Strong Earthquake (M5.9) Reported Near Drake Passage

Seismologists have recorded a magnitude 5.9 earthquake in the affected region, with the epicentre located Drake Passage. The event occurred at 01:26 UTC on Tuesday, July 7, 2026 and originated at a depth of 10.0 km.

Seismic Context for the affected region

This area sits within a seismically active zone where tectonic stresses periodically build and are released as earthquakes. Global seismic monitoring networks ensure that even remote events are rapidly detected and characterised.

Earthquake science has advanced enormously over the past century, with modern seismograph networks capable of detecting and locating events anywhere on Earth within minutes. However, predicting exactly when and where the next earthquake will strike remains one of science's great unsolved challenges.

About This Event

At a focal depth of 10.0 km, this is classified as a shallow earthquake (0–70 km). Shallow events are typically the most damaging: the seismic energy has less distance to travel before reaching the surface, resulting in stronger and more abrupt ground shaking at the epicentre.

In terms of felt effects, a magnitude 5.9 earthquake is typically capable of causing significant damage, particularly to older or poorly built structures. Strong earthquakes cause severe shaking that is difficult to stand through. Duration can reach 30–60 seconds. Widespread damage to ordinary buildings is common; even some well-built structures may sustain damage. Strong ground motion can trigger landslides, liquefaction of saturated soils, and rupturing of underground infrastructure.

Understanding the Magnitude Scale

Earthquake magnitude is measured on a logarithmic scale — meaning each whole-number increase corresponds to roughly 32 times more energy released and approximately 10 times greater ground motion amplitude. A magnitude 5.9 event therefore releases significantly more energy than its number alone might suggest to the casual observer.

The energy released by a magnitude 5.9 earthquake is approximately roughly 1 million tonnes of TNT — equivalent to a major nuclear weapon. This is 32 times more energy than a magnitude 4.9 event — the logarithmic nature of the magnitude scale means each whole number increase represents about 32 times more energy.

This magnitude class poses a serious threat to older and poorly constructed buildings. Collapse is possible in the most vulnerable structures. Modern seismically designed buildings are expected to remain standing, though repair or demolition may be necessary after inspection.

What to Do After an Earthquake

The internationally recommended action during earthquake shaking is Drop, Cover, and Hold On: drop to your hands and knees, take cover under a sturdy table or desk (or protect your head with your arms if no shelter is available), and hold on until shaking stops. Do not run outside during shaking — most injuries occur when people attempt to move.

Fasten heavy furniture — bookshelves, water heaters, cabinets — to walls using earthquake straps. Store breakable items on lower shelves and heavy items closest to the floor. These simple steps significantly reduce the risk of injury from falling objects.

Staying Informed

Local civil protection agencies and emergency services are the primary authorities during and after an earthquake. Following official guidance, maintaining an emergency kit, and knowing Drop–Cover–Hold On procedures are universally applicable precautions.

QuakeWatch publishes real-time earthquake data sourced from the USGS global catalog — covering every detected seismic event worldwide, 24 hours a day. Visit our live map to see this and all other recent earthquakes, or explore our guide to earthquake magnitude for a deeper understanding of what these numbers mean in practice.

Building Codes and Earthquake Resilience

One of the most effective tools against earthquake damage is modern building codes that specify how structures must be designed and constructed to withstand seismic forces. Countries with active fault zones have developed increasingly sophisticated seismic design standards over the past 50 years. However, the gap between modern code-compliant buildings and older existing structures remains a critical challenge in earthquake risk reduction worldwide. Building retrofit programmes and public awareness campaigns are key components of any national earthquake preparedness strategy.