ShineGAL4 drivers for tissue and cell-type specific optogenetics in <i>Drosophila</i>

An optogenetic split-GAL4 system, ShineGAL4, allows genes to be manipulated with unprecedented spatiotemporal precision. Here, we convert a panel of 14 GAL4 drivers widely used in Drosophila research into their ShineGAL4 counterparts. Homology assisted CRISPR knock-in (HACK) is used to replace GAL4 with the GAL4 DNA binding domain fused to a Magnet photoswitch. We show that the resulting ShineGAL4 drivers enable gene expression to be rapidly induced by light specifically in fat body, muscles, enterocytes, oenocytes, Malpighian tubules, neurons, neuroblast lineages, glial subtypes or in all glia. We also develop an optogenetic cassette for photoactivation of GAL4 in 'silent' FLP-out clones. This panel of optogenetic tools will enable precise spatiotemporal control of gene expression in a wide range of different Drosophila tissues and cell-types.

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Publication Details

Journal
Development
Published
2026-02-15
DOI
https://doi.org/10.1242/dev.204981
Primary Topic
Light effects on plants
Type
article
Field-Weighted Citation Impact
0.00

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article

ShineGAL4 drivers for tissue and cell-type specific optogenetics in Drosophila

Sebastian Sorge, Alex P. Gould, Joachim Kurth, Victor Girard et al.
Development
Light effects on plants
article

ShineGAL4 drivers for tissue and cell-type specific optogenetics in Drosophila

Sebastian Sorge, Alex P. Gould, Joachim Kurth, Victor Girard, Cyrille Alexandre
article en

Abstract

An optogenetic split-GAL4 system, ShineGAL4, allows genes to be manipulated with unprecedented spatiotemporal precision. Here, we convert a panel of 14 GAL4 drivers widely used in Drosophila research into their ShineGAL4 counterparts. Homology assisted CRISPR knock-in (HACK) is used to replace GAL4 with the GAL4 DNA binding domain fused to a Magnet photoswitch. We show that the resulting ShineGAL4 drivers enable gene expression to be rapidly induced by light specifically in fat body, muscles, enterocytes, oenocytes, Malpighian tubules, neurons, neuroblast lineages, glial subtypes or in all glia. We also develop an optogenetic cassette for photoactivation of GAL4 in 'silent' FLP-out clones. This panel of optogenetic tools will enable precise spatiotemporal control of gene expression in a wide range of different Drosophila tissues and cell-types.

DevelopmentVol. 153(4)
The Francis Crick Institute (GB)
Wellcome Trust, Francis Crick Institute, Cancer Research UK, National Institutes of Health, Medical Research Council
Openalex Percentile: Top 45%
Light effects on plants
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