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  • 1
    Publication Date: 2023-06-27
    Keywords: 27-263; Deep Sea Drilling Project; DEPTH, sediment/rock; DRILL; Drilling/drill rig; DSDP; DSDP/ODP/IODP sample designation; Glomar Challenger; Indian Ocean//PLAIN; Leg27; Mass spectrometer Finnigan Delta Plus; Sample code/label; δ13C, organic carbon
    Type: Dataset
    Format: text/tab-separated-values, 60 data points
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  • 2
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    PANGAEA
    In:  Supplement to: Oosting, A M; Leereveld, H; Dickens, Gerald Roy; Henderson, R A; Brinkhuis, Henk (2006): Correlation of Barremian-Aptian (mid-Cretaceous) dinoflagellate cyst assemblages between the Tethyan and Austral realms. Cretaceous Research, 27(6), 792-813, https://doi.org/10.1016/j.cretres.2006.03.012
    Publication Date: 2023-06-27
    Description: Quantified organic-walled dinoflagellate cyst (dinocyst) assemblages are presented for two sedimentary successions deposited in neritic environments of the Tethys Ocean during the Barremian and Aptian in an attempt to reconcile established dinocyst biostratigraphic schemes for Tethyan and Austral regions. One section is at Angles, southeast France (the Barremian stratotype section); the other is at Deep Sea Drilling Project Site 263, off northwest Australia. We also construct a carbon isotope record for Site 263 using bulk organic carbon. Both sections contain abundant, well-preserved dinocyst assemblages. These are diverse, with 89 taxa identified at Angles and 103 taxa identified at Site 263. Of these, more than 93% are cosmopolitan. When combined with other work at Angles and Site 263, we found that nine dinocysts have their first occurrence (FO) or last occurrence (LO) at both locations. These dinocyst events are, in alphabetical order: LO of Cassiculosphaeridia magna, FO of Criboperidinium? tenuiceras, LO of Kleithriasphaeridium fasciatum, LO of Muderongia staurota, FO of Odontochitina operculata, LO of Phoberocysta neocomica, FO of Prolixosphaeridium parvispinum, FO of Pseudoceratium retusum var. securigerum, and FO of Tehamadinium sousense. Although these events support a Barremian-Aptian age for both sections, their stratigraphic order is not the same in the sections. The d13Corg record at Site 263 displays a characteristic series of changes that have also been recorded in other carbon isotope curves spanning the Late Barremian-Early Aptian. Such independent dating (along with ammonite zones at Angles) suggests that three of the nine dinocyst events are approximately isochronous at Angles and Site 263: the LO of K. fasciatum in the mid Barremian, the FO of P. retusum var. securigerum and the FO of C.? tenuiceras in the earliest Aptian; the other six dinocyst events are diachronous. Dinocyst assemblages at Site 263 can be loosely placed within existing Australian zonation schemes, providing much-needed calibration. Our data suggest that the Muderongia testudinaria Zone ends in sediments of mid Barremian age, the succeeding Muderongia australis Zone extends into the Early Aptian, and the younger Odontochitina operculata Zone begins in Early Aptian deposits. The boundary between the M. australis and O. operculata zones, and the Ovoidinium cinctum (as Ascodinium) Subzone, positioned at the top of the M. australis Zone when present, could not be recognized incontrovertibly. Interestingly, however, this horizon broadly correlates with the onset and extent of the Selli Event, a time of major biogeochemical change.
    Keywords: 27-263; Angles; Deep Sea Drilling Project; DRILL; Drilling/drill rig; DSDP; France; Glomar Challenger; HAND; Indian Ocean//PLAIN; Leg27; Sampling by hand
    Type: Dataset
    Format: application/zip, 3 datasets
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  • 3
    Publication Date: 2023-07-10
    Keywords: 27-263; Achomosphaera spp.; Adnatosphaeridium tutulosum; Alterbidinium spp.; Aprobolocysta eilema; Aprobolocysta sp.; Aprobolocysta spp.; Apteodinium granulatum; Apteodinium maculatum; Apteodinium sp.; Avellodinium lepidum; Batiacasphaera reticulata; Batiacasphaera spp.; Batioladinium jaegeri; Batioladinium micropodum; Batioladinium spp.; Belodinium dysculum; Canningia reticulata; Carpodinium granulatum; Carpodinium spp.; Cassiculosphaeridia magna; Cassiculosphaeridia pygmaeus; Cassiculosphaeridia spp.; Cerbia cf. tabulata; Cernicysta helbyi; Cernicysta sp.; Cernicysta spp.; Circulodinium colliveri; Circulodinium spp.; Circulodinium vermiculatum; Cleistosphaeridium spp.; Cometodinium spp.; Coronifera oceanica; Cribroperidinium sp.; Cribroperidinium spp.; Cribroperidinium tenuiceras; Cyclonephelium spp.; Deep Sea Drilling Project; DEPTH, sediment/rock; Diconodinium micropunctatum; Dingodinium cerviculum; Discorsia nannus; DRILL; Drilling/drill rig; Druggidium deflandrei; DSDP; DSDP/ODP/IODP sample designation; Endoscrinium attadalense; Endoscrinium bessebae; Endoscrinium spp.; Epitricysta vinckensis; Escharisphaeridea spp.; Exochosphaeridium spp.; Florentinia resex; Florentinia spp.; Fromea monilifera; Glomar Challenger; Gonyaulacysta spp.; Herendeenia postprojecta; Heslertonia spp.; Heterosphaeridium heteracanthum; Heterosphaeridium spp.; Hystrichodinium pulchrum; Hystrichodinium spp.; Impagidinium phlyctaena; Impagidinium spp.; Indian Ocean//PLAIN; Kaiwaradinium scrutillinum; Kiokansium unituberculatum; Kleithriasphaeridium eoinodes; Leg27; Leiosphaera spp.; Leptodinium spp.; Lithodinia spp.; Meiourogonyaulax psora; Meiourogonyaulax sp.; Microdinium spp.; Muderongia australis; Muderongia crusis; Muderongia mcwhaei; Muderongia staurota; Muderongia tetracantha; Odontochitina operculata; Oligosphaeridium complex; Ovoidinium cinctum; Pareodinia ceratophora; Pareodinia spp.; Pentafidia punctata; Pervosphaeridium truncatum; Platycistidia eisenackii; Prolioxosphaeridium parvispinium; Prolixosphaeridium spp.; Protoellipsodinium spinosum; Protoellipsodinium spp.; Pseudoceratium retusum var. securigerum; Pterodinium spp.; Pyxidiella tumida; Rhombodella natans; Sample code/label; Scriniodinium campanula; Sentusidinium spp.; Sepispinula ambigua; Sepispinula spp.; Spiniferites spp.; Stiphrosphaeridium anthophorum; Stiphrosphaeridium dictyophorum; Subtilisphaera spp.; Systematophora areolata; Tanyosphaeridium spp.; Tehamadinium sousense; Tenua spp.; Tetrachacysta allenii; Trichodinium castanea; Wallodinium luna
    Type: Dataset
    Format: text/tab-separated-values, 1456 data points
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  • 4
    Publication Date: 2023-07-10
    Keywords: Acanthaulax spp.; Achomosphaera spp.; Angles; Batioladinium micropodum; Callaiosphaeridium asymmetricum; Canningia spp.; Cassiculosphaeridia magna; Cassiculosphaeridia reticulata; Cerbia tabulata; Chytroeisphaeridia chytroeides; Circulodinium spp.; Cleistosphaeridium spp.; Cometodinium comatum; Cometodinium habibii; Coronifera albertii; Coronifera oceanica; Cribroperidinium spp.; Cribroperidinium tenuiceras; Ctenidodinium elegantulum; Cyclonephelium intonsum; Cymososphaeridium validum; Dingodinium cerviculum; Dingodinium europaeum; Discorsia nannus; Dissiliodinium globulum; Druggidium apicopaucicum; Druggidium deflandrei; Elytrocysta circulata; Endoscrinium bessebae; Escharisphaeridia spp.; Exiguisphaera phragma; Exochosphaeridium phragmites; Florentinia cooksoniae; Florentinia interrupta; Florentinia mantellii; Florentinia spp.; France; Gardodinium spp.; Gardodinium trabeculosum; HAND; Heslertonia heslertonensis; Heterosphaeridium heteracanthum; Histiocysta outananensis; Hystrichodinium pulchrum; Hystrichogonyaulax spp.; Hystrichosphaeridium recurvatum; Hystrichsphaeridium tubiferum; Kiokansium spp.; Kleithriasphaeridium corrugatum; Kleithriasphaeridium eoinodes; Meiourogonyaulax amlasis; Meiourogonyaulax stoveri; Muderongia simplex; Muderongia staurota; Occisucysta tentoria; Odontochitina operculata; Oligosphaeridium complex; Ovoidinium diversum; Palaeoperidinium cretaceum; Pareodinia ceratophora; Phoberocysta neocomica; Phoberocysta tabulata; Polystephanephorus euryanthus; Prolixosphaeridium parvispinum; Prolixosphaeridium spp.; Protoellipsodinium spp.; Protoellipsodinium touile; Pseudoceratium pelliferum; Pseudoceratium retusum; Pseudoceratium retusum var. securigerum; Pterodinium spp.; Rhynchodiniopsis fimbriata; Sample code/label; Sampling by hand; Scriniodinium campanula; Sentusidinium spp.; Sepispinula spp.; Spiniferites spp.; Stanfordella cretacea; Stiphrosphaeridium dictyophorum; Subtilisphaera spp.; Systematophora spp.; Tanyosphaeridium spp.; Tehamadinium coummia; Tehamadinium sousense; Trichodinium castanea; Trichodinium ciliatum; Wallodinium krutzschii; Wrevittia cassidata; Wrevittia helicoidea; Wrevittia perforobtusa
    Type: Dataset
    Format: text/tab-separated-values, 1800 data points
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  • 5
    Publication Date: 2019-07-17
    Repository Name: EPIC Alfred Wegener Institut
    Type: Article , isiRev
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  • 6
    ISSN: 1525-1314
    Source: Blackwell Publishing Journal Backfiles 1879-2005
    Topics: Geosciences
    Notes: Abstract Regional metamorphic rocks that form Late Palaeozoic subduction complexes in central Queensland, Australia, are products of two metamorphic episodes. Synaccretion metamorphism (M1) gave rise to prehnite-pumpellyite and greenschist facies rocks, whereas a subsequent episode (M2) at about 250 Ma formed upper greenschist to upper amphibolite facies rocks of both intermediate- and low-pressure type, probably in a compressive arc or back-arc setting. A similar pattern can be recognized for 1000 km along the New England Fold Belt, although at several localities, where higher grade rocks are exposed, metamorphism was essentially continuous over the M1-M2 interval, with a rapid rise in geothermal gradient at the end of accretion. Where out-stepping of tectonic elements has occurred at long-lived convergent margins elsewhere, similar overprinting of high- by lower-pressure facies series is anticipated, complicating the tectonic interpretation of metamorphism. The discrete character of metamorphic events may be blurred where conditions giving rise to a major episode of accretion and out-stepping are followed by the subduction of a major heat source.
    Type of Medium: Electronic Resource
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  • 7
    Electronic Resource
    Electronic Resource
    s.l. : American Chemical Society
    Journal of the American Chemical Society 65 (1943), S. 2196-2200 
    ISSN: 1520-5126
    Source: ACS Legacy Archives
    Topics: Chemistry and Pharmacology
    Type of Medium: Electronic Resource
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  • 8
    Electronic Resource
    Electronic Resource
    [S.l.] : American Institute of Physics (AIP)
    Journal of Applied Physics 78 (1995), S. 2447-2455 
    ISSN: 1089-7550
    Source: AIP Digital Archive
    Topics: Physics
    Notes: We report a derivation of the 4×4 Luttinger valence band and Bir–Pikus strain Hamiltonians valid for any [11l]-oriented epilayers. It is shown that epitaxial layers grown on substrates oriented in certain of the [11l] directions exhibit anisotropic optical transition matrix elements. This anisotropy is predicted to have its maximum for the (110) surface. For pseudomorphic epitaxial layers, calculations indicate that the zone center band gap of these structures is changed due to the effects of strain, with the largest changes occurring for those structures grown on the (111) surface. © 1995 American Institute of Physics.
    Type of Medium: Electronic Resource
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  • 9
    Electronic Resource
    Electronic Resource
    [S.l.] : American Institute of Physics (AIP)
    Journal of Applied Physics 77 (1995), S. 843-848 
    ISSN: 1089-7550
    Source: AIP Digital Archive
    Topics: Physics
    Notes: The photoluminescence characteristics of pseudomorphic In0.19Ga0.81As/GaAs quantum well structures grown on both the conventional (001) and the unconventional (112)B GaAs substrate are investigated. It is found that the emission spectra of the structures grown on the (112)B surface exhibit some spectral characteristics not observed on similar structures grown on the (001) surface. A spectral blue shift of the e→hh1 transition with increasing optical pump intensity is observed for the quantum wells on the (112) surface. This shift is interpreted to be evidence of a strain-induced piezoelectric field. A second spectral feature located within the band gap of the In0.19Ga0.81As layer is also observed for the (112) structure; this feature is thought to be an impurity-related emission. The expected transition energies of the quantum well structures are calculated using the effective mass theory based on the 4×4 Luttinger valence band Hamiltonian, and a related strain Hamiltonian. © 1995 American Institute of Physics.
    Type of Medium: Electronic Resource
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  • 10
    Electronic Resource
    Electronic Resource
    [S.l.] : American Institute of Physics (AIP)
    Journal of Applied Physics 79 (1996), S. 2029-2037 
    ISSN: 1089-7550
    Source: AIP Digital Archive
    Topics: Physics
    Notes: The effects of arbitrary substrate orientation on the electronic and optical properties of III-V zinc-blende semiconductors are considered. A unitary transformation matrix is used to rotate the 4×4 Luttinger valence band Hamiltonian, and the Bir-Pikus strain Hamiltonian from the conventional (001) surface to any arbitrary (hkl) surface of interest. The effects of strain on several electronic and optical properties are examined. It is found that the strain-induced change in the forbidden gap is largest for the (111) plane and other equivalent planes. Furthermore, the strain is also found to induce both a longitudinal and a transverse piezoelectric field. The longitudinal field reaches a maximum for the (111) surface and its other equivalent planes, while the transverse field reaches a maximum for the (110) surface and its other equivalent planes. The orientation-dependence of the hole effective masses is also examined; it is found that the (111) surface, and other equivalent planes, exhibits the largest heavy-hole mass among all possible planes. Finally, this article examines the effects of orientation on the optical transition matrix elements. For incident light with in-plane polarization vectors, the matrix elements are, in general, anisotropic—with the largest anisotropies predicted for two new surfaces: the ((square root of)310) and the (1(square root of)30) surface. © 1996 American Institute of Physics.
    Type of Medium: Electronic Resource
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