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Sumatran Fault

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Journal Article
Published: 24 June 2014
Bulletin of the Seismological Society of America (2014) 104 (4): 1750–1762.
...Nobuo Hurukawa; Biana Rahayu Wulandari; Minoru Kasahara Abstract We map the fault planes of M ≥7.0 earthquakes along the Sumatran fault in Sumatra, western Indonesia, for the period since 1892. To obtain precise hypocenter locations of large earthquakes and identify fault planes of M ≥7.0...
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Journal Article
Published: 01 December 2012
Bulletin of the Seismological Society of America (2012) 102 (6): 2356–2367.
...Mudrik R. Daryono; Danny H. Natawidjaja; Kerry Sieh Abstract Although the 2000‐km‐long Sumatran fault is one of Earth’s longest and historically most active strike‐slip faults, previous large historical ruptures have gone unmapped, although some have been inferred from felt reports or from modeling...
FIGURES
First thumbnail for: Twin‐Surface Ruptures of the March 2007 M &amp;gt;...
Second thumbnail for: Twin‐Surface Ruptures of the March 2007 M &amp;gt;...
Third thumbnail for: Twin‐Surface Ruptures of the March 2007 M &amp;gt;...
Journal Article
Journal: GSA Bulletin
Published: 01 September 2001
GSA Bulletin (2001) 113 (9): 1179–1192.
...D.E. Moore; S. Hickman; D.A. Lockner; P.F. Dobson Abstract Detailed study of core samples of silicic tuff recovered from three geothermal wells along the strike-slip Great Sumatran fault zone near Silangkitang, North Sumatra, supports a model for enhanced hydrothermal circulation adjacent...
FIGURES
First thumbnail for: Hydrothermal minerals and microstructures in the S...
Second thumbnail for: Hydrothermal minerals and microstructures in the S...
Third thumbnail for: Hydrothermal minerals and microstructures in the S...
Journal Article
Published: 01 February 1985
Bulletin of the Seismological Society of America (1985) 75 (1): 313–317.
... Tapanuli tgv de aardbeving van 17 Mei 1892 , Natuurk. Tijdscht. v. Ned. Ind. 54 , 299 - 307 . Tjia H. D. Posavec M. M. (1972) . The Sumatran fault zone between Padangpandjang...
Image
Earthquake history along the Sumatran fault since 1892. Fault planes estimated in this study are shown by thick lines. SG: Seismic gap. The color version of this figure is available only in the electronic edition.
Published: 24 June 2014
Figure 7. Earthquake history along the Sumatran fault since 1892. Fault planes estimated in this study are shown by thick lines. SG: Seismic gap. The color version of this figure is available only in the electronic edition.
Image
Earthquake history of the Sumatran fault. Filled ellipses indicate M≥7.0 earthquakes that have occurred since 1892. Open ellipses indicate unbroken fault segments. Names of the Sumatran fault segments are taken from Sieh and Natawidjaja (2000). The color version of this figure is available only in the electronic edition.
Published: 24 June 2014
Figure 6. Earthquake history of the Sumatran fault. Filled ellipses indicate M ≥7.0 earthquakes that have occurred since 1892. Open ellipses indicate unbroken fault segments. Names of the Sumatran fault segments are taken from Sieh and Natawidjaja (2000) . The color version of this figure
Image
Historical large earthquakes along the Sumatran fault zone since 1892 (Natawidjaja et al., 2007; Sieh and Natawidjaja, 2000). The black rectangle indicates the region of the 6 March 2007 earthquake doublet. White ellipses represent approximate indications of strong regional shaking from historical earthquakes along the fault.
Published: 01 December 2012
Figure 1. Historical large earthquakes along the Sumatran fault zone since 1892 ( Natawidjaja et al. , 2007 ; Sieh and Natawidjaja, 2000 ). The black rectangle indicates the region of the 6 March 2007 earthquake doublet. White ellipses represent approximate indications of strong regional
Image
Photographs of 2007 surface ruptures along the Sumatran fault. (a) Dextral offset of floor‐tile boundaries on a patio in Koto Gadang (KG‐6) along the Sianok segment. (b) Northwestern most offset in 2007 on a paddy‐field boundary in Koto Gadang (KG‐5) along the Sianok segment. (c) Moletrack displays the 2007 surface rupture clearly at Kasiak (KA) along the Sumani segment. (d) Foreshortening in the photo shows 1.5–1.7 m offset of old road at Baringin Tanam (BT) along the Sumani segment, due to a combination of small (∼25 cm) offsets in 2007 and larger offset (or offsets) accumulated during the previous century. The surface rupture is almost perpendicular to the road, and the view is northeastward. (e) Surface rupture on the branch road at PandaiSikek (PS) is just few meters from the main road. (f) The rupture at Batipuh (BA‐3) resulted in a bend of the road and small cracks on both edges of the road; the view is southeastward.
Published: 01 December 2012
Figure 4. Photographs of 2007 surface ruptures along the Sumatran fault. (a) Dextral offset of floor‐tile boundaries on a patio in Koto Gadang (KG‐6) along the Sianok segment. (b) Northwestern most offset in 2007 on a paddy‐field boundary in Koto Gadang (KG‐5) along the Sianok segment. (c
Image
Map of Sumatra showing the trace of the Sunda Trench and the Sumatran fault. Rates in italics are based on geodetic measurements (Genrich et al., 2000; Prawirodirdjo et al., 2000), and those in normal fonts are from dated Quaternary offsets from Bellier and Sébrier (1995), Bellier et al. (1999), and Sieh and Natawidjaja (2000).
Published: 01 August 2010
Figure A8. Map of Sumatra showing the trace of the Sunda Trench and the Sumatran fault. Rates in italics are based on geodetic measurements ( Genrich et al., 2000 ; Prawirodirdjo et al., 2000 ), and those in normal fonts are from dated Quaternary offsets from Bellier and Sébrier (1995
Journal Article
Published: 01 January 2004
Bulletin de la Société Géologique de France (2004) 175 (1): 61–72.
...-SE trending volcanic arc, the location of which coincides approximately with the Great Sumatran Fault Zone (GSFZ). We present in this paper ca. 80 new 40 K- 40 Ar ages measured on Cenozoic calc-alkaline to shoshonitic magmatic rocks sampled all along this arc from Aceh to Lampung. The results show...
Image
Tectonic setting of Sumatra. The right‐lateral strike‐slip motion of the Sumatran fault is parallel to the Sunda trench in the Sumatran subduction zone. Slip rates in the figure represent subduction of the Indian plate beneath the Sundaland plate using the MORVEL model (from DeMets et al., 2010). Global Centroid Moment Tensor (CMT) solutions (see Data and Resources) of shallow earthquakes (Mw≥6.0 and depth≤60  km) between 1976 and 2012 are also plotted. Slip rates of the Sumatran fault in northern, central, and southern Sumatra are taken from Bellier and Sebrier (1995), Genrich et al. (2000), and Ito et al. (2012), respectively. The configuration of the Sumatran fault is from Sieh and Natawidjaja (2000).
Published: 24 June 2014
Figure 1. Tectonic setting of Sumatra. The right‐lateral strike‐slip motion of the Sumatran fault is parallel to the Sunda trench in the Sumatran subduction zone. Slip rates in the figure represent subduction of the Indian plate beneath the Sundaland plate using the MORVEL model (from DeMets et
Journal Article
Published: 01 September 1979
Journal of the Geological Society (1979) 136 (5): 569–577.
... and that in the centre and E, the dividing line being the main outcrop of the Sumatran Fault System (SFS) which traverses the length of the island. Large transcurrent movements on the SFS are indicated by ( a ) regional slivers of oceanic crust trapped at the leading junction of the western continental plate of Sumatra...
Image
Epicenter distribution of large shallow earthquakes along and near the Sumatran fault since 1900. (a) Hypocenters listed in various catalogs (refer to text). (b) Relocated modified joint hypocenter determination (MJHD) hypocenters in this study. A cross with the circle indicates the standard errors in latitude and longitude. Stations used in the relocation are shown by stars. The Sumatran fault configuration is taken from Sieh and Natawidjaja (2000). The color version of this figure is available only in the electronic edition.
Published: 24 June 2014
Figure 2. Epicenter distribution of large shallow earthquakes along and near the Sumatran fault since 1900. (a) Hypocenters listed in various catalogs (refer to text). (b) Relocated modified joint hypocenter determination ( MJHD ) hypocenters in this study. A cross with the circle indicates
Journal Article
Journal: Geology
Published: 01 September 1991
Geology (1991) 19 (9): 881–884.
... at a uniform strain rate of 3-4 x 10 -8 /yr. The northwestward motion of the fore arc relative to the upper plate (Southeast Asia) increases from near zero at the Sunda Strait to 45-60 mm/yr in northwest Sumatra and should result in variable slip rates on the Sumatran fault. Geological Society of America...
Journal Article
Published: 05 June 2018
Bulletin of the Seismological Society of America (2018) 108 (4): 1918–1928.
..., which is perpendicular to the Aceh segment of the Sumatran fault, and model 4 is constructed using the multiple faults in models 2 and 3. We further estimate the coseismic slip distribution of this earthquake by employing an elastic dislocation model, inverting only the GPS displacements for model 3...
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First thumbnail for: Coseismic Slip Distribution of the 2 July 2013 M w...
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Journal Article
Published: 25 July 2018
Seismological Research Letters (2018) 89 (5): 1761–1772.
...Muzli Muzli; Muksin Umar; Andri Dian Nugraha; Kyle Edward Bradley; Sri Widiyantoro; Kemal Erbas; Philippe Jousset; Supriyanto Rohadi; Irwandi Nurdin; Shengji Wei ABSTRACT On 6 December 2016, an M w 6.5 earthquake occurred in Pidie Jaya, Aceh, about 30 km to the north of the Sumatran fault (SF...
FIGURES
First thumbnail for: The 2016 M w 6.5 Pidie Jaya, Aceh, North Sumatra, ...
Second thumbnail for: The 2016 M w 6.5 Pidie Jaya, Aceh, North Sumatra, ...
Third thumbnail for: The 2016 M w 6.5 Pidie Jaya, Aceh, North Sumatra, ...
Series: SEPM Special Publication
Publisher: Society of Economic Paleontologists and Mineralogists
Published: 01 January 1985
DOI: 10.2110/pec.85.37.0045
EISBN: 9781565761674
... also been recognized in magmatic arcs (e.g., the Great Sumatran fault) and in both backarc and peripheral foreland settings (e.g., Lake Basin fault zone, Montana) near convergent plate boundaries, and in intra-plate settings (e.g., Cottage Grove fault, Illinois; Scipio-Albion trend, Michigan). ...
Journal Article
Published: 01 January 2007
Bulletin of the Seismological Society of America (2007) 97 (1A): S139–S151.
... slab accommodates the east–west component of the motion, whereas the north–south component of the motion is probably accommodated by the right-lateral strike-slip faulting along the Great Sumatran fault and the Mentawi fault. Source parameters of the 26 December 2004 event have been used for modeling...
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First thumbnail for: Simulated Strong Ground Motions for the Great M 9....
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Journal Article
Published: 01 January 1999
Bulletin de la Société Géologique de France (1999) 170 (1): 25–30.
...Thierry Duquesnoy; Olivier Bellier; Michel Sebrier; Michel Kasser; Christophe Vigny; Frederic Ego; Irwan Bahar; Eka Putranto; Ismet Effendi Abstract Deformation pattern around the central part of the Great Sumatran Fault has been determined by a geodetic survey. First geodetic measurements were...
Image
Distribution of large earthquakes (Mw≥7.0) between 1900 and September 2011 and the major seismic zones for Indonesia. Zones demarcated by thin black lines and integers are (1) Sunda trench (west), (2) Sunda trench (east), (3) Sumatran fault zone, (4) Java trench, (5) Bali trench, (6) Java back‐arc, (7) Bali back‐arc, and (8) Molucca Sea plate. The heavy long‐dashed line is the Sunda trench, southwest of Sumatra, continuing east as the Java–Bali trench; the light short‐dashed line is the Sumatran fault zone; earthquake magnitudes are indicated by circles of increasing size as in the legend.
Published: 01 July 2014
Figure 1. Distribution of large earthquakes ( M w ≥7.0) between 1900 and September 2011 and the major seismic zones for Indonesia. Zones demarcated by thin black lines and integers are (1) Sunda trench (west), (2) Sunda trench (east), (3) Sumatran fault zone, (4) Java trench, (5) Bali trench, (6