scholarly journals Supplemental Material: Stratigraphy, age, and provenance of the Eocene Chumstick basin, Washington Cascades; implications for paleogeography, regional tectonics, and development of strike-slip basins

2021 ◽  
Author(s):  
Erin E. Donaghy ◽  
et al.
Keyword(s):  
Detrital Zircon ◽  
Accumulation Rate ◽  
Sediment Accumulation ◽  
Raw Data ◽  
Sandstone Sample ◽  
Thickness Variations ◽  
Detrital Zircon Ages ◽  
Stratigraphic Thickness ◽  
Lithofacies Association ◽  
Regional Tectonics

(1) Descriptions of spatial and temporal stratigraphic thickness variations in the Chumstick basin and methods for sediment accumulation rate calculations, (2) Detailed descriptions and photographs of each lithofacies association of the Chumstick Formation defined in the text of the manuscript, (3) Tables of raw and summary conglomerate clast count data for each member of the Chumstick Formation, (4) Summary tables of conglomerate detrital modes for each member of the Chumstick Formation, (5) Summary tables and age probability plots of detrital zircon ages from each sandstone sample collected within the Chumstick Formation, (6) Conglomerate clast raw data from LaCasse (2013) and (7) Tables of detrital zircon raw data from each individual sandstone sample within the Chumstick Formation (Donaghy, 2015).

scholarly journals Supplemental Material: Stratigraphy, age, and provenance of the Eocene Chumstick basin, Washington Cascades; implications for paleogeography, regional tectonics, and development of strike-slip basins

2021 ◽  
Author(s):  
Erin E. Donaghy ◽  
et al.
Keyword(s):  
Detrital Zircon ◽  
Accumulation Rate ◽  
Sediment Accumulation ◽  
Raw Data ◽  
Sandstone Sample ◽  
Thickness Variations ◽  
Detrital Zircon Ages ◽  
Stratigraphic Thickness ◽  
Lithofacies Association ◽  
Regional Tectonics

(1) Descriptions of spatial and temporal stratigraphic thickness variations in the Chumstick basin and methods for sediment accumulation rate calculations, (2) Detailed descriptions and photographs of each lithofacies association of the Chumstick Formation defined in the text of the manuscript, (3) Tables of raw and summary conglomerate clast count data for each member of the Chumstick Formation, (4) Summary tables of conglomerate detrital modes for each member of the Chumstick Formation, (5) Summary tables and age probability plots of detrital zircon ages from each sandstone sample collected within the Chumstick Formation, (6) Conglomerate clast raw data from LaCasse (2013) and (7) Tables of detrital zircon raw data from each individual sandstone sample within the Chumstick Formation (Donaghy, 2015).

Supplemental Material: A sub-centennial-scale optically stimulated luminescence chronostratigraphy and late Holocene flood history from a temperate river confluence

2020 ◽  
Author(s):  
Ben Pears
Keyword(s):  
Statistical Analysis ◽  
Accumulation Rate ◽  
Sediment Accumulation ◽  
Principal Component ◽  
Hierarchical Cluster ◽  
Sediment Accumulation Rate ◽  
Data Sets ◽  
Raw Data ◽  
Summary Sheet ◽  
Agglomerative Hierarchical Cluster Analysis

S1–S16; Figures S1 (sediment accumulation rate modeled by OxCal and Bacon) and S2 (relative moisture values between OSL and LOI analytical methods); Table S1 (OSL procedure from the Rivers Severn-Teme confluence at Powick, UK); and Data Sets S1 (raw data for the modeled calendric dates, sediment accumulation rate, and sedimentological analyses), S2 (raw and log normalized data for ITRAX XRF analysis and key elements Zr, Rb, Fe, Mn, and heavy metals illustrated in Fig. 2), S3 (individual raw data sets for each 5 cm pOSL run alongside a background sediment sample and a summary sheet of all data and replicates), S4 (raw data, log normalized data, and statistical analysis used in the agglomerative hierarchical cluster analysis illustrated in Fig, 2), S5 (calculated log data of sedimentary analyses by 50 yr period and the statistical analysis used in the principal component analysis illustrated in Fig. 3), and S6 (20 yr grouping for the sediment deposition models for the Severn-Teme confluence at Powick, Broadwas, and Buildwas and climatic datasets illustrated in Fig. 4)<br>

scholarly journals Supplemental Material: Initial uplift of the Qilian Shan, northern Tibet since ca. 25 Ma: Implications for regional tectonics and origin of eolian deposition in Asia

2022 ◽  
Author(s):  
Haijian Lu ◽  
et al.
Keyword(s):  
Detrital Zircon ◽  
Sem Images ◽  
Sandstone Sample ◽  
Northern Tibet ◽  
Regional Tectonics

Supplemental dataset: Detrital zircon U-Pb ages of the sandstone samples from the Lulehe and Hongshangou sections; Figure S1: SEM images of 129 grains from sandstone sample LLH-1 showing grain roundness characteristics; Figure S2: SEM images of 140 grains from sandstone sample LLH-2 showing grain roundness characteristics; Figure S3: SEM images of 123 grains from sandstone sample LLH-3 showing grain roundness characteristics; Figure S4: SEM images of 122 grains from sandstone sample HSG-7 showing grain roundness characteristics; Figure S5: SEM images of 123 grains from sandstone sample HSG-8 showing grain roundness characteristics; Figure S6: SEM images of 123 grains from sandstone sample HSG-9 showing grain roundness characteristics; Figure S7: SEM images of representative grains from the Lulehe and Hongshangou sections showing surface microtextures.

scholarly journals Supplemental Material: A sub-centennial-scale optically stimulated luminescence chronostratigraphy and late Holocene flood history from a temperate river confluence

2020 ◽  
Author(s):  
Ben Pears
Keyword(s):  
Statistical Analysis ◽  
Accumulation Rate ◽  
Sediment Accumulation ◽  
Principal Component ◽  
Hierarchical Cluster ◽  
Sediment Accumulation Rate ◽  
Data Sets ◽  
Raw Data ◽  
Summary Sheet ◽  
Agglomerative Hierarchical Cluster Analysis

S1–S16; Figures S1 (sediment accumulation rate modeled by OxCal and Bacon) and S2 (relative moisture values between OSL and LOI analytical methods); Table S1 (OSL procedure from the Rivers Severn-Teme confluence at Powick, UK); and Data Sets S1 (raw data for the modeled calendric dates, sediment accumulation rate, and sedimentological analyses), S2 (raw and log normalized data for ITRAX XRF analysis and key elements Zr, Rb, Fe, Mn, and heavy metals illustrated in Fig. 2), S3 (individual raw data sets for each 5 cm pOSL run alongside a background sediment sample and a summary sheet of all data and replicates), S4 (raw data, log normalized data, and statistical analysis used in the agglomerative hierarchical cluster analysis illustrated in Fig, 2), S5 (calculated log data of sedimentary analyses by 50 yr period and the statistical analysis used in the principal component analysis illustrated in Fig. 3), and S6 (20 yr grouping for the sediment deposition models for the Severn-Teme confluence at Powick, Broadwas, and Buildwas and climatic datasets illustrated in Fig. 4)<br>

scholarly journals Supplemental Material: Initial uplift of the Qilian Shan, northern Tibet since ca. 25 Ma: Implications for regional tectonics and origin of eolian deposition in Asia

2022 ◽  
Author(s):  
Haijian Lu ◽  
et al.
Keyword(s):  
Detrital Zircon ◽  
Sem Images ◽  
Sandstone Sample ◽  
Northern Tibet ◽  
Regional Tectonics

Supplemental dataset: Detrital zircon U-Pb ages of the sandstone samples from the Lulehe and Hongshangou sections; Figure S1: SEM images of 129 grains from sandstone sample LLH-1 showing grain roundness characteristics; Figure S2: SEM images of 140 grains from sandstone sample LLH-2 showing grain roundness characteristics; Figure S3: SEM images of 123 grains from sandstone sample LLH-3 showing grain roundness characteristics; Figure S4: SEM images of 122 grains from sandstone sample HSG-7 showing grain roundness characteristics; Figure S5: SEM images of 123 grains from sandstone sample HSG-8 showing grain roundness characteristics; Figure S6: SEM images of 123 grains from sandstone sample HSG-9 showing grain roundness characteristics; Figure S7: SEM images of representative grains from the Lulehe and Hongshangou sections showing surface microtextures.

scholarly journals Supplemental Material: A sub-centennial-scale optically stimulated luminescence chronostratigraphy and late Holocene flood history from a temperate river confluence

2020 ◽  
Author(s):  
Ben Pears
Keyword(s):  
Statistical Analysis ◽  
Accumulation Rate ◽  
Sediment Accumulation ◽  
Principal Component ◽  
Hierarchical Cluster ◽  
Sediment Accumulation Rate ◽  
Data Sets ◽  
Raw Data ◽  
Summary Sheet ◽  
Agglomerative Hierarchical Cluster Analysis

S1–S16; Figures S1 (sediment accumulation rate modeled by OxCal and Bacon) and S2 (relative moisture values between OSL and LOI analytical methods); Table S1 (OSL procedure from the Rivers Severn-Teme confluence at Powick, UK); and Data Sets S1 (raw data for the modeled calendric dates, sediment accumulation rate, and sedimentological analyses), S2 (raw and log normalized data for ITRAX XRF analysis and key elements Zr, Rb, Fe, Mn, and heavy metals illustrated in Fig. 2), S3 (individual raw data sets for each 5 cm pOSL run alongside a background sediment sample and a summary sheet of all data and replicates), S4 (raw data, log normalized data, and statistical analysis used in the agglomerative hierarchical cluster analysis illustrated in Fig, 2), S5 (calculated log data of sedimentary analyses by 50 yr period and the statistical analysis used in the principal component analysis illustrated in Fig. 3), and S6 (20 yr grouping for the sediment deposition models for the Severn-Teme confluence at Powick, Broadwas, and Buildwas and climatic datasets illustrated in Fig. 4)<br>

DETRITAL ZIRCON AGES REVEAL POST 15 MA CONVERGENCE AND PLEISTOCENE-QUATERNARY BASEMENT UNROOFING IN THE CAUCASUS

2017 ◽  
Author(s):  
Alexander Tye ◽  
◽  
Nathan A. Niemi ◽  
Rafiq Safarov ◽  
Fakhraddin Kadirov
Keyword(s):  
Detrital Zircon ◽  
The Caucasus ◽  
Detrital Zircon Ages
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