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Teesdale Fault

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The Armathwaite–Cleveland Dyke and <span class="search-highlight">Teesdale</span> <span class="search-highlight">Fault</span> in upper <span class="search-highlight">Teesdale</span> (bold l...
Published: 28 September 2016
Fig. 4. The Armathwaite–Cleveland Dyke and Teesdale Fault in upper Teesdale (bold lines), and positions of the magnetic measurements (small open circles). The black rectangle shows the area of Figure 2 , and numbers, after Mwandoe (2005) , refer to individual magnetic profiles illustrated
Journal Article
Published: 28 September 2016
Proceedings of the Yorkshire Geological Society (2016) 61 (2): 148–154.
...Fig. 4. The Armathwaite–Cleveland Dyke and Teesdale Fault in upper Teesdale (bold lines), and positions of the magnetic measurements (small open circles). The black rectangle shows the area of Figure 2 , and numbers, after Mwandoe (2005) , refer to individual magnetic profiles illustrated...
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Image
Shaded relief map of northern England showing the elevated Alston Block, Wh...
Published: 28 September 2016
Fig. 1. Shaded relief map of northern England showing the elevated Alston Block, Whin Sill outcropping around its margins (dark grey), mapped outcrops of the Armathwaite–Cleveland Dyke (thick black line), and Teesdale fault (white line). The black rectangle is the location of Figure 4 showing
Image
Map of Harwood Beck (thick grey line) in upper <span class="search-highlight">Teesdale</span>. Local roads are sh...
Published: 28 September 2016
Fig. 2. Map of Harwood Beck (thick grey line) in upper Teesdale. Local roads are shown by double lines. The thick dashed line is the location of the Teesdale Fault, which controls the course of the beck. Mineral veins are shown by dashed grey lines, with shafts and adits. The four magnetic
Image
Total field magnetic anomaly calculated for various models. Each panel show...
Published: 28 September 2016
that the calculated anomaly is of opposite sign to the observed anomaly. ( b ) Anomaly produced by the Whin Sill, downfaulted by the Teesdale fault, with Permian magnetization (grey) and a magnetization gap (‘white whin’) around the fault. To minimise edge effects, the modelled sill extends a large distance beyond
Series: Geological Society, London, Special Reports
Published: 01 January 2000
DOI: 10.1144/SR24.8
EISBN: 9781862396920
... Abstract In northern England Ordovician rocks crop out in the main Lake District inlier and in smaller inliers at Cross Fell, Cautley, Austwick and Teesdale (Fig.1), where they are brought up along the Pennine, Dent and Craven fault systems. The Lake District has a thick lower Ordovician...
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Journal Article
Published: 06 January 2022
Proceedings of the Yorkshire Geological Society (2022) 64 (1): pygs2021-007.
.... Butreeford Disturbance and Stublick Fault) and the sills cut across pre-existing folds, e.g. Teesdale Dome ( Dunham 1948 ; Burgess and Holliday 1979 ) and the Holburn Anticline ( Carruthers et al. 1927 ). Useful reviews of the salient facts regarding the Complex can be found in Johnson and Dunham (2001...
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Journal Article
Published: 01 May 2001
Proceedings of the Yorkshire Geological Society (2001) 53 (3): 177–186.
... by Sedgwick (1827) in Teesdale, and later by Tate (1867) in Northumberland. The intrusive nature became widely accepted after the work of the primary survey in the north of England ( Topley & Lebour 1877 ). Even in these early days it was realized that the Whin, locally called a sill, was not a true...
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Journal Article
Published: 01 September 2020
Proceedings of the Yorkshire Geological Society (2021) 63 (3): pygs2019-018.
...Douglas Robinson Abstract Contact metamorphism of Carboniferous rocks by the Whin Sill in Upper Teesdale is documented utilizing boreholes drilled in the 1960s ground investigation for the Cow Green reservoir. Hedenbergite, prehnite and datolite are recorded for the first time, and the first...
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Journal Article
Published: 11 March 2021
Journal of the Geological Society (2021) 178 (4): jgs2020-226.
... been reactivated as a top-to-the north reverse fault ( Cornwell and Wadge 1980 ; Dunham 1990 ). Large-scale gentle east–west elongated doming of the Carboniferous sediments, known as the Teesdale Dome ( Dunham 1931 ), has also been interpreted to have formed during the Late Carboniferous owing...
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Journal Article
Published: 01 November 2001
Proceedings of the Yorkshire Geological Society (2001) 53 (4): 265–274.
... in the Chantry Borehole [NZ 2469 0705] ( Dunham & Wilson 1985 , p.51). Fig. 4. Brough, Lunedale and Teesdale - Section B; for location and key see Figure 2 . Fig. 5. Stockdale and Stainmore faults - Section C; for location and key see Figure 2 . Fig. 6. South side...
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Journal Article
Published: 01 November 2010
Proceedings of the Yorkshire Geological Society (2010) 58 (2): 107–128.
... . 2007 ). The granite was probably emplaced into cleaved mudstones of the Skiddaw Group, based on the presence of these rocks in the Cross Fell and Teesdale inliers, in the Wrentnall Shaft at Cowgreen Mine [NY 8105 3053] and in the Allenheads No. 1 Borehole [NY 8604 4539] ( Dunham 1990...
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Journal Article
Published: 01 November 2012
Proceedings of the Yorkshire Geological Society (2012) 59 (2): 133–136.
...T. F. Cotterell; B. Young; R. E. Starkey Summary The uncommon, lead-aluminium phosphate hydroxide mineral plumbogummite is reported here, for the first time in the Pennine orefields, derived from a highly oxidized lead-rich vein at Grasshill mines, Upper Teesdale, Co. Durham. The plumbogummite...
FIGURES
Journal Article
Published: 01 December 2023
Earth Sciences History (2023) 42 (2): 255–290.
.... With permission of Oxford University Museum of Natural History. Figure 5b. Millstone Grit stratum on southwest sheet on Smith’s annotated manuscript map of Durham. With permission of Oxford University Museum of Natural History. Figure 5c. Middleton in Teesdale to High Force on the 1768...
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Journal Article
Published: 01 May 2001
Proceedings of the Yorkshire Geological Society (2001) 53 (3): 207–212.
... be demonstrated to increase in depth, e.g. at Boltsburn Mine in Weardale [NY 937 427] and Greenhurth Mine in Teesdale [NY 779 328]. The tendency of sheared galena, so called ‘steel ore’, adjacent to post-mineralization faults, to exhibit higher than normal silver values was commented on ( op. cit., p. 72...
FIGURES
Journal Article
Published: 01 May 2011
Scottish Journal of Geology (2011) 47 (1): 96–97.
... in the preface to the new edition. If ever one needs to make the case that geology is a young and dynamic science, a comparative study of the two editions would make an instructive case. Gone are: geosynclines, obsolete explanations of faulting and outdated lithostratigraphy. In are: plate tectonics, Earth...
Journal Article
Published: 01 August 1990
Journal of the Geological Society (1990) 147 (4): 615–618.
... of Paleontology 1979 53 1197 1212 Jenkins W. A. M. Ordovician Chitinozoa from Shropshire Palaeontology 1967 10 436 488 Lister T. R. Holliday D. W. Phytoplankton (acritarchs) from a small Ordovician inlier in Teesdale (County Durham), England Proceedings of the Yorkshire...
Journal Article
Published: 01 May 2006
Proceedings of the Yorkshire Geological Society (2006) 56 (1): 59–64.
... examined the relationship between the intrusion of the Whin Sill and geological structure as revealed in the magnificent exposures of Upper Teesdale. A joint meeting with the William Pengelly Cave Studies Group examined several caves around Cresswell Crags (Derby/Notts/South Yorks), in which a wide range...
Journal Article
Published: 01 May 2007
Proceedings of the Yorkshire Geological Society (2007) 56 (3): 177–207.
... and faulting, and may confuse stratigraphical relationships by causing sequence inversion or intrusion of younger material into older sediment. Earlier deposits were also extensively removed by subglacial and periglacial erosion in cold stages, so that evidence for depositional episodes before the last...
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Journal Article
Published: 28 May 2021
Proceedings of the Yorkshire Geological Society (2021) 63 (4): pygs2021-002.
... unit with fenestral fabrics, was used as the mapping division between the S 2 and D 1 subzones. However, this facies is of variable thickness and is not present both northwards towards the Stainmore Trough and south of the North Craven Fault ( Arthurton et al. 1988 ; Waters et al. 2017...
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