BIOPLASTIC (POLY -3-HYDROXYBUTYRATE) PRODUCTION BY LOCAL PSEUDOMONAS AERUGINOSA ISOLATES UTILIZING WASTE COOKING OIL

2017 ◽  
pp. 289-302
Author(s):  
Dr. Iman H. Gatea
Keyword(s):  
Pseudomonas Aeruginosa ◽  
Waste Cooking Oil ◽  
Cooking Oil

Biodiesel production from waste cooking oil using onsite produced purified lipase from Pseudomonas aeruginosa FW_SH-1: Central composite design approach

2017 ◽  
Vol 109 ◽  
pp. 93-100 ◽  
Author(s):  
Chaudhry Haider Ali ◽  
Abdul Sattar Qureshi ◽  
Serge Maurice Mbadinga ◽  
Jin-Feng Liu ◽  
Shi-Zhong Yang ◽  
...  
Keyword(s):  
Pseudomonas Aeruginosa ◽  
Central Composite Design ◽  
Waste Cooking Oil ◽  
Biodiesel Production ◽  
Design Approach ◽  
Cooking Oil ◽  
Central Composite

Production of novel rhamnolipids via biodegradation of waste cooking oil using Pseudomonas aeruginosa MTCC7815

2019 ◽  
Vol 30 (4) ◽  
pp. 301-312 ◽  
Author(s):  
Swati Sharma ◽  
Poulami Datta ◽  
Birendra Kumar ◽  
Pankaj Tiwari ◽  
Lalit M. Pandey
Keyword(s):  
Pseudomonas Aeruginosa ◽  
Waste Cooking Oil ◽  
Cooking Oil

scholarly journals VARIATION OF CARBON SOURCES IN PRODUCTING RHAMNOLIPID BY Pseudomonas aeruginosa FOR MICROBIAL ENHANCED OIL RECOVER�S APPLICATION (VARIASI SUMBER KARBON PADA PRODUKSI RHAMNOLIPID OLEH Pseudomonas aeruginosa DALAM APLIKASI MICROBIAL ENHANCED OIL RECOVERY (MEOR))

2018 ◽  
Vol 40 (1) ◽  
pp. 33-40
Author(s):  
Nafian Awaludin ◽  
Cut Nanda Sari
Keyword(s):  
Pseudomonas Aeruginosa ◽  
Enhanced Oil Recovery ◽  
Oil Recovery ◽  
Carbon Sources ◽  
Oil Production ◽  
Waste Cooking Oil ◽  
Microbial Enhanced Oil Recovery ◽  
Interface Tension ◽  
Cooking Oil ◽  
Production Wells

The decrease in oil production is caused by the ageing of oil production wells. The enhanced oil recovery (EOR) technology is proven to increase oil reserves and production in mature oil fields. One EOR technology that has proven to be efficient in increasing oil production is microbial EOR by using biosurfactant. The most effective biosurfactant is rhamnolipid produced by Pseudomonas aeruginosa, the bacteria of which can lower the interfacial tension between the petroleum and water. In biosurfactants production thanks to these bacteria, the substrate as the source of carbon in the fermentation process is needed. The sources of carbon used in this study are glucose, glycerol, molasses, banana peels, and waste from Pseudomonas aeruginosa by using Busnell Hass medium as a liquid medium of bacterial growth. Biosurfactants production results are; 74mg/L from glucose; 63mg/L from banana peels; 66mg / L from glycerol; 85mg/L from waste cooking oil; and 64mg/L of molasses with the following decreasing surface tension: 33.55 mN/m from glucose; 32.51 mN/m from banana peels; 27.55 mN/m from glycerol; 22.46 mN/m from waste cooking oil; and 31.49 mN/m from molasses. In addition, the decrease of interface tension of glucose; banana peels; glycerol; waste cooking oil; and molasses are as follows : 15.2 mN/m; 13.78 mN/m; 8:15 mN/m; 0.14 mN/m; and 11.2 mN/m respectively.Menurunnya produksi minyak bumi disebabkan karena sumur produksi yang sudah tua. Teknologi enhanced oil recovery (EOR) terbukti mampu meningkatkan cadangan dan produksi lapangan minyak mature. Salah satu teknologi EOR yang dikenal efi sien dalam meningkatkan perolehan minyak adalah microbial enhanced oil recovery menggunakan biosurfaktan. Biosurfaktan yang paling efektif adalah rhamnolipid yang dihasilkan oleh bakteri Pseudomonas aeruginosa yang dapat menurunkan tegangan antarmuka antara minyak bumi dengan air. Dalam produksi biosurfaktan oleh bakteri ini, diperlukan substrat sebagai sumber karbon dalam proses fermentasi. Sumber karbon yang digunakan pada penelitian ini adalah glukosa, gliserol, molase, kulit pisang, dan minyak jelantah. Penelitian ini bertujuan untuk mengetahui sumber karbon yang paling optimum dalam menghasilkan biosurfaktan dari Pseudomonas aeruginosa dengan menggunakan busnell hass medium sebagai media cair pertumbuhan bakteri. Produksi biosurfaktan yang dihasilkan adalah 74mg/L dari glukosa; 63mg/L dari kulit pisang; 66mg/L dari gliserol; 85mg/L dari minyak jelantah; dan 64mg/L dari molase dengan penurunan tegangan permukaan berturutturut: 33,55 mN/m dari glukosa; 32,51 mN/m dari kulit pisang; 27,55 mN/m dari gliserol; 22,46 mN/m dari minyak jelantah; dan 31,49 mN/m serta memiliki penurunan tegangan antarmuka dari glukosa; kulit pisang; glisero; minyak jelantah; dan molase berturut-turut adalah 15,2 mN/m; 13,78 mN/m; 8,15 mN/m; 0,14 mN/m; dan 11,2 mN/m.

scholarly journals Rhamnolipid production from waste cooking oil using newly isolated halotolerant Pseudomonas aeruginosa M4

2020 ◽  
Author(s):  
Juan Shi ◽  
Yichao Chen ◽  
Xiaofeng Liu ◽  
Yi Ran ◽  
Dong Li
Keyword(s):  
Pseudomonas Aeruginosa ◽  
De Novo ◽  
Degradation Products ◽  
Degradation Mechanism ◽  
Carbon Sources ◽  
Hydrolysis Product ◽  
Waste Cooking Oil ◽  
Oil Degradation ◽  
Rhamnolipid Production ◽  
Cooking Oil

AbstractThis study isolated a novel halotolerant Pseudomonas aeruginosa M4, that was able to degrade oil and produce rhamnolipids. Various carbon sources, nitrogen sources, inoculum ratio, pH, and temperature were tested to optimize the oil degradation conditions. The highest oil degradation rate of 85.20 % and lipase activity of 23.86 U/mL were obtained under the optimal conditions (5% inoculum at 35 °C and pH 8). The components of degradation products at different times were analyzed to explore the mechanism of oil degradation by GC-MS. Short chain fatty acid of acetic and n-butyric acids were the primary degradation intermediates. P. aeruginosa M4 had good salt tolerance up to 70 g/L. The maximum rhamnolipid concentration of 1119.87 mg/L was produced when P. aeruginosa M4 used waste cooking oil as the sole carbon source. Rhamnose precursors were synthesized from glycerol, a hydrolysis product of waste cooking oil. R-3-hydroxyalkanoate precursors were synthesized de novo using acetyl-CoA produced from β-oxidation of fatty acids. The findings show that P. aeruginosa M4 is a valuable biosurfactant producer in the treatment of waste cooking oil.Key PointsP. aeruginosa isolation, oil degradation mechanism, rhamnolipid production from WCO

Estimation of Recoverable Household Waste Cooking Oil and Life Cycle Analysis of Biodiesel Fuel Production

2008 ◽  
Vol 4 (4) ◽  
pp. 318-323 ◽  
Author(s):  
Hirotsugu KAMAHARA ◽  
Shun YAMAGUCHI ◽  
Ryuichi TACHIBANA ◽  
Naohiro GOTO ◽  
Koichi FUJIE
Keyword(s):  
Life Cycle ◽  
Life Cycle Analysis ◽  
Waste Cooking Oil ◽  
Household Waste ◽  
Biodiesel Fuel ◽  
Fuel Production ◽  
Cooking Oil

Synthesis and Characterization of Heterogeneous Solid Acid Catalyst from Alstonia Scolaris Stalks for Biodiesel Production using Waste Cooking Oil

2020 ◽  
Vol 10 ◽  
Author(s):  
Charishma Venkata Sai Anne ◽  
Karthikeyan S. ◽  
Arun C.
Keyword(s):  
Reaction Time ◽  
Solid Acid ◽  
Solid Acid Catalyst ◽  
Acid Catalyst ◽  
Waste Cooking Oil ◽  
Biodiesel Production ◽  
Wood Biomass ◽  
Waste Wood ◽  
X Ray ◽  
Cooking Oil

Background: Waste biomass derived reusable heterogeneous acid based catalysts are more suitable to overcome the problems associated with homogeneous catalysts. The use of agricultural biomass as catalyst for transesterification process is more economical and it reduces the overall production cost of biodiesel. The identification of an appropriate suitable catalyst for effective transesterification will be a landmark in biofuel sector Objective: In the present investigation, waste wood biomass was used to prepare a low cost sulfonated solid acid catalyst for the production of biodiesel using waste cooking oil. Methods: The pretreated wood biomass was first calcined then sulfonated with H2SO4. The catalyst was characterized by various analyses such as, Fourier-transform infrared spectroscopy (FTIR), Scanning Electron Microscopy (SEM), Energy Dispersive X-Ray Spectroscopy (EDS) and X-ray diffraction (XRD). The central composite design (CCD) based response surface methodology (RSM) was applied to study the influence of individual process variables such as temperature, catalyst load, methanol to oil molar ration and reaction time on biodiesel yield. Results: The obtained optimized conditions are as follows: temperature (165 ˚C), catalyst loading (1.625 wt%), methanol to oil molar ratio (15:1) and reaction time (143 min) with a maximum biodiesel yield of 95 %. The Gas chromatographymass spectrometry (GC-MS) analysis of biodiesel produced from waste cooking oil was showed that it has a mixture of both monounsaturated and saturated methyl esters. Conclusion: Thus the waste wood biomass derived heterogeneous catalyst for the transesterification process of waste cooking oil can be applied for sustainable biodiesel production by adding an additional value for the waste materials and also eliminating the disposable problem of waste oils.

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