been prospected for these energy sources. But the discovery has more benefits. The degree of accuracy in finding oil is enhanced dramatically — from 20 to 70 percent. Since drilling for oil and natural gas is a very expensive process, the cost picture will be radically altered for petroleum companies, and in the end probably for consumers as well. “The savings will be in the many billions,” says Vladimir Kutcherov. To identify where it is worthwhile to drill for natural gas and oil, Vladimir Kutcherov has used his research to arrive at a new method. It involves dividing the globe into a finely meshed grid. The grid corresponds to fissures, so-called ‘migration channels,’ through underlying layers under the surface of the earth. Wherever these fissures meet, it is suitable to drill. According to Vladimir Kutcherov, these research findings are extremely important, not least as 61 percent of the world’s energy consumption derives from crude oil and natural gas. The next step in this research work will involve more experiments, but above all refining the method will make it easier to find places where it is suitable to drill for oil and natural gas. Vladimir Kutcherov, Anton Kolesnikov, and Alexander Goncharov’s research work was recently published in the scientific journal Nature Geoscience. Methane-derived hydrocarbons produced under upper-mantle conditions Anton Kolesnikov1,2, Vladimir G. Kutcherov2,3 & Alexander F. Goncharov1″