CCDC177

Last updated
CCDC177
Identifiers
Aliases CCDC177 , C14orf162, PLPL, coiled-coil domain containing 177
External IDs MGI: 2686414 HomoloGene: 128326 GeneCards: CCDC177
Orthologs
SpeciesHumanMouse
Entrez
Ensembl
UniProt
RefSeq (mRNA)

NM_001271507
NM_020181

NM_001008423

RefSeq (protein)

NP_001258436

NP_001008423

Location (UCSC) Chr 14: 69.57 – 69.57 Mb Chr 12: 80.8 – 80.81 Mb
PubMed search [3] [4]
Wikidata
View/Edit Human View/Edit Mouse

Coiled-Coil Domain Containing 177 (CCDC177) is a protein, which in humans, is encoded by the gene CCDC177. [5] It is composed of a coiled helical domain that spans half of the protein. CCDC177 deletions are associated with intellectual disability and congenital heart defects. [6]

Contents

Gene

The CCDC177 gene is located on chromosome 14 at 14q24.1, and contains 2 exons.

The location of the CCDC177 gene on chromosome 14 at 14q24.1. CCDC177-gene.png
The location of the CCDC177 gene on chromosome 14 at 14q24.1.

The CCDC177 gene is part of the CCDC gene family, which encodes proteins involved in signal transduction and signal transcription. [7]

Other known aliases for the CCDC177 gene are Chromosome 14 Open Reading Frame 162 (C14orf162), and Myelin Proteolipid Protein-Like Protein (PLPL). [5]

mRNA transcripts

CCDC177 has one variant, which encodes Isoform 1 in humans. The mRNA sequence for this variant is 4,182 base pairs in length. [5] Both exons are present in the variant, however the coding region is entirely within Exon 2.

Protein

The predicted tertiary structure of human CCDC177 protein from AlphaFold. CCDC177 Tertiary Structure.png
The predicted tertiary structure of human CCDC177 protein from AlphaFold.

CCDC177 Isoform 1 in humans is 707 amino acids long [5] with a predicted molecular weight of 80 kDa. [9] It is rich in arginine, and glutamate, and poor in isoleucine relative to other proteins. The isoelectric point is 11. [10] The human protein is also rich in arginine-glutamate motifs, which are implicated in cell survival signaling. [11]

Domains and motifs

Humans CCDC177 includes one domain of unknown function (DUF4659), multiple disordered regions, and an alanine-rich motif. [5]

Structure

Proteins of the coiled coil domain containing (CCDC) family contain large coiled helical domains. [7] [12] The coiled helical domain within the human CCDC177 protein fully overlaps the domain of unknown function (DUF4659).

Large-scale Analysis of the Human Transcriptome [Profile GDS596] from NCBI GeoProfiles. CCDC177 NCBI Geo Profile GDS596.png
Large-scale Analysis of the Human Transcriptome [Profile GDS596] from NCBI GeoProfiles.

Gene-level regulation

CCDC177 mRNA is ubiquitously expressed across adult human tissues, but is low in expression in fetal tissues throughout the body. It is also less abundant in immune cells such as B cells, T cells, and NK cells. [13]

Protein-level regulation

Sub-cellular location

Human CCDC177 contains multiple nuclear localization signals, indicating that is found in the nucleus. [14] The protein also contains multiple nuclear export signals, indicating protein movement between the nucleus and cytosol. [15] The locations of the various kinases phosphorylating the CCDC177 protein implicate phosphorylation in CCDC177's movement between the nucleus and cytosol. [16]

Post translational modifications

In CCDC177, phosphorylation and O-GlcNAc modifications are predicted to occur on several serine residues, [17] while SUMOylation occurs on select lysine residues. [18]

The types of kinases that phosphorylate highly conserved serine residues (conserved across current CCDC177 orthologs) in the CCDC177 protein sequence are located in the nucleus and cytosol. These kinases include Protein Kinase A which is located in the cytosol and nucleus, [19] Cyclin-dependent kinase 5 located in the cytosol, [20] and Protein Kinase C located in the nucleus. [21]

CCDC177 post-translational modifications and other notable motifs. Created using IBS-Data Visualization PTM figure.png
CCDC177 post-translational modifications and other notable motifs. Created using IBS-Data Visualization
Human CCDC177 Conceptual Translation annotated with specific motifs of interest, signal sequences, post-translational modifications and other predicted domains. Labels for each annotation are found in the margins of the conceptual translation. Conceptual Translation.png
Human CCDC177 Conceptual Translation annotated with specific motifs of interest, signal sequences, post-translational modifications and other predicted domains. Labels for each annotation are found in the margins of the conceptual translation.

Conservation

CCDC177 has no paralogs in humans. Orthologs are currently found in mammals, birds, reptiles, amphibians, fish, and invertebrates. [23]

Current CCDC177 Orthologs [24]
Organism ("Genus Species")Common NameTaxonomic OrderMedian Date of Divergence (MYA)Accession #Sequence Length (aa)Sequence Identity to Human Protein (%)Sequence Similarity to Human Protein (%)
MammalsHomo sapiensHumanHominidae0 NP_001258436.1 707100100
Mus musculusMouseRodentia87 NP_001008423.2 70690.694.1
Equus caballusHorsePerissodactyla94 XP_023483759.1 70093.995.3
Suncus etruscusEtruscan ShrewEulipotyphla94 XP_049626320.1 71278.985.2
Phascolarctos cinereusKoalaMarsupialia160 XP_020860505.1 7097382
Ornithorhynchus anatinusPlatypusMonotremata180 XP_028920460.1 70067.675.9
BirdsGallu gallusChickenGalliformes319 XP_040527977.1 69254.867.5
Aix galericulataMandarin DuckAnseriformes319 KAI6068518.1 70949.762.8
ReptilesSceloporus undulatusEastern Fence LizardIguania319 XP_042299999.1 71052.968.8
Gopherus flavomarginatusBolson TortoiseTestudines319 XP_050809463.1 71451.765.3
Python bivittatusBurmese PythonSerpentes319 XP_007441661.1 74049.062.8
AmphibiansGeotrypetes seraphiniGaboon CaecilianGymnophiona352 XP_033808243.1 66347.663.2
Spea bombifronsPlains Spadefoot ToadAnura352 XP_053330589.1 68841.158.9
Xenopus tropicalisWestern Clawed FrogAnura352 XP_002935376.2 67940.658.6
FishLepisosteus oculatusSpotted GarLepisosteiformes429 XP_015206663.1 71246.561.9
Silurus meridionalisLarge-mouth CatfishSiluriformes429 KAI5102643.1 70745.260.8
Callorhinchus miliiAustralian GhostsharkChimaeriformes462 XP_042189074.1 71027.843.6
InvertebratesStyela clavaStalked Sea SquirtStolidobranchia596 XP_039248961.1 67821.738.9
Actinia tenebrosaWaratah AnemoneActiniaria715 XP_031562596.1 71228.044.4
Orbicella faveolataMountainous Star CoralScleractinia715 XP_020615800.1 71825.240.9
The following graph shows the rate of evolution of CCDC177 compared to that of Cytochrome C and Fibrinogen Alpha. MYA Graph.png
The following graph shows the rate of evolution of CCDC177 compared to that of Cytochrome C and Fibrinogen Alpha.
Circles indicate similar species. Made using Phylogeny.fr CCDC177 Unrooted Evolutionary Tree.png
Circles indicate similar species. Made using Phylogeny.fr

Rate of evolution

The protein encoded by CCDC177 evolves twice as fast as Cytochrome c and slightly slower than fibrinogen alpha, indicating that the CCDC177 gene has a moderately fast rate of evolution.[ citation needed ]

Interacting proteins

Human CCDC177 protein has notable interactions with the following proteins which are all associated with development and stem cell differentiation. All of the following proteins are located in the nucleus. These interactions implicate human CCDC177 in developmental processes and cell survival, and support its location in the nucleus.

Clinical significance

The CCDC177 gene can be utilized to develop prognostic tumor markers for neuroblastomas, [30] thyroid cancer, [31] and lung cancer. [32] CCDC177 is a methylation-driven gene in thyroid cancer, which was determined by examining proliferation and invasion of thyroid cancer (TC) cells in CCDC177 knockdown vectors. TC cells containing knockdown CCDC177 were highly proliferative and invasive.

Prognostic tumor methylation markers were discovered in human neuroblastoma as well. [33] 78 significantly differentially methylated regions were identified from 396 sequenced tumor profiles. Methylation-specific PCR assays were also developed to determine which regions accurately predict survival outcomes. 5 of the 78 assays, including one located in CCDC177, predicted event-free survival. CCDC177 mRNA is also integral to the accurate prediction of overall survival in lung squamous cell carcinoma (LUSC) patients.

Interstitial deletions of chromosome 14 at the location 14q24.1q24.3, which includes CCDC177, are linked to mild intellectual disability, congenital heart defects, and brachydactyly. [6] Haploinsufficiency in one or several of the deleted genes is the cause for the deletions.

Related Research Articles

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