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Grant: Discovery Grants Program - Individual

Bishop's University

$32,000.00

A New Era of Exoplanet Astrophysics

EF 2023-24

Résumé
The objectives of the proposed research program are to discover and characterize a large sample of exoplanets and to understand the origins of diversity in the basic properties of planets, such as mass, radius, density, and atmosphere. The objectives will be met though the development of Space Astronomy assets including Webb, TESS, NEOSSat, CASTOR, Pandora and POET.  The Canadian POET mission is a proposed micro-satellite for exoplanet astrophysics for Canadian Astronomers. POET will discover Earth-sized planets around ultra-cool stars and obtain ultra-precision transit photometry to characterize their atmospheres. The primary objective of my research is to determine precision measurements of populations of exoplanets. With the launch of Webb and development of Canadian-led facilities such as CASTOR and POET, this research proposal under my leadership, with place Canadian researchers at the forefront of exoplanet astrophysics for next decade and beyond. My team has secured access to Webb  through GTO and GO programs for observations of the prototype hot-jupiters Hat-P1-b and HD 80606b. The goal of these observations is to understand the physics of cloud formation and the impact of clouds on the observed exoplanet spectrum. HD 80606b is one of most eccentric exoplanets (e~0.93) known. As a result, the atmosphere is thermally shocked on the timescale of a few days during its 111-day period. Webb will enable a meteorological study of the upper atmosphere of the planet to monitor the formation and dissipation of clouds. Hat-P1-b, one of the best studied hot-jupiters, will provide a benchmark for emission and transmission studies as of the first exoplanet targets scheduled by Webb. The Canadian flagship CASTOR mission, a 1-meter, ultra-violet space telescope will provide precision UV transit photometry.  As exoplanet science lead, I will design and lead the CASTOR exoplanet program to characterize a sample of planets in a understudied domain obtain to understand particle size distributions through Mie scattering for a statistically significant sample of transiting exoplanets.  The result of my contributions will be a comprehensive survey of exoplanet atmospheres with continuous coverage from the UV to IR that will enable the detection of clouds, scattering particles, determination of chemical properties and abundances.  The proposed research program will place Canadian researchers at the forefront of exoplanet research. Understanding exoplanets will enable us to learn about the origins of our solar system and formation of the Earth and other potentially Earth-like planets as we begin to understand our place in the Universe.
Programme
Discovery Grants Program - Individual
Bénéficiaire
Emplacement
Quebec, Canada
Type de bénéficiaire
Academia
Type
Grant
Source
NSERC's Awards Data

Tel que publié

Application id
RGPIN-2023-05548
Name nom
Rowe, Jason
Department département
Physics - Physics
Organization id
45
Institution établissement
Bishop's University
Province en
Québec
Province fr
Québec
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2023
Competition year année de concours
2023
Award amount
32000
Program id
RGPIN
Program name en
Discovery Grants Program - Individual
Program name fr
Programme de subventions à la découverte - individuelles
Group en
DISCOVERY RESEARCH
Group fr
RECHERCHE AXÉE SUR LA DÉCOUVERTE
Committee code
1505
Committee name en
Physics
Committee name fr
Physique
Area of application code
1204
Area of application group en
Advancement of knowledge
Area of application group fr
Avancement des connaissances
Area of application en
Space and astronomy
Area of application fr
Sciences spatiales et astronomie
Research subject code
3205
Research subject group en
Astronomy and astrophysics
Research subject group fr
Instrumentation
Research subject en
Astronomie et astrophysique
Research subject fr
Instrumentation
Application title
A New Era of Exoplanet Astrophysics
Keyword
atmospheres; dynamics; exoplanets; instrumentation; microsatellite; populations; space astronomy; spectroscopy; transits; Webb Telescope
Application summary
The objectives of the proposed research program are to discover and characterize a large sample of exoplanets and to understand the origins of diversity in the basic properties of planets, such as mass, radius, density, and atmosphere. The objectives will be met though the development of Space Astronomy assets including Webb, TESS, NEOSSat, CASTOR, Pandora and POET.  The Canadian POET mission is a proposed micro-satellite for exoplanet astrophysics for Canadian Astronomers. POET will discover Earth-sized planets around ultra-cool stars and obtain ultra-precision transit photometry to characterize their atmospheres. The primary objective of my research is to determine precision measurements of populations of exoplanets. With the launch of Webb and development of Canadian-led facilities such as CASTOR and POET, this research proposal under my leadership, with place Canadian researchers at the forefront of exoplanet astrophysics for next decade and beyond. My team has secured access to Webb  through GTO and GO programs for observations of the prototype hot-jupiters Hat-P1-b and HD 80606b. The goal of these observations is to understand the physics of cloud formation and the impact of clouds on the observed exoplanet spectrum. HD 80606b is one of most eccentric exoplanets (e~0.93) known. As a result, the atmosphere is thermally shocked on the timescale of a few days during its 111-day period. Webb will enable a meteorological study of the upper atmosphere of the planet to monitor the formation and dissipation of clouds. Hat-P1-b, one of the best studied hot-jupiters, will provide a benchmark for emission and transmission studies as of the first exoplanet targets scheduled by Webb. The Canadian flagship CASTOR mission, a 1-meter, ultra-violet space telescope will provide precision UV transit photometry.  As exoplanet science lead, I will design and lead the CASTOR exoplanet program to characterize a sample of planets in a understudied domain obtain to understand particle size distributions through Mie scattering for a statistically significant sample of transiting exoplanets.  The result of my contributions will be a comprehensive survey of exoplanet atmospheres with continuous coverage from the UV to IR that will enable the detection of clouds, scattering particles, determination of chemical properties and abundances.  The proposed research program will place Canadian researchers at the forefront of exoplanet research. Understanding exoplanets will enable us to learn about the origins of our solar system and formation of the Earth and other potentially Earth-like planets as we begin to understand our place in the Universe.