TMEM144 explained
Transmembrane Protein 144 (TMEM144) is a protein in humans encoded by the TMEM144 gene.[1]
Gene
Transmembrane Protein 144 is located on the plus strand of chromosome 4 (4q32.1), spanning a total of 40,857 base pairs.[2] The TMEM144 gene transcribes a mRNA sequence 3,210 nucleotides in length and composed of 13 exons.[3]
Protein
There exist two isoforms of human Transmembrane Protein 144. Isoform one consist of 345 amino acids with a total mass of 37.6 kDa.[4] This isoform has a theoretical isoelectric point of 6.63.[5] The second isoform is 169 amino acids long with a mass of 18.3 kDa.
Expression
TMEM144 is over-expressed in adult brain tissue with low regional specificity.[6] TMEM144 appears enriched in oligodendrocytes[7] and immune cells, such as dendritic cells and monocytes.[8]
Cellular Localization
Precise cell localization has multiple predicted locations. Localization tools state TMEM144 is likely found in the plasma membrane, endoplasmic reticulum,[9] Lysosome/Vacuole, or Golgi apparatus.[10] However, an immunofluorescent staining of various human cell lines display localization to the mitochondria.[11]
Post Translational Modifications
There exists five predicted post translational modifications for TMEM144, including four sites of phosphorylation[12] and a sumoylation site.[13]
Interacting Proteins
Several proteins have been observed to be physically associated with TMEM144, including Transmembrane Protein 237, Homocysteine-Responsive Endoplasmic Reticulum-Resident Ubiquitin-Like Domain Member 2 Protein, Translocase of Inner Mitochondrial Membrane Domain-Containing Protein 1, Free Fatty Acid Receptor 2, Aquaporin 6, Serine Rich Single-Pass Membrane Protein 1, and Adrenoceptor Beta 2.[14] [15]
Homology
Transmembrane Protein 144 arose approximately 694 million years ago in desert locust. It can be found in both vertebrates and invertebrates.[16] [17] It takes TMEM144 approximately 6.8 million years to make a 1% change to its amino acid sequence, indicating a moderately low rate of evolution.
Ortholog Table
Genus and Species | Common Name | Taxonomic Class | Median Date of Divergence (MYA) | Accession # | Sequence Length (aa) | Sequence Identity (%) | Sequence Similarity (%) |
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Homo Sapiens | Human | Mammalia | 0 | NP_060812.2 | 345 | 100.0 | 100.0 |
Carlito syrichta | Philippine tarsier | Mammalia | 69 | XP_012639059.1 | 345 | 94.2 | 97.4 |
Mus musculus | House mouse | Mammalia | 87 | NP_001366471.1 | 348 | 85.9 | 92.2 |
Trichosurus vulpecula | Brushtail possum | Mammalia | 160 | XP_036620586.1 | 349 | 77.7 | 90.3 |
Chelydra serpentina | Snapping turtle | Reptilia | 319 | KAG6931534.1 | 358 | 67.0 | 84.1 |
Gallus gallus | Red junglefowl | Aves | 319 | XP_420383.2 | 357 | 66.9 | 82.6 |
Zootoca vivipara | Viviparous lizard | Reptilia | 319 | XP_034969125.1 | 360 | 65.9 | 82.3 |
Rana temporaria | Common frog | Amphibia | 353 | XP_040188243.1 | 358 | 64.2 | 81.0 |
Protopterus annectens | West African lungfish | Dipnoi | 408 | XP_043918387.1 | 407 | 56.4 | 69.6 |
Latimeria chalumnae | African coelacanth | Coelacanthi | 414 | XP_014346971.1 | 407 | 56.0 | 71.6 |
Danio rerio | Zebrafish | Actinopterygii | 431 | NP_001005983.1 | 380 | 50.0 | 64.8 |
Amblyraja radiata | Thorny skate | Chondrichthyes | 464 | XP_032874310.1 | 486 | 45.7 | 58.4 |
Branchiostoma lanceolatum | European lancelet | Leptocardii | 556 | CAH1267272.1 | 402 | 44.1 | 58.8 |
Petromyzon marinus | Sea lamprey | Hyperoartia | 599 | XP_032811478.1 | 396 | 50.1 | 64.9 |
Ciona intestinalis | Vase tunicate | Ascidiacea | 603 | XP_026696612.1 | 395 | 46.6 | 59.2 |
Strongylocentrotus purpuratus | Purple sea urchin | Echinoidea | 619 | XP_030836295.1 | 363 | 46.8 | 64.7 |
Echinococcus multilocularis | Cyclophyllid tapeworm | Cestoda | 694 | CDS37915.1 | 351 | 41.0 | 59.8 |
Caenorhabditis elegans | Roundworm | Chromadorea | 694 | NP_498062.2 | 345 | 38.7 | 56.0 |
Mytilus edulis | Blue mussel | Bivalvia | 694 | CAG2251154.1 | 385 | 36.0 | 52.0 |
Schistocerca gregaria | Desert locust | Insecta | 694 | XP_049849104.1 | 278 | 25.6 | 44.1 | |
Clinical Significance
Transmembrane Protein 144 is predicted to be a direct or indirect negative regulator of kisspeptin.[18] High expression of TMEM144 is prognostically favorable for patient with endometrial cancer.[19] Whereas in patients with pancreatic cancer, high expression of TMEM144 is associated with poor prognostic outcomes.
Notes and References
- NCBI Gene (National Center for Biotechnology Information Gene Database) entry on TMEM144 .
- NCBI Nucleotide (National Center for Biotechnology Information Nucleotide Database) entry on TMEM144 .
- UniProt entry of TMEM144 .
- NCBI Protein (National Center for Biotechnology Information Protein Database) entry on TMEM144 .
- ExPASy Compute pI/Mw tool entry on TMEM144 protein .
- Sjöstedt . Evelina . Zhong . Wen . Fagerberg . Linn . Karlsson . Max . Mitsios . Nicholas . Adori . Csaba . Oksvold . Per . Edfors . Fredrik . Limiszewska . Agnieszka . Hikmet . Feria . Huang . Jinrong . Du . Yutao . Lin . Lin . Dong . Zhanying . Yang . Ling . Liu . Xin . Jiang . Hui . Xu . Xun . Wang . Jian . Yang . Huanming . Bolund . Lars . Mardinoglu . Adil . Zhang . Cheng . von Feilitzen . Kalle . Lindskog . Cecilia . Pontén . Fredrik . Luo . Yonglun . Hökfelt . Tomas . Uhlén . Mathias . Mulder . Jan . An atlas of the protein-coding genes in the human, pig, and mouse brain . Science . 6 March 2020 . 367 . 6482 . 10.1126/science.aay5947 . 32139519 . 212560645 .
- Karlsson . Max . Zhang . Cheng . Méar . Loren . Zhong . Wen . Digre . Andreas . Katona . Borbala . Sjöstedt . Evelina . Butler . Lynn . Odeberg . Jacob . Dusart . Philip . Edfors . Fredrik . Oksvold . Per . von Feilitzen . Kalle . Zwahlen . Martin . Arif . Muhammad . Altay . Ozlem . Li . Xiangyu . Ozcan . Mehmet . Mardinoglu . Adil . Fagerberg . Linn . Mulder . Jan . Luo . Yonglun . Ponten . Fredrik . Uhlén . Mathias . Lindskog . Cecilia . A single–cell type transcriptomics map of human tissues . Science Advances . 30 July 2021 . 7 . 31 . 10.1126/sciadv.abh2169 . 34321199 . 8318366 . 2021SciA....7.2169K .
- Monaco . Gianni . Lee . Bernett . Xu . Weili . Mustafah . Seri . Hwang . You Yi . Carré . Christophe . Burdin . Nicolas . Visan . Lucian . Ceccarelli . Michele . Poidinger . Michael . Zippelius . Alfred . Pedro de Magalhães . João . Larbi . Anis . RNA-Seq Signatures Normalized by mRNA Abundance Allow Absolute Deconvolution of Human Immune Cell Types . Cell Reports . February 2019 . 26 . 6 . 1627–1640.e7 . 10.1016/j.celrep.2019.01.041 . 30726743 . 6367568 .
- PSORT II entry on human TMEM144 protein .
- DeepLoc entry of human TMEM144 protein for cell localization prediction .
- TMEM144 entry on the Human Protein Atlas .
- NetPhos 3.1 entry on human TMEM144 .
- GPS SUMO entry on human TMEM144 .
- Luck . Katja . Kim . Dae-Kyum . Lambourne . Luke . Spirohn . Kerstin . Begg . Bridget E. . Bian . Wenting . Brignall . Ruth . Cafarelli . Tiziana . Campos-Laborie . Francisco J. . Charloteaux . Benoit . Choi . Dongsic . Coté . Atina G. . Daley . Meaghan . Deimling . Steven . Desbuleux . Alice . Dricot . Amélie . Gebbia . Marinella . Hardy . Madeleine F. . Kishore . Nishka . Knapp . Jennifer J. . Kovács . István A. . Lemmens . Irma . Mee . Miles W. . Mellor . Joseph C. . Pollis . Carl . Pons . Carles . Richardson . Aaron D. . Schlabach . Sadie . Teeking . Bridget . Yadav . Anupama . Babor . Mariana . Balcha . Dawit . Basha . Omer . Bowman-Colin . Christian . Chin . Suet-Feung . Choi . Soon Gang . Colabella . Claudia . Coppin . Georges . D'Amata . Cassandra . De Ridder . David . De Rouck . Steffi . Duran-Frigola . Miquel . Ennajdaoui . Hanane . Goebels . Florian . Goehring . Liana . Gopal . Anjali . Haddad . Ghazal . Hatchi . Elodie . Helmy . Mohamed . Jacob . Yves . Kassa . Yoseph . Landini . Serena . Li . Roujia . van Lieshout . Natascha . MacWilliams . Andrew . Markey . Dylan . Paulson . Joseph N. . Rangarajan . Sudharshan . Rasla . John . Rayhan . Ashyad . Rolland . Thomas . San-Miguel . Adriana . Shen . Yun . Sheykhkarimli . Dayag . Sheynkman . Gloria M. . Simonovsky . Eyal . Taşan . Murat . Tejeda . Alexander . Tropepe . Vincent . Twizere . Jean-Claude . Wang . Yang . Weatheritt . Robert J. . Weile . Jochen . Xia . Yu . Yang . Xinping . Yeger-Lotem . Esti . Zhong . Quan . Aloy . Patrick . Bader . Gary D. . De Las Rivas . Javier . Gaudet . Suzanne . Hao . Tong . Rak . Janusz . Tavernier . Jan . Hill . David E. . Vidal . Marc . Roth . Frederick P. . Calderwood . Michael A. . A reference map of the human binary protein interactome . Nature . 16 April 2020 . 580 . 7803 . 402–408 . 10.1038/s41586-020-2188-x . 32296183 . 7169983 . 2020Natur.580..402L .
- TMEM144 entry on IntAct
- NCBI BLAST Protein entry on Homo sapiens TMEM144 (NP_060812.2) to identify various orthologs .
- TimeTree of Life entry of Homo sapiens compared to ortholog species in Table 1 .
- Prentice . Leah M . d'Anglemont de Tassigny . Xavier . McKinney . Steven . Ruiz de Algara . Teresa . Yap . Damian . Turashvili . Gulisa . Poon . Steven . Sutcliffe . Margaret . Allard . Pat . Burleigh . Angela . Fee . John . Huntsman . David G . Colledge . William H . Aparicio . Samuel AJ . The testosterone-dependent and independent transcriptional networks in the hypothalamus of Gpr54 and Kiss1 knockout male mice are not fully equivalent . BMC Genomics . December 2011 . 12 . 1 . 209 . 10.1186/1471-2164-12-209 . free . 21527035 . 3111392 .
- Uhlen . Mathias . Zhang . Cheng . Lee . Sunjae . Sjöstedt . Evelina . Fagerberg . Linn . Bidkhori . Gholamreza . Benfeitas . Rui . Arif . Muhammad . Liu . Zhengtao . Edfors . Fredrik . Sanli . Kemal . von Feilitzen . Kalle . Oksvold . Per . Lundberg . Emma . Hober . Sophia . Sophia Hober . 18 August 2017 . A pathology atlas of the human cancer transcriptome . Science . 357 . 6352 . 10.1126/science.aan2507 . 28818916 . Nilsson . Peter . Mattsson . Johanna . Schwenk . Jochen M. . Brunnström . Hans . Glimelius . Bengt . Sjöblom . Tobias . Edqvist . Per-Henrik . Djureinovic . Dijana . Micke . Patrick . Lindskog . Cecilia . Mardinoglu . Adil . Ponten . Fredrik.