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Grant: Discovery Grants Program - Individual

University of Manitoba

$50,000.00

Astrophysics of Supernova Remnants In the 2020's: Their Progenitors, Engines and High-Energy Phenomena

FY 2020-21

Summary
Supernovae (SNe) and their remnants (SNRs) represent some of the most energetic and fascinating events in the Universe. They are primary drivers for both the thermal (hot) and non-thermal (energetic) Universe. They are relevant to cosmology, the chemical enrichment and dynamics of galaxies, cosmic ray acceleration, extreme (neutron star and black hole) physics, cosmic magnetism and the exploding new era of "multi-wavelength, multi-messenger" astrophysics. SNR studies across the electromagnetic spectrum have significantly advanced our understanding of these objects and of the aftermath of a SN explosion, however many fundamental questions remain to be answered. These questions include: How and where do SNe of the different types explode? What is the make-up of the chemical elements they produce? What are the maximum energies to which cosmic rays are accelerated in SN shocks? Is the observed diversity of neutron stars associated with SNRs caused by nature or nurture? Can SNRs host black holes? We aim to address these questions by studying Galactic and Magellanic Clouds objects, using a multi-wavelength approach (with focus on X-ray and radio data). This field will also significantly benefit from, as well as feed, recent theoretical efforts aimed at studying nucleosynthesis yields from type Ia and core-collapse SNe, particle acceleration at supersonic shocks, and magnetic field evolution in neutron stars. The future looks bright with upcoming facilities planned during and beyond the 2020's : from the Square Kilometre Array (SKA) and its pathfinders in the radio, to the Hitomi recovery mission and ATHENA in X-rays, to the Cherenkov Telescope Array in gamma-rays (CTA). The proposed program naturally builds on the fast-growing SNR group that I have established in recent years at the U. of Manitoba. New directions are being pursued in gravitational waves/neutron-star mergers astrophysics and data mining which are proving to be successful in recruiting (more) students into science in general, and high-energy/SN astrophysics in particular.
Program
Discovery Grants Program - Individual
Location
Manitoba, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data

As published

Application id
RGPIN-2019-06416
Name nom
Safi-Harb, Samar
Department département
Physics and Astronomy
Organization id
19
Institution établissement
University of Manitoba
Province en
Manitoba
Province fr
Manitoba
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2020
Competition year année de concours
2019
Award amount
50000
Program id
RGPIN
Program name en
Discovery Grants Program - Individual
Program name fr
Programme de subventions à la découverte - individuelles
Group en
Discovery grants programs
Group fr
Programmes de subventions à la découverte
Committee code
1505
Committee name en
Physics
Committee name fr
Physique
Area of application code
1200
Area of application group en
Advancement of knowledge
Area of application group fr
Avancement des connaissances
Area of application en
Advancement of knowledge
Area of application fr
Avancement des connaissances
Research subject code
3200
Research subject group en
Astronomy and astrophysics
Research subject group fr
Astronomie et astrophysique
Research subject en
Astronomy and astrophysics
Research subject fr
Astronomie et astrophysique
Installment
inst:2-5
Partie
4
Nb partie
5
Application title
Astrophysics of Supernova Remnants In the 2020's: Their Progenitors, Engines and High-Energy Phenomena
Keyword
NSERC
Application summary
Supernovae (SNe) and their remnants (SNRs) represent some of the most energetic and fascinating events in the Universe. They are primary drivers for both the thermal (hot) and non-thermal (energetic) Universe. They are relevant to cosmology, the chemical enrichment and dynamics of galaxies, cosmic ray acceleration, extreme (neutron star and black hole) physics, cosmic magnetism and the exploding new era of "multi-wavelength, multi-messenger" astrophysics. SNR studies across the electromagnetic spectrum have significantly advanced our understanding of these objects and of the aftermath of a SN explosion, however many fundamental questions remain to be answered. These questions include: How and where do SNe of the different types explode? What is the make-up of the chemical elements they produce? What are the maximum energies to which cosmic rays are accelerated in SN shocks? Is the observed diversity of neutron stars associated with SNRs caused by nature or nurture? Can SNRs host black holes? We aim to address these questions by studying Galactic and Magellanic Clouds objects, using a multi-wavelength approach (with focus on X-ray and radio data). This field will also significantly benefit from, as well as feed, recent theoretical efforts aimed at studying nucleosynthesis yields from type Ia and core-collapse SNe, particle acceleration at supersonic shocks, and magnetic field evolution in neutron stars. The future looks bright with upcoming facilities planned during and beyond the 2020's : from the Square Kilometre Array (SKA) and its pathfinders in the radio, to the Hitomi recovery mission and ATHENA in X-rays, to the Cherenkov Telescope Array in gamma-rays (CTA). The proposed program naturally builds on the fast-growing SNR group that I have established in recent years at the U. of Manitoba. New directions are being pursued in gravitational waves/neutron-star mergers astrophysics and data mining which are proving to be successful in recruiting (more) students into science in general, and high-energy/SN astrophysics in particular.
University of Manitoba - $50,000 Grant (2020-21) | Canada Spends