@article {2743,
	title = {The Mighty Susquehanna{\textemdash}Extreme Floods in Eastern North America During the Past Two Millennia},
	journal = {Geophysical Research Letters},
	volume = {46},
	year = {2019},
	month = {Apr-03-2021},
	pages = {3398 - 3407},
	abstract = {The hazards posed by infrequent major floods to communities along the Susquehanna River and the ecological health of Chesapeake Bay remain largely unconstrained due to the short length of streamgage records. Here we develop a history of high-flow events on the Susquehanna River during the late Holocene from flood deposits contained in MD99-2209, a sediment core recovered in 26 m of water from Chesapeake Bay near Annapolis, Maryland, United States. We identify coarse-grained deposits left by Hurricane Agnes (1972) and the Great Flood of 1936, as well as during three intervals that predate instrumental flood records (~1800{\textendash}1500, 1300{\textendash}1100, and 400{\textendash}0 CE). Comparison to sedimentary proxy data (pollen and ostracode Mg/Ca ratios) from the same core site indicates that prehistoric flooding on the Susquehanna often accompanied cooler-than-usual winter/spring temperatures near Chesapeake Bay{\textemdash}typical of negative phases of the North Atlantic Oscillation and conditions thought to foster hurricane landfalls along the East Coast.},
	issn = {0094-8276},
	doi = {10.1029/2018GL080890},
	url = {https://agupubs.onlinelibrary.wiley.com/doi/full/10.1029/2018GL080890},
	author = {Toomey, Michael and Cantwell, Meagan and Colman, Steven and Cronin, Thomas and Donnelly, Jeffrey and Giosan, Liviu and Heil, Clifford and Korty, Robert and Marot, Marci and Willard, Debra}
}
@article {555,
	title = {Small-scale lacustrine drifts in Lake Champlain, Vermont},
	journal = {Journal of Great Lakes Research},
	volume = {38},
	year = {2012},
	note = {id: 2179},
	pages = {88-100},
	abstract = {High resolution CHIRP (Compressed High Intensity Radar Pulse) seismic profiles reveal the presence of two lacustrine sediment drifts located in Lake Champlain{\textquoteright}s Juniper Deep. Both drifts are positive features composed of highly laminated sediments. Drift B sits on a basement high while Drift A is built on a trough-filling acoustically-transparent sediment unit inferred to be a mass-transport event. These drifts are oriented approximately north{\textendash}south and are parallel to a steep ridge along the eastern shore of the basin. Drift A, located at the bottom of a structural trough, is classified as a confined, elongate drift that transitions northward to become a system of upslope asymmetric mudwaves. Drift B is perched atop a structural high to the west of Drift A and is classified as a detached elongate drift. Bottom current depositional control was investigated using Acoustic Doppler Current Profilers (ADCPs) located across Drift A. Sediment cores were taken at the crest and at the edges of the Drift A and were dated. Drift source, deposition, and evolution show that these drifts are formed by a water column shear with the highest deposition occurring along its crest and western flank and began developing circa 8700{\textendash}8800 year BP.},
	issn = {0380-1330},
	doi = {10.1016/j.jglr.2011.05.004},
	author = {Manley, Patricia L. and Manley, T. O. and Hayo, Kathryn and Cronin, Thomas}
}
