Design of a miniature fan for industrial applications

Miniaturised cooling devices had been playing an important role in the cooling of components in compact electronic devices that generates high heat. The objective of this project was to generate a volume flow rate of 1.2litres/sec while maintaining a pressure difference of 50 Pascal across the devic...

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Main Author: Ng, Chok Kee
Other Authors: Chan Weng Kong
Format: Final Year Project
Language:English
Published: 2014
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Online Access:http://hdl.handle.net/10356/60949
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-609492023-03-04T19:06:49Z Design of a miniature fan for industrial applications Ng, Chok Kee Chan Weng Kong School of Mechanical and Aerospace Engineering DRNTU::Engineering::Mechanical engineering Miniaturised cooling devices had been playing an important role in the cooling of components in compact electronic devices that generates high heat. The objective of this project was to generate a volume flow rate of 1.2litres/sec while maintaining a pressure difference of 50 Pascal across the device and constraining the volume to be within 60mm x 60mm x 6mm. The prototype design in the project was based on the underlying principles behind the Dyson Air Multiplier, which uses airfoil profiles to generate inducement and entrainment effect to increase overall flow rate. Five variants of prototype design, which varied the orientation and positions of the airfoil, as well as three variants of prototype covers were designed and manufactured. In the experiments, 1.16litres/sec of motive air was supplied at the inlet to each of the prototypes. Inducement and entrainment effect was observed and the highest flow achieved was at 1.78litres/sec across the integrated design prototype, which achieved 149% of the required flow rate. A study was also done to derive the performance curve of two of the best performing prototypes. Evaluation on the curve provided insight on how the device would perform under different objective conditions. In general, the devices were able to achieve 50% of the corresponding parameter while maintaining the performance that met the required flow rate or pressure difference and vice-versa. Flow visualisation had also reassured that the airfoil had achieved its purpose in directing a smooth and fast flow across the device as well as creating inducement and entrainment at the prototypes. Bachelor of Engineering (Mechanical Engineering) 2014-06-03T07:30:50Z 2014-06-03T07:30:50Z 2014 2014 Final Year Project (FYP) http://hdl.handle.net/10356/60949 en Nanyang Technological University 96 p. application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic DRNTU::Engineering::Mechanical engineering
spellingShingle DRNTU::Engineering::Mechanical engineering
Ng, Chok Kee
Design of a miniature fan for industrial applications
description Miniaturised cooling devices had been playing an important role in the cooling of components in compact electronic devices that generates high heat. The objective of this project was to generate a volume flow rate of 1.2litres/sec while maintaining a pressure difference of 50 Pascal across the device and constraining the volume to be within 60mm x 60mm x 6mm. The prototype design in the project was based on the underlying principles behind the Dyson Air Multiplier, which uses airfoil profiles to generate inducement and entrainment effect to increase overall flow rate. Five variants of prototype design, which varied the orientation and positions of the airfoil, as well as three variants of prototype covers were designed and manufactured. In the experiments, 1.16litres/sec of motive air was supplied at the inlet to each of the prototypes. Inducement and entrainment effect was observed and the highest flow achieved was at 1.78litres/sec across the integrated design prototype, which achieved 149% of the required flow rate. A study was also done to derive the performance curve of two of the best performing prototypes. Evaluation on the curve provided insight on how the device would perform under different objective conditions. In general, the devices were able to achieve 50% of the corresponding parameter while maintaining the performance that met the required flow rate or pressure difference and vice-versa. Flow visualisation had also reassured that the airfoil had achieved its purpose in directing a smooth and fast flow across the device as well as creating inducement and entrainment at the prototypes.
author2 Chan Weng Kong
author_facet Chan Weng Kong
Ng, Chok Kee
format Final Year Project
author Ng, Chok Kee
author_sort Ng, Chok Kee
title Design of a miniature fan for industrial applications
title_short Design of a miniature fan for industrial applications
title_full Design of a miniature fan for industrial applications
title_fullStr Design of a miniature fan for industrial applications
title_full_unstemmed Design of a miniature fan for industrial applications
title_sort design of a miniature fan for industrial applications
publishDate 2014
url http://hdl.handle.net/10356/60949
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