The Supernovae Analysis Application (SNAP)
arXiv:1611.03896 · doi:10.3847/1538-4357/aa831d
Abstract
The SuperNovae Analysis aPplication (SNAP) is a new tool for the analysis of SN observations and validation of SN models. SNAP consists of an open source relational database with (a) observational light curve, (b) theoretical light curve, and (c) correlation table sets, statistical comparison software, and a web interface available to the community. The theoretical models are intended to span a gridded range of parameter space. The goal is to have users to upload new SN models or new SN observations and run the comparison software to determine correlations via the web site. There are looming problems on the horizon that SNAP begins to solve. Namely, large surveys will discover thousands of SNe annually. Frequently, the parameter space of a new SN event is unbounded. SNAP will be a resource to constrain parameters and determine if an event needs follow-up without spending resources to create new light curve models from scratch. Secondly, there is not a rapidly available, systematic way to determine degeneracies between parameters or even what physics is needed to model a realistic SNe. The correlations made within the SNAP system begin to solve these problems.
arXiv commentSubmitted to AAS publishing, 22 pages, 8 figures
References in corpus (33)
- Measuring Reddening with SDSS Stellar Spectra and Recalibrating SFD
- The Dust Content and Opacity of Actively Star-Forming Galaxies
- How Massive Single Stars End their Life
- The Swift Ultra-Violet/Optical Telescope
- Photometric Calibration of the Swift Ultraviolet/Optical Telescope
- Inside the Supernova: A Powerful Convective Engine
- An Open Catalog for Supernova Data
- The RAGE radiation-hydrodynamic code
- Characterizing the V-band light-curves of hydrogen-rich type II supernovae
- Turbulent Convection in Stellar Interiors. I. Hydrodynamic Simulation
- Time Dependent Monte Carlo Radiative Transfer Calculations For 3-Dimensional Supernova Spectra, Lightcurves, and Polarization
- The Carnegie Supernova Project: Light Curve Fitting with SNooPy
- Asymmetries in core-collapse supernovae from maps of radioactive Ti in CassiopeiaA
- Towards Realistic Progenitors of Core-Collapse Supernovae
- What Can the Accretion Induced Collapse of White Dwarfs Really Explain?
- Quantitative Spectroscopy of Photospheric-Phase Type II Supernovae
- Turbulent Convection in Stellar Interiors. II. The Velocity Field
- A New Monte Carlo Method for Time-Dependent Neutrino Radiation Transport
- SNSPH: A Parallel 3-D Smoothed Particle Radiation Hydrodynamics Code
- Radiative-transfer models for supernovae IIb/Ib/Ic from binary-star progenitors
- Fast evolving pair-instability supernova models: evolution, explosion, light curves
- Observational Tests and Predictive Stellar Evolution II: Non-standard Models
- Radiation Transport for Explosive Outflows: A Multigroup Hybrid Monte Carlo Method
- The Unusual Temporal and Spectral Evolution of the Type IIn Supernova 2011ht
- Extensive Spectroscopy and Photometry of the Type IIP Supernova 2013ej
- Radiation Transport for Explosive Outflows: Opacity Regrouping
- Bolometric and UV Light Curves of Core-Collapse Supernovae
- After the Fall: Late-Time Spectroscopy of Type IIP Supernovae
- The Los Alamos Supernova Light Curve Project: Computational Methods
- An explanation for the curious mass loss history of massive stars: from OB stars, through Luminous Blue Variables to Wolf-Rayet stars
- Extreme Supernova Models for the Superluminous Transient ASASSN-15lh
- Can Stellar Mixing Explain the Lack of Type Ib Supernovae in Long-Duration GRBs?
- The Effects on Supernova Shock Breakout and Swift Light Curves Due to the Mass of the Hydrogen-Rich Envelope