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Rosenberg Fault

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Journal Article
Published: 01 January 2006
Environmental & Engineering Geoscience (2006) 12 (1): 79–80.
... author Dickinson once again proved his well-known humility and candidness by admitting that his own “initial supposition of timing of the sinistral slip Nacimiento fault zone had to stand revision, based on these findings” (p. 15). The engineering geologists on the author team are Lew Rosenberg...
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Fig. 1. Simplified geology of northern Idaho and northwest Montana, showing the location of Snowbird, Cretaceous-Tertiary plutons (after Hyndman et al., 1988; Criss and Fleck, 1990), the Coeur d’Alene mining district and the Superior subdistrict (after Leach et al., 1988), the Lewis and Clark line (a NW-SE–trending fault zone bounded by the two dashed lines; after Leach et al., 1988), and the other ankerite-bearing veins (Rosenberg and Larson, 2000). The calcite-dominant veins are known as Snowbird-type veins and the ankerite-dominant veins as Amador-type veins (Rosenberg and Larson, 2000).
Published: 01 December 2004
and Clark line (a NW-SE–trending fault zone bounded by the two dashed lines; after Leach et al., 1988 ), and the other ankerite-bearing veins ( Rosenberg and Larson, 2000 ). The calcite-dominant veins are known as Snowbird-type veins and the ankerite-dominant veins as Amador-type veins ( Rosenberg
Journal Article
Published: 22 July 2014
Bulletin of the Seismological Society of America (2014) 104 (4): 1696–1708.
...I. Kurzon; F. L. Vernon; A. Rosenberger; Y. Ben‐Zion Abstract We implement a new method for automatic detection of P and S phases using singular value decomposition ( SVD ) analysis. The method is based on the real‐time iteration algorithm of Rosenberger (2010) for the SVD of three‐component...
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Journal Article
Journal: GSA Bulletin
Published: 01 May 1958
GSA Bulletin (1958) 69 (5): 519–567.
... all formations are substantially redefined. The faunas of each formation are listed and reviewed. Structurally, the St. Albans area, which is basically a large northward-plunging syncline, is part of the Rosenberg thrust slice of Clark. East of the Champlain thrust six additional thrusts (four newly...
Journal Article
Journal: GSA Bulletin
Published: 01 October 1950
GSA Bulletin (1950) 61 (10): 1131–1168.
... into west-central Vermont. Lower and middle Cambrian ages have been assigned to all units. The strata below the Gilman quartzite are tentatively correlated with the Mendon series in the Rutland-Brandon region. All units above the Gilman have stratigraphic equivalents in the adjoining Rosenberg succession...
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Map of the Wairakei geothermal field showing selected wells (circles) and deviation path of WK244, power-plant locations (rectangles), dominant faults in the Te Mihi area (gray lines), the Waikato River, and the resistivity boundary of the geothermal system (cross-hatched) (modified after Rosenberg et al. (2009) and Bixley et al. (2009)).
Published: 01 June 2013
Figure 1 Map of the Wairakei geothermal field showing selected wells (circles) and deviation path of WK244, power-plant locations (rectangles), dominant faults in the Te Mihi area (gray lines), the Waikato River, and the resistivity boundary of the geothermal system (cross-hatched) (modified
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Earthquakes near the Rinconada fault and the city of Paso Robles. (a) Map view. The earthquakes within the box were relocated in this study; other events were relocated by Hardebeck (2010). The timescale starts at the time of the San Simeon earthquake; events prior to that time are white. The dense seismicity in the southwest corner of the plot is part of the main aftershock zone of the 2003 M 6.5 San Simeon earthquake. The Rinconada fault surface trace is from Rosenberg and Clark (2009). Inset: the square shows the study location in the state of California (CA). (b) Map view. Closeup of the seismicity along the Rinconada fault. (c) Along‐strike depth section. Only events with fault normal distance between −1.5 and 1.5 in the coordinate system of Figure 1b are shown. The color version of this figure is available only in the electronic edition.
Published: 01 February 2012
are white. The dense seismicity in the southwest corner of the plot is part of the main aftershock zone of the 2003 M  6.5 San Simeon earthquake. The Rinconada fault surface trace is from Rosenberg and Clark (2009) . Inset: the square shows the study location in the state of California (CA). (b) Map view
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Depth structure map of top Edwards Formation with bubble chart of relative cumulative gas production for a selection of wells with 28 yr of production. The AA′ seismic line crosses the 1 Sobotik (S), 2 Sobotik (S2), and 6 Rosenberg (R) well (projected), with cumulative gas production for each well in BCF after 28 yr of production. The BB′ seismic line shows syndepositional growth fault in the Edwards Formation. Yellow dashed line shows top Edwards Formation, and gray dashed line shows top Pearsall Formation. Interpreted fault framework is shown in orange, green, and pink. Seismic lines are in time. Coordinate reference system: NAD27 Texas State Planes, south central zone, US Foot. Data courtesy of Seismic Exchange, Inc. LW = 1 Louis Wick.
Published: 01 January 2017
Figure 3. Depth structure map of top Edwards Formation with bubble chart of relative cumulative gas production for a selection of wells with 28 yr of production. The AA′ seismic line crosses the 1 Sobotik (S), 2 Sobotik (S2), and 6 Rosenberg (R) well (projected), with cumulative gas production
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(A) Topographic map of European Alps (after Schmid et al., 2004) showing location of Tauern window (TW), which is bounded to west and east by Brenner and Katschberg normal faults (BF, KF), respectively, and to north and south by Salzach-Ennstal-Mariazell-Puchberg and Periadriatic strike-slip faults, respectively. Simplon fault (SF) is another normal fault that caused orogen-parallel extension. (B) Map of central Brenner fault with location of surface samples (black circles) and sampled drill core (white square). Position of Brenner normal fault is after Rosenberg and Garcia (2011). Straight line indicates swath profile shown in C. Published zircon fission-track and apatite fission-track ages for samples W, X, and Y from Fügenschuh et al. (1997) (white diamonds) are 10.4 ± 1.4 and 9.7 ± 1.8 Ma (sample W), 13.0 ± 2.0 and 9.9 ± 3.6 Ma (sample Y), and 7.2 ± 1.4 and 4.3 ± 1.1 Ma (sample X). Resolution of TanDEM-X data (German Aerospace Centre, https://tandemx-science.dlr.de) used for digital elevation model is 8 m. (C) Swath profile across Brenner fault with projected positions of surface and drill-core samples (except samples 17A9 and 17A13). Swath width is 300 m and shows the mean elevation (black line) and min-max values (gray). Thin lines below Brenner normal fault indicate mylonitic rocks.
Published: 17 January 2020
strike-slip faults, respectively. Simplon fault (SF) is another normal fault that caused orogen-parallel extension. (B) Map of central Brenner fault with location of surface samples (black circles) and sampled drill core (white square). Position of Brenner normal fault is after Rosenberg and Garcia
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Cross sections showing rift-parallel to rift-perpendicular orientations, and displaying variations in block rotation and fault dips, as would be expected for each orientation from this rift setting (e.g., Villamor and Berryman, 2001; Lamarche et al., 2006). Dikes using faults as pathways are inferred. (A) Rift-parallel cross section displaying horsts and grabens inferred to be controlled by northeast-trending and oblique (northwest-trending) structures. RSL—relative sea level; VE—vertical exaggeration. (B) Rift-oblique cross section from Orakei Korako across the inactive Kaingaroa Fault zone. (C) Rift-perpendicular cross section from the southern Paeroa block to the Kaingaroa Plateau displaying the Paeroa block horst and actively subsiding Taupo-Reporoa Basin (TRB) and currently inactive Kaingaroa Fault zone. (D) Map of the TRB showing the approximate locations of the cross sections and geothermal drill holes. The cross sections were constructed and modified from stratigraphic and geophysical (white dashed lines) studies undertaken by Modriniak and Studt (1959), Grindley (1970), Wood (1983), Henrys and Hochstein (1990), Nairn et al. (1994), Stagpoole (1994), Wood et al. (2001), Rae (2007), Rosenberg et al. (2009, 2010), Wilson et al. (2010), Boseley et al. (2012), Mighty River Power (2013, written commun., drill hole data), and our new mapping in the Paeroa block. See Figure 3 for color legend.
Published: 01 February 2014
Figure 4 Cross sections showing rift-parallel to rift-perpendicular orientations, and displaying variations in block rotation and fault dips, as would be expected for each orientation from this rift setting (e.g., Villamor and Berryman, 2001 ; Lamarche et al., 2006 ). Dikes using faults
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Cross sections showing rift-parallel to rift-perpendicular orientations, and displaying variations in block rotation and fault dips, as would be expected for each orientation from this rift setting (e.g., Villamor and Berryman, 2001; Lamarche et al., 2006). Dikes using faults as pathways are inferred. (A) Rift-parallel cross section displaying horsts and grabens inferred to be controlled by northeast-trending and oblique (northwest-trending) structures. RSL—relative sea level; VE—vertical exaggeration. (B) Rift-oblique cross section from Orakei Korako across the inactive Kaingaroa Fault zone. (C) Rift-perpendicular cross section from the southern Paeroa block to the Kaingaroa Plateau displaying the Paeroa block horst and actively subsiding Taupo-Reporoa Basin (TRB) and currently inactive Kaingaroa Fault zone. (D) Map of the TRB showing the approximate locations of the cross sections and geothermal drill holes. The cross sections were constructed and modified from stratigraphic and geophysical (white dashed lines) studies undertaken by Modriniak and Studt (1959), Grindley (1970), Wood (1983), Henrys and Hochstein (1990), Nairn et al. (1994), Stagpoole (1994), Wood et al. (2001), Rae (2007), Rosenberg et al. (2009, 2010), Wilson et al. (2010), Boseley et al. (2012), Mighty River Power (2013, written commun., drill hole data), and our new mapping in the Paeroa block. See Figure 3 for color legend.
Published: 01 February 2014
Figure 4 Cross sections showing rift-parallel to rift-perpendicular orientations, and displaying variations in block rotation and fault dips, as would be expected for each orientation from this rift setting (e.g., Villamor and Berryman, 2001 ; Lamarche et al., 2006 ). Dikes using faults
Journal Article
Published: 13 April 2007
Canadian Journal of Earth Sciences (2007) 44 (2): 155–169.
... chevauchement de Rosenberg. Au Vermont, le chevauchement de Highgate Falls recoupe l’intérieur de l’anticlinal; ce chevauchement est irrégulier et présente un déplacement qui décroît en direction nord vers la frontière internationale. [Traduit par la Rédaction] The Champlain Thrust and related faults have...
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Journal Article
Journal: Geology
Published: 17 January 2020
Geology (2020) 48 (4): 333–337.
... strike-slip faults, respectively. Simplon fault (SF) is another normal fault that caused orogen-parallel extension. (B) Map of central Brenner fault with location of surface samples (black circles) and sampled drill core (white square). Position of Brenner normal fault is after Rosenberg and Garcia...
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Journal Article
Journal: AAPG Bulletin
Published: 01 January 2017
AAPG Bulletin (2017) 101 (1): 73–94.
...Figure 3. Depth structure map of top Edwards Formation with bubble chart of relative cumulative gas production for a selection of wells with 28 yr of production. The AA′ seismic line crosses the 1 Sobotik (S), 2 Sobotik (S2), and 6 Rosenberg (R) well (projected), with cumulative gas production...
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Journal Article
Journal: Geology
Published: 01 December 2013
Geology (2013) 41 (12): 1219–1222.
...Claudio L. Rosenberg; Eduard Kissling Abstract Accommodation of collisional shortening in the Central Alps varies dramatically along strike, and this change is inferred to result from along-strike changes of rheology. In the western Central Alps, 90% of shortening is accommodated in the thickened...
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Journal Article
Journal: Elements
Published: 01 December 2024
Elements (2024) 20 (6): 381–387.
... that emplaced high-grade, often partially molten GHS rocks southward over lower-grade LHS rocks. The STDS is a ductile to brittle fault system up to ~2 km thick, which juxtaposed low-grade THS rocks northward onto higher-grade GHS rocks ( F ig . 1 ). Thrust faults that internally deform the GHS package have...
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Journal Article
Published: 01 May 2016
The Canadian Mineralogist (2016) 54 (3): 661–679.
...Erin E. Adlakha; Keiko Hattori Abstract The P2 fault, a 13 km-long steeply dipping reverse fault, is the main structural control of the McArthur River uranium deposit in the eastern Athabasca Basin, northern Saskatchewan, Canada. Three types of tourmaline were observed in the metasedimentary...
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Journal Article
Journal: Geosphere
Published: 01 February 2014
Geosphere (2014) 10 (1): 185–206.
...Figure 4 Cross sections showing rift-parallel to rift-perpendicular orientations, and displaying variations in block rotation and fault dips, as would be expected for each orientation from this rift setting (e.g., Villamor and Berryman, 2001 ; Lamarche et al., 2006 ). Dikes using faults...
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First thumbnail for: Evolution of the intra-arc Taupo-Reporoa Basin wit...
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