The research report should be a detailed narrative explaining the function, biological processes, and localization of the gene product. Citations should be given for all claims.
You should prioritize authoritative reviews and primary scientific literature when conducting research. You can supplement
this with annotations you find in gene/protein databases, but these can be outdated or inaccurate.
We are specifically interested in the primary function of the gene - for enzymes, what reaction is catalyzed, and what is the substrate specificity? For transporters, what is the substrate? For structural proteins or adapters, what is the broader structural role? For signaling molecules, what is the role in the pathway.
We are interested in where in or outside the cell the gene product carries out its function.
We are also interested in the signaling or biochemical pathways in which the gene functions. We are less interested in broad pleiotropic effects, except where these elucidate the precise role.
Include evidence where possible. We are interested in both experimental evidence as well as inference from structure, evolution, or bioinformatic analysis. Precise studies should be prioritized over high-throughput, where available.
The dyf-6 (abnormal dye filling protein 6) gene in Caenorhabditis elegans (ORF: F46F6.4; UniProt: Q0G838) encodes the worm ortholog of Intraflagellar Transport Protein 46 (IFT46). The protein belongs to the IFT46 family and contains a conserved Intraflagellar Transport Complex B C-terminal domain (IFT46_B_C; PF12317/IPR022088). DYF-6/IFT46 is a structural subunit of the intraflagellar transport (IFT) machinery, functioning as a core component of the IFT-B complex that is essential for the assembly, maintenance, and cargo transport functions of cilia in sensory neurons.
DYF-6/IFT46 does not function as an enzyme, transporter, or signaling molecule in the conventional sense. Rather, it serves as a structural and adapter subunit of the IFT-B complex, an essential multi-protein machine that mediates bidirectional transport of cargo along ciliary axonemal microtubules. Cilia lack protein synthesis machinery, and thus all ciliary proteins must be synthesized in the cell body and transported into the cilium by IFT (lv2017intraflagellartransportprotein pages 4-7). DYF-6/IFT46 fulfills dual roles within this system:
IFT46 is a pivotal subunit of the IFT-B1 core subcomplex, which consists of approximately 10 subunits: IFT22, IFT25, IFT27, IFT46, IFT52, IFT56, IFT70, IFT74, IFT81, and IFT88 (liu2025structuremakesa pages 1-2, nakayama2018ciliaryproteintrafficking pages 3-3). Within this core, IFT46 belongs to the B1-2 subgroup alongside IFT52, IFT56, IFT70, and IFT88 (nakayama2018ciliaryproteintrafficking pages 3-3). IFT46 directly interacts with IFT52 through large hydrophobic surfaces at their carboxy-terminal domains, and these two proteins together interact with IFT88 to form a stable ternary complex (IFT46–IFT52–IFT88) that constitutes a critical core module of IFT-B (lucker2010directinteractionsof pages 9-9, taschner2016theintraflagellartransport pages 5-6). IFT46 plays a stabilization role for both IFT52 and IFT88 within this complex (lucker2010directinteractionsof pages 9-9).
In organisms with motile cilia, IFT46 has a specialized function in transporting outer dynein arms (ODAs) via its interaction with the cargo adapter ODA16 (DAW1 in mammals). The N-terminal domain of IFT46 (approximately amino acids 1–147 in Chlamydomonas), which is predicted to be intrinsically disordered, binds directly to ODA16. ODA16 is a WD-repeat protein whose eight-bladed β-propeller contains a structural cleft that accommodates IFT46's unstructured N-terminal domain (lechtreck2022cargoadaptersexpand pages 3-4, lechtreck2022cargoadaptersexpand pages 2-3). This ODA16–IFT46 interaction is essential for efficient ODA transport to the ciliary tip. In Chlamydomonas, mutants expressing N-terminally truncated IFT46 can assemble flagella but these flagella specifically lack most outer dynein arms (nakayama2018ciliaryproteintrafficking pages 4-5, fassad2017c11orf70mutationscausing pages 40-46). Notably, the direct ODA16–IFT46 interaction has not been demonstrated in human cells, where additional factors may be required (huang2023arl3regulatesoda16mediated pages 8-12).
Since C. elegans possesses only non-motile sensory cilia that lack dynein arms, the ODA transport function of IFT46's N-terminus may be less relevant in nematodes, though the protein's core IFT-B assembly function is fully conserved.
DYF-6/IFT46 localizes to two principal subcellular compartments: the basal body (the ciliary base) and the cilium itself. Detailed studies in Chlamydomonas demonstrated that YFP-tagged IFT46 concentrates at the basal body and shows punctate distribution along the length of the flagellum, consistent with its association with moving IFT trains (lv2017intraflagellartransportprotein pages 4-7, lucker2010directinteractionsof pages 6-6). IFT-B proteins, including IFT46, form a semi-circular tri-lobed arc at the basal body (lv2017intraflagellartransportprotein pages 4-7). Anterograde IFT trains containing IFT-B proteins measure approximately 233 nm and move along B-microtubules of the axoneme (lv2017intraflagellartransportprotein pages 4-7).
The basal body localization of IFT46 depends critically on IFT52 but not vice versa, establishing a hierarchical recruitment mechanism. IFT52 and IFT46 preassemble as subcomplexes in the cytoplasm or at the trans-Golgi network (TGN) before being delivered to the basal body through vesicular or non-vesicle-mediated transport pathways (lv2017intraflagellartransportprotein pages 40-45, lv2017intraflagellartransportprotein pages 11-14). The C-terminal sequence of IFT46 (amino acids 246–321, designated BBTS3) serves as the basal body targeting sequence, which is also necessary for ciliary targeting (lv2017intraflagellartransportprotein pages 1-4). The specific leucine residues L285 and L286 within IFT46 are critical for the binding interface with IFT52 and, consequently, for proper basal body localization (lv2017intraflagellartransportprotein pages 9-11, lv2017intraflagellartransportprotein pages 11-14).
In C. elegans, DYF-6 functions in the sensory cilia of amphid and phasmid neurons, where it participates in IFT-mediated protein trafficking along the axoneme (cevik2013activetransportand pages 6-8, cevik2013activetransportand pages 8-10).
The known protein-protein interactions of DYF-6/IFT46 are summarized below:
| Interaction Partner | Binding Domain on IFT46 | Organism Studied | Functional Role of Interaction | Key Reference |
|---|---|---|---|---|
| IFT52 | C-terminal domain of IFT46; hydrophobic interface, including residues around L285/L286 important for recruitment | Chlamydomonas reinhardtii; human/cross-species IFT studies | Direct IFT46-IFT52 binding supports IFT-B1 core complex assembly and recruits IFT46 to the basal body/ciliary base before train assembly (lv2017intraflagellartransportprotein pages 35-40, lv2017intraflagellartransportprotein pages 40-45, lv2017intraflagellartransportprotein pages 9-11, lv2017intraflagellartransportprotein pages 11-14, lv2017intraflagellartransportprotein pages 1-4) | Lv et al., 2017; Taschner & Lorentzen, 2016 (lv2017intraflagellartransportprotein pages 35-40, lv2017intraflagellartransportprotein pages 1-4, taschner2016theintraflagellartransport pages 5-6) |
| IFT88 | No independent IFT46-only binding domain resolved here; interacts as part of an IFT46-IFT52-IFT88 ternary core complex | Chlamydomonas reinhardtii | Stabilizes the IFT-B core architecture; IFT46, IFT52, and IFT88 form a direct ternary complex essential for core IFT-B complex integrity (lucker2010directinteractionsof pages 9-9, lucker2010directinteractionsof pages 1-1) | Lucker et al., 2010 (lucker2010directinteractionsof pages 9-9) |
| ODA16/DAW1 | N-terminal domain of IFT46, especially aa 1-147 in Chlamydomonas; not clearly conserved in human DAW1-IFT46 binding | Chlamydomonas reinhardtii; comparative human studies | Cargo-adapter interaction for outer dynein arm (ODA) transport into cilia/flagella; truncation of the IFT46 N-terminus impairs ODA transport and causes axonemes lacking most ODAs (lechtreck2022cargoadaptersexpand pages 3-4, lechtreck2022cargoadaptersexpand pages 2-3, huang2023arl3regulatesoda16mediated pages 8-12, nakayama2018ciliaryproteintrafficking pages 4-5, fassad2017c11orf70mutationscausing pages 40-46) | Lechtreck, 2022; Wang et al., 2020; Nakayama & Katoh, 2018 (lechtreck2022cargoadaptersexpand pages 3-4, huang2023arl3regulatesoda16mediated pages 8-12, nakayama2018ciliaryproteintrafficking pages 4-5) |
| ARL13B | Indirectly via the IFT46-IFT56 dimer/subcomplex rather than a mapped standalone IFT46 motif | human; Caenorhabditis elegans | Supports ciliary membrane protein localization/retention and ciliary trafficking regulation; ARL13B/ARL-13 associates with IFT-B through IFT46-IFT56, and dyf-6/IFT46 affects ARL-13 compartmentalization in worm cilia (nozaki2017regulationofciliary pages 4-7, nozaki2017regulationofciliary pages 31-35, cevik2013activetransportand pages 10-11, cevik2013activetransportand pages 8-10, cevik2013activetransportand pages 6-8) | Cevik et al., 2013; Nozaki et al., 2017 (nozaki2017regulationofciliary pages 4-7, cevik2013activetransportand pages 10-11, nozaki2017regulationofciliary pages 7-10) |
| IFT81/IFT74 | Via higher-order IFT-B core interactions; IFT46 pairs with IFT52, which associates with the IFT81/IFT74 module during core assembly | Multiple organisms | Promotes IFT-B core complex formation; IFT46-IFT52 associates with IFT81/IFT74 to build the core scaffold that underlies anterograde IFT train assembly (lv2017intraflagellartransportprotein pages 9-11, liu2025structuremakesa pages 1-2, nakayama2018ciliaryproteintrafficking pages 3-3, taschner2016theintraflagellartransport pages 5-6, lucker2010directinteractionsof pages 9-9) | Taschner & Lorentzen, 2016; Nakayama & Katoh, 2018; Lucker et al., 2010 (nakayama2018ciliaryproteintrafficking pages 3-3, taschner2016theintraflagellartransport pages 5-6, lucker2010directinteractionsof pages 9-9) |
Table: This table summarizes the main known DYF-6/IFT46 interaction partners, the mapped or inferred IFT46 binding regions, and the functional significance of each interaction in IFT-B assembly, cargo transport, and ciliary localization.
A particularly important interaction in the context of C. elegans sensory cilia is the association of IFT46 with IFT56 to form a heterodimer that serves as the binding site for ARL13B (ARL-13 in C. elegans), a Joubert syndrome-associated small GTPase critical for ciliary membrane composition (nozaki2017regulationofciliary pages 4-7, nozaki2017regulationofciliary pages 31-35, nozaki2017regulationofciliary pages 7-10). In C. elegans, dyf-6 mutants show reduced ARL-13 at ciliary membranes and mislocalization of ARL-13 to the periciliary membrane, indicating that DYF-6/IFT46 is essential for maintaining ARL-13 within its proper ciliary membrane subdomain through active transport mechanisms (cevik2013activetransportand pages 6-8). FRAP analyses revealed that in dyf-6 mutants, ARL-13 shows slow diffusion rates between ciliary and periciliary membrane compartments, suggesting intact transition zone barriers but defective active transport (cevik2013activetransportand pages 6-8, cevik2013activetransportand pages 8-10).
The distinct functional regions of DYF-6/IFT46 highlight how the protein's N-terminal and C-terminal halves serve separable functions in cargo transport and complex assembly, respectively:
| Domain/Region | Amino Acid Range (approximate) | Function | Evidence |
|---|---|---|---|
| N-terminal domain | aa 1-147 (Chlamydomonas IFT46) | Predicted intrinsically disordered region that binds the cargo adapter ODA16 and is required for efficient outer dynein arm (ODA) transport; this N-terminal ODA16-binding function is conserved mainly in organisms with motile cilia | Reviews and primary studies describe direct ODA16 interaction with the IFT46 N-terminus, and truncation causes strong ODA loss from flagella (lechtreck2022cargoadaptersexpand pages 3-4, lechtreck2022cargoadaptersexpand pages 2-3, nakayama2018ciliaryproteintrafficking pages 4-5, fassad2017c11orf70mutationscausing pages 40-46) |
| Assembly-critical internal segment | aa 26-50 | Required for functional rescue of flagellar assembly in Chlamydomonas ift46 mutants; indicates this short N-proximal segment contributes to core ciliogenic activity beyond the extreme N-terminus | Recombinant rescue experiments showed aa 26-50 are necessary for flagellar assembly rescue, whereas the first 25 aa are dispensable (lucker2010directinteractionsof pages 9-9) |
| C-terminal domain / BBTS3 | aa 246-321 | Basal body targeting sequence (BBTS3); mediates recruitment to basal bodies/ciliary base, supports interaction with IFT52, and corresponds to the conserved IFT46_B_C region important for IFT-B incorporation and trafficking | Localization and mutational studies mapped the basal body targeting sequence to the C-terminus and showed direct functional coupling to IFT52 (lv2017intraflagellartransportprotein pages 9-11, lv2017intraflagellartransportprotein pages 11-14, lv2017intraflagellartransportprotein pages 4-7, lv2017intraflagellartransportprotein pages 1-4) |
| IFT52-binding interface residues | L285/L286 | Critical residues within the C-terminal region for IFT52 binding; disruption impairs IFT46 recruitment/localization and the IFT52-IFT46 interaction | Point-mutation analysis identified L285/L286 as essential for the IFT52 interaction interface (lv2017intraflagellartransportprotein pages 40-45, lv2017intraflagellartransportprotein pages 9-11, lv2017intraflagellartransportprotein pages 11-14, lv2017intraflagellartransportprotein pages 1-4) |
| Full C-terminus | Broadly the C-terminal half, including the terminal interaction surface | Required for IFT-B complex stability and assembly through hydrophobic interactions with IFT52; supports formation of the IFT46-IFT52-IFT88 core module and incorporation into the IFT-B1 complex | Structural/biochemical studies show the C-terminus stabilizes IFT-B core assembly via IFT52 interaction and contributes to ternary complex formation with IFT88 (lucker2010directinteractionsof pages 9-9, taschner2016theintraflagellartransport pages 5-6) |
Table: This table summarizes the main functional regions of IFT46/DYF-6, linking specific sequence segments to basal body targeting, IFT-B complex assembly, and cargo-adapter interactions. It is useful for distinguishing the conserved ciliogenic core functions of the protein from the motile-cilia-specific ODA transport role of its N-terminus.
The ift46-1 null mutant in Chlamydomonas reinhardtii produces stunted, paralyzed flagella significantly shorter than wild-type cells, with daughter cells remaining restricted within the mother cell wall (lv2017intraflagellartransportprotein pages 4-7). The ift46-2 strain carries a deletion of most of the IFT46 gene and displays a predominantly bald (non-flagellated) phenotype, with only approximately 6% of cells assembling short flagella averaging 3 µm in length (lucker2010directinteractionsof pages 1-1, lucker2010directinteractionsof pages 6-6, lucker2010directinteractionsof pages 5-6). This phenotype is slightly less severe than ift52 or ift88 mutants (lucker2010directinteractionsof pages 1-1). Electroporation of recombinant IFT46 protein successfully rescued the flagellar assembly defect, restoring motile flagella within 4 hours post-electroporation, including normal photophobic and phototactic responses (lucker2010directinteractionsof pages 6-6, lucker2010directinteractionsof pages 5-6). Rescue experiments further demonstrated that amino acids 26–50 are required for flagellar assembly function, whereas the first 25 amino acids are dispensable (lucker2010directinteractionsof pages 9-9).
In C. elegans, dyf-6 mutants exhibit the characteristic dye-filling defective (Dyf) phenotype, which is the hallmark of ciliary dysfunction in worm sensory neurons. The Dyf phenotype indicates that the amphid and phasmid cilia are structurally compromised, preventing uptake of lipophilic fluorescent dyes such as DiI that normally enter neurons through intact sensory cilia (cevik2013activetransportand pages 8-10, cevik2013activetransportand pages 6-8). The study by Cevik et al. (2013) demonstrated that in dyf-6 IFT-B mutants, the Joubert syndrome protein ARL-13 is mislocalized, with reduced amounts in the ciliary middle segment and aberrant accumulation at periciliary membranes (cevik2013activetransportand pages 6-8). Additionally, dyf-6 mutants display defects in IFT-dependent anthelmintic drug uptake through amphid sensory cilia, as IFT genes including dyf-6 are among the ciliary genes required for proper avermectin sensitivity in C. elegans (brinzer2021theuptakeof pages 10-12, brinzer2021theuptakeof pages 14-17).
Expression of ciliary genes in C. elegans, including those encoding IFT-B complex components, is regulated by the RFX transcription factor DAF-19, which binds to conserved X-box motifs in promoter regions. DAF-19 is essential for ciliary gene expression—when DAF-19 is non-functional, ciliated neurons lose their cilia and exhibit sensory defects (chu2012finetuningof pages 1-2). C. elegans possesses approximately 60 ciliated sensory neurons organized in three main clusters: labial and amphid neurons in the head, and phasmid neurons in the tail (warrington2018computationalandmolecular pages 21-25). The dyf-6 gene, like other ciliary genes, is expected to be under DAF-19/RFX transcriptional control given that its homolog CG15161 in Drosophila has been identified as an RFX target gene (chu2012finetuningof pages 1-2). Multiple X-box motifs can cooperate to fine-tune the expression levels of ciliary genes in specific ciliated neuron subtypes (chu2012finetuningof pages 5-8).
IFT46 is broadly conserved across eukaryotes that possess cilia, from the green alga Chlamydomonas reinhardtii to nematodes, zebrafish, and mammals. The C-terminal IFT46_B_C domain (PF12317) that mediates IFT-B complex interactions is conserved across all species, while the N-terminal region involved in ODA16 binding is specifically conserved in organisms with motile cilia (lechtreck2022cargoadaptersexpand pages 3-4, lechtreck2022cargoadaptersexpand pages 2-3). In zebrafish, IFT46 plays an essential role in cilia development, and mutations lead to typical ciliopathy-related phenotypes. In human cells, IFT46 is part of the IFT-B1 core subcomplex where it participates in the same core interactions with IFT52 and IFT88, though the ODA16-IFT46 interaction for dynein transport may involve additional factors compared to Chlamydomonas (huang2023arl3regulatesoda16mediated pages 8-12).
DYF-6/IFT46 in C. elegans is a core structural subunit of the IFT-B1 complex that is indispensable for intraflagellar transport and sensory cilium assembly. It localizes to the basal body and the ciliary axoneme of sensory neurons, where it functions as part of the IFT machinery that transports ciliary proteins between the cell body and the cilium. Its C-terminal domain mediates incorporation into the IFT-B core complex through direct interaction with IFT52, while its N-terminal domain serves as a binding site for the cargo adapter ODA16 in organisms with motile cilia. Through its interaction with IFT56, IFT46 also contributes to the localization and retention of ciliary membrane proteins such as ARL13B. Loss of DYF-6 in C. elegans results in dye-filling defects indicative of structurally compromised sensory cilia, mislocalization of ciliary membrane proteins, and consequent sensory deficits. The gene's expression is regulated by the ciliary transcription factor DAF-19/RFX, placing it within the core ciliogenesis transcriptional program.
References
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