Brian G. Jones mostly deals with Paleontology, Oceanography, Quaternary, Holocene and Fluvial. His Paleontology study frequently links to other fields, such as Storm. While the research belongs to areas of Oceanography, he spends his time largely on the problem of Glacial period, intersecting his research to questions surrounding Monsoon, Megafauna and Paleoclimatology.
His Quaternary research also works with subjects such as
His primary areas of study are Paleontology, Oceanography, Holocene, Estuary and Geochemistry. His study in Oceanography is interdisciplinary in nature, drawing from both Deposition, Sediment and Marine transgression. Brian G. Jones has included themes like Radiocarbon dating, Quaternary, Pleistocene and Fluvial in his Holocene study.
His work in Quaternary addresses subjects such as Glacial period, which are connected to disciplines such as Physical geography. He combines subjects such as Drainage basin, Sedimentation and Bay with his study of Estuary. His studies deal with areas such as Mineralogy and Petrology as well as Geochemistry.
Brian G. Jones mainly focuses on Oceanography, Structural basin, Paleontology, Geochemistry and Sediment. As part of one scientific family, Brian G. Jones deals mainly with the area of Oceanography, narrowing it down to issues related to the Progradation, and often Chenier, Quaternary and Radiocarbon dating. His work in Geochemistry tackles topics such as Allochthon which are related to areas like Zircon, Petrography, Detritus and Red beds.
Brian G. Jones has researched Sediment in several fields, including Hydrology, Erosion, Trace element and Mineralogy. In his study, which falls under the umbrella issue of Sea level, Physical geography, Megafauna, Paleoanthropology and Carpentaria is strongly linked to Holocene. His Estuary research incorporates elements of Drainage basin, Climate change, Bay and Surface runoff.
Sediment, Cretaceous, Paleontology, Sedimentary rock and Drainage basin are his primary areas of study. The concepts of his Sediment study are interwoven with issues in Trace element, Land reclamation and Pollution. His Cretaceous research focuses on subjects like Suture, which are linked to Ophiolite, Volcanic arc, Continental collision and Cenozoic.
His Sedimentary rock research is multidisciplinary, incorporating elements of Chronology, Period and Cave, Middle Stone Age. His Drainage basin research includes themes of Estuary and Bay. His Estuary research is included under the broader classification of Oceanography.
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Holocene sea-level change on the southeast coast of Australia: a review
Craig R. Sloss;Colin V. Murray-Wallace;Brian G. Jones.
The Holocene (2007)
Large-scale washover sedimentation in a freshwater lagoon from the southeast Australian coast: sea-level change, tsunami or exceptionally large storm?
Adam D. Switzer;Brian G. Jones.
The Holocene (2008)
Fluvial Architecture of the Hawkesbury Sandstone (Triassic), Near Sydney, Australia
Andrew D. Miall;Brian G. Jones.
Journal of Sedimentary Research (2003)
Comparative uranium-thorium and thermoluminescence dating of weathered quaternary alluvium in the tropics of Northern Australia
Gerald C. Nanson;David M. Price;Stephen A. Short;Robert W. Young.
Quaternary Research (1991)
Multiple Early Triassic greenhouse crises impeded recovery from Late Permian mass extinction
Gregory J. Retallack;Nathan D. Sheldon;Paul F. Carr;Mark Fanning.
Palaeogeography, Palaeoclimatology, Palaeoecology (2011)
The Hawkesbury Sandstone South of Sydney, Australia: Triassic Analogue for the Deposit of a Large, Braided River
Brian R. Rust;Brian G. Jones.
Journal of Sedimentary Research (1987)
Alluvial evidence for major climate and flow regime changes during the middle and late Quaternary in eastern central Australia
Gerald C. Nanson;David M. Price;Brian G. Jones;Jerry C. Maroulis.
Geomorphology (2008)
Response of coral reefs to climate change: Expansion and demise of the southernmost Pacific coral reef
Colin D. Woodroffe;Brendan P. Brooke;Michelle Linklater;David M. Kennedy.
Geophysical Research Letters (2010)
Influence of thermophilic bacteria on calcite and silica precipitation in hot springs with water temperatures above 90 °C: evidence from Kenya and New Zealand
Brian Jones;Robin W. Renaut.
Canadian Journal of Earth Sciences (1996)
Cyclicity in the nearshore marine to coastal, Lower Permian, Pebbley Beach Formation, southern Sydney Basin, Australia: a record of relative sea‐level fluctuations at the close of the Late Palaeozoic Gondwanan ice age
Christopher R. Fielding;Kerrie L. Bann;James A. Maceachern;Stuart C. Tye.
Sedimentology (2006)
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