Table 1.
Author/year | LncRNA | Chromosomal location | Sample | Expression | Summary of findings | Refs. | |
---|---|---|---|---|---|---|---|
Cell line/tumor tissue | |||||||
Kim/2016 | LOC100507661 | 3q26.2 |
C643 8505C |
– | Up | ↑ Cell proliferation, migration, and invasiona | [11] |
Gu/2017 | GAS5 | 1q25.1 | – | 33 | Down |
↑ Cell cycle progression and proliferation probably by upregulating of CDK6 ↓ Survival rateb Poor prognosis |
[12] |
Zhang/2019 | H19 | 11p15.5 |
8505C SW1736 KAT18 CAL62 |
19 | Up |
↑ Proliferation, migration, and invasion ↓ Apoptosis |
[13] |
Wang/2018 | UCA1 | 19p13.12 |
SW1736 KAT18 |
8 | Up | ↑ cell viability, proliferation, migration, and invasion via binding to miR-135a and regulation of c-myc expression | [14] |
Wang/2019 | HOTAIRM1 | 7p15.2 | – | 10 | Up | ↑ HOTAIRM1 expression during thyroid cancer development and progression | [15] |
Wang/2019 | PCA3 | 9q21.2 | – | 10 | Up | ↑ PCA3 expression during thyroid cancer development and progression | [15] |
Chen/2019 | HCP5 | 6p21.33 |
SW1736 8305C ARO FRO |
19 | Up |
↑ Cell viability and ↓ Apoptosis by regulating the expression of miR-128-3p |
[16] |
Credendino/2019 |
KLHL14-AS (Klhl14)c |
18q12.1 |
8505C CAL62 |
9 | Down |
↑ Cell viability and ↓ Cpoptosis and differentiation by binding to miR-182-5p and miR-20a-5p and regulation of BCL2 and PAX8 expression |
[17] |
Du/2018 | Linc00210 | 1q41 | 8505C | N/A | Up | ↑ Proliferation, migration, and invasion via binding to miR‐195‐5p and upregulation of IGF1R expression | [18] |
Hou/2018 | TNRC6C-AS1 | 17q25.3 |
ARO Hth74 |
N/A | Up | ↑ Proliferation, migration, and invasion via binding to miR‐129‐5p and upregulation of UNC5B expression | [19] |
Li/2017 | AK139328 | N/A | 8505C | N/A | Up | ↑ Cell viability, invasion, and cell cycle progression | [20] |
Song/2017 | LINC00312 | 3p25.3 | 8505C | 13 | Down | ↑ Proliferation, invasion, and migration by regulating of miR-197-3p expression and its target p120 | [21] |
Min/2018 | 8505C | N/A | Down | ↑ Proliferation and invasion by suppressing PI3K/AKT signaling pathway | [22] | ||
Liu/2018 | XIST | Xq13.2 |
SW1736 KAT18 |
– | Up |
↑ Proliferation through binding to miR-34a and upregulation of MET expression ↑ MET/PI3K/AKT signaling pathway |
[23] |
Chen/2019 | SNHG7 | 9q34.3 | CAL62 | N/A | Up | ↑ Proliferation and cell cycle progression | [24] |
Liu/2018 | SNHG15 | 7p13 | 8505C | N/A | Down | ↑ Proliferation, migration, and invasion via upregulating miR-510-5p | [25] |
Han/2019 | ZFAS1 | 20q13.13 | CAL62 | 20 | Up | ↑ Proliferation and cell cycle progression | [26] |
Qin/2019 | MIR22HG | 17p13.3 | – | 11 | Down |
↓ MIR22HG is correlated to higher age, lymph node metastasis, and advanced TNM stages ↑ MIR22HG expression is associated with longer overall and disease-free survival time in thyroid cancer patients. |
[27] |
Xiong/2017 | CASC2 | 10q26.11 |
8505C CAL62 HTH-83 |
N/A | Down |
?↓ CASC2 expression is correlated with multifocality and advanced TNM stages ↑ CASC2 expression decreases the proliferation and arrests cell cycle at G0/G1 |
[28] |
Yan/2019 | NEAT1 | 11q13.1 |
8505C SW1736 |
26 | Up | ↓ Cisplatin-resistance through regulating of miR-9-5p/SPAG9 axis | [29] |
LncRNAs related to CSCs propertiesd | |||||||
Hardin/2018 | ROR | 18q21.31 | THJ-16T | – | Up |
↑ CSC properties probably by modulating of OCT4, SOX2, and Nanog expression ↑ ROR expression in CSC clones of ATC line THJ-16T compared to the parental line ↑ Stem cell marker SOX2 and EMT marker SLUG |
[30] |
Zhou/2016 | PVT1 | 8q24.21 | 8505C | 7 | Up | ↑ Cell cycle progression and proliferation by modulating of cyclin D1 and TSHR expression and also EZH2 recruitment | [31] |
Hardin/2018 | THJ-16T | – | Down |
↓ PVT1 expression in CSC clones of ATC line THJ-16T compared to the parental line ↑ Stem cell marker SOX2 and EMT marker SLUG |
[30] | ||
Hardin/2018 | HOTAIR | 12q13.13 | THJ-16T | – | Down |
↓ HOTAIR expression in CSC clones of ATC line THJ-16T compared to the parental line ↑ Stem cell marker SOX2 and EMT marker SLUG |
[30] |
Huang/2016 |
SW1736 KAT18 |
– | UP | ↑ Proliferation and invasion via upregulating of IQGAP1 expression | [32] | ||
Zhang/2017 | – | 35 | Down | ↓ MALAT1 expression in ATC tissue samples | [33] | ||
Samimi/2019 | MALAT1 | 11q13.1 |
SW1736 C643 |
– | Up |
↑ Mcl1 and cyclin D1 expression ↓ miR-363-3p expression |
[34] |
Gou/2019 |
SW1736 8505C |
– | Up |
↑ Proliferation, migration, and invasion ↓ Apoptosis and autophagy via binding to miR‐200a‐3p and upregulation of FOXA1 expression |
[35] | ||
Hardin/2018 | THJ-16T | – | Up |
↑ MALAT1 expression in CSC clones of ATC cell line compared to the parental line ↑ Stem cell marker SOX2 and EMT marker SLUG |
[30] | ||
Liu/2017 | BANCR | 9q21.12 | 8505C | – | Up | ↑ Cell growth, colony formation ability, and cell cycle progression via regulating of BANCR/TSHR/CCND1 signaling pathway | [36] |
Liu/2019 | FOXD2-AS1 | 1p33 |
8305C CAL62 BHT101 |
10 | Up |
↑ FOXD2-AS1 expression in cell lines and tissues FOXD2-AS1 acts as a ceRNA for miR-7-5p and upregulates TERT expression, which increases the CSCs properties in thyroid cancer cells |
[37] |
Wang/2018 | PTCSC3 | 14q13.3 | 8505C | 20 | Down |
↑ CSC properties by upregulating of STAT3, INO80, CD133, and ALDH1 ↑ Drug resistance by upregulating of MDR-1 via STAT3/INO80 pathway |
[38] |
Fan/2013 | 8505C | – | Down |
↓ Apoptosis ↑ Cell growth and cell cycle progression probably by modulating of miR-574-5p |
[39] | ||
Lu/2018 | MANCR | 10p15.1 | BHT101 | – | Up |
↓ Apoptosis ↑ Proliferation, colony formation, cell cycle progression G0 to G1, and EMT by modulating E-cadherin, N-cadherin, and β-catenin expression |
[40] |
Pellecchia/2020 | PAR5 | 15q11.2 |
8505C ACT1 FB-1 FRO |
9 | Down | ↑ Proliferation, colony formation, and EMT through regulating EZH2 recruitment and E-cadherin expression | [41] |
Lei/2017 | TUG1 | 22q12.2 |
SW1736 KAT18 |
N/A | Up | ↑ Proliferation, colony formation, invasion, migration, and EMT through regulating miR-145/ZEB1 signaling pathway | [42] |
AKT, AKT serine/threonine kinase; ALDH1, aldehyde dehydrogenase 1; BANCR, BRAF-activated non-protein coding RNA; BCL2, BCL2 apoptosis regulator; CASC2, cancer susceptibility candidate 2; CCND1, cyclin D1; CDK6, cycling-dependent kinase 6; ceRNA, competing endogenous RNA; c-myc, avian myeocytomatosis virus oncogene cellular homolog; CSC, cancer stem cell; EMT, epithelial to mesenchymal transition; EZH2, enhancer of zeste homolog 2; FOXA1, forkhead box protein A1; FOXD2-AS1, FOXD2 adjacent opposite strand RNA 1; GAS5, growth arrest special 5; HCP5, HLA complex P5; HOTAIR, HOX transcript antisense RNA; HOTAIRM1, hox antisense intergenic RNA myeloid 1; IGF1R, insulin like growth factor 1 receptor; INO80, INO80 complex ATPase subunit; IQGAP1, Ras GTPase-activating-like protein; Klhl14, kelch like family member 14; Linc00210, long intergenic non-protein coding RNA 210; LINC00312, long intergenic non-protein coding RNA 312; LncRNA, long noncoding RNA, MALAT1: metastasis-associated lung adenocarcinoma transcript 1; MANCR, mitotically associated long non coding RNA; Mcl1, myeloid cell leukemia 1; MDR-1, multidrug resistance protein 1; MET, MET protooncogene; miR, microRNA; MIR22HG, MIR22 host gene; NEAT1, nuclear paraspeckle assembly transcript 1; OCT4, octamer-binding transcription factor 4; PAR5, Prader Wili/Angelman region RNA 5; PAX8, paired box 1; PCA3, prostate cancer antigen 3; PI3K, phosphatidylinositol-3-kinas; PTCSC3, papillary thyroid carcinoma susceptibility candidate 3; PVT1, plasmacytoma variant translocation 1; ROR, regulator of reprogramming; SNHG15, small nucleolar RNA host gene 15; SNHG7, small nucleolar RNA host gene 7; SOX2, SRY-box transcription factor 2; SPAG9, sperm associated antigene 9; STAT3, signal transducer and activator of transcription 3; TNM, tumor-node-metastasis; TNRC6C-AS1, TNRC6C antisense RNA 1; TUG1, taurine up-regulated gene 1; UCA1, urothelial carcinoma-associated 1; UNC5B, unc-5 netrin receptor B; XIST, X inactive specific transcript; ZEB1, zinc finger E-box binding homeobox 1; ZFAS1, ZNFX1 antisense RNA 1
a↑ Increase
b↓ Decrease
c In GeneCards database is named Klhl14
dBased on the criteria defined in the text