scholarly journals A multistep approach for joint modeling of surface wave dispersion and teleseismic receiver functions: Implications for lithospheric structure of the Arabian Peninsula

2006 ◽  
Vol 111 (B11) ◽  
pp. n/a-n/a ◽  
Author(s):  
H. Tkalčić ◽  
M. E. Pasyanos ◽  
A. J. Rodgers ◽  
R. Gök ◽  
W. R. Walter ◽  
...  
Keyword(s):  
Surface Wave ◽  
Arabian Peninsula ◽  
Wave Dispersion ◽  
Joint Modeling ◽  
Receiver Functions ◽  
Lithospheric Structure ◽  
Surface Wave Dispersion

scholarly journals Reliable workflow for inversion of seismic receiver function and surface wave dispersion data: a “13 BB Star” case study

2019 ◽  
Vol 24 (1) ◽  
pp. 101-120
Author(s):  
Kajetan Chrapkiewicz ◽  
Monika Wilde-Piórko ◽  
Marcin Polkowski ◽  
Marek Grad
Keyword(s):  
Surface Wave ◽  
Inverse Problems ◽  
Receiver Function ◽  
Joint Inversion ◽  
Wave Dispersion ◽  
Receiver Functions ◽  
P Wave ◽  
Surface Wave Dispersion ◽  
Phase Velocity Dispersion ◽  
Wide Range

AbstractNon-linear inverse problems arising in seismology are usually addressed either by linearization or by Monte Carlo methods. Neither approach is flawless. The former needs an accurate starting model; the latter is computationally intensive. Both require careful tuning of inversion parameters. An additional challenge is posed by joint inversion of data of different sensitivities and noise levels such as receiver functions and surface wave dispersion curves. We propose a generic workflow that combines advantages of both methods by endowing the linearized approach with an ensemble of homogeneous starting models. It successfully addresses several fundamental issues inherent in a wide range of inverse problems, such as trapping by local minima, exploitation of a priori knowledge, choice of a model depth, proper weighting of data sets characterized by different uncertainties, and credibility of final models. Some of them are tackled with the aid of novel 1D checkerboard tests—an intuitive and feasible addition to the resolution matrix. We applied our workflow to study the south-western margin of the East European Craton. Rayleigh wave phase velocity dispersion and P-wave receiver function data were gathered in the passive seismic experiment “13 BB Star” (2013–2016) in the area of the crust recognized by previous borehole and refraction surveys. Final models of S-wave velocity down to 300 km depth beneath the array are characterized by proximity in the parameter space and very good data fit. The maximum value in the mantle is higher by 0.1–0.2 km/s than reported for other cratons.

Bayesian Inversion of Receiver Functions and Surface Wave Dispersion Data in the Brazilian Northeast

2017 ◽  
Author(s):  
Thuany Patrícia Costa de Lima ◽  
Hrvoje Tkalčić ◽  
Seongryong Kim ◽  
Jordi Julià
Keyword(s):  
Surface Wave ◽  
Wave Dispersion ◽  
Receiver Functions ◽  
Bayesian Inversion ◽  
Surface Wave Dispersion ◽  
Dispersion Data ◽  
Brazilian Northeast

scholarly journals Lithospheric structure of the central Andes based on surface wave dispersion

2002 ◽  
Vol 107 (B12) ◽  
pp. ESE 18-1-ESE 18-13 ◽  
Author(s):  
David Baumont ◽  
Anne Paul ◽  
George Zandt ◽  
Susan L. Beck ◽  
Helle Pedersen
Keyword(s):  
Surface Wave ◽  
Wave Dispersion ◽  
Central Andes ◽  
Lithospheric Structure ◽  
Surface Wave Dispersion
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