encoded on the cassette appear to be a unique cluster engineered from several organisms. At this time, there exists no conflict-of-interest claims filed against this patent. Submission Submitted on April 11, 2010, this patent was published under the USPA, under application number 20100257777 on October 14, 2010 under the title of Production of Commercial Biodiesel from Genetically Modified Organisms. Investment LS9 has been a company very sought after by investors, both at the corporate and governmental level. Numerous firms have invested into their company, realizing the potential of their one-step process. BlackRock, an investment firm, donated 30 million dollars, much of which was used as capital start-up. In 2011, they were recognized by the US Department of Energy and given 9 million dollars in order for them to improve their integrated process to convert biomass feedstocks into fermentable sugars and then into diesel and other fuel and chemical products. In 2012, with the opening of the Florida product testing plant, LS9 was given 4.5 million dollars from the Florida Opportunity fund. This fund invests millions of dollars each year into clean, renewable energy in the state of Florida. Economic Feasibility There exist many biofuel companies which face the harsh challenge of reducing capital investment while trying to increase energy yield generated from their products. To overcome this challenge, LS9 uses microbial fatty acid metabolism pathways in many of its reaction chambers to increase hydrocarbon yields. The rationale behind LS9's commitment to the use of microbial species lies in their resilient nature to have undergone many selective pressures thus having the potential to be used in conditions necessary for biofuel generation. It is these attributes of microbes and leading technologies in genome sequencing and synthetic biology which LS9 has harnessed to yield biofuels which do not suffer from many of the economical pressures that conventional reaction chamber biofuel generation methods suffer from. These are discussed below. Separation of Compounds In many current biofuel generation endeavours, the processes of differentiating and separating desired components from undesired ones leads to losses in both net energy yield and capital loss. Due to this, LS9 has developed a process where in their reaction chambers, shown above, utilize the natural properties of their desired components. Using both solvent composition and the realization that most desired components in biofuel generation possess a certain degree of hydrophobicity, LS9 has engineered their microbes to carry out their reactions in