Regional Lightning Strike Prediction Using Ubiquitous and Mobile Electric Field Meter System

Lightning strikes can cause serious damage to property and can be fatal. To mitigate these risks, many efforts have been made to develop lightning strike alert mechanisms. Designing a reliable lightning strike alarm system requires studying specific factors such as the local area and time of year to determine the appropriate alert parameters. This paper proposes a methodology using ubiquitous, wide-area, and mobile Electric Field Meters (EFM) to study all covered local areas, build high-performance predictors, and apply them on demand. The methodology can be applied globally, provided there is a network of low-cost IoT mobile devices capable of measuring the atmospheric electric field. As part of a more comprehensive system, this paper introduces Thor2022, which utilizes this methodology to generate lightning alarms in designated areas of concern. Using a “nine area” approach and the trilateration concept, massive simulations demonstrate that a Predictive System (PS) based on simple test conditions can achieve a Probability of Detection (POD) greater than ${9 0 \%}$ and a False Alarm Rate (FAR) less than $10 \%$.

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Published
2024-11-18
DOI
https://doi.org/10.1109/urucon63440.2024.10850004
Primary Topic
Lightning and Electromagnetic Phenomena
Type
article
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article

Regional Lightning Strike Prediction Using Ubiquitous and Mobile Electric Field Meter System

Paulo Pereira, Angélica Felipe da Silva, César David Paredes Crovato, Alexandre Mesquita
Lightning and Electromagnetic Phenomena
article

Regional Lightning Strike Prediction Using Ubiquitous and Mobile Electric Field Meter System

Paulo Pereira, Angélica Felipe da Silva, César David Paredes Crovato, Alexandre Mesquita
article en

Abstract

Lightning strikes can cause serious damage to property and can be fatal. To mitigate these risks, many efforts have been made to develop lightning strike alert mechanisms. Designing a reliable lightning strike alarm system requires studying specific factors such as the local area and time of year to determine the appropriate alert parameters. This paper proposes a methodology using ubiquitous, wide-area, and mobile Electric Field Meters (EFM) to study all covered local areas, build high-performance predictors, and apply them on demand. The methodology can be applied globally, provided there is a network of low-cost IoT mobile devices capable of measuring the atmospheric electric field. As part of a more comprehensive system, this paper introduces Thor2022, which utilizes this methodology to generate lightning alarms in designated areas of concern. Using a “nine area” approach and the trilateration concept, massive simulations demonstrate that a Predictive System (PS) based on simple test conditions can achieve a Probability of Detection (POD) greater than ${9 0 \%}$ and a False Alarm Rate (FAR) less than $10 \%$.

Universidade de Caxias do Sul (BR), Universidade do Vale do Rio dos Sinos (BR)
Climate action
Openalex Percentile: Top 80%
Lightning and Electromagnetic Phenomena
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