Simons Observatory Large Aperture Telescope Receiver

In the past three decades, cosmic microwave background (CMB) has provided a wealth of information on the origin and the history of the universe. From motivating the theory of the Big Bang, to providing tests for the standard model of cosmology; from measuring the Hubble constant, to constraining the...

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Main Author: Zhu, Ningfeng
Format: Text
Language:English
Published: ScholarlyCommons 2022
Subjects:
Online Access:https://repository.upenn.edu/dissertations/AAI28965098
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spelling ftunivpenn:oai:repository.upenn.edu:dissertations-18333 2023-05-15T18:22:54+02:00 Simons Observatory Large Aperture Telescope Receiver Zhu, Ningfeng 2022-01-01T08:00:00Z https://repository.upenn.edu/dissertations/AAI28965098 ENG eng ScholarlyCommons https://repository.upenn.edu/dissertations/AAI28965098 Dissertations available from ProQuest Astrophysics|Astronomy text 2022 ftunivpenn 2022-07-30T22:23:01Z In the past three decades, cosmic microwave background (CMB) has provided a wealth of information on the origin and the history of the universe. From motivating the theory of the Big Bang, to providing tests for the standard model of cosmology; from measuring the Hubble constant, to constraining the mass of the neutrino; from testing the matter composition of the universe, to shedding light on the cluster evolution, CMB has truly become one of the most critical subjects of modern cosmology. However, to fully realize its potential and to achieve a level of accuracy that none has achieved before, large observatories equipped with ten times the detectors as the current generation experiments are needed. Such is the time that Simons Observatory (SO) collaboration came together, and proposed a Large Aperture Telescope (LAT) and an array of Small Aperture Telescopes (SATs) that met such criteria. Built upon the expertise from the current generation ground-based telescopes such as the Atacama Cosmology Telescope (ACT) and the South Pole Telescope (SPT), SO will initially deploy a total of 60,000 detectors, split about evenly between the LAT and SATs, with the potential to double the detector count in the LAT. Naturally, it is no easy undertaking to build a receiver capable of such feat for the LAT. In this thesis, I will recount the science cases put forth by SO, and walk through our journey in the designing, making, and testing of the Large Aperture Telescope Receiver (LATR). Text South pole University of Pennsylvania: ScholaryCommons@Penn South Pole Hubble ENVELOPE(158.317,158.317,-80.867,-80.867)
institution Open Polar
collection University of Pennsylvania: ScholaryCommons@Penn
op_collection_id ftunivpenn
language English
topic Astrophysics|Astronomy
spellingShingle Astrophysics|Astronomy
Zhu, Ningfeng
Simons Observatory Large Aperture Telescope Receiver
topic_facet Astrophysics|Astronomy
description In the past three decades, cosmic microwave background (CMB) has provided a wealth of information on the origin and the history of the universe. From motivating the theory of the Big Bang, to providing tests for the standard model of cosmology; from measuring the Hubble constant, to constraining the mass of the neutrino; from testing the matter composition of the universe, to shedding light on the cluster evolution, CMB has truly become one of the most critical subjects of modern cosmology. However, to fully realize its potential and to achieve a level of accuracy that none has achieved before, large observatories equipped with ten times the detectors as the current generation experiments are needed. Such is the time that Simons Observatory (SO) collaboration came together, and proposed a Large Aperture Telescope (LAT) and an array of Small Aperture Telescopes (SATs) that met such criteria. Built upon the expertise from the current generation ground-based telescopes such as the Atacama Cosmology Telescope (ACT) and the South Pole Telescope (SPT), SO will initially deploy a total of 60,000 detectors, split about evenly between the LAT and SATs, with the potential to double the detector count in the LAT. Naturally, it is no easy undertaking to build a receiver capable of such feat for the LAT. In this thesis, I will recount the science cases put forth by SO, and walk through our journey in the designing, making, and testing of the Large Aperture Telescope Receiver (LATR).
format Text
author Zhu, Ningfeng
author_facet Zhu, Ningfeng
author_sort Zhu, Ningfeng
title Simons Observatory Large Aperture Telescope Receiver
title_short Simons Observatory Large Aperture Telescope Receiver
title_full Simons Observatory Large Aperture Telescope Receiver
title_fullStr Simons Observatory Large Aperture Telescope Receiver
title_full_unstemmed Simons Observatory Large Aperture Telescope Receiver
title_sort simons observatory large aperture telescope receiver
publisher ScholarlyCommons
publishDate 2022
url https://repository.upenn.edu/dissertations/AAI28965098
long_lat ENVELOPE(158.317,158.317,-80.867,-80.867)
geographic South Pole
Hubble
geographic_facet South Pole
Hubble
genre South pole
genre_facet South pole
op_source Dissertations available from ProQuest
op_relation https://repository.upenn.edu/dissertations/AAI28965098
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