Literature DB >> 28851811

The MiTF/TFE Family of Transcription Factors: Master Regulators of Organelle Signaling, Metabolism, and Stress Adaptation.

Logan Slade1, Thomas Pulinilkunnil2.   

Abstract

The microphthalmia family (MITF, TFEB, TFE3, and TFEC) of transcription factors is emerging as global regulators of cancer cell survival and energy metabolism, both through the promotion of lysosomal genes as well as newly characterized targets, such as oxidative metabolism and the oxidative stress response. In addition, MiT/TFE factors can regulate lysosomal signaling, which includes the mTORC1 and Wnt/β-catenin pathways, which are both substantial contributors to oncogenic signaling. This review describes recent discoveries in MiT/TFE research and how they impact multiple cancer subtypes. Furthermore, the literature relating to TFE-fusion proteins in cancers and the potential mechanisms through which these genomic rearrangements promote tumorigenesis is reviewed. Likewise, the emerging function of the Folliculin (FLCN) tumor suppressor in negatively regulating the MiT/TFE family and how loss of this pathway promotes cancer is examined. Recent reports are also presented that relate to the role of MiT/TFE-driven lysosomal biogenesis in sustaining cancer cell metabolism and signaling in nutrient-limiting conditions. Finally, a discussion is provided on the future directions and unanswered questions in the field. In summary, the research surrounding the MiT/TFE family indicates that these transcription factors are promising therapeutic targets and biomarkers for cancers that thrive in stressful niches. Mol Cancer Res; 15(12); 1637-43. ©2017 AACR. ©2017 American Association for Cancer Research.

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Year:  2017        PMID: 28851811     DOI: 10.1158/1541-7786.MCR-17-0320

Source DB:  PubMed          Journal:  Mol Cancer Res        ISSN: 1541-7786            Impact factor:   5.852


  40 in total

1.  BAF60A mediates interactions between the microphthalmia-associated transcription factor and the BRG1-containing SWI/SNF complex during melanocyte differentiation.

Authors:  Shweta Aras; Srinivas Vinod Saladi; Tupa Basuroy; Himangi G Marathe; Patrick Lorès; Ivana L de la Serna
Journal:  J Cell Physiol       Date:  2018-12-04       Impact factor: 6.384

2.  Microphthalmia-associated transcription factors activate mTORC1 through RagD GTPase gene expression.

Authors:  Edith Jones; Ken Inoki
Journal:  Transl Cancer Res       Date:  2017-10       Impact factor: 1.241

3.  MDA-7/IL-24 regulates the miRNA processing enzyme DICER through downregulation of MITF.

Authors:  Anjan K Pradhan; Praveen Bhoopathi; Sarmistha Talukdar; Danielle Scheunemann; Devanand Sarkar; Webster K Cavenee; Swadesh K Das; Luni Emdad; Paul B Fisher
Journal:  Proc Natl Acad Sci U S A       Date:  2019-03-06       Impact factor: 11.205

4.  TAZ-CAMTA1 and YAP-TFE3 alter the TAZ/YAP transcriptome by recruiting the ATAC histone acetyltransferase complex.

Authors:  Nicole Merritt; Keith Garcia; Dushyandi Rajendran; Zhen-Yuan Lin; Xiaomeng Zhang; Katrina A Mitchell; Nicholas Borcherding; Colleen Fullenkamp; Michael S Chimenti; Anne-Claude Gingras; Kieran F Harvey; Munir R Tanas
Journal:  Elife       Date:  2021-04-29       Impact factor: 8.140

5.  AKT inhibition-mediated dephosphorylation of TFE3 promotes overactive autophagy independent of MTORC1 in cadmium-exposed bone mesenchymal stem cells.

Authors:  Huifeng Pi; Min Li; Lingyun Zou; Min Yang; Ping Deng; Tengfei Fan; Menyu Liu; Li Tian; Manyu Tu; Jia Xie; Mengyan Chen; Huijuan Li; Yu Xi; Lei Zhang; Mindi He; Yonghui Lu; Chunhai Chen; Tao Zhang; Zheng Wang; Zhengping Yu; Feng Gao; Zhou Zhou
Journal:  Autophagy       Date:  2018-10-20       Impact factor: 16.016

6.  MITF: an evolutionarily conserved transcription factor in the sea urchin Paracentrotus lividus.

Authors:  Roberta Russo; Marco Chiaramonte; Nadia Lampiasi; Francesca Zito
Journal:  Genetica       Date:  2019-10-17       Impact factor: 1.082

7.  AMPK-dependent phosphorylation is required for transcriptional activation of TFEB and TFE3.

Authors:  Mathieu Paquette; Leeanna El-Houjeiri; Linda C Zirden; Pietri Puustinen; Paola Blanchette; Hyeonju Jeong; Kurt Dejgaard; Peter M Siegel; Arnim Pause
Journal:  Autophagy       Date:  2021-03-18       Impact factor: 16.016

8.  TP53/p53-FBXO22-TFEB controls basal autophagy to govern hormesis.

Authors:  Narumi Suzuki; Yoshikazu Johmura; Teh-Wei Wang; Toshiro Migita; Wenwen Wu; Rei Noguchi; Kiyoshi Yamaguchi; Yoichi Furukawa; Shuhei Nakamura; Ichiro Miyoshi; Tamotsu Yoshimori; Tomohiko Ohta; Makoto Nakanishi
Journal:  Autophagy       Date:  2021-03-11       Impact factor: 16.016

9.  Neurodegenerative VPS41 variants inhibit HOPS function and mTORC1-dependent TFEB/TFE3 regulation.

Authors:  Reini E N van der Welle; Rebekah Jobling; Christian Burns; Paolo Sanza; Jan A van der Beek; Alfonso Fasano; Lan Chen; Fried J Zwartkruis; Susan Zwakenberg; Edward F Griffin; Corlinda Ten Brink; Tineke Veenendaal; Nalan Liv; Conny M A van Ravenswaaij-Arts; Henny H Lemmink; Rolph Pfundt; Susan Blaser; Carolina Sepulveda; Andres M Lozano; Grace Yoon; Teresa Santiago-Sim; Cedric S Asensio; Guy A Caldwell; Kim A Caldwell; David Chitayat; Judith Klumperman
Journal:  EMBO Mol Med       Date:  2021-04-14       Impact factor: 12.137

10.  PRCC-TFE3 fusion-mediated PRKN/parkin-dependent mitophagy promotes cell survival and proliferation in PRCC-TFE3 translocation renal cell carcinoma.

Authors:  Bo Wang; Xiaoqin Yin; Weidong Gan; Fan Pan; Shiyuan Li; Zou Xiang; Xiaodong Han; Dongmei Li
Journal:  Autophagy       Date:  2020-10-21       Impact factor: 16.016

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