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The function of an Air Cycle Machine (ACM) is to control the air in the cabin and <br /> <br /> flight deck of an aircraft to comply the airworthiness requirements with respect to the <br /> <br /> pressure, oxygen content, and temperature. Due to the importance of ACM, a <...

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Main Author: (NIM: 13613013), ADRIAN
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/25054
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:25054
spelling id-itb.:250542018-01-17T13:33:10Z#TITLE_ALTERNATIVE# (NIM: 13613013), ADRIAN Indonesia Final Project INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/25054 The function of an Air Cycle Machine (ACM) is to control the air in the cabin and <br /> <br /> flight deck of an aircraft to comply the airworthiness requirements with respect to the <br /> <br /> pressure, oxygen content, and temperature. Due to the importance of ACM, a <br /> <br /> laboratory instrument is needed to increase student’s understanding on the working <br /> <br /> process of the system. The Aerospace Engineering Study Program of ITB intends to <br /> <br /> develop an ACM laboratory instrument as a part of the AE3180 Aircraft-Systems <br /> <br /> lecture activity. <br /> <br /> This research aims to develop an ACM laboratory instrument as mentioned earlier. <br /> <br /> The first step is determining the design requirements and objectives of the ACM <br /> <br /> based on a literature study. The second step is to define the ACM configurations and <br /> <br /> to select the primary components. The calculation of the air properties in each station <br /> <br /> of the ACM working process is carried out by using the primary component <br /> <br /> specifications of the configurations. The final step is to estimate the cost of the <br /> <br /> primary components for the selected configurations. <br /> <br /> The research results in two configurations namely the one which uses the Simple Air <br /> <br /> Cycle (SAC) basis and the other uses a regenerative cooling in the Three Wheel <br /> <br /> Bootstrap Air Cycle (TWBAC). The calculation results show that the air properties of <br /> <br /> the two configurations have significant difference of cooling ratio. The Claw <br /> <br /> Compressor C-DLR 150 60Hz is chosen as the ACM power source and the <br /> <br /> turbocharger GT0632SZ for the turbine. The targeted output temperature to be less <br /> <br /> than 10oC has been realized for the selected compressor and for a specific <br /> <br /> environment condition in Bandung. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description The function of an Air Cycle Machine (ACM) is to control the air in the cabin and <br /> <br /> flight deck of an aircraft to comply the airworthiness requirements with respect to the <br /> <br /> pressure, oxygen content, and temperature. Due to the importance of ACM, a <br /> <br /> laboratory instrument is needed to increase student’s understanding on the working <br /> <br /> process of the system. The Aerospace Engineering Study Program of ITB intends to <br /> <br /> develop an ACM laboratory instrument as a part of the AE3180 Aircraft-Systems <br /> <br /> lecture activity. <br /> <br /> This research aims to develop an ACM laboratory instrument as mentioned earlier. <br /> <br /> The first step is determining the design requirements and objectives of the ACM <br /> <br /> based on a literature study. The second step is to define the ACM configurations and <br /> <br /> to select the primary components. The calculation of the air properties in each station <br /> <br /> of the ACM working process is carried out by using the primary component <br /> <br /> specifications of the configurations. The final step is to estimate the cost of the <br /> <br /> primary components for the selected configurations. <br /> <br /> The research results in two configurations namely the one which uses the Simple Air <br /> <br /> Cycle (SAC) basis and the other uses a regenerative cooling in the Three Wheel <br /> <br /> Bootstrap Air Cycle (TWBAC). The calculation results show that the air properties of <br /> <br /> the two configurations have significant difference of cooling ratio. The Claw <br /> <br /> Compressor C-DLR 150 60Hz is chosen as the ACM power source and the <br /> <br /> turbocharger GT0632SZ for the turbine. The targeted output temperature to be less <br /> <br /> than 10oC has been realized for the selected compressor and for a specific <br /> <br /> environment condition in Bandung.
format Final Project
author (NIM: 13613013), ADRIAN
spellingShingle (NIM: 13613013), ADRIAN
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author_facet (NIM: 13613013), ADRIAN
author_sort (NIM: 13613013), ADRIAN
title #TITLE_ALTERNATIVE#
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title_full #TITLE_ALTERNATIVE#
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url https://digilib.itb.ac.id/gdl/view/25054
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