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Journal Article
Published: 01 January 1963
Journal of Paleontology (1963) 37 (1): 294–298.
Journal Article
Published: 01 January 1978
Bulletin de la Société Géologique de France (1978) S7-XX (4): 533–545.
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Folded and transposed bedding in calc-silicate hornfels. Unit Jcsh in Monarch Lakes basin (36.4510°N, 118.5650°W). Jackknife is 9 cm in length.
Published: 10 July 2024
Figure 14. Folded and transposed bedding in calc-silicate hornfels. Unit Jcsh in Monarch Lakes basin (36.4510°N, 118.5650°W). Jackknife is 9 cm in length.
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Examples of transposed foliation and lineation resulting from change of tectonic stress system during recrystallization of gneissic rocks and granites. A, Cartoon of “S/C” structure in a foliated rock after Evans et al. (1997). B, Discrete deformational features associated with vein-like metamorphism of Hidaka, Japan, garnet granulite, from Hawkesworth et al. (2010) with permission. Inset (b) is a typical zoned Hidaka zircon. C, “S/C” structure associated with incipient charnockite (dark alteration) in Peninsular Gneiss, Kabbaldurga, southern Karnataka (Newton et al. 2019). Photo by the author, November 1979. D, Transposed deformation elements in Closepet Granite, near Ramnagaram, southern Karnataka. Lineation in steeply dipping shear planes (left to right) is aligned with the regional north–south Late Archean transcurrent faulting. Incipient charnockite (brownish discoloration) is visible. The overprinted deformation systems are conjectured to be related to a “two-phase” (McLelland et al. 2000) mode of crustal growth. Photo by the author, January 1993.
Published: 01 September 2020
Figure 3.  Examples of transposed foliation and lineation resulting from change of tectonic stress system during recrystallization of gneissic rocks and granites. A , Cartoon of “S/C” structure in a foliated rock after Evans et al. ( 1997 ). B , Discrete deformational features associated
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Eight example feature maps generated by the transposed convolution upsample filters.
Published: 22 April 2019
Figure 3. Eight example feature maps generated by the transposed convolution upsample filters.
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(g) SE Betics, near La Parra. High strain D3 folding and transposed layering of pelitic/psammitic layering (S0/S2). Note steeply dipping S3–L3 fabric. (h) Same location as (g). Asymmetrical quartz lenses consistent with top-to-the-north shear (D3). (i) SE Betics, east of Turón. Turón extensional detachment (D4) is a folded and striated detachment surface. Carbonates are located in the footwall and phyllites are located in the hanging wall. (j) Sierra Alhamilla. Imbrications in dolostones associated with southward thrusting (D1). (k) Sierra de Chaparral. SW-directed normal fault (post-D4) associated with exhumation of the Nevado–Filábride Complex.
Published: 08 February 2018
Fig. 3. Continued . ( g ) SE Betics, near La Parra. High strain D 3 folding and transposed layering of pelitic/psammitic layering (S 0 /S 2 ). Note steeply dipping S 3 –L 3 fabric. ( h ) Same location as (g). Asymmetrical quartz lenses consistent with top-to-the-north shear (D 3 ). ( i ) SE
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Core box photographs shows that two pieces of core were transposed and mislabeled. This error originated soon after the core was acquired, either at the wellsite or when the full-diameter core was cut into 3 ft. lengths, boxed, and labeled. This error compromises the entire core dataset—full-diameter CT scans, core gamma-ray, core-plug samples, core photographs, and previous geologic core descriptions.
Published: 01 May 2017
Figure 23 Core box photographs shows that two pieces of core were transposed and mislabeled. This error originated soon after the core was acquired, either at the wellsite or when the full-diameter core was cut into 3 ft. lengths, boxed, and labeled. This error compromises the entire core dataset
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(A) Lithostratigraphy transposed into ST; metapelitic schist (gray) interlayered with marbles (whitish). Picture taken some 500 m south of Joss Mountain top, looking WNW-ward. (B) Impure marble layer recording an F2 intrafolial fold within ST. Picture taken on the eastern slope, just below Joss Mountain top. Hammer for scale. (C) Two E-W–trending pegmatite dikes (sample 4) crosscutting orthogneiss, marble, and metapelitic schist. Picture taken from the east side of Joss Mountain, looking to the WNW. The width of the photograph is about 400 meters. (D) Contact of the dated pegmatite (sample 4), crosscutting the foliation in the host metapelitic schist. Viewing direction is down to the ENE. Compass for scale.
Published: 01 December 2014
Figure 4. (A) Lithostratigraphy transposed into S T ; metapelitic schist (gray) interlayered with marbles (whitish). Picture taken some 500 m south of Joss Mountain top, looking WNW-ward. (B) Impure marble layer recording an F 2 intrafolial fold within S T . Picture taken on the eastern slope
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(A) Amphibolite dykes transposed into parallelism with the fabric in the Abbabis Complex. (B) Amphibolite dyke (left of photograph) cross-cutting the fabric in Abbabis Complex gneisses. (C) Photomicrograph of amphibolite LKR021, showing plagioclase (pl), opaques (op – ilmenite) and aligned hornblende (hbl), which forms the fabric. Crossed polars. (D) Photomicrograph of sample ACAM1, showing altered plagioclase (pl), hornblende (hbl) and chlorite (chl) (after biotite). Crossed polars.
Published: 01 June 2014
Figure 3 ( A ) Amphibolite dykes transposed into parallelism with the fabric in the Abbabis Complex. ( B ) Amphibolite dyke (left of photograph) cross-cutting the fabric in Abbabis Complex gneisses. ( C ) Photomicrograph of amphibolite LKR021, showing plagioclase (pl), opaques (op – ilmenite
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Truncation of metatexite by transposed band of diatexite oriented roughly E-W and steep, parallel to the axial plane. Leucosomes in diatexite are linked continuously with layer-parallel leucosomes in metatexite. The transposed zones have a well-defined, boundary-parallel foliation (black dashed line). (A) Note: schollen in diatexite form an irregular pattern. (B) Note: individual schollen cannot be defined and are separated either by thin leucosomes or by a diffuse band.
Published: 01 July 2013
Figure 7. Truncation of metatexite by transposed band of diatexite oriented roughly E-W and steep, parallel to the axial plane. Leucosomes in diatexite are linked continuously with layer-parallel leucosomes in metatexite. The transposed zones have a well-defined, boundary-parallel foliation
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Fig. 7
Published: 01 June 2009
Fig. 7 ( a ) Form surface map of the multiply deformed and transposed tectonic horizon corresponding to the contact between the pre-Alpine continental margin of the Adria plate (Sesia-Lanzo Zone) and the Mesozoic calcschists at the border of the Tethyan ocean (Piemonte Zone), E slope of Salvini
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Interpreted seismic data of Line 1C is transposed on the mine map. The blue cross-hatched segment of the seismic line indicates a potential washout or old mine works. The red cross-hatched segment is assoiated with the old mine works.
Published: 01 January 2008
Figure 8. Interpreted seismic data of Line 1C is transposed on the mine map. The blue cross-hatched segment of the seismic line indicates a potential washout or old mine works. The red cross-hatched segment is assoiated with the old mine works.
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Heat of transposed-temperature drop of samples 1 to 11 vs. mol% of Fe2O3. The square symbol represents measured values and circle symbol represents corrected values.
Published: 01 July 2007
F igure 5. Heat of transposed-temperature drop of samples 1 to 11 vs. mol% of Fe 2 O 3 . The square symbol represents measured values and circle symbol represents corrected values.
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Geraldton area. (a) Transposed quartz–feldspar porphyry dyke in the hinge of the Hard Rock anticline. (b) F1 overprinted by F2 on north limb of Hard Rock anticline. Coin for scale (21 mm diameter). (c) Z F3 fold in polymictic conglomerate. S2 in volcanic clast (arrow) and conglomerate matrix are folded by the fold. Coin for scale (21 mm diameter). (d) Rotated granitic clast in polymictic conglomerate. Volcanic clasts are strongly deformed parallel to S2, which wraps around the stronger granitic clast. The long axis of the clast is parallel to the axial plane of a F3 fold. Coin for scale (18 mm diameter). (e) Cascade of Z F3 folds bounded by shears parallel to S2. Camera lens has a diameter of 3 cm. (f) Dextral shear band cutting across reactivated S2 cleavage in Tombill–Bankfield deformation zone. Rectangular card is 9 cm in length.
Published: 20 February 2004
Fig. 9. Geraldton area. ( a ) Transposed quartz–feldspar porphyry dyke in the hinge of the Hard Rock anticline. ( b ) F1 overprinted by F2 on north limb of Hard Rock anticline. Coin for scale (21 mm diameter). ( c ) Z F3 fold in polymictic conglomerate. S2 in volcanic clast (arrow
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Williams A Zone area. (A) F2-folded and partly transposed sedimentary rocks, about 65 m into the hanging wall (i.e., to the north) from the uppermost ore zone contact, or 45 m north of the structurally upper limit of the Lake Superior shear zone (LSSZ) and about 180 m east of Moose Lake. Main lithologic contacts (S1) are shown as broken lines. qv, quartz veins. Scale card (left of centre) is about 9 cm long. (B) Highly strained, well-transposed layering in sedimentary rocks, situated about 5 min to the hanging wall from the uppermost ore zone contact, or 7 m south of the structurally upper limit of the LSSZ and about 150 m east of Moose Lake. Scale card is about 9 cm long.
Published: 31 March 2003
Fig. 10. Williams A Zone area. (A) F 2 -folded and partly transposed sedimentary rocks, about 65 m into the hanging wall (i.e., to the north) from the uppermost ore zone contact, or 45 m north of the structurally upper limit of the Lake Superior shear zone (LSSZ) and about 180 m east of Moose
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Photograph of marble ridge, characterized by near-horizontal transposed bedding, Lake Harbour Group (level 3). Location of field photograph given in Fig. 12. Height of cliff is 30 m.
Published: 29 May 2002
Fig. 13. Photograph of marble ridge, characterized by near-horizontal transposed bedding, Lake Harbour Group (level 3). Location of field photograph given in Fig.  12 . Height of cliff is 30 m.
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Map of bedding (S0) and S0 transposed parallel to S2 (S2//S0) in the metasedimentary rocks of the Meguma Group in the vicinity of the boundary of the SMB. The Portuguese Cove location is shown as an inset (see Fig. 2 for location). Strike lines from air photo interpretation shown for the crest of the Bedford anticlinorium. Cross-sections A and B show apparent dip of bedding (younging direction indicated) and S2 (transposed to and transecting S0, with younging direction indicated). Lithological ornament same as Fig. 2. KLA, Kearney Lake anticline.
Published: 13 September 2001
Fig. 3. Map of bedding (S0) and S0 transposed parallel to S2 (S2//S0) in the metasedimentary rocks of the Meguma Group in the vicinity of the boundary of the SMB. The Portuguese Cove location is shown as an inset (see Fig.  2 for location). Strike lines from air photo interpretation shown
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Transposed feldspar–quartz–chlorite phyllite (top right) and more siliceous chlorite–muscovite–quartz schist (left and bottom), folded by F3 in the hinge of the F3 Grizzly synform. Viewed looking northwest. Tip of pencil is 2.5 cm long.
Published: 04 June 2001
Fig. 5. Transposed feldspar–quartz–chlorite phyllite (top right) and more siliceous chlorite–muscovite–quartz schist (left and bottom), folded by F 3 in the hinge of the F 3 Grizzly synform. Viewed looking northwest. Tip of pencil is 2.5 cm long.
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—Clastic dikes and transposed sandstone in Tongue River Member, southwestern Powder River basin.
Published: 01 November 1986
Figure 16 —Clastic dikes and transposed sandstone in Tongue River Member, southwestern Powder River basin.
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Field photographs and photomicrographs depicting the relationship between ∼north–south and east–west shear zones. (a, b) asymmetric structures suggest dextral shear in the ∼north–south shear zone. (c) Photograph showing two-stage foliations; the early foliation with dip 56° toward 340°; S2 was related to the east–west dextral shear. (d–g) Folded S1 foliation in zones, showing transposed S1. (h, i) Photomicrographs showing S1 is transposed by the dominant S2 fabric.
Published: 27 November 2023
340°; S2 was related to the east–west dextral shear. ( d–g ) Folded S1 foliation in zones, showing transposed S1. ( h , i ) Photomicrographs showing S1 is transposed by the dominant S2 fabric.