Synthesis and Process Parameter Optimization of Biodiesel from Jojoba Oil Using Response Surface Methodology

Abdulrahman, Aymn; Ali, Abulhassan; Alfazazi, Adamu

doi:10.1007/s13369-020-05302-y

Cited by 14 publications

(12 citation statements)

References 30 publications

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“…Considering that the reaction is dependent on a single component, it is essential and rational to find out the influence of both parameters concurrently [22]. The results of the Design of Experiment (DoE) with face-centered CCD method using polyamide-66 wt.…”

Section: Resultsmentioning

confidence: 99%

Optimal dissolution and viscoelastic behavior of polyamide-66 in formic acid for membrane fabrication

Ali

Maqsood

Abdulrahman

et al. 2022

CI&CEQ

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High-performance polymeric membrane technology is rapidly developing worldwide with the introduction of new materials and processes. Considerable research efforts are being made to establish a polymer membrane that can be used for ultrafiltration (UF) or nanofiltration (NF) applications. The development of modified polyamide-66 polymer and its compatibility in wastewater are essential elements in the quest for advances and improvements in membrane technology. The optimized conditions for membrane synthesis are critical in making it commercially viable. Response Surface Methodology (RSM) was used to find the optimum dissolution of polyamide-66 in formic acid. A model was developed and validated with experimental data, and it showed good agreement with R2 0.9984. The optimized condition for minimizing viscosity was determined. For minimum viscosity (3.64cp), the optimum temperature and wt.% were 20?C and 0.6, respectively.

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Section: Resultsmentioning

confidence: 99%

Optimal dissolution and viscoelastic behavior of polyamide-66 in formic acid for membrane fabrication

Ali

Maqsood

Abdulrahman

et al. 2022

CI&CEQ

Self Cite

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“…The response surface methodology is a popular modeling approach for examining the relationship between inputs and outputs. A response surface model investigates the impact of various process input factors on response [28,29]. A correlation between the selected input and output was then developed empirically in the next stage utilizing response surface methodology (RSM) [30,31].…”

Section: Response Surface Methodology Modeling and Optimization Metho...mentioning

confidence: 99%

Optimization using response surface methodology for producing biodiesel from waste cooking oil using fishbone catalyst

Maqsood

Alsaady

2022

Materialwissenschaft Werkst

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Fuel demand has increased due to motorization and industrial activities. Specially cultivated crops can be used to make biodiesel. However, certain forms of biodiesel create ethical concerns since they are derived from crops utilized as food sources. Biodiesel manufacturing technologies that are cost-effective and environmentally friendly must be continually researched and improved if this biofuel is competitive with petroleum-based fuels while resolving these ethical concerns. Substituting a less expensive oil like waste cooking oil (WCO) for vegetable oil for biodiesel can lower the entire production cost. Biodiesel from waste cooking oil has shown promising results. Generally, an optimal combination of temperature and reaction time is required to develop a biodiesel manufacturing method that is both long-term and cost-effective. One viable alternative is the methanolysis of used cooking oil utilizing fish bone waste as a catalyst. This research focuses on modeling and optimizing temperature and time-dependent characteristics for biodiesel production from waste cooking oil using fishbone as a catalyst. The results of the experiments with 6 % catalyst and with a temperature range of 55 °C to 65 °C and reaction duration between 5 minutes to 120 minutes were utilized to optimize the biodiesel manufacturing process using the response surface methodology (RSM).

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“…Another major obstacle in biodiesel production is associated with feedstock costs, which account for about 60–70% 179 . To reverse the situation and reduce the cost associated with biodiesel production, different alternative feedstocks which are non‐food crops (inedible) like Jatropha curcas , 181 jojoba ( Simmondsia chinensis ), 182 cottonseed ( Gossypium hirsutum ), 183 moringa ( Moringa oleifera ), 184 and others have been exhaustively tested by different researchers.…”

Section: Fruit Waste and Byproduct Valorization Into Biofuelsmentioning

confidence: 99%

“…Novozymes 435 and Eversa Transform are among the commercial enzymes that are commonly used for oil extraction 204 . For instance, at the industrial level, homogenous catalysts are widely used for mass production/high yield, fast reaction rate, and minimal reaction conditions, which are requirements of industrial processes 176,182 . Base catalysts are commonly used if the free fatty acid content of the oil is lower than 0.5 wt%, otherwise, it results in the formation of soap and water, which make biodiesel recovery very difficult, reduce biodiesel yield, and increase production costs 127 .…”

Section: Fruit Waste and Byproduct Valorization Into Biofuelsmentioning

confidence: 99%

Valorization of tropical fruit‐processing wastes and byproducts for biofuel production

Gebre,

Gebremariam,

Keneni

et al. 2023

Biofuels Bioprod Bioref

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Global energy demand is expanding due to an increasing population and the use of energy‐intensive technologies. Fossil‐based energy and transportation sectors have been blamed for greenhouse gas emissions and price fluctuations. Biofuel production has been suggested as a possible solution to this problem, despite the cost of production and difficulties with the availability of feedstocks, and the food versus energy debate, which is still a challenging issue. For many decades, researchers have been investigating how to valorize low‐cost and non‐edible biomass resources, including fruit‐processing waste and its byproducts, to produce various biofuels using innovative, cost‐effective, and green technologies to overcome these challenges. However, exhaustive studies and comprehensive and structured knowledge related to the biofuel production potential of fruit waste and byproducts are lacking because most of the research that has been done so far was specific to a single fruit, location, and method. As a result, this review paper emphasizes the evaluation of the physicochemical compositions of the wastes and byproducts derived from tropical fruit production and processing to determine their suitability in the production of different biofuels via various valorization techniques. The results of the review showed that fruit waste is a potential alternative raw material for producing different biofuels, like biodiesel, biogas, biohydrogen, and fuel pellets.

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Synthesis and Process Parameter Optimization of Biodiesel from Jojoba Oil Using Response Surface Methodology

Cited by 14 publications

References 30 publications

Optimal dissolution and viscoelastic behavior of polyamide-66 in formic acid for membrane fabrication

Optimal dissolution and viscoelastic behavior of polyamide-66 in formic acid for membrane fabrication

Optimization using response surface methodology for producing biodiesel from waste cooking oil using fishbone catalyst

Valorization of tropical fruit‐processing wastes and byproducts for biofuel production

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