Award Date

1-1-2006

Degree Type

Thesis

Degree Name

Master of Science (MS)

Department

Mechanical Engineering

First Committee Member

Robert F. Boehm

Number of Pages

142

Abstract

Heat exchangers design includes the consideration of both the heat transfer rates between two fluids and the pumping power required to overcome fluid friction and push the fluids through the heat exchangers. In gas flow heat exchangers, the friction power limitations force the designer to select moderately low mass velocities. Low mass velocities with low thermal conductivities will result in low heat transfer rate per unit of the surface area. Thus a large surface area is a typical characteristic of a gas flow heat exchanger; The problem of a large required area can be solved by using large area density which will lead to compact heat exchangers. The main target of this study is to provide full explanation of previous comparison methods of compact heat exchangers surfaces (plain, strip, louvered, wavy, pin, perforated and vortex) used in plate fin compact heat exchangers and to generalize these methods in order to identify the advantages and disadvantages of each type of geometry based on required size, entropy generation, pumping power, weight, and cost.

Keywords

Compact; Exchangers; Fin; Heat; Performance; Plate

Controlled Subject

Mechanical engineering

File Format

pdf

File Size

2938.88 KB

Degree Grantor

University of Nevada, Las Vegas

Language

English

Permissions

If you are the rightful copyright holder of this dissertation or thesis and wish to have the full text removed from Digital Scholarship@UNLV, please submit a request to digitalscholarship@unlv.edu and include clear identification of the work, preferably with URL.

Identifier

https://doi.org/10.25669/xiz7-i3d7


Share

COinS