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In the present situation of emergencies of energy demand, rising oil cost, exhaustion of nonrenewable energy source assets. Biodiesel as well as producer gas acquired from vegetable oil, that is, waste palm cooking oil and biomass, that is, waste bamboo leaves are likely to be designated as the promising substitute fuel. Therefore, the goal of this research is to access the reduction in global warming gases mostly NOx and smoke associated with the introduction of producer gas along with waste cooking oil biodiesel. The current investigation draws out a test of preparing biodiesel from used waste palm cooking oil at different blending proportions and its application on a dual fuel mode turbocharged direct injection diesel engine, with varying load at a fixed speed of 1500 rpm. From the experimentation, it was seen that exhaust gas temperature and brake thermal efficiency reduced while, brake specific energy consumption increased by 10.81%↓, 14.08%↓, and 46%↑ relative to diesel fuel in single fuel mode. Taking into account the emission characteristics of smoke intensity, nitric oxide lowered by 63.59%↓, 91.71%↓but on the cost of higher hydrocarbon and carbon monoxide value of 40.63%↑ and 65.71%↑ in comparison to diesel mode when loaded to the maximum limit. Hence, it can eventually be concluded that waste palm cooking oil methyl ester blended biodiesel with bamboo leaf generated gaseous fuel can partially substitute existing diesel fuel with few engine alternations. [ABSTRACT FROM AUTHOR]

The present paper briefly elaborates upon the combination of waste palm and waste sunflower oil methyl ester as post-mixed biodiesel blends being injected into a four-stroke compression ignition engine, which is also fueled with inducted bamboo leaf generated producer gas (BLP.gas) that includes gaseous components of CO (carbon monoxide), H 2 (hydrogen), CH 4 (methane), and C x H y (hydrocarbons). The objective of the present research is to evaluate the overall performance, emission, and combustion behavior of a Kirloskar TAF1 modified dual-fuel diesel engine fueled with induced bamboo leaf-derived gaseous fuel at a fixed mass flow rate of 21.69 kg/h and injected mixed biodiesel-diesel blends. Initially, diesel fuel and post-mixed methyl ester were examined in dual-fuel mode with a fixed gas flow rate for different loads. It can be seen from the analysis that brake thermal efficiency got reduced by 4.66% and brake-specific fuel consumption increased by 5.26% for PMOME20 (20% post-mixed oil methyl ester + 80% diesel fuel) + BLP. gas with respect to diesel fuel at extreme loading conditions. Moreover, smoke opacity, carbon monoxide, and unburnt hydrocarbons were reduced by 11.22%, 20.44%, and 10.36%, respectively. On the other hand, oxides of nitrogen were reduced by 19.17% at maximum load for PMOME20 + BLP. gas in dual-fuel operation in contrast to that of petroleum diesel. In light of this, the current research concluded that the use of biodiesel and BLP. gas for dual-operative engines may be regarded as an appropriate option for reducing pollutant environment and petroleum fuel scarcity. • Influence of mixed biodiesel blends with induced bamboo leaf gaseous fuel were investigated. • NOx and smoke opacity showed trade-off curve of 19.11% and 11.22% lower emission for PMOME20+BLP.gas than diesel. • CO 2 emission for PMOME20+BLP.gas was 38.77% higher than diesel at peak load. • PMOME20+BLP.gas at peak load increased In-CP by 6.15% in contrast to diesel. • HRR and ID for PMOME20+BLP.gas decreased by 72.29% and 9.06% in contrast to diesel. [ABSTRACT FROM AUTHOR]