# Great Lakes Storm of 1913

The Great Lakes Storm of 1913, historically referred to as the Big Blow, the Freshwater Fury and the White Hurricane, was a blizzard with hurricane-force winds that devastated the Great Lakes Basin in the Midwestern United States and Southwestern Ontario, Canada, between November 7 and 10, 1913. The storm was most powerful on November 9, battering and overturning ships on four of the five Great Lakes, particularly Lake Huron.
The storm was the deadliest and most destructive natural disaster to hit the Great Lakes in recorded history. More than 250 people were killed. Shipping was hard hit; nineteen ships were destroyed, and nineteen others were stranded. About US$1 million of cargo weighing about 68,300 tons—including coal, iron ore and grain—was lost. The storm impacted many cities, including Duluth, Minnesota; Chicago, Illinois; and Cleveland, Ohio, which received 22 in (56 cm) of snow combined with winds up to 79 mph (127 km/h) and was paralyzed for days.
The extratropical cyclone originated when two major storm fronts fueled by the Great Lakes' relatively warm waters—a seasonal process called a "November gale"—converged. It produced wind gusts of 90 mph (140 km/h), waves estimated at over 35 feet (11 m) high and whiteout snowsqualls. Winds exceeding hurricane-force occurred over four of the lakes for extended periods creating very large waves. The large size of the lakes provides wind fetches (the length of water over which a given wind has blown without obstruction) of hundreds of miles, allowing huge waves to form. Rogue waves are known to occur on the Great Lakes, including waves reinforced by reflections from the vertical shores of some of the lakes.
The United States Weather Bureau failed to predict the intensity of the storm, and the process of preparing and communicating predictions was slow. These factors contributed to the storm's destructiveness. The contemporaneous weather forecasters did not have enough data, communications, analysis capability and understanding of atmospheric dynamics to predict the storm. They could not predict wind directions, which is key to the ability of ships to avoid or cope with the effects of storms.

## Background

The water in the five Great Lakes holds heat that allows them to remain relatively warm late into the year and postpones the cooling and first frosts in the region. During the autumn, two major weather tracks converge over the area. Cold, dry air moves south and southeast from northern Canada as an Alberta clipper while warm, moist air moves north and northeast from the Gulf of Mexico along the lee of the central Rocky Mountains as a Colorado low. The collision of these air masses forms large storm systems in the middle of the North American continent, including the Great Lakes. When the cold air from these storms moves over the lakes, it is warmed by the waters below and picks up a spin. As the cyclonic system continues over the lakes, its power is intensified by the jet stream above and the warm waters below.
The resulting storm, which is commonly called a "November gale" or "November witch", can maintain hurricane-force wind gusts, produce waves over 50 feet (15 m) high and dump significant falls of rain or snow. Fueled by the warm waters, these powerful storms may remain over the Great Lakes for days. November gales have caused several large storms over the Great Lakes, with at least twenty-five killer storms affecting the region since 1847. During the Mataafa Storm in 1905, twenty-seven wooden vessels were lost. During a November gale in 1975, the giant bulk carrier SS Edmund Fitzgerald sank suddenly without sending a distress signal and with all crew still on board. The large size of the lakes provides fetches of hundreds of miles allowing huge waves to be developed. Their large unobstructed spaces result in wind speeds higher than nearby inland areas. Rogue waves (including a phenomenon named the "Three Sisters") are known to occur on the Great Lakes, including waves reinforced by reflections from the vertical shores of some of the lakes. Waves on the lakes (especially the shallower ones) can be steeper and closer together than on the ocean, allowing less recovery time between waves. Compared to the ocean, the Great Lakes also have less maneuvering "sea room" and closer proximity to shores, making it more difficult for ships to weather storms.

## Prelude

The Great Lakes Storm of 1913 was first noticed on Thursday, November 6 on the western side of Lake Superior, moving rapidly toward northern Lake Michigan. The weather forecast in The Detroit News predicted "moderate to brisk" winds at the Great Lakes with occasional rain on Thursday night or Friday for the upper lakes (except southern Lake Huron) and fair-to-unsettled conditions for the lower lakes. Around midnight on November 6–7, the steamer Cornell, which was 50 miles (80 km) west of Whitefish Point in Lake Superior, ran into a sudden northerly gale and was severely damaged. This gale lasted until late November 10 and almost forced Cornell ashore.

## Storm

At the time of the storm, the United States Weather Bureau did not have enough data, communications, analysis capability and understanding of atmospheric dynamics to predict or understand the storm. They also were unable to predict wind directions to allow ships to avoid or cope with the storm's conditions. More modern studies of the available information and data from the storm provide better descriptions of its weather mechanisms and treat it as two storms.
By November 7, a string of low-pressure centers in Canada had consolidated into a low-pressure center southwest of Lake Superior which became "Storm #1". At the same time, warm air pushed into the central Great Lakes from the south. By November 8, this storm was moving east through northern Lake Huron while strong northerly winds developed behind it over Lake Superior. By November 9, "Storm #2" had formed over the Carolinas and Virginia. The northern portion of this storm began sweeping warm moist Atlantic air over colder air in the Ohio area producing heavy snows. The northwest portion of this extremely powerful storm began creating strong winds from the north along the long axis of Lake Huron, building large waves. By November 10, twenty-four hours of such building had created immense waves which ships were subjected to along with the high winds as the center of the storm crossed north/northwest over Lake Erie near Toronto. Surface pressures went as low as 968.5 millibars, the lowest of the 1913 storm.
Winds exceeding hurricane-force occurred over four of the Great Lakes for extended periods. Wave heights observed during the storm were estimated by observation rather than measurement; observations of regular waves exceeding 35 ft (11 m) were corroborated by modern-day simulations which estimate these at 38 ft (12 m). Interaction between waves (such as those reflected from vertical shorelines) can nearly double wave heights; observations of such waves during the storm estimated some as high as 50 ft (15 m), including the one that crushed the bridge of L. C. Waldo.

### November 7

On Friday, the weather forecast in the Port Huron, Michigan, Times-Herald described the storm as "moderately severe." The forecast predicted increased winds and falling temperatures over the next twenty-four hours. At 10:00 a.m., United States Coast Guard stations and all 112 Weather Bureau signal stations on the Great Lakes received a directive to hoist a square, red signal flag with a black center and a red, triangular maritime pennant below it, indicating a storm with winds of 55 mph (89 km/h) that would blow from the southwest. After dark, a red lantern over a white one was displayed to warn of storm winds from the west. The winds on Lake Superior had already reached 60 mph (97 km/h), with gusts to 80 mph (130 km/h) and an accompanying blizzard was moving toward Lake Huron. Sustained wind speeds reached 62 mph (100 km/h) and gusts to 68 mph (109 km/h) at Duluth.

### November 8

By Saturday, the storm's status had been upgraded to "severe." At 10:00 a.m., Coast Guard stations and Weather Bureau offices at Lake Superior ports raised white pennants above red and black storm warning flags, indicating a storm warning with northwesterly winds. The storm was centered over eastern Lake Superior, covering the entire lake basin. The weather forecast of the Times-Herald stated southerly winds had remained "moderate to brisk." Northwesterly winds had reached gale strength on northern Lake Michigan and western Lake Superior. Gale wind flags were raised at more than a hundred ports, but many captains continued their journeys. Long ships traveled through the St. Marys River all that day, through the Straits of Mackinac all night and up the Detroit and St. Clair rivers early the following morning.
The 472-foot steel bulk freighter L. C. Waldo, eighteen hours out of Two Harbors, Minnesota, was overrun by monster waves out of the northwest on Lake Michigan. Approximately forty-five miles northeast of the Keweenaw Peninsula, an estimated 50' rogue wave smashed the wheelhouse; bent the steel floor of the compass room; swept the wheelsman out of the wheelhouse; and tore three of the walls from the "texas", the level of the deck house below the wheelhouse. The captain ordered that the ship be turned around to try to reach shelter behind the Keweenaw Peninsula. As recounted by second mate Feeger: "The wind sent on gigantic wave after another over parts of the ship...The snow was so blinding that none of us could see 50 feet ahead". L. C. Waldo's rudder then failed; helpless without it, 70mph winds drove the ship aground on Gull Rock near Manitou Island. With the bow wedged in the rocks, the hull shredded and a crack forming in the deck, the captain ordered everyone to the bow and that the ship be flooded to prevent her from being washed back into the depths of the lake. The steward's wife and her mother were reluctant to leave the stern and the crew struggled to carry them over hundreds of feet of open deck in the storm, including traversing a now-widening crack. During the process the chief engineer and two stokers ran the ship at full power to try to wedge the bow further onto the shore. They then abandoned the stern and took shelter with the others in the unheated windlass room.

### November 9

By noon on Sunday, weather conditions on lower Lake Huron were close to normal for a November gale. Barometric pressures in some areas began to rise, bringing hopes of an end to the storm. The low pressure area that had moved across Lake Superior was moving northeast, away from the lakes. The Weather Bureau issued the first of its twice-daily reports at approximately 8:00 a.m.; it did not send another report to Washington, D.C., until 8:00 p.m. This proved to be a serious problem; the storm would have most of the day to build up hurricane-force winds before the Bureau headquarters in Washington would have detailed information.
Along southeastern Lake Erie near Erie, Pennsylvania, a southern low-pressure area was moving toward the lake. This low had formed overnight so was absent from Friday's weather map. It had been moving northward but turned northwestward after passing over Washington. The low's intense, counterclockwise rotation was made apparent by the changing wind directions around its center. In Buffalo, New York, morning northwest winds had shifted to the northeast by noon and to the southeast by 5:00 p.m., with gusts of up to 80 mph (130 km/h) occurring between 1:00 p.m. and 2:00 p.m. In Cleveland, Ohio, 180 miles (290 km) to the southwest, winds remained northwest during the day, shifting to the west by 5:00 p.m., and maintaining speeds of more than 50 mph (80 km/h). The fastest gust in Cleveland, 79 mph (127 km/h), occurred at 4:40 p.m. At Buffalo, barometric pressure dropped from 29.52 inHg (999.7 hPa) at 8:00 a.m. to 28.77 inHg (974.3 hPa) at 8:00 p.m.
The rotating low continued northward into the evening, bringing its counterclockwise winds in phase with the northwesterly winds already hitting Lakes Superior and Huron. This resulted in a dramatic increase in northerly wind speeds and swirling snow. Ships on Lake Huron that were south of Alpena, Michigan—especially around Harbor Beach and Port Huron in Michigan, and Goderich and Sarnia in Ontario—experienced massive waves moving southward toward St. Clair River. Some ships sought shelter along the Michigan shore or between Goderich and Point Edward, Ontario. Three of the larger ships were found capsized, indicating extremely high winds and tall waves. From 8:00 p.m. to midnight, the storm became a "weather bomb" with sustained hurricane-force winds of more than 70 mph (110 km/h) on the four western lakes. The worst damage was done on Lake Huron as ships sought shelter along its southern end. Gusts of 90 mph (140 km/h) were reported off Harbor Beach. The lake's shape allowed northerly winds to increase unimpeded because water has less surface friction than land and because the wind followed the lake's length.
Weather forecasters of the time did not have enough data or understanding of atmospheric dynamics to predict or comprehend the events of Sunday November 9. Frontal mechanisms, which were then referred to as "squall lines", were not yet understood. Surface observations were only collected twice daily at stations around the country; by the time these data were collected and maps were hand-drawn, the information was no longer representative of the actual weather conditions.

### November 10 and 11

The storm had moved northeast of London, Ontario, on the morning of Monday November 10, with lake effect blizzards behind it. An additional 17 inches (43 cm) of snow fell on Cleveland that day, filling the streets with snowdrifts 6 feet (1.8 m) high. Streetcar operators stayed with their stranded, powerless vehicles for two nights, eating food provided by local residents. Travelers were forced to take shelter and wait for the storm to pass.
By Tuesday, the storm was rapidly moving across eastern Canada. Without the warm lake waters, it quickly lost strength. The system carried less snowfall because of its speed and the lack of lake effect snow. All shipping along the St. Lawrence River around Montreal, was halted on Monday and part of Tuesday.

## Aftermath

The storm was the deadliest, most destructive natural disaster in recorded history to hit the Great Lakes, killing more than 250 people, destroying nineteen ships and stranding nineteen others. About US$1 million of cargo—including coal, iron ore and grain—weighing about 68,300 tons was lost.

### Surrounding shoreline

Along the shoreline, blizzards stopped traffic and communication, causing hundreds of thousands of dollars in damage. Cleveland received 22 inches (56 cm) of heavy snow combined with sustained winds of 62 mph (100 km/h) with gusts to 79 mph (127 km/h) and ice formation. There were four-foot (120 cm) snowdrifts around Lake Huron. Electricity supply was disrupted for several days across Michigan and Ontario, cutting off telephone and telegraph communications. A recently-completed US$100,000 breakwater at Chicago, which was intended to protect the Lincoln Park basin from storms, was swept away in a few hours. The Milwaukee, Wisconsin, harbor lost its south breakwater and much of the surrounding South Park area that had been recently renovated.
After the final blizzards hit Cleveland, the city was paralyzed under feet of ice and snow, and was without power for days. Telephone poles were broken and power cables lay in tangled masses. Nearly all rail traffic was halted. The November 11 Plain Dealer described the aftermath: "Cleveland lay in white and mighty solitude, mute and deaf to the outside world, a city of lonesome snowiness, storm-swept from end to end, when the violence of the two-day blizzard lessened late yesterday afternoon." William H. Alexander, Cleveland's chief weather forecaster, commented:
   Take it all in all—the depth of the snowfall, the tremendous wind, the amount of damage done and the total unpreparedness of the people—I think it is safe to say that the present storm is the worst experienced in Cleveland during the whole forty-three years the U.S. Weather Bureau has been established in the city.
There was a small death toll in Cleveland considering the severity of the storm. Sources describe one freezing death, plus some deaths from accidents. One death and one near-death were from downed power lines. Immediately following the blizzard, the city began a campaign to move all utility cables underground in tubes beneath major streets. The project took five years.

### On the lakes

The greatest damage was done on the Great Lakes. Major shipwrecks occurred on all but Lake Ontario, with most happening on southern and southwestern Lake Huron. Captains reported waves reaching at least 35 ft (11 m) in height. These waves were shorter in length than waves usually formed by gales and occurred in rapid succession. Rocky shores prevalent on the lakes reflect rather than absorb waves. Reflected waves can combine with incoming waves to create rogue waves of up to 50 ft (15 m).
In the late afternoon of November 10, an unknown vessel was spotted floating upside-down in about 60 feet (18 m) of water on the eastern coast of Michigan, within sight of Huronia Beach and the mouth of the St. Clair River. Determining the identity of this "mystery ship" became a national interest, resulting in daily front-page newspaper coverage. The ship eventually sank and was identified on November 15 as Charles S. Price. The front page of that day's Times-Herald extra edition read: "BOAT IS PRICE—DIVER IS BAKER—SECRET KNOWN." Milton Smith, an assistant engineer who decided at the last moment not to join his crew on premonition of disaster, helped identify bodies from the wreck. Among the debris cast up by the storm was the wreckage of the tugboat Searchlight, which was lost in April 1907.
The final tally of financial loss was approximately US$4,780,000 (equivalent to $147,360,000 in 2023). This included US$2,332,000 for totally lost vessels, US$830,900 for vessels that became constructive total losses, US$620,000 for vessels stranded but returned to service and approximately US$1,000,000 in lost cargoes. This figure excludes financial losses in coastal cities.
While the storm was the main cause of damage on the lakes, human factors, including measures that could have reduced the storm's effects but were not taken, also contributed. Post-storm conversations mostly focused on placing blame but served to highlight weaknesses. The Weather Bureau did not have the ability to predict the storm but hesitated to admit its limitations because it wanted to secure higher budgets. Instead, it focused on the terminology and nature of warnings. Another factor was the underpowering of large ships that affected their ability to travel, maneuver and hold steady in severe storms. Even with both anchors dropped and steaming full power into the wind, several were unable to avoid being carried backward. For example, the 504-foot-long (154 m) Charles S. Price had a single 1,760 horsepower engine. Three years after the storm, the same shipyard built a 587-foot-long (179 m) freighter with only 1,800 horsepower.
The geometry of the lakes and locks, combined with operational economics, dictated the use of slimmer, shallower ships than comparable ocean-going vessels, reducing stability and structural strength. The "straight deck" ship design was becoming prevalent, requiring more and larger hatch covers, which increased vulnerability to storms. Insufficient strength of the hatches and their fastenings was also noted, as well as the shortness of the 12 in (30 cm) hatch coamings. The limited compartmentalization of cargo holds meant the flooding of one compartment was sufficient to sink the ship. The practice of not "trimming" or leveling the pyramid-shape piles of bulk solid cargo made them more prone to shifting and causing a capsize. Many raised concerns about the practice of shipping companies incentivizing or pressuring captains to sail during the dangerous November season and during dangerous weather. These concerns continued and were echoed sixty-two years later after the sinking of Edmund Fitzgerald. Few of these factors were acted upon. One change was that the Weather Bureau clarified their previous ambiguity and said that they would post a higher-than-gale level warning for the most severe predicted storms.

## Ships foundered

Download coordinates as:
* KML
* GPX (all coordinates)
* GPX (primary coordinates)
* GPX (secondary coordinates)
The ships that sank during the storm with all hands are ordered in the table below by the number of victims. The table does not include the three victims from the freighter William Nottingham, who had volunteered to leave the ship on a lifeboat in search of assistance. Most of the bodies were recovered on the Canadian shores of southern Lake Huron. The lost ships included some of the newest and largest ships on the Great Lakes.
| Name | Body of water | Number of victims | Year located | Approximate coordinates | Ship Length | Ship beam |
| Isaac M. Scott | Lake Huron | 28 | 1976 | 45°03′55″N 83°02′21″W﻿ / ﻿45.065333°N 83.039217°W﻿ / 45.065333; -83.039217﻿ (Isaac M. Scott) | 504 ft (154 m) | 54 ft (16 m) |
| Charles S. Price | Lake Huron | 28 | 1913 | 43°09′10″N 82°21′10″W﻿ / ﻿43.1529°N 82.3529°W﻿ / 43.1529; -82.3529﻿ (Charles S. Price) | 504 ft (154 m) | 54 ft (16 m) |
| John A. McGean | Lake Huron | 28 | 1985 | 43°57′12″N 82°31′43″W﻿ / ﻿43.953267°N 82.528617°W﻿ / 43.953267; -82.528617﻿ (John A. McGean) | 432 ft (132 m) | 52 ft (16 m) |
| Argus | Lake Huron | 28 | 1972 | 44°14′08″N 82°47′30″W﻿ / ﻿44.2355°N 82.7917°W﻿ / 44.2355; -82.7917﻿ (Argus) | 436 ft (133 m) | 50 ft (15 m) |
| Hydrus | Lake Huron | 25 | 2015 | 43°17′00″N 82°26′00″W﻿ / ﻿43.283333°N 82.433333°W﻿ / 43.283333; -82.433333﻿ (Hydrus) | 436 ft (133 m) | 50 ft (15 m) |
| Henry B. Smith | Lake Superior | 23 | 2013 | 46°54′50″N 87°19′59″W﻿ / ﻿46.914°N 87.333°W﻿ / 46.914; -87.333﻿ (Henry B. Smith) | 545 ft (166 m) | 55 ft (17 m) |
| James Carruthers | Lake Huron | 22 | Not located | Unknown | 550 ft (170 m) | 58 ft (18 m) |
| Regina | Lake Huron | 20 | 1986 | 43°20′13″N 82°26′46″W﻿ / ﻿43.337°N 82.446°W﻿ / 43.337; -82.446﻿ (Regina) | 249.25 ft (75.97 m) | 42.5 ft (13.0 m) |
| Wexford | Lake Huron | 20 | 2000 | 43°25′00″N 81°55′00″W﻿ / ﻿43.416667°N 81.916667°W﻿ / 43.416667; -81.916667﻿ (Wexford) | 250 ft (76 m) | 40 ft (12 m) |
| Leafield | Lake Superior | 18 | Not located | Unknown | 249 ft (76 m) | 35.5 ft (10.8 m) |
| Plymouth | Lake Michigan | 7 | Not located | Unknown | 213 ft (65 m) | 32 ft (9.8 m) |
| LV-82 Buffalo | Lake Erie | 6 | 1914 | Raised and later scrapped | 95.2 ft (29.0 m) | 21 ft (6.4 m) |