A semi-analytical light curve model and its application to type IIP supernovae
arXiv:1409.6256 · doi:10.1051/0004-6361/201424237
Abstract
The aim of this work is to present a semi-analytical light curve modeling code which can be used for estimating physical properties of core collapse supernovae (SNe) in a quick and efficient way. To verify our code we fit light curves of Type II SNe and compare our best parameter estimates to those from hydrodynamical calculations. For this analysis we use the quasi-bolometric light curves of five different Type IIP supernovae. In each case we get appropriate results for the initial pre-supernova parameters. We conclude that this semi-analytical light curve model is useful to get approximate physical properties of Type II SNe without using time-consuming numerical hydrodynamic simulations.
arXiv commentaccepted for publication in Astronomy \& Astrophysics; corrected Fig.2, 3, 4
References in corpus (23)
- Supernova Light Curves Powered by Young Magnetars
- Bright Supernovae from Magnetar Birth
- Generalized Semi-Analytical Models of Supernova Light Curves
- Radiation hydrodynamics of SN 1987A: I. Global analysis of the light curve for the first 4 months
- The Type IIb Supernova 2011dh from a Supergiant Progenitor
- Hydrodynamical models of Type II-Plateau Supernovae
- Photometric and spectroscopic evolution of the type IIP supernova SN 2004et
- Photometric and Spectroscopic Properties of Type II-P Supernovae
- Peculiar, Low Luminosity Type II Supernovae: Low Energy Explosions in Massive Progenitors?
- Optical and near infrared coverage of SN 2004et: physical parameters and comparison with other type IIP supernovae
- An optimal hydrodynamic model for the normal Type IIP supernova 1999em
- Comparison of progenitor mass estimates for the type IIP SN 2012A
- Supernova Fallback onto Magnetars and Propeller-Powered Supernovae
- Explosion Energies, Nickel Masses, and Distances of Supernovae of Type IIP
- Ion Signatures in Supernova Spectra
- High mass of the type IIP supernova 2004et inferred from hydrodynamic modeling
- The Type IIP Supernova 2012aw in M95: hydrodynamical modelling of the photospheric phase from accurate spectrophotometric monitoring
- Light curves and H luminosities as indicators of Ni mass in type IIP supernovae
- SN 2009N: Linking normal and subluminous type II-P SNe
- Distance estimate and progenitor characteristics of SN 2005cs in M51
- Radiation-hydrodynamical modelling of Core-Collapse Supernovae: light curves and the evolution of photospheric velocity and temperature
- Observations and analysis of two type IIP supernovae: the intrinsically faint object SN 2005cs and the ambiguous object SN 2005ay
- Ejecta and progenitor of the low-luminosity Type IIP supernova 2003Z
Cited by in corpus (38)
- An Optically Targeted Search for Gravitational Waves emitted by Core-Collapse Supernovae during the First and Second Observing Runs of Advanced LIGO and Advanced Virgo
- On The Intrinsic Diversity of Type II-Plateau Supernovae
- A comparative study of Type II-P and II-L supernova rise times as exemplified by the case of LSQ13cuw
- A two-component model for fitting light-curves of core-collapse supernovae
- Radiation-hydrodynamical modelling of underluminous type II plateau Supernovae
- Synthetic red supergiant explosion model grid for systematic characterization of Type II supernovae
- A low-energy explosion yields the underluminous Type IIP SN 2020cxd
- Low-luminosity type IIP supernovae: SN 2005cs and SN 2020cxd as very low-energy iron core-collapse explosions
- Photometric and polarimetric observations of fast declining Type II supernovae 2013hj and 2014G
- The Continuing Story of SN IIb 2013df: New Optical and IR Observations and Analysis
- The impact of realistic red supergiant mass-loss on stellar evolution
- Average opacity calculation for core-collapse supernovae
- ASASSN-14dq: A fast-declining type II-P Supernova in a low-luminosity host galaxy
- SN 2015ba: A type IIP supernova with a long plateau
- Photospheric Velocity Gradients and Ejecta Masses of Hydrogen-poor Superluminous Supernovae -- Proxies for Distinguishing between Fast and Slow Events
- Observational signature of circumstellar interaction and Ni-mixing in the Type II Supernova 2016gfy
- SN 2015as: A low luminosity Type IIb supernova without an early light curve peak
- SN 2018gj: A Short-plateau Type II Supernova with Persistent Blue-shifted H-alpha Emission
- SN 2018is: a low-luminosity Type IIP supernova with narrow hydrogen emission lines at early phases
- A low-luminosity core-collapse supernova very similar to SN 2005cs
- SN 2018hna: Adding a Piece to the Puzzles of the Explosion of Blue Supergiants
- The Explosion Mechanism of Core-Collapse Supernovae and Its Observational Signatures
- The optical properties of three type II supernovae: 2014cx, 2014cy and 2015cz
- SN 2015an: a normal luminosity type II supernova with low expansion velocity at early phases
- Exploring the Impact of Ejecta Velocity Profile on Kilonova Evolution: Diversity of the Kilonova Lightcurves
- Three is the magic number -- distance measurement of NGC 3147 using SN 2021hpr and its siblings
- Theoretical X-ray light curves of young SNe II: the example of SN 2013ej
- Hidden shock powering the peak of SN 2020faa
- Relativistic scaling laws for the light curve in supernovae
- SN 2022ngb: A faint, slowly evolving Type IIb supernova with a low-mass envelope
- The story of SN 2021aatd -- a peculiar 1987A-like supernova with an early-phase luminosity excess
- A low mass, binary-stripped envelope for the Type IIb SN 2024abfo
- Modeling the circumstellar interaction around SN 2004gq
- Energy Conservation in the thin layer approximation: IV. The light curve for supernovae
- Can circumstellar interaction explain the strange light curve features of Type Ib/c supernovae?
- Signatures of anti-social mass-loss in the ordinary Type II SN 2024bch -- A non-interacting supernova with early high-ionisation features
- SN 2019va: A Type IIP Supernova with Large Influence of Nickel-56 Decay on the Plateau-phase Light Curve
- Photosphere Recession and Luminosity of Homologous Explosions Revisited