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Malignant T-cell-amplified sequence 1 (MCTS1, also known as MCT-1) is a non-canonical translation factor in humans, primarily functioning as a translation re-initiation and ribosome recycling factor through its heterodimeric partnership with DENR. This essential regulatory protein is cytoplasmic and universally expressed, exerting control over selective mRNA translation—most notably JAK2, a key kinase in immune signaling. MCTS1 is critical for immunity, adaptive cellular stress responses, mitotic progression, and has emerging roles in cancer biology.
| Molecular Function | Mechanism of Action | Substrate/Targets | Subcellular Localization | Key Pathways |
|---|---|---|---|---|
| Non-canonical translation re-initiation factor | MCTS1 forms a heterodimer with DENR and acts on post-termination 40S ribosomal subunits to promote re-initiation after translation of upstream open reading frames (uORFs); proposed activities include removal of deacylated P-site tRNA and/or delivery of a new initiator tRNA, thereby restoring scanning competence for downstream CDS translation (meurs2024aninvitro pages 1-4, meurs2025mcts2anddistinct pages 1-2, meurs2025mcts2anddistinct pages 2-3) | uORF-containing transcripts as a selective class; DENR-responsive transcripts are enriched for translated uORFs, including both 1-aa/start-stop and longer uORFs (meurs2024aninvitro pages 4-7, meurs2025mcts2anddistinct pages 2-3) | Cytoplasmic, ribosome-associated; binds the small ribosomal subunit/40S and functions on translating ribosomes during re-initiation and ribosome recycling (casteloszekely2019chartingdenrdependenttranslation pages 1-2, hohenberg2022cyclinbcdk1and pages 1-2, weng2019mct1mir34ail6il6rsignalingaxis pages 1-2) | Core translational control pathway governing uORF-dependent re-initiation and selective protein synthesis (meurs2024aninvitro pages 1-4, sriram2018translationacrobaticshow pages 1-2) |
| Ribosome recycling factor in the DENR-MCTS1 complex | After ORF termination, the DENR-MCTS1 complex removes tRNA from 40S ribosomes; loss of MCTS1 causes stalled post-termination 40S ribosomes at stop codons and 80S ribosome queueing upstream, demonstrating a role in ribosome recycling in addition to re-initiation (bohlen2023humanmcts1dependenttranslation pages 5-6, bohlen2023humanmcts1dependenttranslation pages 6-8) | Post-termination 40S ribosomes on main ORFs and uORFs; stop-codon contexts with certain penultimate codons show stronger dependence (bohlen2023humanmcts1dependenttranslation pages 5-6, bohlen2023humanmcts1dependenttranslation pages 6-8, meurs2025mcts2anddistinct pages 2-3) | Cytoplasmic, on mRNA-bound ribosomes during translation termination/recycling (bohlen2023humanmcts1dependenttranslation pages 5-6, bohlen2023humanmcts1dependenttranslation pages 6-8) | Ribosome recycling coupled to selective re-entry into scanning and downstream translation (bohlen2023humanmcts1dependenttranslation pages 5-6, bohlen2023humanmcts1dependenttranslation pages 6-8) |
| Selective translational activator of JAK2 | MCTS1 is required for efficient translation through the JAK2 5′UTR, which contains three uORFs, including two ultra-short start-stop uORFs; MCTS1 deficiency lowers JAK2 protein by ~3–5-fold without changing JAK2 mRNA, indicating translational rather than transcriptional control (bohlen2023humanmcts1dependenttranslation pages 8-9, bohlen2023humanmcts1dependenttranslation pages 1-3) | JAK2 mRNA is the best-defined physiologic target in human disease; among IFN-γ-immunity genes tested, JAK2 showed the strongest specific dependence on MCTS1-dependent re-initiation (bohlen2023humanmcts1dependenttranslation pages 6-8, bohlen2023humanmcts1dependenttranslation pages 8-9) | Cytoplasmic translation machinery in fibroblasts, T cells, phagocytes, and THP-1 cells; effect observed across multiple cell types (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) | IL-23/JAK2/STAT and partly IL-12/JAK2 signaling; reduced JAK2 translation impairs IL-23-driven IFN-γ production and causes Mendelian susceptibility to mycobacterial disease (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) |
| Regulator of immune effector competence via translational control | By sustaining JAK2 translation, MCTS1 enables cytokine signaling needed for antimycobacterial immunity; MCTS1 deficiency selectively compromises IL-23-dependent IFN-γ induction in innate-like adaptive lymphocytes despite relatively preserved broader physiology (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) | MAIT cells, γδ T cells, and other IFN-γ-producing lymphocyte subsets are functionally affected downstream of reduced JAK2 protein; whole blood from deficient patients shows markedly reduced BCG-induced IFN-γ (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) | Functional action is intracellular/cytoplasmic, but physiological output is measured in immune cells and whole blood (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) | Host defense against mycobacteria; IL-23-dependent induction of IFN-γ is the clearest disease-relevant pathway linked to MCTS1 (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) |
| Stress-responsive translational regulator | MCTS1 participates in noncanonical initiation/re-initiation mechanisms that support ATF4 protein induction during stress; MYC-driven PUS7-dependent pseudouridylation can enhance MCTS1 translation, placing MCTS1 in a stress-adaptation circuit (ding2024mycdrivesmrna pages 1-2, vasudevan2020translationalinductionof pages 1-2) | ATF4 mRNA and other ISR-responsive uORF-regulated transcripts; evidence supports overlap with DENR/eIF2D-dependent ATF4 control in stressed cells (ding2024mycdrivesmrna pages 1-2, vasudevan2020translationalinductionof pages 1-2) | Cytoplasmic translation apparatus in stressed cells (ding2024mycdrivesmrna pages 1-2, vasudevan2020translationalinductionof pages 1-2) | Integrated Stress Response (ISR), ATF4 induction, adaptation to amino acid/ER and proliferative stress (ding2024mycdrivesmrna pages 1-2, vasudevan2020translationalinductionof pages 1-2) |
| Cell-cycle regulated translation factor through its DENR partner complex | DENR is phosphorylated by Cyclin B/CDK1 and Cyclin A/CDK2 in mitosis, stabilizing the DENR·MCTS1 complex and enhancing translation of mitotically relevant mRNAs; this links MCTS1-mediated re-initiation to mitotic protein synthesis and faithful division (hohenberg2022cyclinbcdk1and pages 1-2) | A substantial fraction of mRNAs with elevated translation in mitosis are DENR targets, implying functional action of the DENR·MCTS1 complex on mitotic transcripts enriched for relevant uORF features (hohenberg2022cyclinbcdk1and pages 1-2) | Cytoplasmic/ribosome-associated during cell-cycle progression, especially mitosis (hohenberg2022cyclinbcdk1and pages 1-2) | Mitotic translational control; Cyclin/CDK-dependent regulation of selective protein synthesis for cell division (hohenberg2022cyclinbcdk1and pages 1-2) |
| Oncogenic translational and protein-network modulator | In cancer contexts, elevated MCTS1 promotes aggressive phenotypes by stimulating selective translation programs and, in some settings, stabilizing oncogenic partners such as PA2G4-P48; prior work also links MCTS1 to IL-6/IL-6R/STAT3-associated stemness and EMT phenotypes (sun2023proliferationassociated2g4p48 pages 1-2, weng2019mct1mir34ail6il6rsignalingaxis pages 1-2) | PA2G4-P48 protein stability in HNSCC; cyclin D1 and c-Myc translation in luminal breast cancer; broader cancer-associated uORF-controlled transcripts (sun2023proliferationassociated2g4p48 pages 1-2, weng2019mct1mir34ail6il6rsignalingaxis pages 1-2) | Primarily cytoplasmic, where translation and proteostasis effects are exerted (sun2023proliferationassociated2g4p48 pages 1-2, weng2019mct1mir34ail6il6rsignalingaxis pages 1-2) | Cancer-associated translational rewiring; IL-6/IL-6R/STAT3, EMT/stemness programs, and proliferative signaling indirectly influenced by MCTS1-driven expression control (sun2023proliferationassociated2g4p48 pages 1-2, weng2019mct1mir34ail6il6rsignalingaxis pages 1-2) |
Table: This table summarizes the current evidence for human MCTS1 as a cytoplasmic, ribosome-associated non-canonical translation re-initiation factor. It highlights its DENR partnership, mechanism on uORF-containing transcripts, key targets such as JAK2 and ATF4, and its roles in immunity, stress responses, mitosis, and cancer.
| Molecular Function | Mechanism of Action | Substrate/Targets | Subcellular Localization | Key Pathways |
|---|---|---|---|---|
| Non-canonical translation re-initiation factor | MCTS1 forms a heterodimer with DENR and acts on post-termination 40S ribosomal subunits to promote re-initiation after translation of upstream open reading frames (uORFs); proposed activities include removal of deacylated P-site tRNA and/or delivery of a new initiator tRNA, thereby restoring scanning competence for downstream CDS translation (meurs2024aninvitro pages 1-4, meurs2025mcts2anddistinct pages 1-2, meurs2025mcts2anddistinct pages 2-3) | uORF-containing transcripts as a selective class; DENR-responsive transcripts are enriched for translated uORFs, including both 1-aa/start-stop and longer uORFs (meurs2024aninvitro pages 4-7, meurs2025mcts2anddistinct pages 2-3) | Cytoplasmic, ribosome-associated; binds the small ribosomal subunit/40S and functions on translating ribosomes during re-initiation and ribosome recycling (casteloszekely2019chartingdenrdependenttranslation pages 1-2, hohenberg2022cyclinbcdk1and pages 1-2, weng2019mct1mir34ail6il6rsignalingaxis pages 1-2) | Core translational control pathway governing uORF-dependent re-initiation and selective protein synthesis (meurs2024aninvitro pages 1-4, sriram2018translationacrobaticshow pages 1-2) |
| Ribosome recycling factor in the DENR-MCTS1 complex | After ORF termination, the DENR-MCTS1 complex removes tRNA from 40S ribosomes; loss of MCTS1 causes stalled post-termination 40S ribosomes at stop codons and 80S ribosome queueing upstream, demonstrating a role in ribosome recycling in addition to re-initiation (bohlen2023humanmcts1dependenttranslation pages 5-6, bohlen2023humanmcts1dependenttranslation pages 6-8) | Post-termination 40S ribosomes on main ORFs and uORFs; stop-codon contexts with certain penultimate codons show stronger dependence (bohlen2023humanmcts1dependenttranslation pages 5-6, bohlen2023humanmcts1dependenttranslation pages 6-8, meurs2025mcts2anddistinct pages 2-3) | Cytoplasmic, on mRNA-bound ribosomes during translation termination/recycling (bohlen2023humanmcts1dependenttranslation pages 5-6, bohlen2023humanmcts1dependenttranslation pages 6-8) | Ribosome recycling coupled to selective re-entry into scanning and downstream translation (bohlen2023humanmcts1dependenttranslation pages 5-6, bohlen2023humanmcts1dependenttranslation pages 6-8) |
| Selective translational activator of JAK2 | MCTS1 is required for efficient translation through the JAK2 5′UTR, which contains three uORFs, including two ultra-short start-stop uORFs; MCTS1 deficiency lowers JAK2 protein by ~3–5-fold without changing JAK2 mRNA, indicating translational rather than transcriptional control (bohlen2023humanmcts1dependenttranslation pages 8-9, bohlen2023humanmcts1dependenttranslation pages 1-3) | JAK2 mRNA is the best-defined physiologic target in human disease; among IFN-γ-immunity genes tested, JAK2 showed the strongest specific dependence on MCTS1-dependent re-initiation (bohlen2023humanmcts1dependenttranslation pages 6-8, bohlen2023humanmcts1dependenttranslation pages 8-9) | Cytoplasmic translation machinery in fibroblasts, T cells, phagocytes, and THP-1 cells; effect observed across multiple cell types (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) | IL-23/JAK2/STAT and partly IL-12/JAK2 signaling; reduced JAK2 translation impairs IL-23-driven IFN-γ production and causes Mendelian susceptibility to mycobacterial disease (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) |
| Regulator of immune effector competence via translational control | By sustaining JAK2 translation, MCTS1 enables cytokine signaling needed for antimycobacterial immunity; MCTS1 deficiency selectively compromises IL-23-dependent IFN-γ induction in innate-like adaptive lymphocytes despite relatively preserved broader physiology (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) | MAIT cells, γδ T cells, and other IFN-γ-producing lymphocyte subsets are functionally affected downstream of reduced JAK2 protein; whole blood from deficient patients shows markedly reduced BCG-induced IFN-γ (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) | Functional action is intracellular/cytoplasmic, but physiological output is measured in immune cells and whole blood (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) | Host defense against mycobacteria; IL-23-dependent induction of IFN-γ is the clearest disease-relevant pathway linked to MCTS1 (bohlen2023humanmcts1dependenttranslation pages 1-3, bohlen2023humanmcts1dependenttranslation pages 8-9) |
| Stress-responsive translational regulator | MCTS1 participates in noncanonical initiation/re-initiation mechanisms that support ATF4 protein induction during stress; MYC-driven PUS7-dependent pseudouridylation can enhance MCTS1 translation, placing MCTS1 in a stress-adaptation circuit (ding2024mycdrivesmrna pages 1-2, vasudevan2020translationalinductionof pages 1-2) | ATF4 mRNA and other ISR-responsive uORF-regulated transcripts; evidence supports overlap with DENR/eIF2D-dependent ATF4 control in stressed cells (ding2024mycdrivesmrna pages 1-2, vasudevan2020translationalinductionof pages 1-2) | Cytoplasmic translation apparatus in stressed cells (ding2024mycdrivesmrna pages 1-2, vasudevan2020translationalinductionof pages 1-2) | Integrated Stress Response (ISR), ATF4 induction, adaptation to amino acid/ER and proliferative stress (ding2024mycdrivesmrna pages 1-2, vasudevan2020translationalinductionof pages 1-2) |
| Cell-cycle regulated translation factor through its DENR partner complex | DENR is phosphorylated by Cyclin B/CDK1 and Cyclin A/CDK2 in mitosis, stabilizing the DENR·MCTS1 complex and enhancing translation of mitotically relevant mRNAs; this links MCTS1-mediated re-initiation to mitotic protein synthesis and faithful division (hohenberg2022cyclinbcdk1and pages 1-2) | A substantial fraction of mRNAs with elevated translation in mitosis are DENR targets, implying functional action of the DENR·MCTS1 complex on mitotic transcripts enriched for relevant uORF features (hohenberg2022cyclinbcdk1and pages 1-2) | Cytoplasmic/ribosome-associated during cell-cycle progression, especially mitosis (hohenberg2022cyclinbcdk1and pages 1-2) | Mitotic translational control; Cyclin/CDK-dependent regulation of selective protein synthesis for cell division (hohenberg2022cyclinbcdk1and pages 1-2) |
| Oncogenic translational and protein-network modulator | In cancer contexts, elevated MCTS1 promotes aggressive phenotypes by stimulating selective translation programs and, in some settings, stabilizing oncogenic partners such as PA2G4-P48; prior work also links MCTS1 to IL-6/IL-6R/STAT3-associated stemness and EMT phenotypes (sun2023proliferationassociated2g4p48 pages 1-2, weng2019mct1mir34ail6il6rsignalingaxis pages 1-2) | PA2G4-P48 protein stability in HNSCC; cyclin D1 and c-Myc translation in luminal breast cancer; broader cancer-associated uORF-controlled transcripts (sun2023proliferationassociated2g4p48 pages 1-2, weng2019mct1mir34ail6il6rsignalingaxis pages 1-2) | Primarily cytoplasmic, where translation and proteostasis effects are exerted (sun2023proliferationassociated2g4p48 pages 1-2, weng2019mct1mir34ail6il6rsignalingaxis pages 1-2) | Cancer-associated translational rewiring; IL-6/IL-6R/STAT3, EMT/stemness programs, and proliferative signaling indirectly influenced by MCTS1-driven expression control (sun2023proliferationassociated2g4p48 pages 1-2, weng2019mct1mir34ail6il6rsignalingaxis pages 1-2) |
Table: This table summarizes the current evidence for human MCTS1 as a cytoplasmic, ribosome-associated non-canonical translation re-initiation factor. It highlights its DENR partnership, mechanism on uORF-containing transcripts, key targets such as JAK2 and ATF4, and its roles in immunity, stress responses, mitosis, and cancer.
For additional details, consult cited primary literature above.
References
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(weng2019mct1mir34ail6il6rsignalingaxis pages 1-2): Yueh-Shan Weng, Hong-Yu Tseng, Yen-An Chen, Pei-Chun Shen, Aushia Tanzih Al Haq, Li-Mei Chen, Yi-Chung Tung, and Hsin-Ling Hsu. Mct-1/mir-34a/il-6/il-6r signaling axis promotes emt progression, cancer stemness and m2 macrophage polarization in triple-negative breast cancer. Molecular Cancer, Mar 2019. URL: https://doi.org/10.1186/s12943-019-0988-0, doi:10.1186/s12943-019-0988-0. This article has 448 citations and is from a highest quality peer-reviewed journal.
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(bohlen2023humanmcts1dependenttranslation pages 6-8): Jonathan Bohlen, Qinhua Zhou, Quentin Philippot, Masato Ogishi, Darawan Rinchai, Tea Nieminen, Simin Seyedpour, Nima Parvaneh, Nima Rezaei, Niloufar Yazdanpanah, Mana Momenilandi, Clément Conil, Anna-Lena Neehus, Carltin Schmidt, Carlos A. Arango-Franco, Tom Le Voyer, Taushif Khan, Rui Yang, Julia Puchan, Lucia Erazo, Mykola Roiuk, Taja Vatovec, Zarah Janda, Ivan Bagarić, Marie Materna, Adrian Gervais, Hailun Li, Jérémie Rosain, Jessica N Peel, Yoann Seeleuthner, Ji Eun Han, Anne-Sophie L’Honneur, Marcela Moncada-Vélez, Marta Martin-Fernandez, Michael E. Horesh, Tatiana Kochetkov, Monika Schmidt, Mohammed A. AlShehri, Eeva Salo, Harri Saxen, Gehad ElGhazali, Ahmad Yatim, Camille Soudée, Federica Sallusto, Armin Ensser, Nico Marr, Peng Zhang, Dusan Bogunovic, Aurélie Cobat, Mohammad Shahrooei, Vivien Béziat, Laurent Abel, Xiaochuan Wang, Stéphanie Boisson-Dupuis, Aurelio A. Teleman, Jacinta Bustamante, Qian Zhang, and Jean-Laurent Casanova. Human mcts1-dependent translation of jak2 is essential for ifn-γ immunity to mycobacteria. Cell, 186:5114-5134.e27, Nov 2023. URL: https://doi.org/10.1016/j.cell.2023.09.024, doi:10.1016/j.cell.2023.09.024. This article has 45 citations and is from a highest quality peer-reviewed journal.
(bohlen2023humanmcts1dependenttranslation pages 8-9): Jonathan Bohlen, Qinhua Zhou, Quentin Philippot, Masato Ogishi, Darawan Rinchai, Tea Nieminen, Simin Seyedpour, Nima Parvaneh, Nima Rezaei, Niloufar Yazdanpanah, Mana Momenilandi, Clément Conil, Anna-Lena Neehus, Carltin Schmidt, Carlos A. Arango-Franco, Tom Le Voyer, Taushif Khan, Rui Yang, Julia Puchan, Lucia Erazo, Mykola Roiuk, Taja Vatovec, Zarah Janda, Ivan Bagarić, Marie Materna, Adrian Gervais, Hailun Li, Jérémie Rosain, Jessica N Peel, Yoann Seeleuthner, Ji Eun Han, Anne-Sophie L’Honneur, Marcela Moncada-Vélez, Marta Martin-Fernandez, Michael E. Horesh, Tatiana Kochetkov, Monika Schmidt, Mohammed A. AlShehri, Eeva Salo, Harri Saxen, Gehad ElGhazali, Ahmad Yatim, Camille Soudée, Federica Sallusto, Armin Ensser, Nico Marr, Peng Zhang, Dusan Bogunovic, Aurélie Cobat, Mohammad Shahrooei, Vivien Béziat, Laurent Abel, Xiaochuan Wang, Stéphanie Boisson-Dupuis, Aurelio A. Teleman, Jacinta Bustamante, Qian Zhang, and Jean-Laurent Casanova. Human mcts1-dependent translation of jak2 is essential for ifn-γ immunity to mycobacteria. Cell, 186:5114-5134.e27, Nov 2023. URL: https://doi.org/10.1016/j.cell.2023.09.024, doi:10.1016/j.cell.2023.09.024. This article has 45 citations and is from a highest quality peer-reviewed journal.
(bohlen2023humanmcts1dependenttranslation pages 1-3): Jonathan Bohlen, Qinhua Zhou, Quentin Philippot, Masato Ogishi, Darawan Rinchai, Tea Nieminen, Simin Seyedpour, Nima Parvaneh, Nima Rezaei, Niloufar Yazdanpanah, Mana Momenilandi, Clément Conil, Anna-Lena Neehus, Carltin Schmidt, Carlos A. Arango-Franco, Tom Le Voyer, Taushif Khan, Rui Yang, Julia Puchan, Lucia Erazo, Mykola Roiuk, Taja Vatovec, Zarah Janda, Ivan Bagarić, Marie Materna, Adrian Gervais, Hailun Li, Jérémie Rosain, Jessica N Peel, Yoann Seeleuthner, Ji Eun Han, Anne-Sophie L’Honneur, Marcela Moncada-Vélez, Marta Martin-Fernandez, Michael E. Horesh, Tatiana Kochetkov, Monika Schmidt, Mohammed A. AlShehri, Eeva Salo, Harri Saxen, Gehad ElGhazali, Ahmad Yatim, Camille Soudée, Federica Sallusto, Armin Ensser, Nico Marr, Peng Zhang, Dusan Bogunovic, Aurélie Cobat, Mohammad Shahrooei, Vivien Béziat, Laurent Abel, Xiaochuan Wang, Stéphanie Boisson-Dupuis, Aurelio A. Teleman, Jacinta Bustamante, Qian Zhang, and Jean-Laurent Casanova. Human mcts1-dependent translation of jak2 is essential for ifn-γ immunity to mycobacteria. Cell, 186:5114-5134.e27, Nov 2023. URL: https://doi.org/10.1016/j.cell.2023.09.024, doi:10.1016/j.cell.2023.09.024. This article has 45 citations and is from a highest quality peer-reviewed journal.
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