CIMAP1C explained

CIMAP1C (ciliary microtubule associated protein 1C) is a gene in humans that encodes the CIMAP1C protein. It is also often referred to as ODF3L1 (outer dense fiber protein 3-like protein 1). CIMAP1C is expressed in low levels throughout the body with high expression levels in the testes. It is highly conserved in mammals and reptiles but not present in birds or amphibians, indicating it arose around 300 million years ago.

Gene

The CIMAP1C gene is found on Chromosome 15 at position 15q24.2, spanning 3.72 kb.[1] It contains 4 exons and 1,132 nucleotides.[2]

Aliases

CIMAP1C is also known as ODF3L1 (outer dense fiber protein 3 like protein 1).

Protein

The CIMAP1C protein is 274 amino acids long and its molecular weight is ~31 kDa.[3] Its isoelectric point is 9.6.[4] There are no known isoforms. CIMAP1C is very basic, proline rich, and highly tyrosine rich.[5] There are two structurally significant regions known as sperm tail proline-glycine rich repeat regions. These regions are highly conserved and contain glycosylation and phosphorylation sites.[6]

Gene level regulation

CIMAP1C is expressed at low levels in most tissues in the body (15.7%), with high expression in the testis. Slightly high levels of expression are seen in the mammary glands.

Protein level regulation

CIMAP1C is imported into the nucleus via two nuclear localization signals, and can otherwise be found in the cytoskeleton.[7] CIMAP1C contains a variety of phosphorylation sites, specifically protein kinase C and Casein kinase II phosphorylation.

Evolution

Paralogs

There are no paralogs of the CIMAP1C gene.

Orthologs

CIMAP1C is highly conserved, and can be found in mammals and reptiles. CIMAP1C is not found in amphibians or birds, therefore it arose 300 million years ago.[8] Based on the calculated protein divergence figure, CIMAP1C evolves rapidly and similarly to Fibrinogen Alpha. The table below lists orthologs and their information.

CIMAP1C Orthologs!Genus and Species!Common Name!Taxonomic Group!Mediat Date of Divergence (MYA)!Accession number!Sequence length (aa)!Sequence Identity to human protein (%)!Sequence Similarity to human Protein (%)
Homo sapiensHumanPrimates0.0NP_787077.1274100.0100.0
Saimiri boliviensisSquirrel MonkeyPrimates43XP_010329148.127487.692.7
Canis lupus familiarisDogCarnivora94XP_038297715.127578.288.4
Mus musculusHouse MouseRodentia87NP_001361610.130664.475.5
Myotis brandtiiBrandt's BatChiroptera94XP_005884580.127574.585.8
Gracilinanus agilisMouse OpossumDidelphimorphia160XP_044518760.127858.873.8
Bubalus bubalisWater buffaloArtiodactyla94XP_006080752.327473.184.4
Pogona vitticepsCental Bearded DragonSquamata319XP_020640486.128540.254.3
Notechis scutatusTiger SnakeSquamata319XP_026540911.119528.441.4
Dermochelys coriaceaLeatherback Sea TurtleTestudines319XP_038274105.127437.854.7
Alligator mississippiensisAmerican AlligatorCrocodylia319XP_019333216.124937.852.8
Phascolarctos cinereusKoalaDiprotodontia160XP_020850090.12785973.4
Phocoena sinusVaquitaArtiodactyla94XP_032479987.1 27577.587.3
Eublepharis maculariusLeopard geckoSquamata319XP_054858185.1 27638.550.7
Ornithorhynchus anatinusPlatypusMonotremata180XP_001509549.126945.858.8

Interacting proteins

It has been experimentally determined that CIMAP1C interacts with STAMBP (STAM binding protein) through affinity chromatography.[9] STAMBP regulates cell surface receptor-mediated endocytosis and ubiquitin-dependent receptor sorting to lysosomes.[10]

Clinical significance

Expression levels of CIMAP1C are positive markers of disease prognosis for those with papillary thyroid carcinoma (PTC) and non-metastatic breast cancer (NMBC). High levels of CIMAP1C in tumor tissues accurately predicted a better prognosis for individuals with PTC.[11] CIMAP1C is also noted as a positive indicator for the effectiveness of NMBC radiotherapy.[12]

References

  1. Web site: 11 June 2023 . AceView: a comprehensive cDNA-supported gene and transcripts annotation .
  2. Web site: CIMAP1C ciliary microtubule associated protein 1C [Homo sapiens (human)] - Gene - NCBI ]. 2023-07-28 . www.ncbi.nlm.nih.gov.
  3. Web site: 9 July 2023 . Thermo Fisher ODF3L1 Antibodies - polyclonal rabbit anti-human ODF3L1 antibody .
  4. Duvaud . Séverine . Gabella . Chiara . Lisacek . Frédérique . Stockinger . Heinz . Ioannidis . Vassilios . Durinx . Christine . 2021-04-13 . Expasy, the Swiss Bioinformatics Resource Portal, as designed by its users . Nucleic Acids Research . 49 . W1 . W216–W227 . 10.1093/nar/gkab225 . 33849055 . 0305-1048. 8265094 .
  5. Web site: EMBL-EBI Tools: An introduction . 10.6019/tol.ebitools-t.2021.00001.1. EMBL's European Bioinformatics Institute.
  6. Blom . Nikolaj . Gammeltoft . Steen . Brunak . Søren . December 1999 . Sequence and structure-based prediction of eukaryotic protein phosphorylation sites . Journal of Molecular Biology . 294 . 5 . 1351–1362 . 10.1006/jmbi.1999.3310 . 10600390 . 0022-2836.
  7. Thumuluri . Vineet . Almagro Armenteros . José Juan . Rosenberg Johansen . Alexander . Nielsen . Henrik . Winther . Ole . 2022-04-30 . DeepLoc 2.0: multi-label subcellular localization prediction using protein language models . Nucleic Acids Research . 50 . W1 . W228–W234 . 10.1093/nar/gkac278 . 35489069 . 0305-1048. 9252801 .
  8. Web site: Data S1: RaxML file, TimeTree, and alignments . 10.7717/peerj.5401/supp-3 . free .
  9. Web site: ODF3L1 protein (human) - STRING interaction network . 2023-07-28 . string-db.org.
  10. Huttlin . Edward L. . Bruckner . Raphael J. . Navarrete-Perea . Jose . Cannon . Joe R. . Baltier . Kurt . Gebreab . Fana . Gygi . Melanie P. . Thornock . Alexandra . Zarraga . Gabriela . Tam . Stanley . Szpyt . John . Gassaway . Brandon M. . Panov . Alexandra . Parzen . Hannah . Fu . Sipei . May 2021 . Dual proteome-scale networks reveal cell-specific remodeling of the human interactome . Cell . 184 . 11 . 3022–3040.e28 . 10.1016/j.cell.2021.04.011 . 33961781 . 0092-8674. 8165030 .
  11. Guo . Mengli . Chen . Zhen . Li . Yayi . Li . Sijin . Shen . Fei . Gan . Xiaoxiong . Feng . Jianhua . Cai . Wensong . Liu . Qingzhi . Xu . Bo . 2021-06-23 . Tumor Mutation Burden Predicts Relapse in Papillary Thyroid Carcinoma With Changes in Genes and Immune Microenvironment . Frontiers in Endocrinology . 12 . 10.3389/fendo.2021.674616 . 1664-2392 . 8261145 . 34248843 . free .
  12. Chen . Huajian . Huang . Li . Wan . Xinlong . Ren . Shigang . Chen . Haibin . Ma . Shumei . Liu . Xiaodong . March 2023 . Polygenic risk score for prediction of radiotherapy efficacy and radiosensitivity in patients with non-metastatic breast cancer . Radiation Medicine and Protection . en . 4 . 1 . 33–42 . 10.1016/j.radmp.2023.01.001. free .