The increased use of ambient seismic noise for seismic imaging requires better understanding of the ambient seismic noise wavefield and its source locations and mechanisms. Although the source regions and mechanisms of Rayleigh waves have been studied extensively, characterization of Love wave source processes are sparse or absent. We present here the first systematic comparison of ambient seismic noise source directions within the primary (~10–20 s period) and secondary (~5–10 s period) microseism bands for both Rayleigh and Love waves in the Southern Hemisphere using vertical- and horizontal-component ambient seismic noise recordings from a dense temporary network of 68 broadband seismometers in New Zealand. Our analysis indicates that Ra...
International audienceOcean waves activity is a major source of microvibrations that travel through ...
International audienceSeismic noise in the period band 3–10 s is known as secondary microseism, and ...
International audienceSeismic signals can be extracted from ambient noise wavefields by the correlat...
Interstation cross correlations of ambient seismic noise from 1 year of continuous data at periods b...
Although seismometers are generally designed to record episodic events such as earthquakes and volca...
Cross-correlations of ambient seismic noise from 277 broad-band stations within the Mississippi emba...
In order to use ambient seismic noise for mapping Earth's structure, it is important to understand t...
In the secondary microseism band (0.1–1.0 Hz) the theoretical excitation of Rayleigh waves (Rg/LR), ...
International audienceWe study the origin of the background seismic noise averaged over long time by...
We use ambient seismic noise to image the crust and uppermost mantle, and to determine the spatiotem...
We extend three-component plane wave beamforming to a more general form and devise a framework, whic...
We extend three‐component plane wave beamforming to a more general form and devise a framework, whic...
Microseisms are weak continuous oscillations of the solid Earth. These oscillations form the backgro...
In the absence of earthquakes, oceanic microseisms are the strongest signals recorded by seismic sta...
International audienceOcean waves activity is a major source of microvibrations that travel through ...
International audienceSeismic noise in the period band 3–10 s is known as secondary microseism, and ...
International audienceSeismic signals can be extracted from ambient noise wavefields by the correlat...
Interstation cross correlations of ambient seismic noise from 1 year of continuous data at periods b...
Although seismometers are generally designed to record episodic events such as earthquakes and volca...
Cross-correlations of ambient seismic noise from 277 broad-band stations within the Mississippi emba...
In order to use ambient seismic noise for mapping Earth's structure, it is important to understand t...
In the secondary microseism band (0.1–1.0 Hz) the theoretical excitation of Rayleigh waves (Rg/LR), ...
International audienceWe study the origin of the background seismic noise averaged over long time by...
We use ambient seismic noise to image the crust and uppermost mantle, and to determine the spatiotem...
We extend three-component plane wave beamforming to a more general form and devise a framework, whic...
We extend three‐component plane wave beamforming to a more general form and devise a framework, whic...
Microseisms are weak continuous oscillations of the solid Earth. These oscillations form the backgro...
In the absence of earthquakes, oceanic microseisms are the strongest signals recorded by seismic sta...
International audienceOcean waves activity is a major source of microvibrations that travel through ...
International audienceSeismic noise in the period band 3–10 s is known as secondary microseism, and ...
International audienceSeismic signals can be extracted from ambient noise wavefields by the correlat...