Advanced wet-dry cooling tower concept

Thesis. 1977. M.S.--Massachusetts Institute of Technology. Dept. of Mechanical Engineering.

Bibliographic Details
Main Authors: Snyder, Troxell Kimmel, Bentley, Jeffrey, Giebler, Martin, Glicksman, Leon R., Rohsenow, Warren M.
Format: Technical Report
Language:en_US
Published: MIT Energy Laboratory 2006
Subjects:
Online Access:http://hdl.handle.net/1721.1/31240
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author Snyder, Troxell Kimmel
Bentley, Jeffrey
Giebler, Martin
Glicksman, Leon R.
Rohsenow, Warren M.
author_facet Snyder, Troxell Kimmel
Bentley, Jeffrey
Giebler, Martin
Glicksman, Leon R.
Rohsenow, Warren M.
author_sort Snyder, Troxell Kimmel
collection MIT
description Thesis. 1977. M.S.--Massachusetts Institute of Technology. Dept. of Mechanical Engineering.
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institution Massachusetts Institute of Technology
language en_US
last_indexed 2024-09-23T11:56:08Z
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publisher MIT Energy Laboratory
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spelling mit-1721.1/312402019-04-12T08:25:37Z Advanced wet-dry cooling tower concept Snyder, Troxell Kimmel Bentley, Jeffrey Giebler, Martin Glicksman, Leon R. Rohsenow, Warren M. Cooling towers Design and construction Testing Mathematical models Thesis. 1977. M.S.--Massachusetts Institute of Technology. Dept. of Mechanical Engineering. The purpose of this years' work has been to test and analyze the new dry cooling tower surface previously developed. The model heat transfer test apparatus built last year has been instrumented for temperature, humidity and flow measurement and performance has been measured under a variety of operating conditions. Tower Tests showed approximately 40-50% of the total energy transfer as taking place due to evaporation. This can be compared to approximately 80 to 85% for a conventional wet cooling tower. Comparison of the model tower test results with those of a computer simulation has demonstrated the validity of that simulation and its use as a design tool. Computer predictions have been made for a full-size tower system operating at several locations. Experience with this counterflow model tower has suggested that several design problems may be avoided by blowing the cooling air horizontally through the packing section. This crossflow concept was built from the previous counterflow apparatus and included the design and fabrication of new packing plates. Instrumentation and testing of the counterflow model produced data with an average experimental error of 10%. These results were compared to the predictions of a computer model written for the crossflow configuration. In 14 test runs the predicted total heat transfer differed from the measured total heat transfer by no more than 8% with most runs coming well within 5%. With the computer analogy's validity established, it may now be used to help predict the performance of fullscale wet-dry towers. 2006-03-06T16:47:35Z 2006-03-06T16:47:35Z 1977-01 Technical Report 06994028 http://hdl.handle.net/1721.1/31240 en_US MIT-EL 77-002 3110368 bytes 5615307 bytes application/pdf application/pdf application/pdf application/pdf MIT Energy Laboratory
spellingShingle Cooling towers
Design and construction
Testing
Mathematical models
Snyder, Troxell Kimmel
Bentley, Jeffrey
Giebler, Martin
Glicksman, Leon R.
Rohsenow, Warren M.
Advanced wet-dry cooling tower concept
title Advanced wet-dry cooling tower concept
title_full Advanced wet-dry cooling tower concept
title_fullStr Advanced wet-dry cooling tower concept
title_full_unstemmed Advanced wet-dry cooling tower concept
title_short Advanced wet-dry cooling tower concept
title_sort advanced wet dry cooling tower concept
topic Cooling towers
Design and construction
Testing
Mathematical models
url http://hdl.handle.net/1721.1/31240
work_keys_str_mv AT snydertroxellkimmel advancedwetdrycoolingtowerconcept
AT bentleyjeffrey advancedwetdrycoolingtowerconcept
AT gieblermartin advancedwetdrycoolingtowerconcept
AT glicksmanleonr advancedwetdrycoolingtowerconcept
AT rohsenowwarrenm advancedwetdrycoolingtowerconcept