Crowdsourcing human observations expands and enhances volcano monitoring records

Volcano monitoring is constrained by the distribution of sensors that record activity. Here, we explore the role of crowdsourcing to broaden acoustic monitoring records by surveying people across Aotearoa New Zealand about the sounds they heard following the 2022 climactic eruption of Hunga volcano in Tonga. We compare the 1930 survey responses to geophysical records of the pressure waves and find that they align well, both recording ~5-7 audible signals of varying amplitude with a peak of 60-80 decibels, arriving in two 30-minute phases ~3 hours post-eruption, travelling North-to-South. The crowdsourced observations fill instrumental gaps regarding the wave’s audible frequencies and contribute insights into interactions between the far-field acoustic wave and the social and built environment. Descriptions of short-lived impacts reveal that pressure waves are capable of substantial disturbances thousands of kilometers from the vent. We demonstrate that crowdsourcing can support traditional monitoring as a reliable low-cost method to capture perishable data. Crowdsourcing human observations of acoustic signals generated by large volcanic eruptions can fill gaps in instrumental records, providing new insights into eruption sound propagation, according to an interdisciplinary study combining far field observations and instrumental data about the Hunga eruption.

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Publication Details

Journal
Communications Earth & Environment
Published
2024-10-17
DOI
https://doi.org/10.1038/s43247-024-01747-3
Citations
5
Primary Topic
Seismology and Earthquake Studies
Type
article
Field-Weighted Citation Impact
1.74

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Crowdsourcing human observations expands and enhances volcano monitoring records

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Seismology and Earthquake Studies
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article

Crowdsourcing human observations expands and enhances volcano monitoring records

Geoff Kilgour, Oliver D. Lamb, R. Lawson, Sally Potter, Danielle Charlton, Mary Anne T. Clive, Paul A. Jarvis, Sara Harrison, B. J. Scott
article en
5 citations

Abstract

Volcano monitoring is constrained by the distribution of sensors that record activity. Here, we explore the role of crowdsourcing to broaden acoustic monitoring records by surveying people across Aotearoa New Zealand about the sounds they heard following the 2022 climactic eruption of Hunga volcano in Tonga. We compare the 1930 survey responses to geophysical records of the pressure waves and find that they align well, both recording ~5-7 audible signals of varying amplitude with a peak of 60-80 decibels, arriving in two 30-minute phases ~3 hours post-eruption, travelling North-to-South. The crowdsourced observations fill instrumental gaps regarding the wave’s audible frequencies and contribute insights into interactions between the far-field acoustic wave and the social and built environment. Descriptions of short-lived impacts reveal that pressure waves are capable of substantial disturbances thousands of kilometers from the vent. We demonstrate that crowdsourcing can support traditional monitoring as a reliable low-cost method to capture perishable data. Crowdsourcing human observations of acoustic signals generated by large volcanic eruptions can fill gaps in instrumental records, providing new insights into eruption sound propagation, according to an interdisciplinary study combining far field observations and instrumental data about the Hunga eruption.

Communications Earth & EnvironmentVol. 5(1)
GNS Science (NZ)
Royal Society Te Apārangi, Ministry of Business, Innovation and Employment
Climate action
Openalex Percentile: Top 13%
Seismology and Earthquake Studies
1.74
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