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Teton Range

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Journal Article
Journal: Geology
Published: 01 December 2007
Geology (2007) 35 (12): 1107–1110.
...Andrea Hampel; Ralf Hetzel; Alexander L. Densmore Abstract Along the eastern front of the Teton Range, Wyoming, prominent fault scarps offset Pinedale deposits by up to 30 m and document that multiple earthquakes ruptured the range-bounding Teton normal fault after the last glacial period...
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Journal Article
Journal: Lithosphere
Publisher: GSW
Published: 27 October 2021
Lithosphere (2021) 2021 (1): 1052819.
... or more to completely remove tectonically generated relief. Here, we propose that mountain ranges can be completely and rapidly (<2 Myr) removed by a migrating hotspot. In western North America, multiple mountain ranges, including the Teton Range, terminate at the boundary with the relatively low...
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Journal Article
Journal: Geosphere
Published: 07 May 2018
Geosphere (2018) 14 (3): 1031–1050.
... ability to understand how closely Archean tectonic processes may have resembled better-understood modern processes. Here we describe Neoarchean gneisses in the Teton Range of Wyoming, USA, that record 2.70 Ga high-pressure granulite facies metamorphism, followed by juxtaposition of gneisses with different...
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Journal Article
Journal: Geosphere
Published: 11 April 2018
Geosphere (2018) 14 (3): 1008–1030.
...B. Ronald Frost; Susan M. Swapp; Carol D. Frost; Davin A. Bagdonas; Kevin R. Chamberlain Abstract Although Archean gneisses of the Teton Range crop out over an area of only 50 × 15 km, they provide an important record of the Archean history of the Wyoming Province. The northern and southern parts...
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Journal Article
Journal: Geosphere
Published: 01 April 2017
Geosphere (2017) 13 (2): 287–300.
...Glenn D. Thackray; Amie E. Staley Abstract Fault scarps of strongly varying height cut glacial and alluvial sequences mantling the faulted front of the Teton Range (western USA). Scarp heights vary from 11.2 to 37.6 m and are systematically higher on geomorphically older landforms. Fault scarps...
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Journal Article
Journal: Geosphere
Published: 01 February 2017
Geosphere (2017) 13 (1): 36–48.
... and catchment averaged erosion processes in the alpine setting of Garnet Canyon in the Teton Range, Wyoming, USA. We measured cosmogenic 10 Be concentrations from bedrock and talus deposits to compare them to volumetric estimates of erosion rates, lichen growth, and surface weathering on talus surfaces...
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Journal Article
Journal: GSA Bulletin
Published: 01 February 1973
GSA Bulletin (1973) 84 (2): 561–582.
...JOHN C. REED, JR.; R. E. ZARTMAN Abstract Note: This paper is dedicated to Aaron and Elizabeth Waters on the occasion of Dr. Waters' retirement. The oldest rocks in the Teton Range are complexly deformed interlayered biotite gneiss, plagioclase gneiss, amphibole gneiss, and amphibolite. Also...
Series: Geological Society, London, Special Publications
Published: 02 January 2020
DOI: 10.1144/SP487.12
EISBN: 9781786204721
... Abstract The Teton anticline and adjacent structures, in the Sawtooth Range, Montana, USA, are fractured in such a way that may be taken as a model for fractures propagating during buckle folding. However, advances in understanding both the process of folding in forelands and the evolution...
Journal Article
Journal: AAPG Bulletin
Published: 01 August 2009
AAPG Bulletin (2009) 93 (8): 995–1014.
...Kajari Ghosh; Shankar Mitra Abstract The Teton anticline is a multiple hinge anticline containing fractured Mississippian–Devonian carbonates in the frontal part of the Sawtooth Range in Montana. The structure serves as a good surface analog for fracture patterns and connectivities within...
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Image
Surface trace of the Teton normal fault (TF) at the base of the Teton Range and other Quaternary faults in Jackson Hole from Zellman et al. (2019) shown as bold lines with ball and bar on the downthrown side. Paleoseismic sites shown as squares and labeled with site name; year of trench excavation is included in parentheses. Possible paleoseismic features from Pierce et al. (1998) in northern Jackson Lake are labeled “L” (liquefaction) and “D” (backflooded delta). Extents of Grand Teton National Park (GRTE) and John D. Rockefeller Memorial Parkway (JDRMP) are shown. BL, Bradley Lake; CO, Colorado; ID, Idaho; JL, Jenny Lake; LC, Leigh Canyon; LL, Leigh Lake; MB, Moran Bay; MT, Montana; NV, Nevada; PC, Paintbrush Canyon; PL, Phelps Lake; PVF, Phillips Valley fault; TL, Taggart Lake; UT, Utah; WY, Wyoming. See Data and Resources for base map data sources. The inset figure shows the location within northwest Wyoming. The color version of this figure is available only in the electronic edition.
Published: 19 November 2019
Figure 1. Surface trace of the Teton normal fault (TF) at the base of the Teton Range and other Quaternary faults in Jackson Hole from Zellman et al. (2019) shown as bold lines with ball and bar on the downthrown side. Paleoseismic sites shown as squares and labeled with site name; year
Image
Figure 1. Location map of Teton Range and surface trace of Teton fault (black solid line with bars on downthrown side). Note drainage divide (solid gray line) located west of range crest (dashed line). Light-gray line marks southern rim of Yellowstone ice cap (Love et al., 2003). Black and white triangles mark peaks of Grand Teton (4197 m) and Mt. Moran (3842 m), respectively.
Published: 01 December 2007
Figure 1. Location map of Teton Range and surface trace of Teton fault (black solid line with bars on downthrown side). Note drainage divide (solid gray line) located west of range crest (dashed line). Light-gray line marks southern rim of Yellowstone ice cap ( Love et al., 2003 ). Black and white
Image
εNd vs. age diagram for rocks from the Teton Range, the Wind River Range, and western Owl Creek Mountains. LG, layered gneiss.
Published: 06 January 2007
Fig. 11. ε Nd vs. age diagram for rocks from the Teton Range, the Wind River Range, and western Owl Creek Mountains. LG, layered gneiss.
Image
Location map of the Teton Range (Wyoming, USA) with the simplified surface trace of the Teton fault (black solid line with bars on downthrown side). Black and white triangles mark the peaks of Grand Teton (4197 m) and Mount Moran (3842 m), respectively. Transparent white area with gray outline marks the southern extent of the Last Glacial Maximum (LGM) Yellowstone ice cap, which reached a thickness of ~1 km farther north on the Yellowstone Plateau, and of the LGM Teton Range valley glaciers, which reached ice thicknesses of several hundred meters (Love, 2003; Licciardi and Pierce, 2018). Note that Jenny Lake is located at the southern margin of the former Yellowstone ice cap (Licciardi and Pierce, 2018). ID—Idaho; MT—Montana; WY—Wyoming.
Published: 21 July 2021
Figure 1. Location map of the Teton Range (Wyoming, USA) with the simplified surface trace of the Teton fault (black solid line with bars on downthrown side). Black and white triangles mark the peaks of Grand Teton (4197 m) and Mount Moran (3842 m), respectively. Transparent white area with gray
Image
Location of the scanline within the Teton Range, NW Wyoming. (a) Geology, highlighting the Late Archean Mount Owen Quartz Monzonite (Wg) and the location of the scanline (inset b). Modified after Love et al. (1992) and Zartman &amp; Reed (1998). TF, Teton Fault; BMF, Buck Mountain reverse fault; FPRF, Forellen Peak reverse fault. The elevation of the outcrop is 2589 m, about 80 m vertically below the basal Cambrian unconformity. (b) Upper Teton Canyon, GoogleEarth image, showing the large exposure (around the red diamond labelled ‘Scanline’) north of the Teton Canyon trail (dash-dot line) (location: a and inset b). Our example of clustering is in a readily accessible exposure. (c) View of the outcrop looking SE; the prominent peak in the centre of the image is Buck Mountain. P, polished surface of the granodiorite; W, outcrop with the polished surface weathered away. The field of view of the pavement is c. 40 m.
Published: 01 July 2019
Fig. 1. Location of the scanline within the Teton Range, NW Wyoming. ( a ) Geology, highlighting the Late Archean Mount Owen Quartz Monzonite (Wg) and the location of the scanline (inset b). Modified after Love et al. (1992) and Zartman & Reed (1998) . TF, Teton Fault; BMF, Buck Mountain
Image
Structural data for the northern Teton Range. (A) Poles to the F2 foliations in the Moose Basin area. (B) Lineations (mostly L2 lineations) in the Moose Basin area. (C) Poles to foliations across the whole northern Teton Range. Cylindrical fit to the foliations defines the F3 fold, which has a trend of 20° and a plunge of 24°. (D) Lineations (mostly L2) from across the northern Teton Range. The lineations have a strong maximum near the axial trend of the F3 fold axes. Diagrams were calculated from program Stereonet (Cardozo and Allmendinger, 2013). Contour intervals are 2σ above standard deviation (Kamb, 1959).
Published: 07 May 2018
Figure 5. Structural data for the northern Teton Range. (A) Poles to the F 2 foliations in the Moose Basin area. (B) Lineations (mostly L 2 lineations) in the Moose Basin area. (C) Poles to foliations across the whole northern Teton Range. Cylindrical fit to the foliations defines the F 3 fold
Image
Geologic map across the northern Teton Range showing the relations between the high-pressure granulites (Moose Basin gneiss), leucogranites (undifferentiated Webb Canyon and Bitch Creek gneisses of Frost et al., 2016) and Layered Gneiss. Modified after Love et al. (1992). Numbers identify the samples cited in this paper. Two samples of Moose Basin gneiss analyzed for Sm-Nd isotopic compositions are located south of the map area (08T10 and 08T25).
Published: 07 May 2018
Figure 2. Geologic map across the northern Teton Range showing the relations between the high-pressure granulites (Moose Basin gneiss), leucogranites (undifferentiated Webb Canyon and Bitch Creek gneisses of Frost et al., 2016 ) and Layered Gneiss. Modified after Love et al. (1992) . Numbers
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P-T-t path inferred for the northern Teton Range.
Published: 07 May 2018
Figure 12. P-T-t path inferred for the northern Teton Range.
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Summary of geochronology of the northern Teton Range. The age of high-pressure metamorphism (M1) is interpreted from U-Pb zircon ages in the leucosome of partially melted mafic granulite (sample 06T16). The timing of tectonic assembly and M2 amphibolite grade metamorphism is provided by the age of leucosome in partially melted Layered Gneiss (06T9). Leucogranitic gneisses were intruded coincident with tectonic assembly; samples of two distinct leucogranitic suites, the Bitch Creek gneiss and the Webb Canyon Gneiss, are described in detail by Frost et al. (2016) and are arranged in order of their location from east to west.
Published: 07 May 2018
Figure 13. Summary of geochronology of the northern Teton Range. The age of high-pressure metamorphism (M1) is interpreted from U-Pb zircon ages in the leucosome of partially melted mafic granulite (sample 06T16). The timing of tectonic assembly and M2 amphibolite grade metamorphism is provided
Image
Selected trace-element abundances for Archean rocks of the Teton Range. (A) Rb content as a function of SiO2. (B) Sr content as a function of SiO2. MBG—Moose Basin gneiss; NLG—Northern Layered Gneiss; TTG—tonalite-trondhjemite-granodiorite.Symbols are the same as in Figure 7.
Published: 11 April 2018
Figure 9. Selected trace-element abundances for Archean rocks of the Teton Range. (A) Rb content as a function of SiO 2 . (B) Sr content as a function of SiO 2 . MBG—Moose Basin gneiss; NLG—Northern Layered Gneiss; TTG—tonalite-trondhjemite-granodiorite.Symbols are the same as in Figure 7 .
Image
Pressure-temperature-time path for gneisses from the Teton Range. M1 and M2 are recorded only in the northern Tetons. The M1 high-pressure granulite event was dated at 2695 Ma and determined by garnet-rutile-aluminosilicate-ilmenite-quartz (GRAIL) barometry and Zr-in-rutile thermometry to have occurred at &gt;12 kbar and a minimum of 900 °C. The M2 event is marked by partial melting of Layered Gneiss in the presence of staurolite at 2685 Ma. M3 is recorded in garnet amphibolites from the northern portion of the range. It is interpreted as an amphibolite-facies metamorphic event accompanying accretion of the northern and southern domains of the Teton Range along the Moran deformation zone at ca. 2.62 Ga. Ky—kyanite, Sil—sillimanite, And—andesite.
Published: 11 April 2018
Figure 18. Pressure-temperature-time path for gneisses from the Teton Range. M 1 and M 2 are recorded only in the northern Tetons. The M 1 high-pressure granulite event was dated at 2695 Ma and determined by garnet-rutile-aluminosilicate-ilmenite-quartz (GRAIL) barometry and Zr-in-rutile