A reproducible model for magnetosensitivity: earthworms in transparent soil reduce their cumulative movement in an extremely weak magnetic field

The magnetic sense remains one of the mysteries of sensory biology. Despite 50 years of extensive research, science seems to be at a standstill. One of the major factors contributing to this scientific stasis is the lack of simple, reproducible model systems. Here, we examine magnetoreception in earthworms held in transparent soil. Using video recordings and machine learning-based analysis, we show that earthworms move significantly less when held in a near-zero magnetic field (nZMF). This effect of nZMF on earthworm activity was highly reproducible and significant through all trials. Furthermore, under some circumstances the earthworms showed significant group magnetic directionality; however, this result was not reproducible. By using earthworms in transparent soil and manipulating the magnetic field, we created a robust protocol that facilitates examination of magnetoreception in a simple organism. This may serve as a crucial springboard in the ongoing quest to unravel this mysterious sense.

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Publication Details

Journal
Biology Letters
Published
2025-10-01
DOI
https://doi.org/10.1098/rsbl.2025.0213
Citations
1
Primary Topic
Electromagnetic Fields and Biological Effects
Type
article
Field-Weighted Citation Impact
1.63
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article

A reproducible model for magnetosensitivity: earthworms in transparent soil reduce their cumulative movement in an extremely weak magnetic field

Yoni Vortman, Oren Pearlson, Michael Bar‐Ziv, Dan Szklowin
1 citations
Biology Letters
Electromagnetic Fields and Biological Effects
1.63
article

A reproducible model for magnetosensitivity: earthworms in transparent soil reduce their cumulative movement in an extremely weak magnetic field

Yoni Vortman, Oren Pearlson, Michael Bar‐Ziv, Dan Szklowin
article en
1 citations

Abstract

The magnetic sense remains one of the mysteries of sensory biology. Despite 50 years of extensive research, science seems to be at a standstill. One of the major factors contributing to this scientific stasis is the lack of simple, reproducible model systems. Here, we examine magnetoreception in earthworms held in transparent soil. Using video recordings and machine learning-based analysis, we show that earthworms move significantly less when held in a near-zero magnetic field (nZMF). This effect of nZMF on earthworm activity was highly reproducible and significant through all trials. Furthermore, under some circumstances the earthworms showed significant group magnetic directionality; however, this result was not reproducible. By using earthworms in transparent soil and manipulating the magnetic field, we created a robust protocol that facilitates examination of magnetoreception in a simple organism. This may serve as a crucial springboard in the ongoing quest to unravel this mysterious sense.

Biology LettersVol. 21(10)
Migal - Galilee Technology Center (IL), Tel Hai Academic College (IL)
Openalex Percentile: Top 12%
Electromagnetic Fields and Biological Effects
1.63
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A reproducible model for magnetosensitivity: earthworms in transparent soil reduce their cumulative movement in an extremely weak magnetic field — Yoni Vortman, Oren Pearlson, et al. · Biology Letters (2025) | TGRS Research Map | TGRS