Optimization Design Parameters of Intake Manifold for Natural Aspirated Engine
Keywords:
Intake manifold, response surface methodology, Box-Behnken, fuel consumption, engine performanceAbstract
Improving engine performance, reducing fuel consumption costs and decreasing emissions are the primary objectives of vehicle manufacturers. Aware on the fluctuation of the national gas price, an idea had been proposed on improving the air intake system in order to get a good fuel economy and a better engine performance. The purpose of this study is to design new intake manifold on air intake system for the natural aspirated car with the selected parameters of runner length (A), runner diameter (B), plenum Volume (C), and surface roughness (D). Necessary steps have been taken involving the Design of Experiment (DOE) to find the optimum result for all the factors that have been selected by using Box-Behnken design (BBD). The data of torque and fuel consumption are obtained from the 1D Computational Fluid Dynamics (CFD) usingthe AVL Boost software. Within the range studied, the optimized parameters value for the maximum engine performance and minimum fuel consumption was at the A = 200.00mm, B = 33.56mm, C = 0.5L and D = 0.15µm. The maximum engine performance and minimum fuel consumption were determined as 99.541Nm/rpm and 8.8652×10-4 kg/s, respectively. Then, the new model of the intake manifold with optimum parameters was developed using NX8.0. Apart from that, polyamide and injection molding had been identified as the best material and manufacturing process for the development of the intake manifold.
References
D. Potenteau, 2018. Gas Prices Likely to Rise in ‘Wild, Bumpy’ 2019, Retrieved from: http://centurypiano.com.sg/this-is-going-to-be-a-year-unlike-many/. [Accessed on 2 October 2019].
Abdullah N.R., Shahruddin N.S., Ihsan Mamat A.M., Kasolang S., Zulkifli A. and Mamat R., 2013. Fuel Economyand Exhaust Emissionsofa Small Gasoline, Procedia Engineering, 68(2013): 278-284.
Ceviz M.A. and Akın M., 2010. Design of a New SI Engine Intake Manifold with Variable Length Plenum, Energy Conversion and Management, 51(11): 2239–2244.
Bühl H., Kratzsch M., Günther M. andVogler C., 2013. Potential of Variable Intake Manifolds to Reduce CO2 Emissions in Part Load, MTZ Worldwide, 74: 24–29.
Sardar P. and Sardar A., 2018. Designing of Intake Manifold for Formula Student Car, World Journal of Engineering, 15(3): 402-406.
Mojaddam M. and Pullen K.R., 2019. Optimization of a Centrifugal Compressor Using the Design of Experiment Technique,Applied Sciences, 9(2): 291.
Ngadiman N.H.A., Idris A., Irfan M., Kurniawan D., Yusof N.M. and Nasiri R., 2015. γ-Fe2O3 Nanoparticles Filled Polyvinyl Alcohol as Potential Biomaterial for Tissue Engineering Scaffold, Journal of the Mechanical Behavior of Biomedical Materials, 49: 90-04.
Hadjkacem S., Jemni M.A. and Abid M.S., 2018. Volumetric Efficiency Optimization of Manifold with Variable Geometry Using Acoustic Vibration for Intake Manifold with Variable Geometry in Case of LPG-Enriched Hydrogen Engine, Arabian Journal for Science and Engineering, 44: 731–738.
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