radiolaria - Marum
radiolaria - Marum
radiolaria - Marum
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Radiolaria 14 Bibliography - 1989<br />
which are not appropriate for phylogenetic classification. These<br />
polyphyletic and paraphyletic taxa are redefined to be monophyletic.<br />
On the other hand, the analysis shows some parallelisms which are<br />
relatively frequent in Hagiastridae, and the analyse defined the<br />
universality level of characters.<br />
Kojima, S. 1989. Mesozoic terrane accretion in Northeast<br />
China, Sikhote-Alin and Japan regions. Palaeogeogr.<br />
Palaeoclimatol. Palaeoecol., 69, 213-232.<br />
The Nadanhada Range in Northeast China is composed of upper<br />
Paleozoic limestone, greenstone, middle to late Triassic bedded<br />
chert, and middle Jurassic siliceous shale; these rocks are enclosed<br />
in post-middle Jurassic clastic rocks. The lithologic association,<br />
ages, <strong>radiolaria</strong>n assemblages and geologic structure of the<br />
Nadanhada Range are very similar to those of the Tamba Mino-Ashio<br />
terrane in Southwest Japan. This indicates that the Nadanhada Range<br />
is the northern extension of the Tamba Mino-Ashio terrane.<br />
Mesozoic tectonostratigraphic terranes identified in Northeast<br />
China, Sikhote-Alin and Southwest Japan are: the Khanka terrane (a<br />
micro-continent composed of Precambrian metamorphic rocks and<br />
Paleozoic to Mesozoic sedimentary and volcanic covers), the<br />
Nadanhada Western Sikhote-Alin terrane (a disrupted terrane<br />
composed of upper Paleozoic to Jurassic sedimentary rocks), the<br />
Eastern Sikhote-Alin terrane (a terrane composed mainly of early<br />
Cretaceous clastics), the Tetyukhe terrane (a disrupted terrane<br />
composed of upper Paleozoic to early Cretaceous sedimentary<br />
rocks), the Hida terrane (a continent-type stratigraphic terrane<br />
composed of Precambrian and upper Paleozoic basement covered<br />
with Jurassic to Cretaceous coarse clastics), and the Tamba Mino<br />
Ashio terrane (a disrupted terrane composed of upper Paleozoic to<br />
earliest Cretaceous sedimentary rocks). Accretionary history of<br />
these terranes is discussed on the basis of paleomagnetic and<br />
paleobiogeographic data.<br />
Kojima, S., Mizutani, S., Nagai, H., Saito, M.,<br />
Tsukamoto, H. & Yogo, M. 1989. Design and<br />
utilization of the data base system for <strong>radiolaria</strong>n fossils in<br />
the Nagoya University Museum. Bull. Nagoya Univ.,<br />
Furukawa Mus., spec. Rep., 1, 1-192.<br />
The data base system is designed for the collection of<br />
<strong>radiolaria</strong>n fossils in the Nagoya University Museum, which includes<br />
(1) <strong>radiolaria</strong>n fossils mounted on the SEM holders, (2) rock<br />
specimens from which the <strong>radiolaria</strong>n fossils are extracted, (3) JMP<br />
cards (locality description cards), and (4) <strong>radiolaria</strong>n<br />
photomicrographs and their negative films. The number of the<br />
photomicrographs attains to 50,000 at the end of 1988.<br />
Alphanumeric data concerned with these materials, such as register<br />
number, photograph number, SEM holder number, fossil positioning<br />
number on the holder, JMP card number, rock specimen number,<br />
lithology of rock specimen, locality name, and name of person who<br />
extracts the fossil, are recorded for each photomicrograph in 144<br />
bytes memory space of the Nagoya University Computation Center<br />
(NUCC); part of the data are coded and others are written in a free<br />
format. A software package is developed for inputting, listing and<br />
retrieving these data. Personal computers (PC9801 series of NEC<br />
Co.) and software (The CARD2 of ASCII Co.) are employed for<br />
personal use of the data, and the utility programs for data<br />
conversion and data transmission between the data of the NUCC and<br />
those of the Personal computers are developed. Manuals and original<br />
programs of this data base system are also described.<br />
Kolar-Jurkovsek, T. 1989. New Radiolaria from the<br />
Ladinian substage (Middle Triassic) of Slovenia (NW<br />
Yugoslavia). N. Jb. Geol. Paläont., Mh., 3, 155-165.<br />
From the Ladinian beds of Slovenia are described Bogdanella n.<br />
g. and seven new species of <strong>radiolaria</strong>: Pseudostylosphera slovenica<br />
n. sp., P. sudari n. sp., Sepsagon ? aequispinosus n. sp., Pterospongus<br />
bogdani n. sp., Bogdanella trentana n. g. n. sp., Pentaspongodiscus<br />
julicus n. sp. and Praeheliostaurus undulatus n. sp.<br />
Konstantinovskaya, Y.A. 1989. Exotic sedimentary<br />
breccias of the Ozernoy Peninsula (East Kamchatka) and their<br />
tectonic significance. Geotectonics, 23/5, 451-455.<br />
Kozur, H. & Mostler, H. 1989. Radiolarien und<br />
schwammsleren aus dem Unterperm des Vorurals. Geol.<br />
Pälont. Mitt. Innsbruck, 2, 147-275.<br />
Rich <strong>radiolaria</strong>n faunas are described from the Sarabil<br />
Formation (Upper Tastubian, higher part of Lower Sakmarian) and<br />
from the Koshelev Formation (basal part of Upper Kungurian) of the<br />
Cis-Ural. Many well preserved sponge spicules which are present in<br />
the Sarabil Formation are described as well. The Sakmarian<br />
<strong>radiolaria</strong>n and sponge faunas are well dated by ammonoids and<br />
conodonts. Also the Koshelev Formation yielded ammonoids and<br />
- 35 -<br />
conodonts, placed into the Kungurian by all workers of these fossil<br />
groups. NAZAROV & ORMISTON (1985) placed the Koshelev<br />
Formation without paleontological evidences into the Late<br />
Artinskian. Therefore the stratigraphic position of the Koshelev<br />
Formation had to be discussed in detail. In the <strong>radiolaria</strong>n taxonomic<br />
part some general problems of the taxonomy of Paleozoic<br />
<strong>radiolaria</strong>ns are discussed on concrete examples. 7 families, one<br />
subfamily, 19 genera, 2 subgenera, 36 species and 3 subspecies<br />
are established and several formerly described taxa are revised.<br />
Moreover, the Carboniferous and Permian Albaillellacea and the<br />
Permian Ruzhencevispongacea are revised in detail. 9 <strong>radiolaria</strong>n<br />
zones and associations could be discriminated within the time<br />
interval from the uppermost Carboniferous up to the Kungurian of<br />
the Cis-Ural. This Zonation is mainly based on the development<br />
within the Ruzhencevispongacea, but also Albaillellacea and<br />
Entactinaria have been used for this zonation. The Tethyan Permian<br />
could be subdivided into 16 <strong>radiolaria</strong>n zones. They are mainly based<br />
on the rather rapid phylomorphogenetic changes within the<br />
Albaillellacea. Some stratigraphic importance have here also highly<br />
specialized representatives of the Ruzhencevispongacea<br />
(Spumellaria) and some highly specialized Entactinaria. The majority<br />
of the frequent Permian Entactinaria and of the mostly subordinate<br />
Permian Spumellaria are long-living facies fossils that can be used<br />
only for coarse stratigraphic subdivisions. The siliceous spicules<br />
were investigated systematically to reconstruct the sponges being<br />
involved in the composition of the Lower Permian sediments. Within<br />
the 52 types of spicules 13 unknown specimens were found. Within<br />
the 8 orders of Demospongea 5 orders were provable. Lithisthida are<br />
the best represented ones. Within the Hexactinellida Reticulosida as<br />
well as Hexactinosida and Hemidiscosida are respresented. It is<br />
remarkable that the latter ones are far dominating compared with<br />
the Reticulosida. This is to show that many sponges of the<br />
Retticulosida have already become extinct in the Lower Permian and<br />
that they did not reach up to the Permian/Triassic boundary, as<br />
often postulated caused by ignorance about stratigraphy.<br />
Kruglikova, S.B. 1989. Arctic Ocean Radiolarians. In:<br />
The Arctic Seas: climatology, oceanography, geology<br />
andbiology. (Herman, Y., Eds.). Van Nostrand Reinhold, New<br />
York, USA. pp. 461-479.<br />
Radiolaria are unicellular planktonic animals inhabiting all<br />
oceans and seas with lower salinities from 32-38‰ . There is no<br />
record of their occurrence in seas with lower salinity (the Black,<br />
Baltic, and Beloye seas); in near-shore regions the <strong>radiolaria</strong>n<br />
abundance and diversity drop sharply. The vertical distribution of<br />
Radiolaria ranges from surface to abyssal depths with maximum<br />
number of species between 0 m and 200-300 m.<br />
Until recently Radiolaria included all marine protozoans<br />
possessing the characteristic intracellular structure the central<br />
capsule. The <strong>radiolaria</strong>n group includes the Acantharia, the<br />
Spumellaria, the Nassellaria, the Phaeodaria, and the Sticholonchea.<br />
The acantharian skeleton is composed of strontium sulphate and the<br />
Phaeodarian possess siliceous shells With a large admixture of<br />
organic material. The skeletons of Acantharia and the majority of<br />
Phaeodarian dissolve immediately after the cell dies and do not<br />
reach the seafloor. Bottom sediments yield rare Phaeodarian species<br />
belonging to the genera Cadium, Challengeria, Euphysetta, and<br />
Protocystis. Generally sediments contain Spumellaria and<br />
Nassellaria almost exclusively (Polycystina); they possess siliceous<br />
(opaline) skeletons. Spumellaria is represented by single and colonial<br />
organisms (Collosphaerida). Consequently, in the description of<br />
bottom sediments the term Radiolaria refers only to Polycystina; ill<br />
the analysis of <strong>radiolaria</strong>n data obtained from plankton samples our<br />
attention shall be centered on <strong>radiolaria</strong>ns. Due to the morphological<br />
features and chemical composition, Acantharia are at present<br />
separated from the typical Radiolaria as a kindred but separate<br />
group. The classification of Stycholonchea as Radiolaria is now<br />
dubious (Petrushevskaya 1981; Anderson, 1983).<br />
Kruglikova, S.B. 1989. Certain aspects of <strong>radiolaria</strong>n<br />
data as evidence of the paleoenvironment. Palaeogeogr.<br />
Palaeoclimatol. Palaeoecol., 69/1-2, 303-320.<br />
Different aspects of the ecology and biogeography of<br />
<strong>radiolaria</strong>ns are considered as a means of interpreting the<br />
paleoenvironment. The quantitative and spatial distribution of<br />
<strong>radiolaria</strong>ns in the sediments of the world ocean are discussed,<br />
including differences between marine and oceanic thanatocoenoses,<br />
relations between species and high rank associations of <strong>radiolaria</strong>ns<br />
and fluctuation of climate, areal changes of some species with time,<br />
etc.<br />
Kurimoto, C. 1989. Microfossil from the Gozaishoyama<br />
district in the southwestern part of the Mino Terrane, cental<br />
Japan. Bull. geol. Surv. Japan, 40/2, 55-64. (in Japanase)<br />
About 160 samples of mudstone, siliceous mudstone and chert<br />
were collected to extract microfossils from the Gozaishoyama