Signal to noise ratio of the image of the star Capella with respect to the CCD temperature / Rafidah Sarnin

This study focused on signal to noise ratio of the image of the star Capella with respect to CCD temperature. In this research we used Meade 8" LX200 GPS Telescope, SBIG ST-8XME CCD Camera and computer to link the telescope and CCD camera. We also used the computer software such as AIP Software...

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Main Author: Sarnin, Rafidah
Format: Student Project
Language:English
Published: 2007
Subjects:
Online Access:https://ir.uitm.edu.my/id/eprint/46678/1/46678.pdf
https://ir.uitm.edu.my/id/eprint/46678/
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Institution: Universiti Teknologi Mara
Language: English
id my.uitm.ir.46678
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spelling my.uitm.ir.466782022-11-23T08:32:52Z https://ir.uitm.edu.my/id/eprint/46678/ Signal to noise ratio of the image of the star Capella with respect to the CCD temperature / Rafidah Sarnin Sarnin, Rafidah Temperature measurements Temperature Transmission. Heat transfer This study focused on signal to noise ratio of the image of the star Capella with respect to CCD temperature. In this research we used Meade 8" LX200 GPS Telescope, SBIG ST-8XME CCD Camera and computer to link the telescope and CCD camera. We also used the computer software such as AIP Software to calculate signal to noise ratio and Sky6 Software to determine the star location and time. Signal comes from the number of photon striking the detector inside the CCD camera and liberated as electron. Noise is the uncertainty of the signal. It is present in all signal. There are some sources of noise which are dark current, bias current, bias current and thermal current. Once we grab an image, the image was recorded because the CCD receives the signal. The image looks grainy because of the noise and this is called raw image. Signal to noise ratio is the measure of the quality of the image. The better the image quality is the higher the signal to noise ratio of the star image. At lower temperature of the CCD camera from the noise of the dark current was reduced and signal to noise ratio is higher. Besides that, we also computed the magnitude of the star to determine the degree of the star brightness. The magnitude of the star is lower at lower temperature of the CCD. The lower the magnitude, the star is brighter. Finally, the image quality of the star is better when signal to noise ratio is high and the noise from dark current is reduced. The magnitude of the star is smaller at lower temperature. 2007 Student Project NonPeerReviewed text en https://ir.uitm.edu.my/id/eprint/46678/1/46678.pdf Signal to noise ratio of the image of the star Capella with respect to the CCD temperature / Rafidah Sarnin. (2007) [Student Project] (Unpublished)
institution Universiti Teknologi Mara
building Tun Abdul Razak Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Teknologi Mara
content_source UiTM Institutional Repository
url_provider http://ir.uitm.edu.my/
language English
topic Temperature measurements
Temperature
Transmission. Heat transfer
spellingShingle Temperature measurements
Temperature
Transmission. Heat transfer
Sarnin, Rafidah
Signal to noise ratio of the image of the star Capella with respect to the CCD temperature / Rafidah Sarnin
description This study focused on signal to noise ratio of the image of the star Capella with respect to CCD temperature. In this research we used Meade 8" LX200 GPS Telescope, SBIG ST-8XME CCD Camera and computer to link the telescope and CCD camera. We also used the computer software such as AIP Software to calculate signal to noise ratio and Sky6 Software to determine the star location and time. Signal comes from the number of photon striking the detector inside the CCD camera and liberated as electron. Noise is the uncertainty of the signal. It is present in all signal. There are some sources of noise which are dark current, bias current, bias current and thermal current. Once we grab an image, the image was recorded because the CCD receives the signal. The image looks grainy because of the noise and this is called raw image. Signal to noise ratio is the measure of the quality of the image. The better the image quality is the higher the signal to noise ratio of the star image. At lower temperature of the CCD camera from the noise of the dark current was reduced and signal to noise ratio is higher. Besides that, we also computed the magnitude of the star to determine the degree of the star brightness. The magnitude of the star is lower at lower temperature of the CCD. The lower the magnitude, the star is brighter. Finally, the image quality of the star is better when signal to noise ratio is high and the noise from dark current is reduced. The magnitude of the star is smaller at lower temperature.
format Student Project
author Sarnin, Rafidah
author_facet Sarnin, Rafidah
author_sort Sarnin, Rafidah
title Signal to noise ratio of the image of the star Capella with respect to the CCD temperature / Rafidah Sarnin
title_short Signal to noise ratio of the image of the star Capella with respect to the CCD temperature / Rafidah Sarnin
title_full Signal to noise ratio of the image of the star Capella with respect to the CCD temperature / Rafidah Sarnin
title_fullStr Signal to noise ratio of the image of the star Capella with respect to the CCD temperature / Rafidah Sarnin
title_full_unstemmed Signal to noise ratio of the image of the star Capella with respect to the CCD temperature / Rafidah Sarnin
title_sort signal to noise ratio of the image of the star capella with respect to the ccd temperature / rafidah sarnin
publishDate 2007
url https://ir.uitm.edu.my/id/eprint/46678/1/46678.pdf
https://ir.uitm.edu.my/id/eprint/46678/
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