CiliaIO: Machine learning reveals spatial patterns of cilia beating dynamics in the zebrafish spinal cord

Motile cilia generate fluid flows that are essential for normal development and physiology. Cilia display diverse beating waveforms, and while pronounced defects are strongly associated with motile ciliopathies, subtler alterations also influence disease manifestations. Finer quantification of ciliary dynamics is therefore critical for understanding ciliopathies, but the heterogeneity of cilia beating makes accurate and robust characterization challenging. Here, we present CiliaIO, a machine learning-based tool for quantification of motile cilia morphodynamics. Using this platform, we discovered subtle but highly significant regional differences in ciliary waveforms in the zebrafish spinal cord. To demonstrate the tool's efficacy, we used CiliaIO to capture and quantify subtle ciliary defects in a novel bbs2 allele that causes a late-onset scoliosis phenotype. These results provide a workflow for additional fine-scale analyses of ciliary morphodynamics that will be important for understanding motile ciliopathy.

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Journal
Development
Published
2026-09-18
DOI
https://doi.org/10.1242/dev.206057
Primary Topic
Genetic and Kidney Cyst Diseases
Type
article
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article

CiliaIO: Machine learning reveals spatial patterns of cilia beating dynamics in the zebrafish spinal cord

Andreas Gerstlauer, Jason Ho, John B. Wallingford, Ece Atayeter et al.
Development
Genetic and Kidney Cyst Diseases
article

CiliaIO: Machine learning reveals spatial patterns of cilia beating dynamics in the zebrafish spinal cord

Andreas Gerstlauer, Jason Ho, John B. Wallingford, Ece Atayeter, Talon G Blottin, Ilyena B Joe, Ryan S. Gray, Lilianna Solnica-Krezel, Ron Sistrunk, Bo Zhang
article en

Abstract

Motile cilia generate fluid flows that are essential for normal development and physiology. Cilia display diverse beating waveforms, and while pronounced defects are strongly associated with motile ciliopathies, subtler alterations also influence disease manifestations. Finer quantification of ciliary dynamics is therefore critical for understanding ciliopathies, but the heterogeneity of cilia beating makes accurate and robust characterization challenging. Here, we present CiliaIO, a machine learning-based tool for quantification of motile cilia morphodynamics. Using this platform, we discovered subtle but highly significant regional differences in ciliary waveforms in the zebrafish spinal cord. To demonstrate the tool's efficacy, we used CiliaIO to capture and quantify subtle ciliary defects in a novel bbs2 allele that causes a late-onset scoliosis phenotype. These results provide a workflow for additional fine-scale analyses of ciliary morphodynamics that will be important for understanding motile ciliopathy.

Development
Washington University in St. Louis (US), The University of Texas at Austin (US)
Openalex Percentile: Top 61%
Genetic and Kidney Cyst Diseases
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CiliaIO: Machine learning reveals spatial patterns of cilia beating dynamics in the zebrafish spinal cord — Andreas Gerstlauer, Jason Ho, et al. · Development (2026) | TGRS Research Map | TGRS