Advanced, biomass-derived, low-sulfur bunker fuels
a bunker fuel and biomass technology, applied in the field of biomass derived low sulfur bunker fuel composition, can solve the problems of difficult administration and implementation of greenhouse gas (ghg) restrictions, and achieve the effects of reducing tax obligation and pollutant emissions, reducing ghg emissions, and cost advantage in both price and carbon tax avoidan
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[0051]Bio-oil generated from wood or other biomass sources such as, grain fibers or hulls is sent to a pre-treatment unit to remove any metals, water, and sediment and to neutralize any acidic components. This pre-treated bio-oil is blended with a polar, bio-derived co-solvent and sent to a heated storage tank. High-sulfur (>3 wt %) residual fuel oil (RFO) is sent from a near-by refinery into another heated storage vessel. The two oils are blended to produce a low-sulfur (<1.5 wt %) advanced cellulosic bunker fuel (LSFO)
[0052]As shown in Figure Table 1, high sulfur (1.85%), commercial RMG 380 bunker fuel is used to create Blend A. The composition is a 3:1 ratio of RMG to treated bio-oil / co-solvent mixture. Neither the untreated bio-oil nor the bio-co-solvent contains sulfur. After pre-treatment with the addition of a co-solvent, Blend A qualifies as reduced carbon, low-sulfur (<1.5 wt %) blend with a minimum greenhouse gas (GHG) reduction of 6% as determined by life cycle assessment...
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