Volcanologist Warns of Santorini’s Tsunamigenic Potential and Need for Global Monitoring

SANTORINI, GREECE – A recent discovery by a team of scientists has shed new light on the potential risks posed by the volcanic activity on the island of Santorini. The findings suggest that the worst-case scenario for the island may be more severe than previously thought, raising concerns among experts in the field of volcanology.

Volcanologist Amy Donovan from the University of Cambridge emphasized the importance of taking the volcanic risks on Santorini seriously, especially due to the volcano’s tsunamigenic potential and the large number of people who could be affected. Despite the alarming nature of the latest findings, Donovan notes that the monitoring of the volcano is thorough, with any signs of unrest likely to be detected early on, allowing for timely warnings to be issued.

The significance of this research extends beyond Santorini itself, as the island has long been a focal point for studies in volcanology. Researchers have meticulously examined its features, yet the recent discovery of the volcano’s past eruptions has highlighted the existence of surprising secrets that remain hidden beneath the surface.

Given the implications of the findings for Santorini, experts like Preine speculate about the potential blind spots in the study of other caldera-forming volcanoes globally, especially those submerged beneath the ocean. The lack of monitoring for such underwater volcanoes is a cause for concern, as highlighted by researcher Yeo, who stresses the need for heightened surveillance and awareness of these potentially hazardous geological features.

As the scientific community grapples with the new revelations about Santorini’s volcanic history, the urgency to expand monitoring efforts and improve understanding of similar volcanic systems worldwide becomes increasingly evident. The ongoing study of Santorini serves as a stark reminder of the unpredictability and complexity of volcanic activity and its impact on both local and global scales.