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Erebus Crater

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Journal Article
Published: 01 May 2009
Journal of Sedimentary Research (2009) 79 (5): 247–264.
...Joannah M. Metz; John P. Grotzinger; David M. Rubin; Kevin W. Lewis; Steven W. Squyres; James F. Bell, III Abstract This study investigates three bedrock exposures at Erebus crater, an ~ 300 m diameter crater approximately 4 km south of Endurance crater on Mars. These outcrops, called Olympia...
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Journal Article
Journal: Geology
Published: 01 December 2006
Geology (2006) 34 (12): 1085–1088.
...J. Grotzinger; J. Bell, III; K. Herkenhoff; J. Johnson; A. Knoll; E. McCartney; S. McLennan; J. Metz; J. Moore; S. Squyres; R. Sullivan; O. Ahronson; R. Arvidson; B. Joliff; M. Golombek; K. Lewis; T. Parker; J. Soderblom Abstract New observations at Erebus crater (Olympia outcrop) by the Mars...
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Image
Stratigraphic columns from Endurance and Erebus craters shown in their likely stratigraphic relationship. Endurance crater shows a wetting-upward trend whereas Erebus crater shows a drying-upward trend. Together they may represent a full climate cycle.
Published: 01 May 2009
Figure 18 Stratigraphic columns from Endurance and Erebus craters shown in their likely stratigraphic relationship. Endurance crater shows a wetting-upward trend whereas Erebus crater shows a drying-upward trend. Together they may represent a full climate cycle.
Series: SEPM Special Publication
Published: 01 January 2012
DOI: 10.2110/pec.12.102.0195
EISBN: 9781565763135
... the Endurance crater; however, Victoria strata overlap in elevation with the rocks exposed at the Erebus crater. Victoria crater has a well-developed geomorphic pattern of promontories and embayments that define the crater wall and that reveal thick bedsets (3–7 m) of large-scale cross-bedding, interpreted...
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Image
Subscenes from HiRISE image PSP_001414_1780, which was acquired on November 14, 2006 (Mars northern summer). The image was taken at the local Mars time of 3:26 p.m., and the scene was illuminated from the west at a solar incidence angle of 54°. A) HiRISE image showing rover traverse path in red. The rover drove from Eagle crater east to Endurance crater, and then drove 4 km south to Erebus crater en route to Victoria crater. B) Erebus crater with locations of the Olympia Outcrop, Payson, and Yavapai marked. C) Close-up view of the western margin of Erebus crater showing the strike and dip of bedding in the Payson, Intervening Ridge, and Yavapai outcrops. The trend of the axis of the potential syncline at Yavapai is also indicated.
Published: 01 May 2009
path in red. The rover drove from Eagle crater east to Endurance crater, and then drove 4 km south to Erebus crater en route to Victoria crater. B) Erebus crater with locations of the Olympia Outcrop, Payson, and Yavapai marked. C) Close-up view of the western margin of Erebus crater showing
Image
Figure 1. Location of Olympia outcrop. A: Mars Orbiter Camera (MOC) image of Erebus crater. Image is subframe of MOC image S05–00863 and its location is near 2.0°S, 5.8°W. Sunlight illuminates scene from left, scale bar is 100 m, and north is toward top. B: Complete rover traverse path as of sol 727, near end of Olympia campaign. Image credit: NASA/JPL/MSSS/Ohio State University.
Published: 01 December 2006
Figure 1. Location of Olympia outcrop. A: Mars Orbiter Camera (MOC) image of Erebus crater. Image is subframe of MOC image S05–00863 and its location is near 2.0°S, 5.8°W. Sunlight illuminates scene from left, scale bar is 100 m, and north is toward top. B: Complete rover traverse path as of sol
Image
The northern two-thirds of the Payson outcrop shown as two overlapping panels. The facies transitions are marked by white lines. Solid lines are drawn where the transitions are clearly defined, and dashed lines are drawn where the transitions are inferred or partially obscured. These images were taken by the Pancam on sol 749 with the 430 nm filter. A) Northernmost section of Payson. A fracture, likely formed during formation of Erebus crater, is marked by a black line. The mottled facies, wavy-laminated facies, low-angle stratified facies, and trough cross-bedded facies are marked. The location of Figure 16 is indicated. The two thick white lines and the white arrow indicate the area where the dip of the outcrop bedding increases from ~ 10° to ~ 15°, measured relative to a horizontal surface. B) The middle section of the Payson outcrop, showing the trough cross-bedded and mottled facies. The location of Figure 8C is indicated.
Published: 01 May 2009
. These images were taken by the Pancam on sol 749 with the 430 nm filter. A) Northernmost section of Payson. A fracture, likely formed during formation of Erebus crater, is marked by a black line. The mottled facies, wavy-laminated facies, low-angle stratified facies, and trough cross-bedded facies are marked
Image
Figure 5. Penecontemporaneous cracks typically are narrow and cut across lamination for more than 5 cm. A: Lower Overgaard. Note that truncated laminae adjacent to cracks (small arrows) are deflected upward along crack margins, and cracks have lateral spacing of several centimeters. This superresolution image was acquired on sol 698 using Pancam's (panoramic camera) 482 nm filter, sequence id p2572. B: Skull Valley. Numerous penecontemporaneous cracks (small arrows) crosscut lamination, some oblique to bedding. Note characteristic upward-deflected laminae along crack margins; termination of prominent crack in center of rock at discrete bedding plane; and truncation of upward-deflected laminae along discrete bedding planes in center and upper parts of rock (large arrows with T). This superresolution image was acquired on sol 713 at 13:48:35 using Pancam's 482 nm filter, sequence id p2589. C: Prism cracks formed in terrestrial eolian interdune depression, Jurassic Navajo Sandstone, Tuba City, Arizona. In cross section, cracks are expressed as narrow lines, with spacing of several centimeters. Note upward deflection of laminae adjacent to cracks (arrows), similar to what is seen in Overgaard and Skull Valley at Erebus crater. Ruler is subdivided in centimeters. Inset shows polygonal pattern in plan view; coin is 18 mm in diameter.
Published: 01 December 2006
and Skull Valley at Erebus crater. Ruler is subdivided in centimeters. Inset shows polygonal pattern in plan view; coin is 18 mm in diameter.
Journal Article
Published: 12 May 2021
Seismological Research Letters (2021) 92 (5): 2866–2875.
... examine evidence of remotely triggered microseismicity around Mount (Mt.) Erebus with multiple seismic stations during a 16 yr time period. Mt. Erebus is a large and high (3794 m, main crater with ∼ 1    km diameter) active polygenetic stratovolcano that forms the bulk of Ross Island, Antarctica...
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Image
Seismic stations (pink triangles) around Mt. Erebus, Ross Island, and McMurdo Station (United States), and the locations of Global Seismographic Network broadband station SBA. Open circles, blue diamonds, and red circles mark detected local background seismic events, and those triggered by the 2010 Mw 8.8 Maule and 2012 Mw 8.6 Indian Ocean earthquakes, respectively. (Left inset) The surface‐wave ray path from the 2010 Mw 8.8 Maule earthquake seismic waves to Mt. Erebus. (Right inset) Seismic stations around the crater region. The color version of this figure is available only in the electronic edition.
Published: 12 May 2021
by the 2010 M w  8.8 Maule and 2012 M w  8.6 Indian Ocean earthquakes, respectively. (Left inset) The surface‐wave ray path from the 2010 M w  8.8 Maule earthquake seismic waves to Mt. Erebus. (Right inset) Seismic stations around the crater region. The color version of this figure
Image
(a) Epicentral density for events on Mount Erebus. Inset on the top right shows the location of Mount Erebus with respect to Antarctica. Events located within the 50 km red circle are shown. 5 by 5 km regions indicate epicentral density. The dark and red regions have large numbers of events (n >1500) and yellow regions have less than 500 events as indicated by the color bar. (b) Seismic stations (long‐term and temporary) on Mount Erebus during the study period. Black triangles represent the stations that were installed during a noneruptive west flank (∼3 km east of the active crater) event highlighted with the red star (estimated Mw 1.2; origin time 13 March 2008, 20:11:33 UTC). (c) Vertical and horizontal waveforms for the event shown in panel (b). Yellow and red vertical lines show the P‐ and S‐wave arrivals obtained with EQTransformer, but the inferred S‐wave arrivals are most likely nondirect S phase scattered energy characteristic of the highly scattered high‐frequency seismograms recorded on the volcano. Waveforms are sorted by distance from the epicenter for each station. The color version of this figure is available only in the electronic edition.
Published: 31 July 2024
Figure 7. (a) Epicentral density for events on Mount Erebus. Inset on the top right shows the location of Mount Erebus with respect to Antarctica. Events located within the 50 km red circle are shown. 5 by 5 km regions indicate epicentral density. The dark and red regions have large numbers
Journal Article
Journal: Geology
Published: 01 June 2004
Geology (2004) 32 (6): 509–512.
... a few volcanoes, including Kīlauea (Hawaii), Nyiragongo (Democratic Republic of Congo), Erebus (Antarctica), and Erta ‘Ale (Ethiopia). Only two of these have persisted for more than a few decades: Halema‘uma‘u, Hawaii (1823–1924; Francis et al., 1993 ), and Erta ‘Ale (probably active for at least...
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Image
(a) Photograph of Erebus volcano showing strong degassing from the anorthoclase phonolite lava lake within the summit crater; (b) plot of molar ratio of SO2/OCS retrieved from absorption spectra of the plume collected with a FTIR spectrometer sited at the crater rim and viewing the lava lake (the infrared source). Raw interferograms were collected with a time-step of ~1 s. Note the gas signature of an explosion 03:15 UT (much lower SO2/OCS) and the quasi-periodic variation in the gas ratio (period around 10–20 min), which is thought to reflect pulsatory magma supply to the lake (Oppenheimer et al. 2009).
Published: 01 January 2011
Figure 9. (a) Photograph of Erebus volcano showing strong degassing from the anorthoclase phonolite lava lake within the summit crater; (b) plot of molar ratio of SO 2 /OCS retrieved from absorption spectra of the plume collected with a FTIR spectrometer sited at the crater rim and viewing
Journal Article
Published: 15 October 2014
Seismological Research Letters (2014) 85 (6): 1163–1176.
... ). For example, Johnson et al. (2004) , Johnson et al. (2008) , and Gerst et al. (2013) used the monopole source to quantify explosive gas emissions at Mount Erebus (Antarctica). They inferred gas burst outfluxes from the 40 m diameter lake on the order of during eruptions. Considering...
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Journal Article
Published: 01 December 2008
The Canadian Mineralogist (2008) 46 (6): 1455–1464.
... aspects of their composition, such as unusually high Ti concentrations in anorthoclase from Mt. Erebus and Kilimanjaro (as determined by wet-chemical or X-ray analysis of whole crystals) appeared anomalous. Subsequent ion-microprobe analyses on specimens from these localities have vindicated...
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Journal Article
Journal: Elements
Published: 01 April 2010
Elements (2010) 6 (2): 87–92.
... in the plume. The first volcanological DOAS observations were made in 1992 from a scientific vessel cruising the Mediterranean – more specifically, downwind of the steaming craters of Etna, Stromboli and Vulcano ( Edner et al. 1994 ). A rather bulky ultraviolet spectrometer was employed...
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Journal Article
Journal: Geology
Published: 01 May 2013
Geology (2013) 41 (5): 543–546.
..., Cambridge Planetary Science Series , v. 9 , 255 p. Metz J.M. Grotzinger J.P. Rubin D.M. Lewis K.W. Squyres S.W. Bell J.F. , 2009 , Sulfate-rich eolian and wet interdune deposits, Erebus Crater, Meridiani Planum, Mars : Journal of Sedimentary Research , v. 79 , p. 247...
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Journal Article
Published: 01 June 2005
Bulletin of the Seismological Society of America (2005) 95 (3): 1186–1192.
... is an entropy-based technique. We observe the occurrence of a component having a period of 30 sec. Polarization analysis shows that the wave field comes mainly from the crater area, well evidenced by seismometers located around the summit ring, whereas the radiation becomes increasingly scattered at stations...
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Journal Article
Published: 01 June 1991
Journal of the Geological Society (1991) 148 (3): 563–569.
... as a system IEEE Transactions on Geoscience and Remote Sensing 1989 27 145 153 Tilling R. I. Volcanic hazards and their mitigation: progress and problems Reviews of Geophysics 1989 27 237 269 Wiesnet D. R. D'Aguanno J. Thermal imagery of Mount Erebus from the NOAA-6...
Journal Article
Published: 01 January 2019
European Journal of Mineralogy (2019) 31 (1): 99–110.
... Association but the name remains widely used, especially by petrologists studying Erebus. To avoid confusion, we will continue to use this term here, without quotes for simplicity. Anorthoclase crystals are abundant as lag gravel on the slopes of the crater, next to its summit, and are renowned...
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