Rhamonolipids produced by Pseudomonas aeruginosa promotes methane hydrates formation in fixed bed silica gel medium

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作者
Amit Arora
Swaranjit Singh Cameotra
Chandrajit Balomajumder
Rajnish Kumar
Anil Kumar Singh
B. Santhakumari
Pushpendra Kumar
Sukumar Laik
机构
[1] Indian Institute of Technology Roorkee,Department of Chemical Engineering
[2] Shaheed Bhagat Singh State Technical Campus,Department of Chemical Engineering
[3] Institute of Microbial Technology,Department of Chemical Engineering
[4] Indian Institute of Technology Madras,Centre for Material Characterization
[5] Sant Baba Bhag Singh University,Gas Hydrate Research & Technology Centre
[6] National Chemical Laboratory,Department of Petroleum Engineering
[7] Oil and Natural Gas Corporation Ltd (ONGC) ONGC,undefined
[8] Indian Institute of Technology (Indian School of Mines),undefined
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关键词
Biosurfactant; Glycolipids; Kinetic promoter; Induction time; Energy;
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摘要
Natural gas hydrates are seen as an alternative future energy source. They have also been valued for their carbon dioxide capturing capability, gas separation, desalination, natural gas storage and transportation. Developing economical and viable gas hydrate based technology is one of the most promising research areas of present decade. Successful commercialization of gas hydrate based technology is often curtailed due to slow formation rate. The present study evaluates biosurfactant as a kinetic promoter of methane hydrates formation in a fixed bed C type silica gel medium. Biosurfactant was produced by growing Pseudomonas aeruginosa strain A11 in glycerol supplemented mineral salt medium. Biosurfactant characterization with FTIR, NMR and MALDI-TOF spectroscopy reveled it to be a glycolipids type biosurfactant namely rhamnolipids. Saturating C type silica gel with of 100 ppm rhamnolipids solution enhanced the rate of methane hydrates formation by reducing the induction time. Mole of methane consumed and percentage of water to hydrate conversion was observed to be more in 1000 ppm rhamnolipids saturated C type silica gel as compared to quiescent water system and water saturated silica gel system. Overall results suggest that rhamonolipids produced by strain A11 in combination with silica gel can be utilized as environmentally safe kinetic promoter for methane hydrate formation.
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