Jul 2026· Frontiers in Cell and Developmental Biology· Vol 14· 0 citations· 120 references
Medicine
TL;DR
Recent advances in lipid ciliology are summarized, focusing on the underlying molecular mechanisms of ciliary cholesterol-dependent signaling in ciliopathies for emerging therapeutic strategies.
Abstract
Primary cilia are the microtubule-based sensory organelles. The unique lipid makeup of the ciliary membrane strictly controls their signaling ability, to orchestrate tissue formation and homeostasis. Emerging evidence has demonstrated that lipids play important roles in cilia formation and cilia-related signaling, solidifying the previously proposed concept of “lipid ciliology.” The ciliary membrane exhibits a highly specialized lipid composition, including enrichment in cholesterol, sphingolipids, and specific phosphoinositides, compared with the surrounding plasma membrane. Recent studies have revealed that cholesterol and phosphoinositides function together to regulate ciliary homeostasis, protein trafficking, and signal transduction. A growing spectrum of ciliopathies, including polycystic kidney disease, retinal degeneration, cerebellar hypoplasia, and metabolic disorders, can be caused by dysregulation of lipid metabolism and lipid-modifying enzymes through impaired cilia-related signaling. Moreover, defects in cholesterol biosynthesis or intracellular lipid transport contribute to various ciliopathies, such as Smith–Lemli–Opitz syndrome and Zellweger spectrum disorders. In this review, we summarize recent advances in lipid ciliology, focusing on the underlying molecular mechanisms of ciliary cholesterol-dependent signaling in ciliopathies for emerging therapeutic strategies.
This review bridges biophysical membrane dynamics with genetic pathology, positioning ciliary lipids not merely as structural components, but as active orchestrators of ciliary gatekeeping, cilia motility, and cilia signal transduction.
Zhen-Zhou Huang, Yuan-Yuan Liu, Han-Qi Sun et al.· Advancement of science· 0 citations
Emerging evidence indicates that cell-type-specific and temporally dynamic ciliary signatures determine signalling competence and disease susceptibility, and defining these signatures and the mechanisms that regulate their plasticity could lead to new therapeutic opportunities for ciliopathies and other cilia-associate...
O. K. Thomsen, Gaia Pigino, L. B. Pedersen et al.· Nature Reviews Nephrology· 0 citations
Primary cilia are microtubule-based organelles protruding from the cell surface, which are conventionally understood as passive cellular antennae that detect extracellular stimuli. However, emerging evidence redefines these microtubule-based organelles as dynamic, bidirectional hubs that integrate environmental sensing...
Huan-Tzu Hou, Yu-Ying Chao, Jie-Ning Li et al.· Journal of Biomedical Scienc...· 0 citations
These findings uncover an active, centrosome-dependent, cell-autonomous mechanism for maintaining and repairing mature metazoan cilia in fully grown organs in adulthood and also provide a possible explanation for how deregulation of conserved ciliary base components could lead to progressive, late-onset cilia-related d...
Minita Desai, P. Priya, Shriya et al.· bioRxiv· 0 citations
The current evidence regarding the role of primary cilium in skeletal, cardiac, and smooth muscle and its potential relevance in muscle disease are examined, providing an integrated overview of cilium-dependent signaling across muscle tissues.
Esteban R. Quezada, Eugenia Morselli, S. Buvinic et al.· Biochimica et Biophysica Act...· 0 citations
This work reviews how membrane lipid metabolism and composition regulate neural crest behavior, focusing primarily on sphingolipids, cholesterol, and lipid raft domains, and examines how morphogen signaling is modified and organized by lipids.
Allison E. Mancini, Mallorie P. Jenne, Michael L. Piacentino· Developmental Dynamics· 1 citation
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