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. 2012 Apr 8;4(2):127–150.

Table 2.

Identified tumor and disease-associated LncRNAs

Name Function/Characterization References
H19 Imprinted at the lgf2 locus; controls igf2 expression in cis, implicated in both tumor suppressors and oncogenes Maher, ER. et al., 2000 [94]; Gaston, V. et al., 2001 [95]
HOTAIR Intergenic transcript of HoxC locus, gene silencing in trans through interacting with PCR2 and LSD1 complex, involved in breast cancer metastasis Tsai, MC. et al., 2010 [15]; Gupta, RA. et al., 2010 [16]; Rinn, JL. et al., 2007 [28]
AIR Imprinted, monoallelically expressed from the paternal allele, interacts with histone methyltransferase G9a Wutz, A. et al., 1997 [24]; Nagano, T. et al., 2008 [25]; Sleutels, F et al, 2002 [27]
ANRIL Antisense transcript of INK4n/ARF/INK4a and p15/CDKN2B, required for the PRC2 recruitment to and silencing p15INK4b tumor suppressor gene Pasmant, E. et al., 2007 [29]; Yap, KL. et al., 2010 [31]; Kotake, Y. et al., 2011 [32]
HOTAIRM1 Antisense intergenic RNA myeloid 1, transcribed antisense to the HOXA genes, plays a role in the myelopoiesis through modulation of gene expression in the HOXA cluster Zhang X., et al., 2009 [140]
KCNQ1OT1 Tissue-specific imprinted genes within the Kcnq1 domain, interacting with both PRC2 and G9a leading to gene silencing in a lineage-specific manner Kanduri, C. et al., 2006 [37]; Pandey, RR. et al., 2008 [33]; Lee, MP. et al., 1999 [97]; Nakano, S. et al., 2006 [98]
Evf-1 Activates transcriptional activity by directly influencing Dlx-2 activity Kohtz JD & Fishekk G., 2004 [141]
Evf-2 An alternatively spliced form of Evf-1 activates transcriptional activity by directly influencing Dlx-2 activity Feng, J. et al., 2006 [49]
P15AS Antisense transcript of p15, highly expressed in leukemia, epigenetically silences the tumor suppressor gene p15 Yu, W. et al., 2008 [107]
Xist Mosaic expression, spreads on Xi in cis, interacts with BRCA1, correlated with breast cancer, cervical, ovarian, and testis tumors Zhao, J. et al., 2008 [19]; Weakley SM et al. 2011 [80]
Tsix Antisense transcript to Xist , prevents Xist stabilization and inhibits the interaction between Rep A and PRC2, silencing Xist expression Zhao,J. et al., 2008 [19]; Navarro, P. et al., 2005 [22]
Zeb2NAT Antisense to Zeb2, regulates splicing of the IRES-containing intron of Zeb 2, involved in EMT Beltran, M. et al., 2008 [60]
MALAT-1/NEAT2 Expressed in many cancers, regulates alternative splicing of pre-mRNA and promotes cell motility through transcriptional and post-transcriptional regulation of motility related gene expression Tripathi, V., 2010 [66]
MEG3 Imprinted transcripts, highly expressed in human pituitary, stimulates p53-mediated transactivation and suppresses tumor growth in the absence of p53 Gejman, R. et al., 2008 [108]; Benetatos, L. et al., 2011 [110]; Zhou, Y. et al., 2007 [111]
GAS5 Growth arrest-specific transcripts, controls apoptosis and cell cycle, down-regulated in breast cancers Mourtada-Maarabouni, M. et al., 2008 [114]; Mour-tada-Maarabouni, M. et al., 2009 [115]
PCGEM1 Prostate tissue-specific and prostate-associated, overexpressed in prostate cancers, regulates cell proliferation and apoptosis, promotes colony formation Srikantan, V. et al., 2000 [76]
UCA1 Urothelial carcinoma-associated transcript, upregulated in bladder carcinoma and embryo, influences cell growth and promotes invasion Wang, F. et al., 2008 [142]; Wang, XS et al., 2006 [143]
SRA-1 Alternative splicing of SRA-1, loss of coding frame, an increased expression is associated with tumor metastasis Yao, H et al., 2010 [144]
CUDR Upregulated in drug-resistant human squamous carcinoma, regulates drug sensitivity, cellular transformation and apoptosis Tsang, WP et al., 2007 [145]
VL30-1 A mouse noncoding retroelement RNA, binds and releases PSF from a proto-oncogene, thus activating Rab23 proto-oncogene transcription Li, L et al., 2009 [146]; Wang, G. et al., 2009 [147]
Myc Antisense transcript to myc gene, may be targeting the sense transcripts for immediate degradation Yu, W. et al., 2008 [107]
p21NAT Antisense to cdkn1a/p21, requires Ago1 for epigenetic silencing of Cdkn1a/p21 Yu, W. et al., 2008 [107]
CCND1/Cyclin D1 Transcribed from 5’ end of Cyclin D1 gene, induced by DNA damage and binding to TLS protein, leading to allosteric changes and repression of Cyclin D1 and anti-sense transcripts of tie-1 related to vascular malformation Wang, X. et al., 2008 [52]
PTENP1 Transcript of PTEN tumor suppressor pseudogene, PTENP1 3’-UTR exerts a tumor suppressive function by acting as a decoy for PTEN-targeting miRNAs Poliseno, L et al, 2010 [67]; He, L. 2010 [68]
KRAS1P Transcript of KRAS pseudogene, overexpression of KRAS1P 3’-UTR, increases KRAS mRNA abundance and accelerates cell growth Poliseno, L et al, 2010 [67]
DHFR Transcribed from upstream of DHFR gene, regulates DHFR expression by forming triple helix with the promoter and disassociating pre-initiation complex Martianov, I. et al., 2007 [53]
TERRA Telomeric UUAGG repeat-containing RNA, inhibits telomerase activity, also regulates Xist and HOTAIR Azzalin, CM. et al., 2007 [42]; Schoeftner, S. and Blasco, MA., 2008 [44]; Luke, B. and Lingner, J., 2009 [120]
AK023948 Antisense transcribed from the intron of SIR-like adaptor gene (SLA), significantly downregulated in most of papillary thyroid carcinoma He, H et al., 2009 [148]
TUG1 Ubiquitously expressed in human and mouse cell types and tissues, involves eye development, upregulated by p53, repressed cell proliferation via bound to PRC2 Zhou, Y. et al., 2007 [111]; Huarte, M. et al., 2010 [113]
LincRNA ROR Expressed in the induced pluripotent stem cells (iPSCs), involved in the conversion of lineage-committed cells by interacting with reprogramming complexes Loewer, S. et al., 2010 [149]
HAR1 REST target gene, decreased in the neurons of Huntington's disease Tsai, MC. et al, 2010 [15]
Tie-1AS Expressed temporally and spatially in vivo with its native gene tie-1, binds tie-1 mRNA, regulating tie-1 transcripts; imbalance of sense Li, K. et al., 2010 [61]
BACE1AS Antisense transcript for beta-secretase-1, directly implicated in the increased abundance of Abeta 1-42 in Alzheimer's disease Faghihi, MA. et al., 2008 [62]; Jiang, Y. et al., 2010 [63]