@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 {2500,
	title = {Heightened hurricane activity on the Little Bahama Bank from 1350 to 1650 AD},
	journal = {Elsevier},
	volume = {86},
	year = {2013},
	pages = {103-115},
	abstract = {Deciphering how the climate system has controlled North Atlantic tropical cyclone activity through the Holocene will require a larger observational network of prehistoric hurricane activity. Problematically, the tropical North Atlantic is dominated by carbonate landscapes that typically preserve poorer quality coastal sediment records in comparison to their temperate-region counterparts (e.g., sedimentation continuity and rate). Coastal karst basins (CKBs), such as sinkholes, blueholes, and underwater caves, are widely distributed on carbonate platforms and contain overlooked sedimentary records. Here we present a millennium of hurricane deposits on the Little Bahama Bank archived in a 165 cm core that was extracted from 69 m below sea level in a bluehole on Great Abaco Island, The Bahamas. The coarse- grained overwash deposits associated with both hurricanes Jeanne (2004) and Floyd (1999) were identified using radioisotopes (137Cs,14
C,210Pb), and indicate that the bluehole is sensitive to hurricane- induced sedimentation. Over the last millennium, the Little Bahama Bank experienced heightened hurricane activity from 1350 to 1650 AD. The simplest explanation for this active interval is that favorable climate conditions (El Ni{\~n}o, West African Monsoon, and sea surface temperatures) encouraged North Atlantic hurricane activity at that time. However, asynchronous hurricane activity at similar latitudes in
the North Atlantic and Gulf of Mexico suggest that regional oceanography has modulated or amplified regional hurricane activity over the last millennium.},
	keywords = {Abaco, Bahamas, Blue hole, hurricanes, Paleotempestology},
	issn = {0278-4343},
	author = {van Hengstum, P.J. and Donnelly, J.P. and Toomey, M.R and Albury, N.A. and Lane, P. and Kakuk, B.}
}
@article {1908,
	title = {Late Holocene barrier island collapse; Outer Banks, North Carolina, USA},
	journal = {The Sedimentary Record},
	volume = {5},
	year = {2007},
	note = {id: 1887; ISSN: 1543-8740 Language: English References: 16; illus. incl. strat. col., geol. sketch map United States (USA) Latitude:N350000,N353000 Longitude:W0753000,W0760000},
	month = {2007},
	pages = {4-8},
	abstract = {We document here the threat of large scale destruction (collapse) of barrier islands based on the study of many cores taken along the Outer Banks and in Pamlico Sound, North Carolina.Around 1,100 cal yr BP, probably as the result of hurricane activity, portions of the southern Outer Banks must have collapsed to allow normal salinity waters to bathe southern Pamlico Sound for several hundred years. Such collapse could occur again during our current regime of global warming, rising sea level and increased tropical cyclone activity. The economic effect of barrier island break collapse on Outer Banks communities would be devastating.},
	keywords = {24, Quaternary geology, algae, assemblages, barrier islands, Cenozoic, changes, clastic sediments, cores, diatoms, erosion, Foraminifera, geologic hazards, Holocene, hurricanes, Invertebrata, landform evolution, lithofacies, littoral, microfossils, North Carolina, Outer Banks, Pamlico Sound, Plantae, preservation, Protista, Quaternary, salinity, sand, sea-level, sediments, United States, upper Holocene, Vibroseis},
	author = {Culver, Stephen J. and Grand Pre, Candace A. and Mallinson, David J. and Riggs, Stanley R. and Corbett, D. Reide and Foley, Jennifer and Hale, Michael and Metger, Lauren and Ricardo, John and Rosenberger, Jeb and Smith, Christopher G. and Smith, Curtis W. and Snyder, Scott W. and Twamley, David and Farrell, Kathleen and Horton, Benjamin}
}
@article {2005,
	title = {Evidence of past intense tropical cyclones from backbarrier salt pond sediments: A case study from Isla de Culebrita, Puerto Rico, USA},
	journal = {Journal of Coastal Research},
	volume = {SI42},
	year = {2005},
	note = {Sp. Iss. 42947fu
Times Cited:16
Cited References Count:40
},
	month = {Spr},
	pages = {201-210},
	abstract = {Tropical cyclones pose a significant threat to lives and resources in heavily-populated regions and can extensivelymodify coastal landforms. In appropriate depositional environments a sedimentological record of past tropical cyclones can be preserved. Given the relative rarity of landfalling tropical cyclones and the shortness of the instrumental record, little is known about past patterns of hurricane activity. The development of long-term records of tropical cyclone activity will make it possible to examine how past climate change may have influenced the frequency, intensity, and locations (origin, tracks) of hurricanes. Previous work has shown that intense hurricane strikes produce a distinctive sedimentary signature that can be used to reconstruct long-term records of these events. Numerous coastal salt ponds and lagoons in eastern Puerto Rico and the U.S. Virgin Islands are well situated to receive allocthonous sediments during intense tropical cyclone landfalls. Coastal salt ponds, normally low-energy environments, are dominated by fine-grained organic sediments, with the exception of episodic deposition of coarser-grained mineral sediments from the beach and nearshore during extreme storms. Sediment obtained from a series of cores taken from Big Culebrita Salt Pond on the Isla de Culebrita, Puerto Rico reveal a record of flooding-induced sedimentation within mangrove and salt-pond sediments dating back more than 2000 years. Reconstructing the history of storm-surge deposition from backbarrier salt-pond sediments may allow for the reconstruction of a millennial-scale record of tropical cyclones for the northeastern Caribbean and other regions.},
	keywords = {Caribbean, climate, coast, deposits, florida, grain-size analysis, Holocene, hurricane, hurricanes, new-jersey, record, south-carolina, storm, tsunami},
	isbn = {0749-0208},
	url = {http://www.jstor.org/stable/25736985},
	author = {Donnelly, J. P.}
}
