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Journal Article
Published: 01 November 1962
Journal of Paleontology (1962) 36 (6): 1163–1188.
...., Lophopyllidium vallum, n. sp., L. solidum, n. sp., Leonadophyllum kingi, n. sp., Amplexizaphrentis sp, and Amplexocarinia sp., from Virgilian strata. The Permian (Wolfcampian) Neal Ranch Formation contains Neokoninckophyllum deciensis, n. sp., and Lophophyllidium cf. L. vidriensis, n. sp., and the Permian...
Journal Article
Published: 01 November 2020
Journal of Paleontology (2020) 94 (6): 1019–1033.
...Andrey Ivantsov; Maria Zakrevskaya; Aleksey Nagovitsyn; Anna Krasnova; Ilya Bobrovskiy; Ekaterina Luzhnaya (Serezhnikova) Abstract Several specimens of Dickinsonia cf. D . menneri , originating from a single burial event at the Lyamtsa locality of the late Ediacaran (Vendian) in the southeastern...
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Pseudestheria cf. P. chatangensis (Novozhilov, 1946) from Mys Bykovka, section no. 1032, Moscow Syneclise, European Russia; Voinovo Member, Obnora Formation, Zhukovian Regional Stage (late Permian). (1) Cast of a right valve; FG660/MysByk/2. (2) Cast of a right valve with preservation of shell substance; FG660/MysByk/9. (3) Cast of a right valve with partially preserved shell substance; FG660/MysByk/6. (4) Cast of a left valve with preserved shell substance; the higher value of its height/length ratio corresponds to a stout morphotype of Pseudestheria cf. P. chatangensis; FG660/MysByk/8.
Published: 04 October 2018
Figure 6. Pseudestheria cf. P. chatangensis (Novozhilov, 1946 ) from Mys Bykovka, section no. 1032, Moscow Syneclise, European Russia; Voinovo Member, Obnora Formation, Zhukovian Regional Stage (late Permian). ( 1 ) Cast of a right valve; FG660/MysByk/2. ( 2 ) Cast of a right valve
Journal Article
Published: 03 June 2015
Geological Magazine (2016) 153 (1): 1–16.
... elements (e.g. teeth, vertebrae), but disarticulated partial skeletons and an articulated, subvertically embedded ichthyosaur skull are also available. The following taxa are identified: ‘ Platypterygius ’ sp., cf. Ophthalmosaurinae, Ichthyosauria indet., Polyptychodon interruptus , Pliosauridae indet...
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Journal Article
Published: 01 July 2005
Journal of Paleontology (2005) 79 (4): 687–701.
...NORITOSHI SUZUKI; SATORU KOJIMA; HARUMASA KANO; SATOSHI YAMAKITA; AKIHIRO MISAKI; MASAYUKI EHIRO; SHIGERU OTOH; TOSHIYUKI KURIHARA; MASASHI AOYAMA Abstract The Khabarovsk Complex, a Jurassic accretionary complex distributed in and around the Khabarovsk city area, Far East Russia, comprises mélange...
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Journal Article
Published: 01 July 2000
Journal of Paleontology (2000) 74 (4): 545–570.
... genus. The presence of two species, Dyscritella iwaizakiensis Sakagami, 1961 , and Hayasakapora cf. erectoradiata Sakagami, 1960 , previously reported from Japan, and the similarity of new species with those previously described from Japan, China and Russia supports the idea that these rocks were...
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... The Fennoscandian or Baltic Shield (both names occur in the literature) occupies the northern part of Europe. Pre-cambrian areas are exposed in Norway, Sweden, Finland, and Russia and their continuation beneath the platform cover sequences to the east and south have been better understood...
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Series: Society of Economic Geologists Guidebook Series
Published: 01 January 2000
DOI: 10.5382/GB.33
EISBN: 9781934969861
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SEM micrographs showing general terminology for Cenozoic silicoflagellates. 1.Stephanocha sp., Kamyshlov, Russia, early Eocene, abapical view. Note the absence of pikes on the underside of the basal ring. 2.Dictyocha sp., central Pacific Ocean near Hawaii, Recent, lateral view.3.Dictyocha sp. cf. D. aculeata (Lemmermann) Bukry, Recent, apical view.4, 5.Stephanocha speculum var. coronata (Schulz) McCartney & Jordan, SW Pacific, Recent, oblique abapical view.
Published: 24 June 2016
Fig. 3. SEM micrographs showing general terminology for Cenozoic silicoflagellates. 1. Stephanocha sp . , Kamyshlov, Russia, early Eocene, abapical view. Note the absence of pikes on the underside of the basal ring. 2. Dictyocha sp., central Pacific Ocean near Hawaii, Recent, lateral view
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SEM images of Pseudestheria cf. P. chatangensis (Novozhilov, 1946) from Mys Bykovka, section no. 1032, Moscow Syneclise, European Russia; Voinovo Member, Obnora Formation, Zhukovian Regional Stage (late Permian); FG660/MysByk/9. (1) Ornamentation in the anterior-median part on the external side of the valve. The arrows indicate growth lines consisting of two fine lines almost without ornaments. (2) Close-up view showing finely pitted ornaments. (3) Ornamentation at the posterodorsal margin on the external side of the valve. (4) Close-up view of finely pitted ornaments.
Published: 04 October 2018
Figure 7. SEM images of Pseudestheria cf. P. chatangensis (Novozhilov, 1946 ) from Mys Bykovka, section no. 1032, Moscow Syneclise, European Russia; Voinovo Member, Obnora Formation, Zhukovian Regional Stage (late Permian); FG660/MysByk/9. ( 1 ) Ornamentation in the anterior-median part
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Ammonites with preserved egg capsules from the latest Jurassic of Central Russia. A, B) Capsules (indicated by arrows) preserved respectively in the phosphatic infilling and on the inner side of the shell material of Craspedites nekrassovi. C) Interior of the C. nekrassovi body chamber infilled with various organic and shelly debris. D–F) Numerous egg capsules (magnified in view F) preserved on the internal mold of Craspedites cf. jugensis. The limit of the egg capsules' occurrence is indicated by white dashed lines. Scale bars = 1 cm. A, C) MSU 120/1-1. B) MSU 120/1-2. D–F) MSU 120/2.
Published: 01 June 2015
Fig. 2.— Ammonites with preserved egg capsules from the latest Jurassic of Central Russia. A , B ) Capsules (indicated by arrows) preserved respectively in the phosphatic infilling and on the inner side of the shell material of Craspedites nekrassovi . C ) Interior of the C. nekrassovi body
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Middle Ordovician paleogeographic reconstruction of the Iapetan realm of the Appalachian and Caledonian orogen and adjacent continental masses, after van Staal et al. (2011). The added position of the Alexander terrane (AX) is based on our results from the Saint Elias Mountains. The Alexander terrane is interpreted to have been proximal to other Ordovician to Silurian arc terranes of the Siberian-Caledonian-Baltican (S-B-C) lithotectonic realm (cf. Colpron and Nelson 2009) in the Barents and Kara sea areas near present-day Scandinavia and Arctic Russia. Reconstruction is largely based on a compilation of existing paleontological and paleomagnetic data presented in Cocks and Torsvik (2005, 2007) and Pisarevsky et al. (2008).
Published: 01 May 2012
. The Alexander terrane is interpreted to have been proximal to other Ordovician to Silurian arc terranes of the Siberian-Caledonian-Baltican (S-B-C) lithotectonic realm (cf. Colpron and Nelson 2009 ) in the Barents and Kara sea areas near present-day Scandinavia and Arctic Russia. Reconstruction is largely
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Figure11—Comparison of sinal plication patterns among some Frasnian Cyrtospirifer, with the primary plications occurring first and followed by central plications and lateral sinal plications. 1–3,Cyrtospirifer whitneyi, SUI 51404H (Lime Creek Formation, Rockford, Iowa), SUI 85849 (Belanski's station 4–16, lot no. 3208, same locality and stratum as Fig. 8.4) and SUI 85854 (see Fig. 9.19 for locality and stratum). 4,Cyrtospirifer preshoensis, paratype YPM 19375, with much coarser primary plications, (Cayuta Formation, Ryers Creek, Lindley, N.Y.). 5,C. cf. whitneyi, same specimen as Figure 9.24. 6–7,C. brodi; 6, a young shell YPM 38162 (Late Devonian, Orel, Russia); 7, a large shell YPM 38146 (Devonian of Teletz, Oesel Gouv. Oesel. Estonia)
Published: 01 March 2003
(Belanski's station 4–16, lot no. 3208, same locality and stratum as Fig. 8.4 ) and SUI 85854 (see Fig. 9.19 for locality and stratum). 4, Cyrtospirifer preshoensis , paratype YPM 19375, with much coarser primary plications, (Cayuta Formation, Ryers Creek, Lindley, N.Y.). 5, C . cf. whitneyi , same
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 Acritarch phytoplankton from the Upper Cambrian and Tremadocian successions on Kolguev Island. Specimens are identified by a prefix ME (Museum of Evolution) followed by a country and a year of collecting (Ru-95; Russia, 1995), a sample and slide number, and England Finder Coordinates. Scale bar in 3 is equal to 8 μm for all light transmitted micrographs.
 1 Acanthodiacrodium cf. angustum (Downie 1958) Combaz 1967. ME-Ru-95-04/1.Q48-1.
 2–6 Actinotodissus achrasii (Martin 1973) Yin 1986. 2 ME-Ru-95-07/1.C41-3. 3 ME-Ru-95-06/2.Y37-3. 4 ME-Ru-95-07/2.C41-2. 5–6 SEM stub ME-Ru-95-04. In 5 enlargement of a fragment of specimen shown in 6 with details of the wall and process granular surface.
Published: 01 January 2004
PLATE 1 
 Acritarch phytoplankton from the Upper Cambrian and Tremadocian successions on Kolguev Island. Specimens are identified by a prefix ME (Museum of Evolution) followed by a country and a year of collecting (Ru-95; Russia, 1995), a sample and slide number, and England Finder Coordinates
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Images of megaspores of Biharisporites Potonié. All photomicrographs taken with a scanning electron microscope. 1–4, 7–10. Megaspores from the Lower Permian of the Rajmahal Basin, India. 5, 6. Megaspores from the Upper Givetian of the Kursk Region, Russia. 1. Biharisporites cf. spinosus, specimen 409-1, proximal face; the ultrastructure is shown in Plate 3 (figures 1–4), Supplementary Plate S3 (figures 1–3). 2. Biharisporites boralii Bajpai, specimen 409-2, proximal-equatorial view; the ultrastructure is shown in Plate 4 (figures 1–4), Supplementary Plate S4 (figures 1–4). 3. Biharisporites sp. 1, specimen 409-3, proximal face; the ultrastructure is shown in Plate 5 (figures 1–6), Supplementary Plate S5 (figures 1–3). 4. Biharisporites sp. 2, specimen 409-4, proximal face; the ultrastructure is shown in Plate 6 (figures 1–3), Supplementary Plate S5 (figures 4, 5). 5. Biharisporites arcticus var. productus Chi & Hills 1976, specimen 410-03, proximal face; the ultrastructure is shown in Plate 2 (figures 1–5), Supplementary Plate S1 (figures 1–5), and Supplementary Plate S2 (figures 1, 2). 6. Biharisporites arcticus var. productus Chi & Hills, specimen 410-04, distal face. 7. Biharisporites cf. spinosus, enlargement of figure 1 showing the surface of the spore. 8. Biharisporitesboralii, enlargement of figure 2 showing the surface of the spore. 9. Biharisporites sp. 1, enlargement of figure 3 showing the surface of the spore. 10. Biharisporites sp. 2, enlargement of figure 4 showing the surface of the spore. Scale bar: 1–6 = 100 µm; 7–10 = 50 µm.
Published: 02 October 2022
Plate 1. Images of megaspores of Biharisporites Potonié. All photomicrographs taken with a scanning electron microscope. 1–4, 7–10. Megaspores from the Lower Permian of the Rajmahal Basin, India. 5, 6. Megaspores from the Upper Givetian of the Kursk Region, Russia. 1. Biharisporites cf
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Figure7—Scanning electron micrographs of the Permian radiolarians from the Khabarovsk Complex, Far East Russia. Scale bar indicates 100 μm for all figures. 1–6, Pseudoalbaillella aff. P. lomentariaIshiga and Imoto, 1980; sample SK-01 (1, IGPS109402, 2, IGPS109403, 3, IGPS109404, 4, IGPS109405, 5, IGPS109406, 6, IGPS109407). 7, 8,Pseudoalbaillella sp.; sample SK-01 (7, IGPS109408, 8, IGPS109409). 9–12,Albaillella aff. A. asymmetrica Ishiga and Imoto inIshiga, Kito, and Imoto, 1982; sample SK-01. (9, IGPS109410, 10, IGPS109411, 11, IGPS109412, 12, IGPS109413). 13–15,Follicucullus monacanthus Ishiga and Imoto inIshiga, Kito, and Imoto, 1982; sample NS-01 (13, IGPS109414, 14, IGPS109415, 15, IGPS109416). 16,Follicucullus porrectus Rudenko inBelyanskiy, Nikitina, and Rudenko, 1984; sample NS-01 (IGPS109417). 17,Pseudoalbaillella cf. P. yanaharaensisNishimura and Ishiga, 1987; sample NS-01 (IGPS109418)
Published: 01 July 2005
Figure 7 —Scanning electron micrographs of the Permian radiolarians from the Khabarovsk Complex, Far East Russia. Scale bar indicates 100 μm for all figures. 1 – 6 , Pseudoalbaillella aff. P. lomentaria Ishiga and Imoto, 1980 ; sample SK-01 ( 1, IGPS109402, 2, IGPS109403, 3, IGPS109404
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(A) Boron mineral diversity in 50 million year intervals. The number of species in these intervals was estimated from: (1) reported earliest occurrences (Table 2 supplement), (2) reported latest occurrences (Table 3 supplement), and (3) and total number of localities. Minerals reported from only three or four localities are considered to have formed only at the times indicated for these localities and it was not assumed that the mineral had formed during the entire period bracketed by the earliest and latest occurrences unless the time period is relatively short. Only when the mineral was reported from five or more localities more-or-less evenly spaced in time did we feel justified to assume formation over the entire time period. The height of the columns is the sum of all the species inferred to have formed during the 50-Myr interval. N.B. only minerals formed at 1825 Ma are included in the total for Långban and Nordmark, Sweden (cf. Table 1). (B) Structural complexity (log10 scale) of the most complex boron minerals at a given locality. For localities younger than 2000 Ma, we show only minerals having complexity >1000 bits per unit cell. The localities (and ages, minerals) are in order of decreasing age: Isua supracrustal belt, Greenland (3550 Ma, feruvite); Fiskenæsset, Greenland (2800 Ma, kornerupine and prismatine); Abitibi greenstone belt, Quebec, Canada (2700, dumortierite); Tanco Pegmatite, Manitoba, Canada (2640 Ma, ezcurrite); Tayozhnoye, Siberia, Russia (1950 Ma, serendibite); Liaoning Province, China (1900 Ma, dravite); Långban and Nordmark, Sweden (1825 Ma, blatterite); Templeton, Quebec, Canada (1150, wiluite); Kombat mine, near Tsumeb, Namibia (545 Ma, vladkrivovichevite); Nepa evaporites, Siberia, Russia (510 Ma, ginorite); Penobsquis evaporites, New Brunswick, Canada (312 Ma, strontioginorite); Darai Pioz, Tajikistan (270 Ma, byzantievite); Solongo, Buryatiya, Russia (250 Ma, kurchatovite); Mont St-Hilaire, Quebec, Canada (124 Ma, rogermitchellite), Fuka, Okayama Prefecture, Japan (85 Ma, buryatite, charlesite, imayoshiite); and Death Valley, California (0 Ma, ginorite) (Tables 2 and 3 supplement).
Published: 01 January 2016
are included in the total for Långban and Nordmark, Sweden ( cf . Table 1 ). (B) Structural complexity (log 10 scale) of the most complex boron minerals at a given locality. For localities younger than 2000 Ma, we show only minerals having complexity >1000 bits per unit cell. The localities (and ages
Journal Article
Published: 01 February 2025
Russ. Geol. Geophys. (2025) 66 (2): 142–159.
... divergence of opinion regarding the stratigraphy of this region. Radical changes have occurred in solving this problem since 2020 due to the Rosneft Stratigraphic Drilling in Arctic (RoSDAr) program. These operations were carried out for the first time in Russia within the North Kara sedimentary basin...
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Journal Article
Journal: Palynology
Published: 02 October 2022
Palynology (2022) 46 (4): 1–20.
...Plate 1. Images of megaspores of Biharisporites Potonié. All photomicrographs taken with a scanning electron microscope. 1–4, 7–10. Megaspores from the Lower Permian of the Rajmahal Basin, India. 5, 6. Megaspores from the Upper Givetian of the Kursk Region, Russia. 1. Biharisporites cf...
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Journal Article
Published: 01 April 2022
Russ. Geol. Geophys. (2022) 63 (4): 398–416.
... ). The A. kolymensis Local Zone is conformably overlain by stratigraphic equivalents of the upper part of the lower Carnian of north-eastern Russia, which is confirmed by the occurrence of ammonoids A. cf. okhotensis in the upper part of the bed 3 (interval 3.0–6.8 m). In northeastern Russia, first occurrences...
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