FB2026_01 , released March 12, 2026
FB2026_01 , released March 12, 2026
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Liu, C.Q., Qu, X.C., He, M.F., Liang, D.H., Xie, S.M., Zhang, X.X., Lin, Y.M., Zhang, W.J., Wu, K.C., Qiao, J.D. (2023). Efficient strategies based on behavioral and electrophysiological methods for epilepsy-related gene screening in the Drosophila model.  Front. Mol. Neurosci. 16(): 1121877.
FlyBase ID
FBrf0256425
Publication Type
Research paper
Abstract
With the advent of trio-based whole-exome sequencing, the identification of epilepsy candidate genes has become easier, resulting in a large number of potential genes that need to be validated in a whole-organism context. However, conducting animal experiments systematically and efficiently remains a challenge due to their laborious and time-consuming nature. This study aims to develop optimized strategies for validating epilepsy candidate genes using the Drosophila model. This study incorporate behavior, morphology, and electrophysiology for genetic manipulation and phenotypic examination. We utilized the Gal4/UAS system in combination with RNAi techniques to generate loss-of-function models. We performed a range of behavioral tests, including two previously unreported seizure phenotypes, to evaluate the seizure behavior of mutant and wild-type flies. We used Gal4/UAS-mGFP flies to observe the morphological alterations in the brain under a confocal microscope. We also implemented patch-clamp recordings, including a novel electrophysiological method for studying synapse function and improved methods for recording action potential currents and spontaneous EPSCs on targeted neurons. We applied different techniques or methods mentioned above to investigate four epilepsy-associated genes, namely Tango14, Klp3A, Cac, and Sbf, based on their genotype-phenotype correlation. Our findings showcase the feasibility and efficiency of our screening system for confirming epilepsy candidate genes in the Drosophila model. This efficient screening system holds the potential to significantly accelerate and optimize the process of identifying epilepsy candidate genes, particularly in conjunction with trio-based whole-exome sequencing.
PubMed ID
PubMed Central ID
PMC10157486 (PMC) (EuropePMC)
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    Language of Publication
    English
    Additional Languages of Abstract
    Parent Publication
    Publication Type
    Journal
    Abbreviation
    Front. Mol. Neurosci.
    Title
    Frontiers in molecular neuroscience
    ISBN/ISSN
    1662-5099
    Data From Reference
    Alleles (8)
    Genes (5)
    Human Disease Models (1)
    Insertions (2)
    Transgenic Constructs (6)