@article {winkler_more_2023,
	title = {More Frequent Hurricane Passage Across the Bahamian Archipelago During the Little Ice Age},
	journal = {Paleoceanography and Paleoclimatology},
	volume = {38},
	number = {11},
	year = {2023},
	note = {_eprint: https://onlinelibrary.wiley.com/doi/pdf/10.1029/2023PA004623},
	month = {11/2023},
	pages = {e2023PA004623},
	abstract = {The year 2020 Common Era (CE) experienced the highest number of named tropical cyclones in the Atlantic Ocean since 1850 CE, but the short instrumental record makes it challenging to assess if this level of activity is statistically meaningful. Here, we present two near-annually resolved hurricane reconstructions from sediment archived in two blue holes located only 300 m apart on the northern margin of Grand Bahama. These two blue holes provide a replicated signal of hurricanes passing within a 50{\textendash}100 km radius over the last 1,800 years, and the long-term reconstructions document multiple 50-to-150-year intervals when hurricane frequency was significantly higher than it has been over the last 100 years. These two records were first merged into a single stack, and then compiled with five other high-resolution reconstructions from across the Bahamian Archipelago to form a single 1500-year record of Bahamian hurricane frequency. This new Bahamian Compilation documents more hurricanes passing \~{}75{\textdegree}W from 21{\textdegree}N to 26{\textdegree}N during the Little Ice Age (LIA; 1300{\textendash}1850 CE) relative to the prior millennium and the last 170 years. The US Eastern Seaboard also experienced heightened hurricane activity during the LIA, whereas the Gulf of Mexico and Southern Caribbean were inactive. This suggests that despite a globally cooler climate, regional climate conditions during the LIA remained favorable for cyclogenesis and intensification along certain Atlantic hurricane pathways. Perhaps heightened Sahel rainfall during the LIA indicates an increase in African Easterly waves, which in turn possibly seeded more tropical cyclones in the Atlantic Main Development Region.},
	keywords = {Bahamas, Carbonate, common era, hurricanes, Paleoclimate, sedimentology},
	issn = {2572-4525},
	doi = {10.1029/2023PA004623},
	url = {https://onlinelibrary.wiley.com/doi/abs/10.1029/2023PA004623},
	author = {Winkler, T. S. and van Hengstum, P. J. and Donnelly, J. P. and Wallace, E. J. and Albury, N. A. and D{\textquoteright}Entremont, N. and Hawkes, A. D. and Maio, C. V. and Roberts, J. and Sullivan, R. M. and Woodruff, J. D.}
}
@article {154,
	title = {Stratigraphic evidence for an early Holocene earthquake in Aceh, Indonesia},
	journal = {Quaternary Science Reviews},
	volume = {54},
	year = {2012},
	note = {id: 2139},
	pages = {142-151},
	abstract = {The Holocene stratigraphy of the coastal plain of the Aceh Province of Sumatra contains 6 m of sediment with three regionally consistent buried soils above pre-Quaternary bedrock or pre-Holocene unconsolidated sediment. Litho-, bio-, and chronostratigraphic analyses of the lower buried soil reveals a rapid change in relative sea-level caused by coseismic subsidence during an earlyHolocene megathrust earthquake. Evidence for paleoseismic subsidence is preserved as a buried mangrove soil, dominated by a pollen assemblage of Rhizophora and/or Bruguiera/Ceriops taxa. The soil is abruptly overlain by a thin tsunami sand. The sand contains mixed pollen and abraded foraminiferal assemblages of both offshore and onshore environments. The tsunami sand grades upward into mud that contains both well-preserved foraminifera of intertidal origin and individuals of the gastropod Cerithidea cingulata. Radiocarbon ages from the pre- and post-seismic sedimentary sequences constrain the paleoearthquake to 6500{\textendash}7000 cal. yrs. BP. We use micro-and macrofossil data to determine the local paleoenvironment before and after the earthquake. We estimate coseismic subsidence to be 0.45 {\textpm} 0.30 m, which is comparable to the 0.6 m of subsidence observed during the 2004 Aceh{\textendash}Andaman earthquake on Aceh{\textquoteright}s west coast.},
	doi = {10.1016/j.quascirev.2012.03.011},
	author = {Grand Pre, C. and Horton, B. P. and Kelsey, H. M. and Rubin, C. M. and Hawkes, A. D. and Daryono, M. and Rosenberg, G. and Culver, S. J.}
}
@article {207,
	title = {Coastal subsidence in Oregon, USA, during the giant Cascadia earthquake of AD 1700},
	journal = {Quaternary Science Reviews},
	volume = {30},
	year = {2011},
	note = {id: 2143},
	pages = {364-376},
	abstract = {Quantitative estimates of land-level change during the giant AD 1700 Cascadia earthquake along the Oregon coast are inferred from relative sea-level changes reconstructed from fossil foraminiferal assemblages preserved within the stratigraphic record. A transfer function, based upon a regional training set of modern sediment samples from Oregon estuaries, is calibrated to fossil assemblages in sequences of samples across buried peat-mud and peat-sand contacts marking the AD 1700 earthquake. Reconstructions of sample elevations with sample-specific errors estimate the amount of coastal subsidence during the earthquake at six sites along 400 km of coast. The elevation estimates are supported by lithological, carbon isotope, and faunal tidal zonation data. Coseismic subsidence at Nehalem River, Nestucca River, Salmon River, Alsea Bay, Siuslaw River and South Slough varies between 0.18 m and 0.85 m with errors between 0.18 m and 0.32 m. These subsidence estimates are more precise, consistent, and generally lower than previous semi-quantitative estimates. Following earlier comparisons of semi-quantitative subsidence estimates with elastic dislocation models of megathrust rupture during great earthquakes, our lower estimates for central and northern Oregon are consistent with modeled rates of strain accumulation and amounts of slip on the subduction megathrust, and thus, with a magnitude of 9 for the AD 1700 earthquake.},
	issn = {0277-3791},
	doi = {10.1016/j.quascirev.2010.11.017},
	url = {http://www.sciencedirect.com/science/article/pii/S0277379110004130},
	author = {Hawkes, A. D. and Horton, B. P. and Nelson, A. R. and Vane, C. H. and Sawai, Y.}
}
@article {439,
	title = {The application of intertidal foraminifera to reconstruct coastal subsidence during the giant Cascadia earthquake of AD 1700 in Oregon, USA},
	journal = {Quaternary International},
	volume = {221},
	year = {2010},
	note = {id: 1981; PT: J; UT: WOS:000279551800012},
	pages = {116-140},
	abstract = {Changes in species assemblages of intertidal foraminifera can be used to estimate the amount of earthquake-related subsidence during plate-boundary earthquakes at the Cascadia subduction zone. The accuracy and precision of foraminiferal methods in paleoenvironmental reconstruction is underpinned by the relations between contemporary taxa and their environment, which are used to calibrate fossil foraminiferal assemblages in sediment sequences. A contemporary training set of surface sediment samples from five intertidal marshes along the Oregon coast was used to determine foraminiferal distributions and prevailing environmental control(s) along elevational transects. Dominant taxa include Balticammina pseudomacrescens, Trochamminita irregularis, Haplophragmoides wilberti, Trochammina inflata, Jadammina macrescens and Miliammina fusca. Unconstrained cluster analysis and detrended correspondence analysis was used to identify two elevation-dependent faunal zones: Faunal Zone I (upland, high marsh, middle marsh) dominated by Balticammina pseudomacrescens, Haplophragmoides wilberti and Trochammina inflata, and Faunal Zone II (low marsh and tidal flat) dominated by Miliammina fusca. Site-specific differences in assemblages at three marshes enabled further subdivision of Faunal Zone I. Zone la is based on one or more of Balticammina pseudomacrescens, Trochammina inflata, Trochamminita irregularis and Haplophragrnoides sp., and Zone Ib on Jadammina macrescens, Haplophragmoides sp., Trochammina inflata and Miliammina fusca. Canonical correspondence analysis (CCA) and partial CCA of the training set from the Nehalem River marsh transect was used to infer that the zonation of foraminifera is elevation-dependent (39\% of explained variance). A transfer function was developed to reconstruct sudden changes in relative sea-level during plate-boundary earthquakes in Oregon. The results indicate a robust performance of the transfer function (r(jack)(2) = 0.82) with the error estimate (RMSEP(jack) = 0.20 m) comparable to local and regional transfer functions from other temperate marshes. To illustrate the potential of the technique, the transfer function was applied to reconstruct subsidence during the AD 1700 earthquake using at Alsea Bay, Oregon. The reconstruction (0.18 +/- 0.20 m) is less than half the subsidence estimate of Nelson et al. [2008. Great-earthquake palogeoesy and tsunamis of the past 2000 years at Alsea Bay, central Oregon coast, USA. Quaternary Science Reviews, 27, 747-768] using their foraminiferal transfer function, perhaps because of differences in taxonomy and the species relationship to elevation. (C) 2009 Elsevier Ltd and INQUA. All rights reserved.},
	issn = {1040-6182},
	doi = {10.1016/j.quaint.2009.09.019},
	author = {Hawkes, A. D. and Horton, B. P. and Nelson, A. R. and Hill, D. F.}
}
