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this with annotations you find in gene/protein databases, but these can be outdated or inaccurate.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 C. elegans gene cct-8 (ORF name Y55F3AR.3; UniProt Q9N358) encodes the theta (θ) subunit of the eukaryotic group II chaperonin known as TRiC (TCP-1 Ring Complex), also designated CCT (chaperonin containing TCP-1). CCT-8 belongs to the TCP-1 chaperonin family and contains the characteristic domain architecture of the CCT/GroEL superfamily, including the Cpn60/TCP-1 equatorial domain (ATP-binding), an intermediate hinge domain, and the apical substrate-binding domain (Chap_CCT_theta, IPR012721) (smith2022mechanisticinsightsinto pages 1-3, willison2018thesubstratespecificity pages 1-2). The protein is conserved across eukaryotes, with clear orthologs in yeast (CCT8), mammals (CCT8/CCTθ), and other organisms (brackley2009activitiesofthe pages 1-2).
CCT-8 does not function as a classical enzyme catalyzing a small-molecule chemical reaction. Instead, it is a structural and functional subunit of the ~1 MDa TRiC/CCT chaperonin complex, which uses ATP binding and hydrolysis to drive conformational changes that facilitate the folding of nascent and non-native polypeptides within a central enclosed chamber (smith2022mechanisticinsightsinto pages 1-3, ghozlan2022thetrickybusiness pages 1-2). The complex consists of two stacked rings, each composed of eight paralogous but distinct subunits (CCT1–CCT8 in yeast/worm nomenclature, or CCTα–θ in mammalian nomenclature) arranged in a defined order (monkemeyer2019structuralandfunctional pages 42-42, brackley2009activitiesofthe pages 1-2).
The TRiC/CCT complex is an essential molecular chaperone responsible for folding an estimated 10% of cytosolic proteins (noormohammadi2016somaticincreaseof pages 1-2, smith2022mechanisticinsightsinto pages 1-3). Its principal obligate substrates are the cytoskeletal proteins actin and tubulin, which are completely dependent on TRiC/CCT to reach their native conformations and cannot be folded by other chaperonins such as GroEL (brackley2009activitiesofthe pages 2-4, willison2018thesubstratespecificity pages 1-2, monkemeyer2019structuralandfunctional pages 31-33). Additional substrate classes include WD40 β-propeller repeat proteins and a variety of other structurally complex proteins involved in cell cycle regulation (e.g., Cdc20, Cdh1, cyclin E, Polo-like kinase 1), tumor suppression (Von Hippel-Lindau protein), and signal transduction (brackley2009activitiesofthe pages 2-4, ghozlan2022thetrickybusiness pages 6-7). The complex lowers folding energy barriers for substrates with complex topologies and can even partially encase and sequentially fold proteins larger than its central cavity (ghozlan2022thetrickybusiness pages 6-7).
Within the TRiC/CCT complex, CCT-8 has distinctive biochemical characteristics that differentiate it from other subunits:
TRiC/CCT is a cytosolic chaperonin complex (brackley2009activitiesofthe pages 1-2, zeng2024revisitingthechaperonin pages 1-4, smith2022mechanisticinsightsinto pages 1-3, smith2022mechanisticinsightsinto pages 9-10). The "C" in CCT explicitly stands for "cytosolic" (smith2022mechanisticinsightsinto pages 9-10). CCT-8, as an integral subunit of this complex, carries out its primary function in the cytoplasm/cytosol, where it assists in folding newly synthesized polypeptides emerging from ribosomes and helps maintain solubility of metastable proteins. Some evidence suggests that CCT subunits may also associate with membranes through S-palmitoylation post-translational modifications, possibly facilitating ordered assembly near the endoplasmic reticulum (ghozlan2022thetrickybusiness pages 4-5), though the predominant localization and function is cytosolic.
A landmark study by Noormohammadi et al. (2016, Nature Communications) demonstrated that cct-8 is a critical regulator of proteostasis and longevity in C. elegans. Key findings include:
CCT-8 plays a direct role in suppressing toxic protein aggregation in C. elegans models of Huntington's disease:
The TRiC/CCT complex, and cct-8 specifically, is functionally required for lifespan extension across multiple canonical C. elegans longevity paradigms:
cct-8 overexpression can extend lifespan even when the heat shock transcription factor hsf-1 is knocked down, demonstrating that the protective effects of enhanced TRiC/CCT assembly operate at least partly independently of the canonical heat shock response (noormohammadi2016somaticincreaseof pages 6-7, noormohammadi2016somaticincreaseof pages 9-10, noormohammadi2016somaticincreaseof pages 10-11). This is a significant finding because it indicates that boosting chaperonin capacity can compensate for deficient transcriptional stress responses, providing an alternative axis for maintaining proteostasis.
High levels of TRiC/CCT are essential for germline stability and the maintenance of proliferating cells in C. elegans. Adult knockdown of CCT subunits dramatically decreases germ cell numbers and destabilizes the germline (noormohammadi2016somaticincreaseof pages 6-7). This is consistent with the high demand for protein folding capacity in rapidly dividing cells.
The following table summarizes the key functional attributes of CCT-8/cct-8 in C. elegans:
| Category | Description | Evidence/Source |
|---|---|---|
| Gene Identity | cct-8 in Caenorhabditis elegans encodes T-complex protein 1 subunit theta (CCT-8/CCT8), one of the eight distinct subunits of the cytosolic TRiC/CCT chaperonin. This matches the theta subunit annotation and places the protein in the conserved TCP-1 chaperonin family. | (smith2022mechanisticinsightsinto pages 1-3, willison2018thesubstratespecificity pages 1-2, brackley2009activitiesofthe pages 1-2) |
| Protein Function | CCT-8 functions as a structural and functional subunit of the ATP-dependent TRiC/CCT folding machine, which promotes folding of obligate cytoskeletal substrates such as actin and tubulin and also assists folding/assembly of additional cytosolic proteins, including many WD40-repeat proteins. The complex facilitates folding rather than catalyzing a classic small-molecule enzymatic transformation. | (smith2022mechanisticinsightsinto pages 1-3, brackley2009activitiesofthe pages 2-4, willison2018thesubstratespecificity pages 1-2, ghozlan2022thetrickybusiness pages 6-7) |
| Subcellular Localization | TRiC/CCT is a cytosolic/cytoplasmic chaperonin complex in eukaryotic cells; therefore CCT-8’s primary site of action is the cytosol, where newly synthesized and metastable cytosolic proteins are folded. | (brackley2009activitiesofthe pages 1-2, zeng2024revisitingthechaperonin pages 1-4, smith2022mechanisticinsightsinto pages 1-3, smith2022mechanisticinsightsinto pages 9-10) |
| Biological Processes | In C. elegans, cct-8 supports proteostasis, resistance to proteotoxic stress, maintenance of protein folding capacity during aging, and suppression of toxic protein aggregation. Overexpression of cct-8 increases TRiC/CCT assembly and improves organismal protein homeostasis. | (noormohammadi2016somaticincreaseof pages 9-10, noormohammadi2016somaticincreaseof pages 6-7, noormohammadi2016somaticincreaseof pages 1-2, noormohammadi2016somaticincreaseof pages 7-8) |
| Biological Processes | cct-8 also contributes to germline stability/proliferative cell function and is linked to maintenance of tissue fitness under stress. Adult knockdown of CCT subunits decreases germ cell numbers, while high TRiC/CCT levels are important for proliferating cells and germline integrity. | (noormohammadi2016somaticincreaseof pages 6-7, noormohammadi2016somaticincreaseof pages 9-10) |
| Pathway Involvement | cct-8 is functionally required for lifespan extension in major C. elegans longevity paradigms, including reduced insulin/IGF-1 signaling (daf-2), dietary restriction (eat-2), and germline-loss signaling (glp-1). Knockdown of cct-8 shortens the extended lifespan of these long-lived backgrounds, indicating that TRiC/CCT-dependent proteostasis is a shared downstream requirement. | (noormohammadi2016somaticincreaseof pages 9-10, noormohammadi2016somaticincreaseof pages 8-9) |
| Pathway Involvement | cct-8-mediated lifespan extension is at least partly HSF-1-independent: cct-8 overexpression can remain beneficial even when hsf-1 is knocked down, suggesting that boosting TRiC/CCT assembly can bypass some dependence on the canonical heat-shock transcriptional program. | (noormohammadi2016somaticincreaseof pages 6-7, noormohammadi2016somaticincreaseof pages 9-10, noormohammadi2016somaticincreaseof pages 10-11) |
| Key Phenotypes | Somatic overexpression of cct-8 extends C. elegans lifespan by about 20% under normal conditions and by roughly 20–40% under mild heat stress/heat-stress paradigms, consistent with improved proteostasis in adulthood. | (noormohammadi2016somaticincreaseof pages 6-7, noormohammadi2016somaticincreaseof pages 7-8) |
| Key Phenotypes | cct-8 overexpression reduces polyQ67 aggregate burden, improves motility, and ameliorates proteotoxic phenotypes in worm models of Huntington-like polyglutamine toxicity without reducing total polyQ protein levels, consistent with improved folding/aggregation control rather than reduced expression. | (noormohammadi2016somaticincreaseof pages 1-2, noormohammadi2016somaticincreaseof pages 8-9, noormohammadi2016somaticincreaseof pages 7-8) |
| Key Phenotypes | Loss or downregulation of TRiC/CCT activity, including cct-8 perturbation, compromises proteostasis and promotes aggregation of disease-linked proteins; neuronal-specific CCT downregulation is sufficient to enhance neuronal polyQ67 aggregation. | (noormohammadi2016somaticincreaseof pages 6-6, calculli2021systemicregulationof pages 2-3) |
| Subunit-Specific Properties | Within TRiC/CCT, CCT-8 belongs to the low-ATPase / low-ATP-affinity CCT6 hemisphere (with CCT1/3/6/8). It retains bound ADP unusually strongly, has slow ADP off-rates, and may contribute less to ATP consumption than high-affinity subunits, implying a more specialized regulatory role in the ATPase cycle. | (ghozlan2022thetrickybusiness pages 5-6, smith2022mechanisticinsightsinto pages 3-5, ghozlan2022thetrickybusiness pages 4-5) |
| Subunit-Specific Properties | CCT-8 contributes to allosteric cooperativity and complex assembly, potentially via N-terminal features that function partly independently of ATP hydrolysis. These properties suggest that cct-8 is not merely interchangeable with other subunits but helps define TRiC/CCT architecture and regulation. | (ghozlan2022thetrickybusiness pages 5-6) |
| Subunit-Specific Properties | CCT-8 also participates directly in substrate binding contacts. Structural studies indicate many substrates contact CCT8, and actin and tubulin each make contacts with CCT8-containing apical domains during the folding cycle, helping position/stabilize folding intermediates. | (smith2022mechanisticinsightsinto pages 3-5, smith2022mechanisticinsightsinto pages 5-8) |
| Structural Context | The eight TRiC/CCT subunits occupy fixed positions within each ring; proposed arrangements place CCT8 at a defined site and indicate it may participate in homotypic inter-ring contacts, supporting its contribution to complex architecture as well as folding function. | (monkemeyer2019structuralandfunctional pages 42-42, monkemeyer2019structuralandfunctional pages 29-31, brackley2009activitiesofthe pages 2-4) |
Table: This table summarizes the verified functional annotation of C. elegans cct-8/CCT-8 as the theta subunit of the TRiC/CCT chaperonin. It highlights molecular function, localization, pathway links, phenotypes, and subunit-specific properties most relevant to proteostasis, aging, and polyQ aggregation.
The functional importance of CCT8 is broadly conserved across eukaryotes. In mammals, CCT8 has been identified as upregulated in several cancers (hepatocellular carcinoma, colorectal cancer) and is associated with tumor progression (OpenTargets Search: -CCT8). The human ortholog has been shown to be essential for T cell maturation, selection, and function, with loss of CCT8 in T cells impairing proteostasis, nuclear actin filament formation, and immune responses. Recent work has also identified FKBP4 (an Hsp90 co-chaperone) as a facilitator of CCT8 folding, connecting the Hsp90 system to TRiC/CCT-dependent proteostasis. In Arabidopsis, CCT8 overexpression similarly ameliorates protein aggregation in differentiated cells and confers stress tolerance (zeng2024revisitingthechaperonin pages 6-8).
cct-8 in C. elegans encodes the theta subunit of the TRiC/CCT cytosolic chaperonin complex, an essential ATP-dependent molecular machine that folds actin, tubulin, WD40 proteins, and approximately 10% of the cytosolic proteome. Within the complex, CCT-8 occupies a defined position in the low-ATPase hemisphere and plays a specialized role in substrate binding, allosteric regulation, and complex assembly rather than direct ATP consumption. In C. elegans, cct-8 is a critical determinant of proteostasis during aging: its overexpression extends lifespan, suppresses polyglutamine aggregation, and improves stress resistance, while its loss-of-function compromises the longevity conferred by reduced insulin signaling, dietary restriction, and germline ablation pathways. The protein functions primarily in the cytosol and is essential for both somatic tissue maintenance during aging and germline cell integrity.
References
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(monkemeyer2019structuralandfunctional pages 31-33): Leonie Mönkemeyer. Structural and functional studies on the eukaryotic chaperonin tric/cct and its cooperating chaperone hgh1. Dissertation, Jan 2019. URL: https://doi.org/10.5282/edoc.23750, doi:10.5282/edoc.23750. This article has 0 citations.
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(ghozlan2022thetrickybusiness pages 5-6): Heba Ghozlan, Amanda Cox, Daniel Nierenberg, Stephen King, and Annette R. Khaled. The tricky business of protein folding in health and disease. Frontiers in Cell and Developmental Biology, May 2022. URL: https://doi.org/10.3389/fcell.2022.906530, doi:10.3389/fcell.2022.906530. This article has 35 citations.
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(noormohammadi2016somaticincreaseof pages 8-9): Alireza Noormohammadi, Amirabbas Khodakarami, Ricardo Gutierrez-Garcia, Hyun Ju Lee, Seda Koyuncu, Tim König, Christina Schindler, Isabel Saez, Azra Fatima, Christoph Dieterich, and David Vilchez. Somatic increase of cct8 mimics proteostasis of human pluripotent stem cells and extends c. elegans lifespan. Nature Communications, Nov 2016. URL: https://doi.org/10.1038/ncomms13649, doi:10.1038/ncomms13649. This article has 96 citations and is from a highest quality peer-reviewed journal.
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(noormohammadi2016somaticincreaseof pages 6-6): Alireza Noormohammadi, Amirabbas Khodakarami, Ricardo Gutierrez-Garcia, Hyun Ju Lee, Seda Koyuncu, Tim König, Christina Schindler, Isabel Saez, Azra Fatima, Christoph Dieterich, and David Vilchez. Somatic increase of cct8 mimics proteostasis of human pluripotent stem cells and extends c. elegans lifespan. Nature Communications, Nov 2016. URL: https://doi.org/10.1038/ncomms13649, doi:10.1038/ncomms13649. This article has 96 citations and is from a highest quality peer-reviewed journal.
(noormohammadi2016somaticincreaseof pages 9-10): Alireza Noormohammadi, Amirabbas Khodakarami, Ricardo Gutierrez-Garcia, Hyun Ju Lee, Seda Koyuncu, Tim König, Christina Schindler, Isabel Saez, Azra Fatima, Christoph Dieterich, and David Vilchez. Somatic increase of cct8 mimics proteostasis of human pluripotent stem cells and extends c. elegans lifespan. Nature Communications, Nov 2016. URL: https://doi.org/10.1038/ncomms13649, doi:10.1038/ncomms13649. This article has 96 citations and is from a highest quality peer-reviewed journal.
(noormohammadi2016somaticincreaseof pages 10-11): Alireza Noormohammadi, Amirabbas Khodakarami, Ricardo Gutierrez-Garcia, Hyun Ju Lee, Seda Koyuncu, Tim König, Christina Schindler, Isabel Saez, Azra Fatima, Christoph Dieterich, and David Vilchez. Somatic increase of cct8 mimics proteostasis of human pluripotent stem cells and extends c. elegans lifespan. Nature Communications, Nov 2016. URL: https://doi.org/10.1038/ncomms13649, doi:10.1038/ncomms13649. This article has 96 citations and is from a highest quality peer-reviewed journal.
(monkemeyer2019structuralandfunctional pages 29-31): Leonie Mönkemeyer. Structural and functional studies on the eukaryotic chaperonin tric/cct and its cooperating chaperone hgh1. Dissertation, Jan 2019. URL: https://doi.org/10.5282/edoc.23750, doi:10.5282/edoc.23750. This article has 0 citations.
(OpenTargets Search: -CCT8): Open Targets Query (-CCT8, 7 results). Buniello, A. et al. (2025). Open Targets Platform: facilitating therapeutic hypotheses building in drug discovery. Nucleic Acids Research.
(zeng2024revisitingthechaperonin pages 6-8): Chenglong Zeng, Shenqi Han, Yonglong Pan, Zhao Huang, Binhao Zhang, and Bixiang Zhang. Revisiting the chaperonin t‐complex protein‐1 ring complex in human health and disease: a proteostasis modulator and beyond. Clinical and Translational Medicine, Feb 2024. URL: https://doi.org/10.1002/ctm2.1592, doi:10.1002/ctm2.1592. This article has 24 citations and is from a peer-reviewed journal.