Proteomic and structural comparison between cilia from primary ciliary dyskinesia patients with a DNAH5 defect
Charlotte de Ceuninck van CapelleiD, Leo LuoiD, Alexander LeitneriD, Stefan A. TschanziD, Philipp LatziniD, Sebastian R. OttiD, Tobias Herren, Loretta L. MülleriD, Takashi IshikawaiD
Abstract
Primary ciliary dyskinesia (PCD) is a genetic disorder that affects the motile cilia in various organs, leading to recurrent respiratory infections, subfertility, and laterality abnormalities. Traditional diagnostic methods include high-speed video microscopy, immunofluorescence staining, electron microscopy, and genetic screening. However, how different disease-causing variants in the same PCD gene affect clinical presentation, as well as ciliary composition and structure, is not well understood. We investigated the effect of various mutations in DNAH5, an axonemal dynein heavy chain, using mass spectrometry and cryo-electron tomography. We demonstrated differences in the axonemal composition for patients with dnah5 mutations. Furthermore, we showed that reductions in some ciliary components are patient specific. Some of them, KIAA1430, CFAP97, and DTHD1, were not previously recognized as components of human respiratory motile cilia. Finally, we demonstrated that some differences in protein abundance between wild-type and PCD samples can be observed in the 96-nm repeated unit of the axoneme. Our results suggest that many axonemal components are affected in the DNAH5-defective samples. Additionally, our results highlight that disparate mutations have seemingly distinctive consequences for the axonemal composition.
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