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Study mode:
on
1
Intro
2
Outline
3
Phenomenology of a merger
4
Matter effects
5
Adiabatic tides
6
Dynamical tides
7
Spin-induced effects
8
"State of the art" BNS Waveform models
9
PN Waveform models (TaylorF2)
10
EOB Waveform models
11
EOB: Enhancing tidal effects close to merger
12
Phenom Waveform models (NRTidalv2)
13
Summary Table
14
The problem of PE
15
How should we study systematics?
16
Measurability of Tidal parameters
17
Comparison of approximants
18
Injection study
19
Injections: early inspiral parameters
20
Injections: A recovery
21
Injections: R
22
Injections: importance of spin-induced effect
23
Real data: GW170817 (again!)
24
Future data: 3G, high SNR events
25
Numerical Relativity
26
Conclusions
Description:
Explore the complexities of gravitational-wave inference in binary neutron star signals through this 46-minute conference talk by Rossella Gamba. Delve into the challenges of extracting tidal parameters and equation of state information from gravitational-wave data, focusing on the systematic errors introduced by waveform approximants. Examine the impact of these errors on high signal-to-noise ratio events observable by advanced and third-generation detectors. Discover why current state-of-the-art waveform models, including those from numerical relativity, are insufficient for unambiguous equation of state constraints in gravitational wave parameter estimation. Learn about various waveform models, including PN, EOB, and Phenom, and their limitations. Investigate the problem of parameter estimation and methodologies for studying systematics. Analyze injection studies, real data from GW170817, and future prospects with third-generation detectors. Gain insights into the importance of spin-induced effects and the role of numerical relativity in addressing these challenges. Read more

Waveform Systematics in the Gravitational-Wave Inference of Tidal Parameters

Institute for Pure & Applied Mathematics (IPAM)
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