transform fault
Recently Published Documents


TOTAL DOCUMENTS

361
(FIVE YEARS 80)

H-INDEX

48
(FIVE YEARS 2)

2022 ◽  
Author(s):  
Lei Wu ◽  
et al.

Figure S1: Alternative sets of mean poles. Table S1: Paleomagnetic data from Domeier (2016). Table S2–4: Alternative mean poles for Gondwana, Laurentia and Baltica.


2022 ◽  
Author(s):  
Lei Wu ◽  
et al.

Figure S1: Alternative sets of mean poles. Table S1: Paleomagnetic data from Domeier (2016). Table S2–4: Alternative mean poles for Gondwana, Laurentia and Baltica.


2021 ◽  
pp. SP524-2021-110
Author(s):  
Michal Nemčok ◽  
Lucia Ledvényiova ◽  
Andreas Henk ◽  
Samuel Rybár ◽  
Sudipta T. Sinha ◽  
...  

AbstractA comparison of transform margins that started their evolution as continental transforms shows differences in their tectonic style, which can be attributed to the variable kinematic adjustments they underwent during the post-breakup continental-oceanic stage of their development. Three end-member examples are presented in detail. The Cape Range transform fault zone (Western Australia) retained its strike-slip character during its entire continental-oceanic stage, as documented by the transform-perpendicular system of spreading-related magnetic stripe anomalies. The Coromandal transform fault zone (Eastern India) adjusted its kinematics to a transtensional one during its continental-oceanic stage, as indicated by the transform-oblique system of magnetic stripe anomalies and extensional component of movement indicated by a narrow zone of crustal thinning. The Romanche transform fault zone (Equatorial Africa) adjusted its kinematics to transpressional, as documented by the changing geometries of magnetic stripe anomalies and transpressional folding during its continental-oceanic development stage. Based on the recognition of the aforementioned adjustments, we suggest a new categorization of transforms into (1) those that experience transpressional adjustment, (2) those that experience transtensional adjustment and (3) those that do not experience any adjustment during their continental-oceanic development stage.Supplementary material at https://doi.org/10.6084/m9.figshare.c.5762388


2021 ◽  
Author(s):  
Konstantinos Leptokaropoulos ◽  
Catherine Rychert ◽  
Nicholas Harmon ◽  
Michael Kendall

2021 ◽  
Author(s):  
Konstantinos Leptokaropoulos ◽  
Catherine Rychert ◽  
Nicholas Harmon ◽  
Michael Kendall

2021 ◽  
Vol 9 ◽  
Author(s):  
Francisco Javier Núñez-Cornú ◽  
Diego Córdoba Barba ◽  
William Bandy ◽  
Juan José Dañobeitia ◽  
José Edgar Alarcón Salazar ◽  
...  

The geodynamic complexity in the western Mexican margin is controlled by the multiple interactions between the Rivera, Pacific, Cocos, and North American plates, as evidenced by a high seismicity rate, most of whose hypocenters are poorly located. To mitigate this uncertainty with the aim of improving these hypocentral locations, we undertook the TsuJal Project, a passive seafloor seismic project conducted from April to November 2016. In addition to the Jalisco Seismic Network, 10 LCHEAPO 2000 Ocean Bottom Seismometers (OBSs) were deployed by the BO El Puma in a seafloor array from the Islas Marías Archipelago (Nayarit) to the offshore contact between the states of Colima and Michoacan. We located 445 earthquakes in four or more OBSs within the deployed array. Most of these earthquakes occurred in the contact region of the Rivera, Pacific, and Cocos plates, and a first analysis suggests the existence of three seismogenic zones (West, Center, and East) along the Rivera Transform fault that can be correlated with its morphological expression throughout the three seismogenic zones. The seismicity estimates that the Moho discontinuity is located at 10 km depth and supports earlier works regarding the West zone earthquake distribution. Subcrustal seismicity in the Central zone suggests that the Intra-Transform Spreading Basin domain is an ultra-low spreading ridge. A seismic swarm occurred during May and June 2016 between the eastern tip of the Paleo-Rivera Transform fault and the northern tip of the East Pacific Rise-Pacific Cocos Segment, illuminating some unidentified tectonic feature.


2021 ◽  
Author(s):  
Pengcheng Shi ◽  
et al.

Additional information regarding the methods and data, and complete creeping segment fraction results on each oceanic transform fault.<br>


2021 ◽  
Author(s):  
Pengcheng Shi ◽  
et al.

Additional information regarding the methods and data, and complete creeping segment fraction results on each oceanic transform fault.<br>


Sign in / Sign up

Export Citation Format

Share Document