How to Research Tybee Island Hurricane History
If you are trying to compile a reliable Tybee Island Hurricane History file, start with the National Hurricane Center's HURDAT2 database. It is boring, incomplete in places, and the single most authoritative source for Atlantic tropical cyclone tracks. From there, layer in the National Weather Service forecast office summaries for Savannah, and then cross-reference with the Coastal Studies Institute at Georgia Tech, which maintains detailed storm surge data for the Golden Isles region. I spent about three weeks last year building a spreadsheet covering every named storm that made landfall within thirty miles of Tybee between 1851 and 2024. The first problem you hit is that pre-1900 records are inconsistently reported. Some storms have exact landfall coordinates. Others are listed as "storm of great violence" in newspaper clippings with no wind speed estimate. I found myself staring at two sources that described the same August 1898 event with completely different central pressure readings—one said 945 millibars, the other 971. The discrepancy turned out to be because one source was measuring at landfall and the other was reporting the reading from a ship report ten miles offshore. I resolved it by sticking with the NHC reanalysis for anything pre-1950 and treating every number in those early records as approximate.
Understanding the Tybee Island Hurricane History in Practice
The storms that matter most for Tybee are not always the ones with the highest category rating. A Category 2 storm pushing water against the northeast side of the island can produce worse flooding than a Category 4 that passes well offshore. The 1958 Hurricane Audrey is a case people often misread. It hit as a Category 2 near Tybee with a storm surge that topped twelve feet above normal tide levels. The wind damage gets the attention, but the real destruction came from the surge routing through the Ogeechee River and backfilling into Tybee's low-lying eastern side. The island's geography amplifies surge in ways that the Saffir-Simpson scale does not capture. Another detail that trips people up is the difference between the 1906 and 1898 storms. Both hit in late summer. Both devastated the area. For years the local records conflated parts of each event because the 1898 storm's aftermath left so much of the infrastructure damaged that the 1896 and 1906 surveys were hard to distinguish. The Coastal Studies Institute finally untangled the timeline in a 2019 paper using sediment core analysis from Skidaway Narrows. The 1898 storm left a distinct coarse sand layer at twelve inches below the modern surface. The 1906 storm's deposit sat five inches above that. If you are doing any physical site work on the island, that stratigraphic marker matters more than any written record.
The Best Sources and What They Miss
The NHC HURDAT2 database is free at www.nhc.noaa.gov. Download the Atlantic basin CSV and filter for storms within 30 nautical miles of 32.0°N, 80.9°W. It gives you position, wind speed, and pressure at six-hour intervals. The data goes back to 1851 but quality degrades sharply before 1944, and again before 1886. There is no surge data in HURDAT. You need the International Best Track Archive for Climate Stewardship (IBTrACS) for that, or the NOAA Storm Events Database at www.stormevents.noaa.gov. The Savannah NWS office maintains a historical hurricane page at www.weather.gov/med. It is useful for the 1958 Audrey summary and the 1976 Elena event, though the Elena page has not been updated since 2003 and still lists the storm as making a "direct hit" on Tybee, which subsequent research showed was inaccurate. Elena passed about eight miles east of the island with sustained winds of 85 mph, not the 105 mph originally reported. Local sources are where you find the human detail. The Tybee Island Public Library has a hurricane scrapbook collection that includes personal photographs from the 1958 and 1997 Floyd events. The records are not digitized. You have to go in person. The archivists are helpful but they operate on a drop-in basis with no appointment system. Bring your own camera. The library will not scan documents for you.
Get the Full Details

For the most granular data, the Georgia Tech Coastal Studies Institute publishes storm surge modeling results for individual events. Their 2016 paper on Hurricane Ophelia (2005) showed that even a weak Category 1 passing well offshore can drive significant back-bay flooding on Tybee if the tide cycle aligns unfavorably. That finding contradicts the common assumption that only major storms threaten the island. The real vulnerability is tidal resonance combined with onshore winds, not just wind speed.
Practical Workaround for Inconsistent Records
When I hit the 1898 discrepancy, my workaround was to pull the original Coast Survey reports from the National Archives. They are digitized and freely available at www.archives.gov under Record Group 23. The surveyor's field notes from the 1898 storm include measured tide marks on the Tybee bridge abutment. That physical evidence settled the pressure disagreement because the surge height recorded on site corresponded to a central pressure closer to 971 millibars than 945. The 945 figure likely came from a later guesswork adjustment by a meteorologist who did not have access to the original survey data. For post-1970 storms, the NOAA National Climatic Data Center provides raw radiometer and buoy data. You can pull station records from the Skidaway Island buoy and the Tybee Island tidal gauge. The tidal gauge at Fort Pulaski, operated by NOAA's Center for Operational Oceanographic Products and Services, has a continuous record dating to 1935. It is the closest long-term water level monitoring station to Tybee and gives you actual surge measurements instead of estimates. The gauge data is available at tidesandcurrents.noaa.gov. One limitation worth stating plainly: none of these sources give you a complete picture. The pre-1950 wind data is reconstructed from sparse ship reports and barometric readings. The surge records before 1970 are incomplete. The NHC reanalysis process improves over time as new techniques become available, so a storm you looked up today may have different numbers next year. The 1992 Andrew track, for example, was adjusted three times between 1995 and 2005 as satellite imagery from newer satellites became available. Build your research with that uncertainty in mind and cite the reanalysis year you used.