scholarly journals Impact of FeO3 on the AC breakdown voltage and acidity index of a palm kernel oil methyl ester based nanofluid

2022 ◽  
Vol 8 ◽  
pp. 275-280
Author(s):  
Jean-Bernard Asse ◽  
G. Mengata Mengounou ◽  
Adolphe Moukengue Imano
2015 ◽  
Vol 2015 ◽  
pp. 1-7 ◽  
Author(s):  
Srinivas Kommana ◽  
Balu Naik Banoth ◽  
Kalyani Radha Kadavakollu

Fuels derived from biomass are mostly preferred as alternative fuels for IC engines as they are abundantly available and renewable in nature. The objective of the study is to identify the parameters that influence gross indicated fuel conversion efficiency and how they are affected by the use of biodiesel relative to petroleum diesel. Important physicochemical properties of palm kernel oil and eucalyptus blend were experimentally evaluated and found within acceptable limits of relevant standards. As most of vegetable oils are edible, growing concern for trying nonedible and waste fats as alternative to petrodiesel has emerged. In present study diesel fuel is completely replaced by biofuels, namely, methyl ester of palm kernel oil and eucalyptus oil in various blends. Different blends of palm kernel oil and eucalyptus oil are prepared on volume basis and used as operating fuel in single cylinder 4-stroke variable compression ratio diesel engine. Performance and emission characteristics of these blends are studied by varying the compression ratio. In the present experiment methyl ester extracted from palm kernel oil is considered as ignition improver and eucalyptus oil is considered as the fuel. The blends taken are PKE05 (palm kernel oil 95 + eucalyptus 05), PKE10 (palm kernel oil 90 + eucalyptus 10), and PKE15 (palm kernel 85 + eucalyptus 15). The results obtained by operating with these fuels are compared with results of pure diesel; finally the most preferable combination and the preferred compression ratio are identified.


2007 ◽  
Vol 2007.44 (0) ◽  
pp. 269-270
Author(s):  
Eiji KINOSHITA ◽  
Hidenori TSURU ◽  
Kazunori HAMASAKI ◽  
Thet MYO

2019 ◽  
Vol 268 ◽  
pp. 06014
Author(s):  
Godlief Neonufa ◽  
Meiti Pratiwi ◽  
Tirto Prakoso ◽  
Ronny Purwadi ◽  
Tatang Soerawidjaja

Catalytic thermal decarboxylation of basic soaps derived from palm kernel oil to produce dropin fuel was investigated. The C12/14 and C12/16 methyl ester had been used as the model compounds of this study. The purpose of this study was to produce drop-in fuel, especially jets biofuel, by catalytic thermal decarboxylation of basic soaps from palm kernel oils. In this study, two types of Magnesium-Zinc metal combination were used for preparing the basic soaps, both directly have a role as a catalyst. The reaction was carried out at 370°C and atmospheric pressure for 3 hours in the semi-batch reactor. Approximately 41 and 43 weight% of the yield and selectivity of about 97 and 98% toward the jets biofuel had been obtained in both experiments, respectively. The results showed that decarboxylation of basic soaps of C12/14 and C12/16 methyl ester were converted into drop-in fuel, especially jets biofuel in the relatively good yield of conversion.


2010 ◽  
Vol 4 (2) ◽  
pp. 88-93 ◽  
Author(s):  
Hilyati Hilyati ◽  
Wuryaningsih Wuryaningsih ◽  
M. Nasir ◽  
Tasrif Tasrif ◽  
T. Beuna

Synthesis of alkyl monoethanolamide from palm kernel oil was done by two steps reaction that are esterification and amidation. The esterification, that is the reaction between palm kernel oil and methanol with mole ratio of 1:3 using acid catalyst (H2SO4) 4 % at temperature 60 OC for two hours, results in methyl ester palm kernel oil. The methyl ester product was produced by amidation reaction on any variation of time, temperature, catalyst, catalyst concentration and ratio of the reactan. The best result of the synthesis (amide conversion of 98.15 %) was obtained at temperature of 160 OC for 6 hours with mole ratio of methyl ester palm kernel oil to ethanol amine (ratio of the reactan) 1:1 using KOH catalyst 0.5 % and H2SO4 catalyst 0.5 %.   Keywords: alkyl mono ethanol amide, surfactant, palm kernel oil, esterification, methyl ester, emulsifier


2020 ◽  
Vol 45 (5) ◽  
Author(s):  
R. C. Nnamani ◽  
P. N. Okwu ◽  
B. John ◽  
O. J. Abayeh

This research focuses on the production of cheap biodiesel from waste cooking oil [WCO], using the transesterification method. A disadvantage of biodiesel produced from virgin oils is that it is still more expensive than D2 petroleum diesel [diesel sold in filling stations]. The trust therefore of this study is the production of relatively cheap biodiesel, from a cheap feedstock. The conversion of the WCO involved the use of excess methanol and potassium hydroxide (as a homogenous catalyst), in a separatory funnel with vigorous agitation for 30 mins at a temperature of (40 0C). The mixture was thereafter allowed to stand overnight, and two layers were observed. The upper biodiesel [waste cooking oil methyl ester-WCOMe] layer was purified by washing with water [10ml x 5] and dried (anhydrous sodium sulphate). Improvised procedures were used to determine the following fuel quality parameters (viscosity, flash point, cloud point and pour point) and afforded 29.8 sec, 240 0C, 1.0 0C and 0.8 0C respectively. The reaction was conducted within 30 mins at 40 0C. Palm kernel oil methyl ester [PKOMe] was produced from palm kernel oil [PKO] using the same process for WCOMe and the cost of production based on feedstock price only compared. Use of WCO feedstock drastically reduced the production cost of WCOMe when compared to palm kernel oil methyl ester [PKOMe]. Production cost of WCOMe was free compared to N520.83 L-1 for PKOMe. The presence of fatty acid methyl esters in WCOMe and PKOMe was confirmed by GC. Waste cooking oil as feedstock for biodiesel should therefore be encouraged as it affords a relatively cheap fuel and remediates the disposal of WCO as an environmental hazard.


Author(s):  
Mohd Jumain Jalil ◽  
Aliff Farhan Mohd Yamin ◽  
Mohd Saufi Md Zaini ◽  
Veronique Gloria V. Siduru ◽  
Norhashimah Morad ◽  
...  

Background: Studies pertaining to the epoxidation of fatty acids, garnered much interest in recent years due to the rising demand of eco-friendly epoxides derived from vegetable oils. Methods: Epoxide is an important chemical precursor for the production of alcohols, glycols and polymers, like polyesters and epoxy resin. Epoxidation is the name given to the reaction when the double bonds are converted into epoxide. Results: Temperature at 55oC was used as a reference material in the epoxide process, as it produces a high yield epoxide being 88%. The kinetic rate of epoxidized palm kernel oil, k was obtained to be k11= 0.5125, k12= 0.05045, k21= 0.03185, k41= 0.01 and k51= 0.01243. Conclusion: Hence, by fitting the result with the experimental work and simulation, the summation of error being stimulated by I-sight simulation was 0.731116428 and the correlation between the experimental and simulation data was 0.925544.


2021 ◽  
Author(s):  
Samuel O. Egbuna ◽  
Ukeh J. Nwachukwu ◽  
Chinedu M. Agu ◽  
Christain O. Asadu ◽  
Bernard Okolo

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