Publication for HNRNPL and ILF3
| Species | Symbol | Function* | Entrez Gene ID* | Other ID | Gene coexpression |
CoexViewer |
|---|---|---|---|---|---|---|
| hsa | HNRNPL | heterogeneous nuclear ribonucleoprotein L | 3191 | [link] | ||
| hsa | ILF3 | interleukin enhancer binding factor 3 | 3609 |
| Pubmed ID | Priority | Text |
|---|---|---|
| 23976881 | 0.98 | hnRNP L, DRBP76, and hnRNP A2/B1 |
| 0.98 | hnRNP L, and DRBP76 were incubated with [32P]UTP-labeled VEGFA HSR, CARE, AUSL, AUSL-A, and AUSL-D RNA and subjected to UV crosslinking. | |
| 0.98 | DRBP76 and hnRNP A2/B1, both were subjected to siRNA-mediated knock-down (hnRNP L knock-down served as positive control) (Figure 3A, top). | |
| 0.98 | hnRNP L and HSR RNA were added, then a modest interaction between hnRNP A2/B1 and DRBP76 was detected. | |
| 0.98 | hnRNP L as the "specificity factor," but likewise recruit DRBP76 to stabilize nearby stem-loop structures and drive formation of alternate regulatory conformers. | |
| 0.97 | hnRNP L, DRBP76, and hnRNP A2/B1 to CARE. | |
| 0.97 | hnRNP L interacted with VEGFA mRNA in control transfected cells; however, the interaction was substantially reduced following siRNA-mediated depletion of either hnRNP A2/B1 or DRBP76 (Figure 2B). | |
| 0.97 | hnRNP L and DRBP76 directly bind the VEGFA HSR. | |
| 0.97 | DRBP76 are essential for hnRNP L binding to VEGFA mRNA in vivo. | |
| 0.97 | DRBP76-specific (or scrambled) siRNA, and lysates immunoprecipitated with anti-hnRNP L antibody. | |
| 0.97 | DRBP76 or hnRNP A2/B1 dramatically impaired the hypoxia-driven RNA switch to an extent comparable to that of hnRNP L knockdown, and permitted GAIT complex-mediated translation inhibition by 24-h lysates (Figure 3A, bottom). | |
| 0.97 | DRBP76, and hnRNP L, and scrambled (scramb.) control was determined by immunoblot analysis; beta-actin was probed as loading control (top). | |
| 0.97 | hnRNP L, -VHL, -hnRNP A2/B1, and -DRBP76 antibodies. | |
| 0.97 | hnRNP L, but not with hnRNP A2/B1 or DRBP76, in an IFN-gamma-dependent manner (Figure 4F). | |
| 0.97 | DRBP76 did not affect hnRNP L stability (Figure S13). | |
| 0.97 | hnRNP L (Y359D) was pre-incubated with DRBP76 and hnRNP A2/B1 as indicated (5 pmol each) for 0.5 h on ice. | |
| 0.97 | DRBP76 and hnRNP A2/B1 is indirect and facilitated by hnRNP L and VEGFA HSR RNA (Figure 2F). | |
| 0.96 | hnRNP L, hnRNP A2/B1, and DRBP76 in operating the RNA switch, we determined the regulatory activity of the purified proteins in vitro. | |
| 0.95 | hnRNP L-DRBP76-hnRNP A2/B1) complex that coordinates a three-element RNA switch, enabling VEGFA mRNA translation during combined hypoxia and inflammation. | |
| 0.95 | hnRNP L recruits DRBP76 (double-stranded RNA binding protein 76) to the 3'UTR, where it binds an adjacent AU-rich stem-loop (AUSL) element, "flipping" the RNA switch by disrupting the GAIT (interferon-gamma-activated inhibitor of translation) element, preventing GAIT complex binding, and driving robust VEGFA mRNA translation. | |
| 0.95 | hnRNP L, DRBP76, and hnRNP A2/B1 detected by mass spectrometry. | |
| 0.95 | hnRNP L was the binding site for DRBP76 (Figure 1G, right). | |
| 0.95 | DRBP76 are required for hnRNP L binding to VEGFA mRNA, lysates from cells treated with IFN-gamma and hypoxia were subjected to ribonucleoprotein IP (RIP) using anti-hnRNP L antibody, coupled with RT-PCR. | |
| 0.95 | hnRNP L and DRBP76. | |
| 0.95 | DRBP76 and hnRNP A2/B1 by themselves did not bind, nor did the addition of either hnRNP L or HSR RNA restore their interaction significantly (Figure S15). | |
| 0.94 | hnRNP L, hnRNP A2/B1, and DRBP76 was determined by immunoblot as input control (right panel). | |
| 0.94 | hnRNP L directly interacted with recombinant hnRNP A2/B1 and DRBP76 (Figure 1F, left panel). | |
| 0.93 | DRBP76 with VEGFA mRNA was abolished following hnRNP L depletion by siRNA-mediated gene silencing (Figure S2, right panels), suggesting that HILDA binding to VEGFA mRNA requires integrity of the entire complex. | |
| 0.91 | hnRNP L, DRBP76, and hnRNP A2/B1 (HILDA) was shown to bind wild-type but not mutant antisense CARE RNA; substantially less binding of the three proteins to CARE RNA was observed in normoxic lysates (Figure 1D). | |
| 0.85 | hnRNP L but not DRBP76 (Figure 1F, right panel). | |
| 0.80 | hnRNP L binds the CARE, whereas DRBP76 binds the AU-rich stem loop (AUSL) (Figure 2C). | |
| 0.78 | hnRNP L (Y359D) by itself or with either hnRNP A2/B1 or DRBP76, did not restore translation in the presence of lysates from cells treated with IFN-gamma for 24 h (Figure 6G). | |
| 0.73 | hnRNP L and DRBP76, suggesting that the hnRNP L-DRBP76 complex is stabilized by RNA. | |
| 0.53 | hnRNP L and DRBP76 were incubated with GST-hnRNP A2/B1 or GST immobilized to GSH-agarose beads (right). | |
| 0.50 | hnRNP L antibody, and probed with hnRNP A2/B1- and DRBP76-specific antibodies (Figure 1E, left panel). | |
| 28520992 | 0.97 | hnRNP L, but not DRBP76, suggesting that hnRNP L interaction with miR-574-3p does not require the HILDA complex (Figure 4B). |
| 0.96 | hnRNP L does not bind DRBP76 in hypoxia. | |
| 0.93 | hnRNP L translocates out of the nucleus to interact with two other proteins to form the cytoplasmic HILDA (hypoxia-induced hnRNP L-DRBP76-hnRNP A2/B1) complex. | |
| 0.90 | hnRNP L antibody and immunoblotted using anti-DRBP76, -hnRNP A2/B1 and -hnRNP L antibodies. | |
| 0.90 | hnRNP L is joined by DRBP76 and hnRNP A2/B1 to form the HILDA complex that also binds the VEGFA mRNA HSR (Supplementary Figure S1A). | |
| 32206104 | 0.97 | NF90/NF110, DExH-box helicase 9 (DHX9), Heterogeneous Nuclear Ribonucleoprotein L (HNRNPL), RNA-Binding Motif 20 (RBM20), Muscleblind protein (MBL)/vertebrate homolog Muscleblind-like protein 1 (MBNL1), Epithelial Splicing Regulatory Protein 1 (ESRP1), and serine/arginine (SR)-rich proteins. |
| 0.96 | NF90/NF110 and HNRNPL/SRs act in combinatorial and coordinated ways in circRNA biogenesis. | |
| 0.74 | NF90/NF110, DHX9, HNRNPL, RBM20, ESRP1, and SR proteins, which all have been proposed to contain binding motifs for their corresponding circRNAs. | |
| 21747757 | 0.97 | NF90, HuR, CUG-BP1, hnRNP A2, hnRNP L, and the iron-response proteins (IRP1, IRP2; Hamilton et al.,; Lopez de Silanes et al.,; Kim et al.,; Leipuviene and Theil,; Abdelmohsen et al.,). |
| 25753659 | 0.96 | hnRNP-L-DRBP76-hnRNP-A2/B1) complex has been shown to coordinate a three-element RNA switch, enabling VEGFA mRNA translation in hypoxia. |
| 19583805 | 0.95 | NF90, HuR, CUG-BP1, hnRNP A2, hnRNP L and the iron-response proteins (IRP1, IRP2). |
| 26256788 | 0.92 | heterogeneous nuclear ribonucleoprotein L (HNRNPL), insulin-like growth factor 2 binding protein 1 (IGF2BP1), interleukin enhancer binding factor 3 (ILF3, or NF90/NFAR-1), and U6 snRNA-associated Sm-like protein (LSM1-7), while synaptotagmin binding cytoplasmic RNA interacting protein (SYNCRIP, or NSAP1) binds to an RNA sequence immediately downstream of the 5'UTR. |
| 29152905 | 0.90 | hnRNP L in the HILDA (hypoxia-induced hnRNP L-DRBP76-hnRNP A2/B1) complex binds a CA-rich element directly adjacent to the GAIT element, and DRBP76 binds a downstream AU-rich stem loop thereby disrupting GAIT element formation, preventing GAIT complex binding, and enhancing VEGFA mRNA translation. |
| 0.83 | hnRNP L is phosphorylated at Tyr359 and accumulates in the cytoplasm in a complex with hnRNP A2/B1 and DRBP76 (double-stranded RNA-binding protein) (Fig. 6iii). | |
| 0.74 | hnRNP L is phosphorylated at Tyr359 and joins hnRNP A2/B1 and double-stranded RNA binding protein, DRBP76, to form the active HILDA complex. | |
| 27165283 | 0.89 | hnRNP L-DRBP76-hnRNP A2/B1) complex and the interferon gamma (IFN-gamma)-activated inhibitor of translation complex (GAIT). |
| 27992500 | 0.88 | hnRNP L-DRBP76-hnRNP A2/B1) complex that de-represses translation under stress was identified. |
| 25951186 | 0.86 | hnRNPL and DHX9), and transcription (PURA, CDK9, and ILF3). |
| 29856133 | 0.84 | NF90/NF110, heterogeneous nuclear ribonucleoprotein L (HNRNPL) and muscleblind (MBL/MBNL1).6, 7, 8, 9, 10, 11 Recently, based on RNA interference screening, Liang et al12 revealed that the expression ratio of linear to circular RNA is modulated by many core spliceosomal and transcription termination factors. |
| 29593672 | 0.75 | hnRNP L and NF90 have been demonstrated to stimulate HCV replication. |
| 30216987 | 0.66 | ILF3, HNRPL; B:EGR1, MYF5, TOPRS, NEIL2, TNR4, MYOD1, p53, MYF6, MYOG, IGF2, TERT, NEIL1, ACD, RECQ4, TINF2; C:NUCL, NPM, TOP1, EBNA1BP2, POTE1, CAMP, NDKB, DHX36, SF3B3, ILF2, NOA1, DHX30, DHX15, DPOE1, ERCC2, EFHD2, ERCC3, TERF1, SAFB1, SAFB2, DNM3B, FMR1, U2AF2, TERF2, DSRAD, SPAST, DNM3A, TE2IP, DNMT1, NEIL3, ADA10, IF16, PARP1, DDX21, POLH, BRCA1, NF2L2, ATRX, BLM, FANCJ, RFA2, RFA1, ELAV1) of proteins supported by approximately unbiased values (AU equal to or greater than 95 is considered to be statistically significant). |
| 31671760 | 0.62 | hnRNP L, hnRNP Q, NCL, RPL26, and Ku), there are also proteins RNPC1, Pdcd4, DAP5, TCP80, and RHA. |
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