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Naiyer, S.; Dwivedi, L.; Singh, N.; Phulera, S.; Mohan, V.; Kamran, M. (BEN)-Domain Containing Protein 3. Encyclopedia. Available online: https://encyclopedia.pub/entry/47528 (accessed on 27 April 2024).
Naiyer S, Dwivedi L, Singh N, Phulera S, Mohan V, Kamran M. (BEN)-Domain Containing Protein 3. Encyclopedia. Available at: https://encyclopedia.pub/entry/47528. Accessed April 27, 2024.
Naiyer, Sarah, Lalita Dwivedi, Nishant Singh, Swastik Phulera, Vijay Mohan, Mohammad Kamran. "(BEN)-Domain Containing Protein 3" Encyclopedia, https://encyclopedia.pub/entry/47528 (accessed April 27, 2024).
Naiyer, S., Dwivedi, L., Singh, N., Phulera, S., Mohan, V., & Kamran, M. (2023, August 02). (BEN)-Domain Containing Protein 3. In Encyclopedia. https://encyclopedia.pub/entry/47528
Naiyer, Sarah, et al. "(BEN)-Domain Containing Protein 3." Encyclopedia. Web. 02 August, 2023.
(BEN)-Domain Containing Protein 3
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This entry is adapted from the peer-reviewed paper 10.3390/cancers15143685

(BEN)-Domain containing protein 3 (BEND3) is a transcription factor that plays a critical role in the regulation of gene expression in mammals. While there is limited research on the role of BEND3 as a tumor suppressor or an oncogene and its potential role in cancer therapy is still emerging, several studies suggest that it may be involved in both the processes. Its interaction and regulation with multiple other factors via p21 have already been reported to play a significant role in cancer development, which serves as an indication of its potential role in oncogenesis. Its interaction with chromatin modifiers such as NuRD and NoRC and its role in the recruitment of polycomb repressive complex 2 (PRC2) are some of the additional events indicative of its potential role in cancer development.

BEND3 tumor suppressor oncogenic driver

1. Introduction

Cancer is a complex and multifaceted disease characterized by the uncontrolled growth and division of abnormal cells within the body. This rapid cell proliferation may give rise to benign and malignant tumors. While benign tumors are non-cancerous, malignant tumors invade nearby tissues and spread to other body parts. There is increasing evidence to suggest that tumors contain a small population of cancer stem cells (CSCs), which share similar self-renewal and differentiation properties as embryonic stem cells (ESCs) [1][2]. CSCs divide rapidly and are thought to help maintain the tumor’s growth and microenvironment. ESCs have the capacity to become nearly any cell type and the signals that prompt stem cells to switch off pluripotency and commit to their final functional lineage are still ambiguous.
Transcription factors and cell signaling pathways play critical roles in maintaining cellular functions and homeostasis. They often work in sophisticated networks and can interact with one another, forming complexes involved in different aspects of gene regulation, cell differentiation and development, cell cycle control, response to environmental stimuli, immune response, and pathogenesis. Aberrant expression or mutation in transcription factors can contribute to the development and progression of tumors. Overexpression of oncogenic transcription factors like MYC and NF-kB is shown to be associated with abnormal cell signaling and epigenetic regulations causing many cancer types and is linked to increased cell proliferation and survival [3][4]. On the other hand, tumor suppressor transcription factors like p53, BRCA1, and FOXO3a regulate normal cellular functions by modulating the expression of genes involved in DNA repair, cell cycle arrest, and apoptosis, and thus prevent cancer development. Overall, the delicate interplay between transcription factors, cell signaling, and gene expression is critical to tumor development and growth.
BANP, E5R, and Nac1 (BEN)-Domain containing protein 3 (BEND3), a transcription factor, has been recently identified to regulate pluripotency by repressing pro-differentiation genes both in humans [5] and mice [6]. It is highly expressed in pluripotent cells and binds to promoters of genes involved in differentiation, regulating the transcription of these genes. It is known to interact with various chromatin modifiers and transcriptional repressors such as the NoRC complex [7], HDACs [8][9], PICH1 [10], Sall4 [9], and with members of the nucleosome remodeling and deacetylase (NuRD) complex in a context-dependent manner [8][11]. BEND3 occupies enhancers of CGI-associated genes in mouse embryos, regulating their transcription [6]. In a recent study on the genome-wide CRISPER/Cas9 knockout screen in acute myeloid leukemia (AML) cells, BEND3 knockout showed resistance to TAK-243, an inhibitor of ubiquitin-like modifier-activating enzyme 1. TAK-243 is a phase I clinical trial drug for advanced malignancies [12]. Elevated BEND3 expression is also reported in multiple cancer types across The Cancer Genomic Atlas (TCGA) Program [13]. Although the role of BEND3 in cancer progression is still emerging and gaining prominence, nonetheless, the exact mechanism is not yet fully understood.

2. BEND3 Structure and Its Interaction with DNA

BEND3 is expressed from chromosome 6 in the human genome and has three introns and four exons. There are two reported transcriptional variants; nonetheless, both express the same functional protein. It has a long N-terminal loop followed by four BEN domains (BD1–4) of 80 amino acids each with distinct molecular interactions and functions. It is highly conserved across vertebrates. The nuclear localization signal (NLS) is present in the N-terminal loop. It forms an octameric higher-order structure [10]. Although the crystal structure of a full-length protein is not yet available, the structure of individual domains in mice (BD1, BD3, and BD4) [6] and humans (BD1 and BD4) [10][14] are available. The human BD1 domain is believed to be involved in the protein–protein interaction as it contains a coiled-coil domain and interacts with PICH1. The BD1 domain is exclusively composed of α helices with no beta turns [10]. The BD4 domain of BEND3 is composed of six α helices, two short helical turns, and two β strands. The DNA interaction region sits at the C-terminal and spans from α5 and α6. It is important to notice that both BD1 and BD4 domains share similar folds but perform distinct molecular functions. The BD1 domain lacks DNA binding activity [14]. The mouse BD3 domain shows similarity with the BD4 domain at the sequence as well as structural level, with few differences. The BD4 domain harbors DNA/chromatin binding activity. Unlike humans, mouse BD4 comprises five α helices, with the DNA binding module formed by α1 to α4 and the hinge region between α4 and α5 mediating dimer formation to accommodate two independent DNA molecules [14][15]. The NLS of this 95 KDa human protein consists of a Lysine-Arginine-Lysine motif [16] and, once in the nucleus, the BD4 domain can recognize and regulate its target genes. The BD4 domain is unique among other BEN domains as it has six α helices instead of five loops in others. In addition, it binds DNA through α5–loop–α6 sites while others bind through α5 and loop between α3 and α4 [14]. Zhang et al. has elaborately explained the crystal structure of the BD4 domain spanning from 715 to 828 in association with DNA [6].

3. BEND3-Mediated Chromatin Regulation

BEND3 interacts with various chromatin modifiers, including the subunits of the NuRD complex [8], suggesting its role in global gene regulation. The NuRD complex modulates the chromatin structure at the bivalent and poised rRNA genes [17] and various other genes in the ESCs [6][18]. It plays significant roles in processes like neural stem cell reprogramming into iPSC [19], pericentric heterochromatin formation [20], the maintenance of pluripotency [17][21][22][23], transcription repression [24][25], and S-phase progression [8]. The NuRD complex comprises various subunits such as CHD3/4, HDAC1/2, MBD2/3, MTA1/2/3, and retinoblastoma-binding protein (RBBP4/7). Other subunits such as LSD1 and GATAD2A/B have also been reported to associate with this complex in certain types of cells. Several subunits of the NuRD complex have implications in cancer development and progression. Its components, including MTA1, HDACs, Sal4, and CHD4, are expressed in different cancer types and corroborate the tumor progression and poor prognosis [11][26]. MTA1 is reported to be overexpressed in a wide range of cancer types and this overexpression correlates with tumor grade, poor prognosis, and invasion status of the tumor [11]. MTA1 acts as a downstream effector molecule of the Myc oncogene [27]. The NuRD complex is reported to interact with various oncogenic transcription factors and mediate the transcription repression of many target genes. In diffuse large B cell lymphoma (DLBCL), MTA3 associates with an oncogenic transcription repressor, BCL6 [28], which plays a significant role in the development of a significant proportion of DLBCL [29]. BCl6 requires MTA3 to transcriptionally repress normal plasma cell differentiation [28]. MTA proteins also interact with the transcriptional repressor BCL11B in leukemia and lymphoma cell lines. BCL11B has an indispensable role in early T cell development [11]. In breast cancer cells, a transcription factor, TWIST, causes the recruitment of MTA2 containing the NuRD complex at the CDH1 (E-Cadherin) promoter so as to repress E-Cadherin and promote the epithelial to mesenchymal transition (EMT), which is a hallmark of cancer, while MTA3 of the NuRD complex has been reported to cause transcription repression of SNAIL, thus inhibiting EMT in breast cancer cells. Thus, the complex can act as either a promoter or inhibitor of EMT depending upon the context of cells [11]. An oncogenic chimeric protein, PML-RARα, also recruits the NuRD complex, which in turn recruit other epigenetic regulators to cause transcriptional repression, leading to the impairment of cellular differentiation in human acute promyelocytic leukemias [30]. It is speculated that transcription factors recruit this complex to the promoters of the genes implicated in cancer [26]. Nine subunits of the NuRD complex are reported to be upregulated in hepatocellular carcinoma [26]. LSD1, part of the complex, regulates metastasis in breast carcinoma and is found to be under-expressed in breast cancers [31].
HDACs are important players in tumorigenesis and tumor progression and are overexpressed in several different kinds of malignancies including breast, colorectal, liver, pancreatic, ovarian, cervical, prostate, renal, bladder, melanoma, and certain blood cancers [32]. The BEN domain might act as an adapter in the process of chromatin modification by HDACs [15]. However, MTA1 and HDACs of the NuRD complex represent potential therapeutic targets for cancer chemoprevention. BEND3 also interacts with another NuRD complex transcription factor, Sal4, which is required to maintain the stemness and pluripotency of embryonic stem cells [9]. Sal4 expression is mis-regulated in various hematological as well as solid malignancies [33]. It plays a significant role in regulating various genes including apoptotic genes; cell-surface marker (EpCAM); EMT-related genes such as TWIST1, SNAI1, VIM, ZEB, E-Cadherin, etc.; and epigenetic modifiers such as DNMT1 and LSD1 [33]. Thus, it can be speculated that via its interaction with these subunits, BEND3 could aid in tumorigenesis mediated by the NuRD complex. Interestingly, BEND3 showed weak interaction with HDAC2 in our docking screen. The docking of BD4 was performed with HADDOCK 2.4 software and results are shown in Figure 1.
Cancers 15 03685 g001 550
Figure 1. Protein–protein interaction prediction through HADDOCK 2.4 Docking software [34][35]. Interaction of BEN4 domain of BEND3 (Green) with HDAC2 (Cyan), Full protein structure along with interaction interface, the interaction area is zoomed in the insets. Protein structure with highlighted interacting amino acid. Interactions are shown by dotted lines. Amino acid labels color coded to match the contributing partner. Main chain shown only in cases it is involved in the proposed interaction.
BEND3 also interacts and stabilizes the nuclear remodeling complex (NoRC) by inhibiting the ubiquitination of TTF-1-interacting protein 5 (Tip5). BEND3 has two SUMOylation sites at K20 and K512 which are essential for NoRC stability. SUMOylated BEND3 interacts with the ubiquitin-specific protease 21 (USP21) deubiquitinase and prevents the ubiquitination of Tip5. Tip5 helps in the recruitment of this complex to the rDNA promoters via the TTF1 transcription factor. In the SUMOylation-deficient mutant of BEND3, USP21 was found to be destabilized, indicating the importance of BEND3 SUMOylation for its interaction with USP21. In the absence of BEND3, the interaction of Tip5 with the rDNA promoter along with the methylation of rDNA was severely decreased. Most of the rDNA repeats were kept epigenetically silent by the NoRC through the recruitment of DNMTs and histone-modifying enzymes [7]. Being a highly repetitive, heavily methylated, and actively transcribed region, the rDNA locus is very prone to genomic instability, which could ultimately lead to cancer development [36]. The rDNA locus is also known to exhibit notable contraction and expansion followed by the unequal exchange of sister chromatids [36]. Repeated expansion of this locus has been detected in colon and lung cancers [37], and may result in increased ribosome production in tumor cells [38]. Myc oncogene also increases rRNA synthesis by increasing the expression of RNA polymerase I, along with other transcription factors [36]. Several cancers show hypomethylation of the promoter region, while hypermethylation was observed in 28S and 5.8S rRNA coding regions and some spacer regions [36]. The loss of BEND3 results in increased H3K4me3 and decreased DNA methylation at the rDNA gene promoters with an increase in the levels of pre-rRNA, whereas its overexpression results in decreased H3K4me3 and H4Ac (pan) and increased H4K20me3 and H3K27me3 at rDNA promoters [7].

References

  1. Ablett, M.P.; Singh, J.K.; Clarke, R.B. Stem Cells in Breast Tumours: Are They Ready for the Clinic? Eur. J. Cancer. 2012, 48, 2104–2116.
  2. Witt, A.E.; Lee, C.-W.; Lee, T.I.; Azzam, D.J.; Wang, B.; Caslini, C.; Petrocca, F.; Grosso, J.; Jones, M.; Cohick, E.B.; et al. Identification of a Cancer Stem Cell-Specific Function for the Histone Deacetylases, HDAC1 and HDAC7, in Breast and Ovarian Cancer. Oncogene 2017, 36, 1707–1720.
  3. Gabay, M.; Li, Y.; Felsher, D.W. MYC Activation Is a Hallmark of Cancer Initiation and Maintenance. Cold Spring Harb. Perspect. Med. 2014, 4, a014241.
  4. Xia, Y.; Shen, S.; Verma, I.M. NF-ΚB, an Active Player in Human Cancers. Cancer Immunol. Res. 2014, 2, 823–830.
  5. Kurniawan, F.; Chetlangia, N.; Kamran, M.; Redon, C.E.; Pongor, L.; Sun, Q.; Lin, Y.-C.; Mohan, V.; Shaqildi, O.; Asoudegi, D.; et al. BEND3 Safeguards Pluripotency by Repressing Differentiation-Associated Genes. Proc. Natl. Acad. Sci. USA 2022, 119, e2107406119.
  6. Zhang, J.; Zhang, Y.; You, Q.; Huang, C.; Zhang, T.; Wang, M.; Zhang, T.; Yang, X.; Xiong, J.; Li, Y.; et al. Highly Enriched BEND3 Prevents the Premature Activation of Bivalent Genes during Differentiation. Science 2022, 375, 1053–1058.
  7. Khan, A.; Giri, S.; Wang, Y.; Chakraborty, A.; Ghosh, A.K.; Anantharaman, A.; Aggarwal, V.; Sathyan, K.M.; Ha, T.; Prasanth, K.V.; et al. BEND3 Represses RDNA Transcription by Stabilizing a NoRC Component via USP21 Deubiquitinase. Proc. Natl. Acad. Sci. USA 2015, 112, 8338–8343.
  8. Khan, A.; Prasanth, S.G. BEND3 Mediates Transcriptional Repression and Heterochromatin Organization. Transcription 2015, 6, 102–105.
  9. Sathyan, K.M.; Shen, Z.; Tripathi, V.; Prasanth, K.V.; Prasanth, S.G. A BEN-Domain-Containing Protein Associates with Heterochromatin and Represses Transcription. J. Cell Sci. 2011, 124, 3149–3163.
  10. Pitchai, G.P.; Kaulich, M.; Bizard, A.H.; Mesa, P.; Yao, Q.; Sarlos, K.; Streicher, W.W.; Nigg, E.A.; Montoya, G.; Hickson, I.D. A Novel TPR-BEN Domain Interaction Mediates PICH-BEND3 Association. Nucleic Acids Res. 2017, 45, 11413–11424.
  11. Lai, A.Y.; Wade, P.A. Cancer Biology and NuRD: A Multifaceted Chromatin Remodelling Complex. Nat. Rev. Cancer 2011, 11, 588–596.
  12. Barghout, S.H.; Aman, A.; Nouri, K.; Blatman, Z.; Arevalo, K.; Thomas, G.E.; MacLean, N.; Hurren, R.; Ketela, T.; Saini, M.; et al. A Genome-Wide CRISPR/Cas9 Screen in Acute Myeloid Leukemia Cells Identifies Regulators of TAK-243 Sensitivity. JCI Insight 2021, 6, e141518.
  13. Khan, A.; Prasanth, S. BENDing with Polycomb in Pluripotency and Cancer. BioEssays 2003, 2300046.
  14. Zheng, L.; Liu, J.; Niu, L.; Kamran, M.; Yang, A.W.H.; Jolma, A.; Dai, Q.; Hughes, T.R.; Patel, D.J.; Zhang, L.; et al. Distinct Structural Bases for Sequence-Specific DNA Binding by Mammalian BEN Domain Proteins. Genes Dev. 2022, 36, 225–240.
  15. Abhiman, S.; Iyer, L.M.; Aravind, L. BEN: A Novel Domain in Chromatin Factors and DNA Viral Proteins. Bioinformatics 2008, 24, 458–461.
  16. Shiheido, H.; Shimizu, J. Basic Amino Acid Residues Located in the N-Terminal Region of BEND3 Are Essential for Its Nuclear Localization. Biochem. Biophys. Res. Commun. 2015, 457, 589–594.
  17. Xie, W.; Ling, T.; Zhou, Y.; Feng, W.; Zhu, Q.; Stunnenberg, H.G.; Grummt, I.; Tao, W. The Chromatin Remodeling Complex NuRD Establishes the Poised State of RRNA Genes Characterized by Bivalent Histone Modifications and Altered Nucleosome Positions. Proc. Natl. Acad. Sci. USA 2012, 109, 8161–8166.
  18. Harikumar, A.; Meshorer, E. Chromatin Remodeling and Bivalent Histone Modifications in Embryonic Stem Cells. EMBO Rep. 2015, 16, 1609–1619.
  19. dos Santos, R.L.; Tosti, L.; Radzisheuskaya, A.; Caballero, I.M.; Kaji, K.; Hendrich, B.; Silva, J.C.R. MBD3/NuRD Facilitates Induction of Pluripotency in a Context-Dependent Manner. Cell Stem Cell 2014, 15, 102–110.
  20. Sims, J.K.; Wade, P.A. Mi-2/NuRD Complex Function Is Required for Normal S Phase Progression and Assembly of Pericentric Heterochromatin. Mol. Biol. Cell 2011, 22, 3094–3102.
  21. Kaji, K.; Caballero, I.M.; MacLeod, R.; Nichols, J.; Wilson, V.A.; Hendrich, B. The NuRD Component Mbd3 Is Required for Pluripotency of Embryonic Stem Cells. Nat. Cell Biol. 2006, 8, 285–292.
  22. van den Berg, D.L.C.; Snoek, T.; Mullin, N.P.; Yates, A.; Bezstarosti, K.; Demmers, J.; Chambers, I.; Poot, R.A. An Oct4-Centered Protein Interaction Network in Embryonic Stem Cells. Cell Stem Cell 2010, 6, 369–381.
  23. Zhu, D.; Fang, J.; Li, Y.; Zhang, J. Mbd3, a Component of NuRD/Mi-2 Complex, Helps Maintain Pluripotency of Mouse Embryonic Stem Cells by Repressing Trophectoderm Differentiation. PLoS ONE 2009, 4, e7684.
  24. Denslow, S.A.; Wade, P.A. The Human Mi-2/NuRD Complex and Gene Regulation. Oncogene 2007, 26, 5433–5438.
  25. Xue, Y.; Wong, J.; Moreno, G.T.; Young, M.K.; Côté, J.; Wang, W. NURD, a Novel Complex with Both ATP-Dependent Chromatin-Remodeling and Histone Deacetylase Activities. Mol. Cell 1998, 2, 851–861.
  26. Shao, S.; Cao, H.; Wang, Z.; Zhou, D.; Wu, C.; Wang, S.; Xia, D.; Zhang, D. CHD4/NuRD Complex Regulates Complement Gene Expression and Correlates with CD8 T Cell Infiltration in Human Hepatocellular Carcinoma. Clin. Epigenet. 2020, 12, 31.
  27. Zhang, X.; DeSalle, L.M.; Patel, J.H.; Capobianco, A.J.; Yu, D.; Thomas-Tikhonenko, A.; McMahon, S.B. Metastasis-Associated Protein 1 (MTA1) Is an Essential Downstream Effector of the c-MYC Oncoprotein. Proc. Natl. Acad. Sci. USA 2005, 102, 13968–13973.
  28. Fujita, N.; Jaye, D.L.; Geigerman, C.; Akyildiz, A.; Mooney, M.R.; Boss, J.M.; Wade, P.A. MTA3 and the Mi-2/NuRD Complex Regulate Cell Fate during B Lymphocyte Differentiation. Cell 2004, 119, 75–86.
  29. Kusam, S.; Dent, A. Common Mechanisms for the Regulation of B Cell Differentiation and Transformation by the Transcriptional Repressor Protein BCL-6. Immunol. Res. 2007, 37, 177–186.
  30. Morey, L.; Brenner, C.; Fazi, F.; Villa, R.; Gutierrez, A.; Buschbeck, M.; Nervi, C.; Minucci, S.; Fuks, F.; Di Croce, L. MBD3, a Component of the NuRD Complex, Facilitates Chromatin Alteration and Deposition of Epigenetic Marks. Mol. Cell. Biol. 2008, 28, 5912–5923.
  31. Wang, Y.; Zhang, H.; Chen, Y.; Sun, Y.; Yang, F.; Yu, W.; Liang, J.; Sun, L.; Yang, X.; Shi, L.; et al. LSD1 Is a Subunit of the NuRD Complex and Targets the Metastasis Programs in Breast Cancer. Cell 2009, 138, 660–672.
  32. Li, Y.; Seto, E. HDACs and HDAC Inhibitors in Cancer Development and Therapy. Cold Spring Harb. Perspect. Med. 2016, 6, a026831.
  33. Tatetsu, H.; Kong, N.R.; Chong, G.; Amabile, G.; Tenen, D.G.; Chai, L. SALL4, the Missing Link between Stem Cells, Development and Cancer. Gene 2016, 584, 111–119.
  34. Honorato, R.V.; Koukos, P.I.; Jiménez-García, B.; Tsaregorodtsev, A.; Verlato, M.; Giachetti, A.; Rosato, A.; Bonvin, A.M.J.J. Structural Biology in the Clouds: The WeNMR-EOSC Ecosystem. Front. Mol. Biosci. 2021, 8, 729513.
  35. van Zundert, G.C.P.; Rodrigues, J.P.G.L.M.; Trellet, M.; Schmitz, C.; Kastritis, P.L.; Karaca, E.; Melquiond, A.S.J.; van Dijk, M.; de Vries, S.J.; Bonvin, A.M.J.J. The HADDOCK2.2 Web Server: User-Friendly Integrative Modeling of Biomolecular Complexes. J. Mol. Biol. 2016, 428, 720–725.
  36. Smirnov, E.; Chmúrčiaková, N.; Cmarko, D. Human RDNA and Cancer. Cells 2021, 10, 3452.
  37. Stults, D.M.; Killen, M.W.; Williamson, E.P.; Hourigan, J.S.; Vargas, H.D.; Arnold, S.M.; Moscow, J.A.; Pierce, A.J. Human RRNA Gene Clusters Are Recombinational Hotspots in Cancer. Cancer Res. 2009, 69, 9096–9104.
  38. Bywater, M.J.; Poortinga, G.; Sanij, E.; Hein, N.; Peck, A.; Cullinane, C.; Wall, M.; Cluse, L.; Drygin, D.; Anderes, K.; et al. Inhibition of RNA Polymerase I as a Therapeutic Strategy to Promote Cancer-Specific Activation of P53. Cancer Cell 2012, 22, 51–65.
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Subjects: Cell Biology
Contributors MDPI registered users' name will be linked to their SciProfiles pages. To register with us, please refer to https://encyclopedia.pub/register :
Sarah Naiyer
,
Lalita Dwivedi
,
Nishant Singh
,
Swastik Phulera
,
Vijay Mohan
,
Mohammad Kamran
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Update Date: 07 Aug 2023
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