Design of Radiator for Internal Combustion Engine with Tubes in Distribution of Sierpinski and Fins with Fractal  Convolution

Design of Radiator for Internal Combustion Engine with Tubes in Distribution of Sierpinski and Fins with Fractal Convolution

Luis Eduardo Llano Sánchez

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Darío Domínguez

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Martha Cecilia Melo

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Carolina Gonzalez Rodríguez

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Design of Radiator for Internal Combustion Engine with Tubes in Distribution of Sierpinski and Fins with Fractal Convolution

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Abstract

Introduction: Fractal geometries have demonstrated their efficiency in nature, for that reason a fractal geometry will be implemented to improve the transfer in a heat exchanger. This paper presents the design of the radiator for an internal combustion engine, where the location of the tubes through which the fluid passes are given by the distribution of Sierpinski and the perforations of the fins were made with fractal convolution. The outlet temperature respect to inlet temperature is studied and analyzed through a CFD software. This document shows theory fundamental used to design the radiator, with the implemented methodology, its results and conclusions.

References

20 Cites in Article

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R Nigmatullin (1992). Fractional integral and its physical interpretation.
Giulio Lorenzini,Simone Moretti,Alessandra Conti (2011). Fin Shape Thermal Optimization Using Bejan’s Constructal Theory.
C Tola,M Nikbay (2015). Investigation of the effect of thickness, taper ratio and aspect ratio on fin flutter velocity of a model rocket using response surface method.
Y Çengel,A Ghajar (2014). Heat and mass transfer.
F Mayinger,J Klass (1992). Compact heat exchangers.
Ramesh Shah,Ralph Webb (1983). COMPACT HEAT EXCHANGERSCompact and Enhanced Heat Exchangers.
M Witry,A Al-Hajeri,Bondok (2005). Thermal performance of automotive aluminium plate radiator.
G Cole (1998). Cooperative Research and Development Agreement between the California Air Resources Board and Lockheed Martin Idaho Technologies Company. Final report.
C Edward,Chiang,P George,Zintal Huang,John Chang,Johnson A One Dimensional Transient Compressible Flow Model for Cooling Air Flow Rate Computation.
A Kader,S Fellague,Donald Hu,Willoughby Determination of the Effects of Inlet Air Velocity and Temperature Distributions on the Performance of an Automotive Radiator.
Ngy Srun,A (1999). A Simple Engine Cooling System Simulation Model.
B Bani-Eqbal (1990). Speeding up fractal image compression.
Yaroslav Sokolovskyy,Volodymyr Shymanskyi,Mar'iana Levkovych (2016). Mathematical modeling of non-isothermal moisture transfer and visco-elastic deformation in the materials with fractal structure.
(1981). Finite-Difference Techniques for Vectorized Fluid Dynamics Calculations.
C Romero,Y Carranza (2007). Rating of Thermal Capacity of a Heat Radiator.
Nicholas Cotton,Cam Mcleman,Daniel Pinchock (2015). On Combining and Convolving Fractals.
H Haubold,A Mathai,R Saxena (2011). Mittag‐Leffler Functions and Their Applications.
D Zhao,X Yang,H Srivastava (2015). On the fractal heat transfer problems with local fractional calculus.
Frank Tatom (1995). THE RELATIONSHIP BETWEEN FRACTIONAL CALCULUS AND FRACTALS.
A Ponnapalli,P Jayasree (2015). An investigation of fractal antenna arrays for side lobe reduction with a fractal distribution of current.

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Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Luis Eduardo Llano Sánchez. 2020. \u201cDesign of Radiator for Internal Combustion Engine with Tubes in Distribution of Sierpinski and Fins with Fractal Convolution\u201d. Global Journal of Research in Engineering - A : Mechanical & Mechanics GJRE-A Volume 20 (GJRE Volume 20 Issue A3).

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GJRE Volume 20 Issue A3

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Journal Specifications

Crossref Journal DOI 10.17406/gjre

Print ISSN 0975-5861

e-ISSN 2249-4596

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Classification

GJRE-A Classification FOR Code: 299902

Submission ReceivedDecember 15, 2019
Peer Review Double Blind
Handling Editor
Accepted January 2, 2020
Published January 15, 2020

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v1.2

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December 23, 2020

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