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3-D Microemulsion (3DME") is comprised of a patented molecular structure <br /> ;; go <br /> containing oleic acids (i.e., oil component) and lactates/polylactates, which are <br /> molecularly bound to one another (figure 1). The 3DME molecule contains both <br /> a soluble (hydrophilic) and in-soluble (lipophilic) region. These two regions of the I <br /> molecule are designed to be balanced in size and relative strength. The balanced `` '' <br /> hydrophilic/lipophilic regions of 3DME result in an electron donor with physical <br /> properties allowing it to initially adsorb to the aquifer material in the area of <br /> application, then slowly redistribute via very small 3DME "bundles" called <br /> micelles. These 3DME micelles spontaneously form within sections of the <br /> aquifer where concentrations of 3DME reach several hundred parts per million. <br /> The micelles' small size and mobility allow it to move with groundwater flow <br /> through the aquifer matrix, passing easily through the pore throats in between Example of 3-D Micro( <br /> soil grains resulting in the further redistribution of 3DME within the aquifer. This <br /> allows for advective distribution of the oleic acids which are otherwise insoluble <br /> and unable to distribute in this manner, allowing for increased persistence of the Fn74F2Et: tNE3aMtcaomuw^toe��at�cu <br /> lactate/polylactates component due to their initial attachment to the oleic acids. Fid <br /> Due to its patented molecular structure, 3DME offers far greater transport <br /> when compared to blended emulsified vegetable oil (EVO) products, which fail <br /> to distribute beyond the limits of pumping. 3DME also provides greater <br /> 4. <br /> persistence when compared to soluble substrates such as lactates or simple <br /> sugars. The 3DME molecular structures capitalize on the best features of the <br /> two electron-donor types while at the same time, minimize their limitations. Iola Y <br /> Once emulsified, 3DME delivers micelles in the range of sub-1 micron up to 5 <br /> microns in diameter. Once injected into the subsurface in high volumes, the <br /> colloidal suspension mixes and dilutes in existing pore waters. The micelles/microemulsions on the injectic <br /> will then begin to sorb onto the surfaces of soils as a result of zeta potential attraction and organic matter <br /> the soils themselves. As the sorption continues, the 3DME will "coat" pore surfaces developing a layer of i <br /> cules and in some cases a bilayer. This sorption process continues as the micelles/microemulsion moves o <br /> and disassociates into their hydrophilic/hydrophobic components. The specialized chemistry of 3DME res <br /> staged release of electron donors: polylactate esters (mid-range) and free fatty acids & fatty acid esters <br /> (long-term). Material longevity of three years or greater has been seen at most sites as determined from b <br /> chemical analyses. <br /> For a list of treatable contaminants with the use of 3DME, view the Range of Treatable Con aminan s Guic <br /> Chemical Composition <br /> • Hydrogen Release Compound Partitioning Electron Donor - CAS #823190-10-9 <br /> • Water - CAS# - 7732-18-5 <br /> • Fatty Acids (neutralized) - 61790-12-3 <br /> • Glycerol Tripolylactate - 201167-72-8 <br />