Volume 61,Issue 4,2022 Table of Contents

  • Display Type:
  • Text List
  • Abstract List
  • 1  New Silurian graptolite material from Nyalam, southern Xizang (Tibet), China
    CHEN Xu YU Shen-yang FANG Xiang LI Wen-jie Lucy Muir ZHANG Yuan-dong
    2022, 61(4):525-540. DOI: 10.19800/j.cnki.aps.2021059 CSTR:
    [Abstract](475) [HTML](0) [PDF 5.60 M](1314)
    Abstract:
    Silurian graptolite-bearing strata in Nyalam County are one of the few known sources of Silurian graptolites in southern Xizang (Tibet). Recent graptolite collections from the Shiqipo Formation at Yalai Village, Nyalam County, contain Normalograptus sp., Glyptograptus sp., Campograptus lobiferus, C. cf. lobiferus, C. cf. obtusus, C.? circularis, Lituigraptus cf. convolutus, Rastrites cf. perfectus, Stimulograptus sedgwickii, Streptograptus sp. and Torquigraptus decipiens. This assemblage indicates a late Aeronian (Llandovery) age (Lituigraptus convolutus to Stimu- lograptus sedgwickii biozones). This new finding provides the potential for the correlation of Silurian strata between Xizang (Tibet) and other parts of the world.
    2  Some Miocene and Pleistocene corals from Well Drilling CK-2 in Xisha Islands, South China Sea
    YU Ke-fu LIAO Wei-hua LIAO Zhi-heng LI Yin-qiang WANG Wen-huan BIAN Li-zeng
    2022, 61(4):541-557. DOI: 10.19800/j.cnki.aps.2022023 CSTR:
    [Abstract](527) [HTML](0) [PDF 29.97 M](1598)
    Abstract:
    Scleractinia are the major members of the Mesozoic, Cenozoic, and extant corals. Scleractinian corals are distinguished by their calcareous external skeletons. Scleractinian corals may be divided into two ecological groups: hermatypic (reef-building) and ahermatypic corals. Hermatypic corals are characterized by the presence of vast numbers of zooxanthellae in their endodermal tissues. They are the most common in warm and shallow marine waters of the tropics. Strong sunlight is essential for the vigorous growth of hermatypic corals. Ahermatypic corals lack zooxanthellae and are environmentally less restricted than reef-building corals. It is now generally recognized that, since the Miocene, there are two first-level reef-coral biogeographic provinces, i.e., the Caribbean and Indo-Pacific, in the world. The South China Sea, including Xisha Islands, is attributed to the Indo-Pacific Province. During the Neogene and Quaternary, the Indo-Pacific coral faunas were already rich than those of the Caribbean. The oldest coral-bearing beds are from the early Miocene in Xisha Islands, South China Sea. About 19 genera of Miocene scleractinian corals are recognized from the 364–878.3 m interval in the Well CK-2 core from Chenhang Island, Xisha Islands, South China Sea. They are Acropora, Astreopora, Antillophyllia, Antillia, Astrhelia, Caryophyllia, Cyphastrea, Diploastrea, Echinophyllia, Favia, Favites, Fungia, Galexea, Goniopora, Hydnophora, Montipora, Platygyra, Porites and Turbinaria. Among them, the geological ranges of the genera Echinophyllia, Fungia and Galaxea are from the Miocene to the Quaternary, indicating that the age of the strata that yield these three genera is not older than the Miocene. While the genus Antillia has been recorded from the Eocene to the Miocene and the genus Antillophyllia has been reported from the Oligocene to the Miocene, indicating that the age of the strata that contain these two genera is not younger than Miocene. Moreover, the genus Astrhelia has hitherto been known only from the Miocene. All the above-mentioned evidence suggests a Miocene age. About 21 genera of the Pleistocene scleractinian corals and one genus of Octocorallia are identified from the 21.4–215.6 m interval in the Well CK-2 core. Among them, the geological ranges of Acanthophyllia, Enallopsammia, Fungia, and Galaxea are from the Miocene to the Quaternary. The genera Acoropora, Coenocythus, Cyphastrea, Euphyllia, Montipora, Pavona, Porites, Favites, Goniastrea, Platygyra and Turbinaria have been recorded from the Palaeogene to the Quaternary and the genera Astreopora, Goniopora and Leptoria are the characteristic corals from the Cretaceous to the Quaternary. A few genera, however, afford evidence of considerable weight for the determination of the age of the strata. The three scleractinian corals, i.e., Lobophyllia, Symphyllia, and Trochopsammia, and the octocoral genus Heliopora have hitherto been known only from the Quaternary. The above evidence suggests that the age of the coral assemblage is Quaternary (Pleistocene). Since very few Miocene and Pleistocene corals have been reported previously from the Xisha Islands, a brief description of these fossils is warranted in the paper.
    3  Sphenothallus from the Balang Formation (Stage 4, Cambrian) of South China and its ecological implications
    ZHANG Hui PENG Jin WANG Yi-fan LUO Xiu-chun WANG Qiu-jun
    2022, 61(4):558-567. DOI: 10.19800/j.cnki.aps.2021071 CSTR:
    [Abstract](246) [HTML](0) [PDF 4.46 M](1163)
    Abstract:
    Sphenothallus Hall, 1847, a genus of benthic Cnidaria characterized by elongate cones and tubes, first occurred in the Cambrian and extended to the Permian. This genus has been reported from the Niutitang Formation (Stage 3, Series 2), Tsinghsutung Formation (Stage 4, Series 2), and the Kaili Formation (Wuliuan Stage, Miaolingian Series) in Guizhou Province. It has also been recently discovered in the Balang Formation (Stage 4, Series 2). Based on the characteristics of these tubular fossil specimens, two species, S. kozaki and S. kozaki?, are described from the Balang Formation.Previously, Sphenothallus kozaki was only found in the Jince Formation of the Czech Republic and the Shipai Formation of Hubei Province of South China. Compared with other species of this genus, S. kozaki possesses a long, narrow, straight, conical tube with a circular cross-section and insignificant thickening marks on the inner wall, indicating that the wall of S. kozaki is thin and weak. No transverse striae on the longitudinal thickening are observed. These tubes are straight throughout their length and have a very small angle of expansion. The longitudinal thickenings are not prominent in these specimens. Sphenothallus kozaki? has smaller expansion angles compared with S. kozaki, and the extension from the base to the upper carapace is approximately parallel. The specimens of S. kozaki? have multiple inclined, irregular, longitudinal ridges inside, presumably resulted from taphonomic bias. We describe the holdfast morphology of Sphenothallus kozaki and S. kozaki? and analyze their attachment strategies, providing useful information on the dynamics of of substrate conditions in the Cambrian. The apices of S. kozaki and S. kozaki? specimens from the Balang Formation are conical, and the basal attachment disks are not preserved. These characteristics suggest that the attachment strategies of these specimens are different from other genera. The result shows that S. kozaki and S. kozaki? rely on self-weight to insert their tips into the soft seafloor, anchoring themselves to the soft substrates. The majority of S. kozaki and S. kozaki? specimens are found in mudstone, confirming this observation. Some species of the Cambrian Sphenothallus evolved discoidal holdfast, whereas most post-Cambrian species of the genus are found with discoidal holdfast, possibly indicating that different species of the genus had different attachment strategies during the Cambrian. This change might be an adaptive response to varying substrate conditions during the Cambrian. Comparative analysis of the depositional environments indicates that both the Jince Formation and Shipai Formation are shallow-water platform facies, while the Balang Formation is a deep-water slope belt facies. The new discovery of S. kozaki in the Balang Formation suggests that this species is well adapted to different water depths and is, therefore, more widely distributed. The discovery also provides new information on the cnidarian, evolution, geographic distribution and species diversity of Sphenothallus during the Stage 4 Age (Series 2, Cambrian), and in understanding the benthic community composition of the Balang Biota.
    4  Saukiid trilobites from the middle−upper Chaumitien Formation (Furongian, Cambrian) in northern Anhui
    LEI Qian-ping PENG Shan-chi
    2022, 61(4):568-589. DOI: 10.19800/j.cnki.aps.2021071 CSTR:
    [Abstract](251) [HTML](0) [PDF 29.51 M](1495)
    Abstract:
    Hundreds of specimens of saukiid trilobites were collected from the middle?upper Chaumitien Formation (upper Jiangshanian through Stage 10, Cambrian) at Fenghuangshan Hill in northern Anhui, China. Four genera and six species (including two new species) are described herein: Eosaukia bella (Walcott, 1906), E. anhuiensis sp. nov., Lophosaukia orientalis (Kobayashi, 1933), Prosaukia campe (Walcott, 1905) and P. xiaoxianensis sp. nov., Lichengia onigawara Kobayashi, 1942. After revising and discussing the generic diagnoses, we reexamine and revise the specific diagnoses of the four previously-published species by comparing their type species with others, and briefly discuss the evolutionary relationships among all six species.
    5  The ossicles and fragments of crinoids and their palaeoecology from the Upper Ordovician of Tazhong Platform, Tarim Basin, NW China
    JIANG Hong-xia YANG Yan-jia WU Ya-sheng
    2022, 61(4):590-602. DOI: 10.19800/j.cnki.aps.2021050 CSTR:
    [Abstract](142) [HTML](0) [PDF 12.28 M](1359)
    Abstract:
    Crinoid fragments and ossicles are very common in Ordovician carbonate rocks of the Tazhong Platform, Tarim Basin, Northwest China. In this paper, which differs from the previous studies that focused on intact crinoid fossils, we present a comprehensive analysis of the types and contents of the crinoid stem fossils including ossicles and fragments, and the taphonomy of the symbiotic animals from the Upper Ordovician core of Well Tazhong 35, as well as the sedimentary environments in order to understand the paleoecology of the crinoids. From the core samples, seven types of ossicles are identified: Cyclocyclicus, Pentagonopentagonalis, Pentagonocyclicus, Ellipsocyclicus, Pentagonoellipticus, round Pentagonopentagonalis, and irregular Pentagonopentagonalis. Four ossicle assemblages are recognized: Pentameri, Elliptici, Cyclici and Varii. Results of the statistic analysis of the shape, size and percentage of the ossicles, combined with the taphonomic characteristics of the symbiotic animals and analysis of the sedimentary environments, indicate that crinoids are absent from the community dominated by cyanobacteria and tetradiids in the restricted lagoon environment. Very few slim crinoid ossicles occurr in the biota of gastropods and ostracods in the fine-grained bank facies covering the lagoon facies. Abundant crinoids and various symbiotic bryozoans, Solenopora, dasycladaceans and other organisms are present in the biota of the open platform facies. Both crinoids and bryozoans are filter feeders, and should have a symbiotic but competition relationship in most cases. However, in the Ordovician Tazhong sea, the difference in their body size determines the two groups belong to different filter feeding groups, which eases the competition between them. In communities dominated by crinoids and bryozoans, crinoid ossicles are the most abundant, and all four ossicle assemblages are present. Solenopora is photosynthetic, it has no competition with the crinoids, and its relationship with the crinoids is mutualistic. The crinoid ossicles in the Solenopora–crinoid community belong to the Cyclici type. They are relatively simple, big, and dense, and their content is the highest. The crinoids are widely symbiotic with the dasycladaceans. Due to the influence of the oncoids formed by filamentous cyanobacteria, the number and size of crinoid ossicles and fragments are smaller than those of the dasycladaceans, but they are relatively richer and more diverse, including all four types. Therefore, we suggest that the most suitable environment is the open platform for the Upper Ordovician crinoids from Well Tazhong 35, and the main controlling factors are hydrodynamic energy and water cleanliness. The crinoids flourish more in cleaner water with higher hydrodynamic energy, while turbulent water with low hydrodynamic energy is disadvantageous to their survival.
    6  First report of Trichophycus from the Lower–Middle Ordovician Meitan Formation of Renhuai area, Guizhou and its significance
    ZHANG Xiao-le ZHANG Zhu-tong HUANG Pu WANG Yi WU Rong-chang
    2022, 61(4):603-614. DOI: 10.19800/j.cnki.aps.2022001 CSTR:
    [Abstract](398) [HTML](0) [PDF 5.57 M](1003)
    Abstract:
    Ichnofossils provide invaluable information in understanding the process of colonization of infauna in the shallow-marine shelf settings during the Great Ordovician Biodiversification Event. The ichnofossil Trichophycus is widely reported from the Cambrian-Ordovician strata. However, only a few studies have been conducted to investigate its temporal and spatial occurrences, evolutionary paths, trace maker identy as well as its ecological features. Here, we report Trichophycus from the Lower-Middle Ordovician Meitan Formation of Renhuai area, Guizhou Province for the first time. These fossils consist of relatively wide, straight to curved, U-shaped burrow segments that are arranged in a protrusive mode. The lower and lateral surfaces of the burrows are characterized by sets of longitudinally arranged, parallel to sub-parallel striae. The burrow lacks lining and the infill shows retrusive spreite structures. These diagnostic characteristics allow an assignation to T. venosus Miller, 1879, which is interpreted as a dwelling/feeding structure constructed by a colony of unknown arthropods, while the trace maker of reported Trichophycus elsewhere may come from various groups, representing behavioral convergence. Trichophycus venosus is a member of the Glossifungites ichnofacies, possibly indicating an initial induration of the sea floor or a short-lived sedimentary hiatus. The ichnofossil Trichophycus may serve as a reliable indicator of firmground in shallow-marine settings. The geological distribution of Trichophycus, a pineer ichnogenus, suggests a diachronic infaunalization in shelf settings between different blocks. Occurrence of Trichophycus in the Meitan Formation represents colonization of the shelf substrate during the Great Ordovician Biodiversification Event on the Yangtze platform, South China.
    7  Palynostratigraphy of the Fengcheng Formation (Pennsylvanian to Cisuralian) from the Maye-1 borehole in the Mahu sag, northwestern Junggar Basin, Xinjiang, Northwest China
    SHI Tian-ming ZHANG Hua XIAO Ji-nan AMUTI Aliya LIU Feng TANG Peng ZHU Li-ye XIE Yuan PENG Hui-ping
    2022, 61(4):615-627. DOI: 10.19800/j.cnki.aps.2021075 CSTR:
    [Abstract](372) [HTML](0) [PDF 9.28 M](1337)
    Abstract:
    The Fengcheng Formation in the Mahu sag in northwestern Junggar Basin, Xinjiang, was deposited in an alkaline saline lake and contains large volumes of high-quality source rocks. PetroChina Xinjiang Oilfield Company conducted the Maye-1 borehole project and collected the entire sequence of the Fengcheng Formation in the Mahu sag to evaluate and explore the oil and gas potential in this area. In order to better constrain the age of the Fengcheng Formation, a palynostratigraphic project has been conducted since 2019. A total of fifty palynological samples, mainly of shale, claystone and siltstone, were collected from the Maye-1 core. All samples were cleaned, crushed, weighed (30-50 g for each sample), and macerated following the standard HCl-HF-HCl method. The organic residues were sieved through 180 and 10 μm meshes, respectively. The residues were then mounted on microscope slides using glycerin jelly. Palynomorphs were observed and photographed using a LEICA DM 2500 microscope equipped with a D800E camera. However, a considerable number of palynomorphs are not well preserved, usually with various sizes of secondary cavities or perforations. All slides are stored in the PetroChina Xinjiang Oilfield Company, Karamay, Xinjiang, China. Positions of the spores and pollen illustrated in the text figures are located using an England Finder Slide. Based on systematic palynological identification and statistics, a new fossil palynological assemblage, Protohaploxypinus perfectus-Lunatisporites tersus (PT) assemblage, is established for the Fengcheng Formation. Twenty-nine species in twenty genera of spores and pollen were recognized in the PT Assemblage from fifty macerated samples. In the PT assemblage, the Disaccites striatiti pollen is dominant, while the fern spores are relatively rare. The comparison of the dispersed and in-situ spores and pollen associated with their reliable parent plants shows that the palynoflora consists of dominant species of Peltaspermales and species of Coniferales as the second major component. The PT assemblage is correlatable with the Crustaesporites–Protohaploxypinus–Hamiapollenites assemblage from the upper part of the Tashenkula Formation to the Wulabo Formation at the southern margin of the Junggar basin due to the high portion of the Disaccites striatiti pollen in the palynoflora and the crucial co-occurring species, including Gardenasporites bilabiatus, Triangulisaccites boleensis and Hamiapollenites saccatus. In addition, the PT Assemblage, mainly consisting of the Disaccites striatiti pollen (> 70%), differs from the Bashkirian Calamospora breviradiata–Lunatisporites tersus assemblage from the age-constrained Jiamuhe Formation in the nearby Zhongguai uplift. The latter assemblage bears a slightly less Disaccites striatiti pollen (ca. 60%) and an equal amount of Calamospora spores (ca. 40%), indicating that the PT assemblage is reliably dated as post-Bashkirian. Based on the precise U-Pb zircon dates from two tuff layers (304.9 ± 0.69 Ma and 299.9 ± 0.64 Ma) in the lower part and a tuff bed (296.9 ± 0.8 Ma) in the upper part of the Fengcheng Formation in the Mahu sag, the age of Fengcheng Formation is constrained to the Kasimovian–Asselian. In summary, careful palynological comparisons and precise geochronological data suggest that the PT assemblage from the Fengcheng Formation of the Maye-1 borehole was likely deposited from the Kasimovian to the Asselian age. Moreover, the age of the entire Fengcheng Formation in the Mahu sag should be younger than the Bashkirian, and the upper part of the Fengcheng Formation may contain some Asselin sediments. Abundant Disaccites striatiti pollen and the intriguing emergence of the cold-water Gadus in the shales and the warm-phase authigenic alkali minerals of eitelite and shortite from the interbedded saline layers indicate that the rhythmic sedimentary strata of the Fengcheng Formation in the Mahu sag were probably formed in paleoenvironments with frequent fluctuations of cold-dry and warm-dry paleoclimate conditions.
    8  Late Permian non-marine gastropods from Taoshuyuan, Turpan Basin, Xinjiang
    ZHU Xiang-gen
    2022, 61(4):628-642. DOI: 10.19800/j.cnki.aps.2021072 CSTR:
    [Abstract](334) [HTML](0) [PDF 3.68 M](1275)
    Abstract:
    The Late Permian Xiacangfanggou Group in Taoshuyuan area of Turpan Basin, Xinjiang consists of the Quanzijie, Wutonggou and Guodikeng formations in ascending order. The sedimentary sequence represents continuous fluvial-lacustrine siliciclastic deposits with abundant animal and plant fossils. The gastropod specimens described in this paper are found from the bioclastic limestone layers and limestone concretions in the lower and middle parts of the Wutonggou Formation at the Taodonggou section. These gastropod fossils collected from two horizons are assigned to six species, four genera belonging to two families. These species are Xinjiangospira rotundata, Xinjiangospira habita sp. nov., Hydrobia turpanensis, Hydrobia orientalis sp. nov., Pseudamnicola taodonggouensis sp. nov. and Valvata complanusa sp. nov. Other associated fossils are bivalves, phyllopods, ostracods, vertebrates and plants. The bivalves are dominated by Palaeanodonta, Palaeomutela and Anthraconauta. The Late Permian gastropod fauna from the Wutonggou Formation is composed of freshwater Hydrobiidae and Valvatidae. Characterized by well-preserved speci mens in large quantity, this fauna represents the most abundant Paleozoic freshwater gastropod fauna known so far. This fauna shows similarity to those from the Xiaolongkou Formation (= Guodikeng Formation) from the Dalongkou section, Junggar Basin, and the Upper Permian (Karu System) in southern Rhodesia, Africa.
    9  Morphological differences and intraspecific variations of the forefins of Mixosaurus panxianensis from the Middle Triassic of Panzhou, Guizhou
    ZHOU Min JIANG Da-yong MOTANI Ryosuke LU Hao
    2022, 61(4):643-653. DOI: 10.19800/j.cnki.aps.2021064 CSTR:
    [Abstract](558) [HTML](0) [PDF 3.29 M](1514)
    Abstract:
    The anatomy of the forefins of Mixosauridae, including ontogenetic and intraspecific variations, remains poorly known due to the lack of well-preserved materials except for Mixosaurus cornalianus. Several specimens of Mixosaurus panxianensis in different sizes excavated from Panzhou City, Guizhou Province were studied. The result shows some ontogenetic variations in their ulnae, radialia, phalanges and pisiforms. Moreover, the development of the notches on the anterior margin of radius and the proximal margin of intermedium is variable within individuals of Mixosaurus panxianensis.
    10  Discovery of the Early Cretaceous Jehol Entomofauna from the Mashiping Basin, western Henan and its stratigraphic implications
    ZHANG Xin ZHENG Da-ran
    2022, 61(4):654-661. DOI: 10.19800/j.cnki.aps.2022011 CSTR:
    [Abstract](423) [HTML](0) [PDF 4.34 M](1331)
    Abstract:
    The Jehol Biota is the best preserved Cretaceous terrestrial biota and one of the most important and exceptionally well-preserved lagerst?tten worldwide. According to the three-stage evolutionary theory of the Jehol Biota, this biota extended southward to the Qinling and Dabie mountains, including the western and southern regions of Henan Province, during the second stage. Earlier studies have documented Ephemeropsis trisetalis, a typical element of the Jehol Biota, from western Henan. In this paper, the larva fossils of Aeschnidiidae and Ephemeropsis trisetalis are first reported from the Nanzhao Formation in the Mashiping Basin, Nanzhao Country, western Henan Province. Aeschnidiid larvae were previously only recorded in the Yixian Formation and its equivalent strata. Aeschnidiid larvae belong to the characteristic element of the second stage of the Jehol Biota. The newly discovered insect fossils from western Henan confirm that the Jehol Biota had already reached this area during the second stage. This study further indicates that the age of the Nanzhao Formation is Early Cretaceous instead of Late Jurassic, and the Nanzhao Formation may be somewhat correlatable with the Yixian Formation in western Liaoning.
    11  Tewomorpha, a new name for Tewoella Ding and Li, 1987 (Bivalvia: Heteroconchia: Modiomorphidae: Butovicellinae), preoccupied by Tewoella Sun, 1979 (Protista: Fusulinoidea: Palaeofusulininae)
    FANG Zong-jie
    2022, 61(4):662-663. DOI: 10.19800/j.cnki.aps.2022004 CSTR:
    [Abstract](391) [HTML](0) [PDF 363.93 K](1006)
    Abstract:
    In 1987, a new genus nameTewoella Ding and Li, 1987 was proposed for some Lower Devonian marine bivalves from Tewo, Gansu Province, northwestern China. However, as early as 1979, Sun Xiu-fang had established the identical genus name Tewoella Sun, 1979 (type species: Tewoella longa Sun, 1979) for the fusulinoidean fossils from the Late Permian Shi-guan Group also in Tewo, Gansu Province, northwestern China. According to Article 60.3 of ICZN, a new genus name, Tewomorpha nom. nov. is here proposed to replace Tewoella Ding and Li, 1987 based on the same type species, Tewoella xiawunaensis Ding and Li, 1987.
    12  Chinese names of major fossil coral groups: traditional and recommended usage
    WANG Guang-xu CUI Yu-nong
    2022, 61(4):664-671. DOI: 10.19800/j.cnki.aps.2022035 CSTR:
    [Abstract](489) [HTML](0) [PDF 850.39 K](1296)
    Abstract:
    Rugosa, Tabulata and Scleractinia are the three major fossil coral groups in the Phanerozoic. However, Chinese translations of their names are inconsistent. In this paper, following an introduction of the concepts of the three groups, the history of their Chinese names is reviewed, and their recommended usages are discussed. Rugosa ranges from the Middle Ordovician through the Permian, and is typified by serial septal insertion in four quadrants. This taxon was established by Milne-Edwards and Haime in 1850. Therefore, Rugosa has priority over Tetracorallia Haeckel, 1866, Tetracoralla Haeckel, 1870, and Tetraseptata Grabau, 1913, names subsequently introduced based on its distinctive mode of septal insertion. Chinese names of this fossil group first appeared in Japanese literature at the end of the nineteenth and the beginning of the twentieth century, with Tetracoralla being translated as “四射珊瑚” or “四放珊瑚”, and Rugosa as “褶襞珊瑚” or “皱皮珊瑚”. Other translations introduced later by Chinese authors include “皱纹珊瑚”, “皱壁珊瑚”, and “皱珊瑚”. Among all these translations, “四射珊瑚” and “皱纹珊瑚” are presently accepted and most widely used. But “皱纹珊瑚” is preferred herein due to the obsolescence of the terms Tetracorallia, Tetracoralla, and Tetraseptata, and their translation “四射珊瑚”. Tabulata was the other dominant coral group in the Paleozoic, ranging also from the Middle Ordovician to the end of the Permian. First proposed by Milne-Edwards and Haime in 1850, the name Tabulata takes priority over Aseptata Grabau, 1913. Its earliest Chinese translation was derived from the Japanese kanji name “床板珊瑚” at the end of the nineteenth century. Subsequent names translated by Chinese coral workers include “牀板珊瑚”, “横板珊瑚”, and “板珊瑚”. Among them, both “床板珊瑚” and “横板珊瑚” are still commonly used. However, we prefer the former due to its much longer history and more popularity. It is noteworthy that some authors used the name Aseptata and its translation “无射珊瑚”, and some adopted the concept of Tabulatomorpha Sokolov, 1971 and its translations of “床板珊瑚形珊瑚” and “床板珊瑚型珊瑚”. However, none of them has received much attention. Scleractinia, one of the major reef-building groups, first occurred in the Middle Triassic and persists to the present day. Forms now assigned to Scleractinia were initially part of Madreporaria Milne-Edwards and Haime, 1857. However, it was not until 1900 when Bourne introduced the name Scleractinia, and 1943 when Vaughan and Wells proposed its current concept. Two Chinese translations of the name Scleractinia have thus far been available, i.e., “石珊瑚” and “硬珊瑚”, with the former being more widely used and thus being recommended in this paper.

    Current Issue


    Volume , No.

    Table of Contents

    Archive

    Volume

    Issue

    Most Read

    Most Cited

    Most Downloaded



    WeChat

    Mobile website