| 2014 |
Crystal structure of the YTHDC1 YTH domain in complex with m6A-containing RNA revealed the specific mode of m6A recognition, including an aromatic cage that captures the N6-methyl group and a selective binding pocket that confers preferential recognition of GG(m6A)C sequences. |
X-ray crystallography, biochemical binding assays, transcriptome-wide PAR-CLIP-seq |
Nature chemical biology |
High |
25242552
|
| 2015 |
Structural comparison showed that YTHDC1 uniquely harbors a selective binding pocket for the nucleotide preceding m6A (preferring G), distinguishing it from other YTH domain proteins (YTHDF1, YTHDF2, YTHDF3, yeast Pho92), all of which use a conserved aromatic cage but lack the position-specific selectivity of YTHDC1. |
X-ray crystallography, isothermal titration calorimetry, binding affinity measurements |
The Journal of biological chemistry |
High |
26318451
|
| 1999 |
YTHDC1 (YT521-B) interacts with the splicing-associated scaffold attachment factor B (SAF-B) and Sam68, localizes to 5–20 large nuclear dots, and modulates alternative splice site selection in a concentration-dependent manner; the Src family kinase p59(fyn)-mediated tyrosine phosphorylation of Sam68 negatively regulates its association with YTHDC1 and dissolves these nuclear dots. |
Co-immunoprecipitation, in vivo splicing assays, overexpression of p59(fyn), deletion analysis, RNA in situ hybridization |
Molecular biology of the cell |
High |
10564280
|
| 2000 |
YTHDC1 (YT521-B) localizes to a novel subnuclear structure called YT bodies, which appear at the beginning of S-phase, disperse during mitosis, and are sensitive to actinomycin D (transcription inhibitor), suggesting association with transcriptionally active sites; the glutamic acid-rich N-terminal domain and the C-terminal glutamic acid/arginine-rich domain are required for YT body formation. |
Live-cell imaging, immunofluorescence, cell cycle synchronization, transcription inhibitor treatment, deletion analysis |
The Journal of cell biology |
High |
10973987
|
| 2003 |
Emerin (nuclear membrane protein mutated in Emery-Dreifuss muscular dystrophy) directly binds the C-terminal functional domain of YTHDC1 (YT521-B), demonstrated by yeast two-hybrid, pull-down and BIAcore; emerin overexpression inhibits YTHDC1-dependent splice site selection in vivo, defining a bipartite emerin binding site for YTHDC1. |
Yeast two-hybrid, pull-down assay, BIAcore biomolecular interaction analysis, in vivo splicing assay |
European journal of biochemistry |
High |
12755701
|
| 2004 |
YTHDC1 (YT521-B) is tyrosine phosphorylated by c-Abl in the nucleus and by c-Src or p59(fyn) in the cytoplasm; tyrosine phosphorylation disperses YTHDC1 from YT bodies to the nucleoplasm into an insoluble form, and abolishes its ability to alter alternative splice site selection of IL-4 receptor, CD44, and SRp20. |
In vivo kinase assays, differential solubility fractionation, alternative splicing reporter assays, nuclear-cytoplasmic shuttling experiments |
Human molecular genetics |
High |
15175272
|
| 2016 |
Nuclear m6A reader YTHDC1 promotes exon inclusion in targeted mRNAs by recruiting splicing factor SRSF3 while blocking SRSF7/SRSF10 binding; YTHDC1 facilitates SRSF3 nuclear speckle localization and RNA binding, and represses SRSF10 localization and binding; these effects require the m6A-binding ability of YTHDC1 and were mapped transcriptome-wide by PAR-CLIP-seq. |
PAR-CLIP-seq, in vitro pull-down (competitive binding of SRSF3 and SRSF10 to YTHDC1), knockdown/rescue with wild-type vs. m6A-binding-defective YTHDC1, nuclear speckle localization assays |
Molecular cell |
High |
26876937
|
| 2017 |
YTHDC1 mediates nuclear export of m6A-methylated mRNAs in HeLa cells; knockdown of YTHDC1 causes nuclear accumulation and cytoplasmic depletion of m6A-containing transcripts; mechanistically, YTHDC1 interacts with splicing factor/nuclear export adaptor SRSF3 and facilitates RNA binding to both SRSF3 and the export receptor NXF1. |
YTHDC1 knockdown, nuclear/cytoplasmic fractionation, m6A-seq, Co-IP (YTHDC1–SRSF3–NXF1) |
eLife |
High |
28984244
|
| 2017 |
YTHDC1 reads METTL16-deposited m6A marks in the 3′ UTR of MAT2A mRNA to promote its degradation; when SAM is depleted, METTL16 methylation of MAT2A is reduced, YTHDC1-dependent decay is relieved, and MAT2A mRNA is stabilized, thus upregulating SAM synthesis as a feedback mechanism. |
In vitro methylation assays with recombinant METTL16, YTHDC1 knockdown, MAT2A mRNA stability assays, 3′ UTR mutagenesis of m6A target adenines |
Cell reports |
High |
29262316
|
| 2018 |
YTHDC1 is essential for spermatogonial development and oocyte growth/maturation in mice; loss of YTHDC1 in oocytes causes extensive alternative polyadenylation (altered 3′ UTR length) and massive alternative splicing defects; splicing defects are rescued by wild-type but not m6A-binding-deficient YTHDC1; YTHDC1 associates with pre-mRNA 3′ end processing factors CPSF6, SRSF3, and SRSF7. |
Conditional knockout mouse, RNA-seq, alternative splicing analysis, polyadenylation analysis, Co-IP (YTHDC1–CPSF6/SRSF3/SRSF7), rescue with separation-of-function mutant |
PLoS genetics |
High |
29799838
|
| 2019 |
Atomistic simulations and X-ray crystallography show that the m6A methyl group is captured by the aromatic cage of YTHDC1 (Trp377/Trp428), the 3′ terminus nucleotides are stabilized by cation-π-π interactions, and the 5′ terminus remains flexible; the methyl group of m6A pre-organizes the RNA into a bound-like conformation, facilitating association. |
X-ray crystallography, atomistic molecular dynamics simulations, isothermal titration calorimetry |
Journal of chemical theory and computation |
High |
31670957
|
| 2019 |
Oncogene metadherin (MTDH) interacts with YTHDC1, Sam68, and T-STAR in nuclear speckles and influences alternative splice site selection of CD44 in a dose-dependent manner. |
Yeast two-hybrid, co-immunoprecipitation, CD44v5-luc minigene splicing reporter assay |
Cancers |
Medium |
31450747
|
| 2020 |
The YTH domain of YTHDC1 binds N6-methyladenine in single-stranded DNA with ~10 nM Kd, approximately 5-fold stronger than the equivalent m6A RNA under the same conditions; crystal structures of YTHDC1 YTH in complex with N6mA-containing ssDNA showed recognition of methylated adenine in a single-stranded region flanked by duplexed DNA. |
Fluorescence polarization binding assay, X-ray crystallography (two structures) |
Nucleic acids research |
High |
32663306
|
| 2021 |
YTHDC1 is required for maintenance of mouse embryonic stem cells; deletion triggers reprogramming to a 2C-like state; mechanistically, YTHDC1 binds m6A-modified retrotransposon (IAP, ERVK, LINE1) transcripts and its depletion results in reactivation of these elements accompanied by global decrease in SETDB1-mediated H3K9me3; YTHDC1 and its target m6A RNAs act upstream of SETDB1 to repress retrotransposons and Dux. |
Conditional knockout ESCs, RNA-seq, m6A-seq, YTHDC1 RIP, H3K9me3 ChIP-seq, genetic epistasis (YTHDC1 → SETDB1 → H3K9me3) |
Nature |
High |
33658714
|
| 2021 |
YTHDC1 recognizes m6A on LINE1 RNAs in the nucleus, regulates the formation of the LINE1–nucleolin (NCL) RNA scaffold partnership, promotes chromatin recruitment of KAP1, and is required for H3K9me3 establishment on 2C-related retrotransposons; YTHDC1 is also required for sufficient rRNA synthesis in ESCs. |
Conditional Ythdc1 KO in ESCs, RIP, Co-IP (LINE1 RNA–NCL–KAP1 complex), H3K9me3 ChIP-seq, rRNA synthesis assay |
Protein & cell |
High |
33886094
|
| 2021 |
YTHDC1 regulates leukemogenesis through MCM4, a critical regulator of DNA replication; genetic deletion of Ythdc1 blocks AML development and LSC self-renewal in vivo; haploinsufficiency reduces LSC but not normal HSC self-renewal. |
Conditional Ythdc1 KO mouse models, in vivo AML transplantation, YTHDC1 knockdown in primary AML cells, MCM4 target identification |
Blood |
High |
34255814
|
| 2021 |
Trp428 of YTHDC1 switches between two conformational states to build and dismantle the aromatic cage for m6A binding; Met438 and Ser378 modulate binding enthalpy-entropy compensation without changing affinity; Thr379Val mutation significantly reduces thermal stability and m6A binding capability; a structural water molecule synergistically binds YTHDC1 with m6A as a hydrogen-bond hub. |
Atomistic MD simulations, site-directed mutagenesis, thermal shift assay, isothermal titration calorimetry, free energy calculations |
Journal of chemical theory and computation |
High |
33472367
|
| 2021 |
YTHDC1 interacts with ELAVL1/HuR to modulate SQSTM1 mRNA stability in the nucleus; YTHDC1 knockdown causes SQSTM1 mRNA degradation in the nucleus, blocking autophagic flux; overexpression of YTHDC1 rescues the autophagic flux blockade induced by high glucose in keratinocytes. |
Co-IP (YTHDC1–ELAVL1), RIP-qPCR (YTHDC1 binding to SQSTM1 mRNA), YTHDC1 KD/OE, autophagic flux assays (LC3, autophagosome imaging), in vivo Ythdc1/Sqstm1 knockdown |
Autophagy |
Medium |
34657574
|
| 2021 |
Molecular dynamics and NMR analysis of the YTHDC1 YTH–m6A RNA complex revealed that structured water molecules surrounding the bound RNA contribute to m6A selectivity; bulk water intrusions disrupt unmethylated adenosine binding; the 5′-G preference of YTHDC1 is partially mediated by a water-mediated hydrogen bond network between the guanosine 2-amino group and binding pocket residues; D479A mutation disrupts this water network. |
MD simulations, NMR spectroscopy, isothermal titration calorimetry |
The journal of physical chemistry. B |
High |
34258996
|
| 2021 |
YTHDC1 facilitates biogenesis of mature miR-30d via m6A-mediated regulation of mRNA stability; mature miR-30d then inhibits aerobic glycolysis by reducing SLC2A1 and HK1 expression through targeting transcription factor RUNX1. |
MeRIP, RIP, RNA stability assay, miRNA maturation analysis, luciferase reporter assay |
Cell death and differentiation |
Medium |
34021267
|
| 2022 |
NMR solution structure of the m6A-modified AUCG tetraloop hairpin of Xist A-repeats showed that m6A extends 5′ stacking of the helical stem; crystal structure of YTHDC1 bound to the (m6A)UCG tetraloop showed recognition in single-stranded conformation requiring local unfolding of the upper stem; fluorescence quenching confirmed that binding requires local stem unfolding. |
NMR structure determination, X-ray crystallography, fluorescence quenching experiments |
Nucleic acids research |
High |
35166835
|
| 2022 |
Nuclear AURKA disrupts binding of SRSF3 to YTHDC1 (blocking m6A-YTHDC1-SRSF3-dependent RBM4-FL production) and instead recruits hnRNP K to YTHDC1, creating an m6A-YTHDC1-hnRNP K complex that promotes exon skipping to produce the oncogenic RBM4-S isoform; AURKA nuclear translocation is required but its kinase activity is not. |
Co-IP (AURKA–YTHDC1–SRSF3/hnRNP K complexes), alternative splicing analysis, nuclear translocation blocking experiments, kinase-dead mutants |
Signal transduction and targeted therapy |
Medium |
35361747
|
| 2022 |
SRSF3 binding to YTHDC1 is regulated by the phosphorylation status of SRSF3's arginine/serine-rich (RS) domain; dephosphorylation-mimic serine-to-alanine mutants of SRSF3 revealed multiple phosphorylation positions; YTHDC1 binding involves both YTHDC1 N- and C-terminal residues as well as the RS domain and additional regions of SRSF3. |
Co-immunoprecipitation with deletion mutants, dephosphorylation-mimic mutagenesis (S→A), domain mapping |
Cells |
Medium |
35563766
|
| 2022 |
YTHDC1 suppresses proximal alternative polyadenylation (APA) sites to produce longer 3′ UTR transcripts; mechanistically, YTHDC1 directly interacts with 3′ end processing factor FIP1L1 and interferes with its ability to recruit CPSF4; m6A binding promotes liquid-liquid phase separation of YTHDC1 and FIP1L1. |
APA analysis (RNA-seq), Co-IP (YTHDC1–FIP1L1), RIP, phase separation assays (in vitro droplet formation), YTHDC1 KD |
EMBO reports |
Medium |
36094741
|
| 2022 |
YTHDC1 promotes nuclear export of SMAD3 mRNA in an m6A-dependent manner; YTHDC1 depletion causes nuclear retention of SMAD3 mRNA and lower SMAD3 protein levels, impairing TGF-β-induced EMT and TNBC cell migration; m6A-binding-defective YTHDC1 cannot rescue these phenotypes. |
YTHDC1 KO/rescue with m6A-binding mutant, nuclear/cytoplasmic fractionation, RIP-seq, m6A-seq, cell migration/invasion assays, in vivo metastasis model |
Theranostics |
Medium |
35966596
|
| 2022 |
YTHDC1 binding to m6A sites on HIV-1 transcripts (in a METTL3-dependent manner) regulates viral RNA biogenesis: YTHDC1 knockdown increases unspliced and incompletely spliced HIV-1 RNAs, reduces Env and Vpu protein expression, leads to incorporation of unprocessed gp160 into virions, and reduces virion infectivity. |
YTHDC1 knockdown, HIV-1 RNA splicing analysis, viral protein Western blot, RIP (YTHDC1 binding to HIV-1 transcripts), viral infectivity assay |
Retrovirology |
Medium |
35101069
|
| 2023 |
YTHDC1 is an essential regulator of satellite cell (muscle stem cell) activation and proliferation; YTHDC1 depletion nearly abolishes regenerative capacity; YTHDC1 regulates mRNA splicing and nuclear export of target transcripts; hnRNPG is identified as a bona fide YTHDC1 interacting partner in myoblasts. |
Inducible Ythdc1 KO in satellite cells, LACE-seq (transcriptome-wide binding), splicing analysis, nuclear export analysis, Co-IP interactome mapping |
eLife |
High |
36892464
|
| 2023 |
YTHDC1 binding to m6A sites in the FSP1 3′-UTR recruits alternative polyadenylation regulator CSTF3 to generate a less stable shorter 3′-UTR FSP1 mRNA; YTHDC1 downregulation generates longer 3′-UTR FSP1 mRNA stabilized by HuR, leading to elevated FSP1 protein and ferroptosis resistance in lung cancer. |
RIP (YTHDC1–FSP1 mRNA), APA analysis, Co-IP (YTHDC1–CSTF3), RNA stability assays, HuR interaction assays, YTHDC1 KD rescue experiments |
Cell death and differentiation |
Medium |
37903990
|
| 2023 |
YTHDC1 and the RNA helicase DDX5 interact directly and cooperate to promote the production of a common subset of circRNAs in rhabdomyosarcoma cells through the back-splicing reaction; DDX5 acts as a co-factor of the m6A regulatory network downstream of YTHDC1. |
Co-IP (YTHDC1–DDX5), circRNA-seq, YTHDC1/DDX5 depletion, back-splicing assays |
Nature communications |
Medium |
37019933
|
| 2023 |
YTHDC1 regulates muscle stem cell quiescence exit via PI4K-Akt-mTOR signaling; Ythdc1-null satellite cells cannot exit quiescence; mechanistically, YTHDC1 binds m6A-modified Pi4k2a and Pi4kb mRNAs to regulate their alternative splicing, sustaining PI4K-Akt-mTOR pathway activity. |
Conditional Ythdc1 KO in satellite cells, phospho-signaling assays (p-Akt, p-S6), splicing analysis of Pi4k2a/Pi4kb, RIP |
Cell proliferation |
Medium |
36722312
|
| 2023 |
YTHDC1 delays stress-induced pulmonary senescence and fibrosis through an m6A-independent mechanism: it promotes interaction between TopBP1 and MRE11, thereby activating ATR and facilitating DNA damage repair; this function is independent of m6A-binding ability. |
Co-IP (YTHDC1–TopBP1–MRE11), ATR activation assays, YTHDC1 KO/OE in mice, rescue with m6A-binding-defective YTHDC1 mutant |
The EMBO journal |
Medium |
38177310
|
| 2023 |
YTHDC1 inhibits influenza A virus NS segment splicing by binding to the NS 3′ splicing site in an m6A-dependent manner, thereby promoting viral replication and pathogenicity; YTHDC1 levels are enhanced by IAV infection, and its depletion reduces viral replication. |
YTHDC1 KD/OE, NS mRNA splicing analysis, RIP (YTHDC1–NS RNA), in vivo IAV infection model |
PLoS pathogens |
Medium |
37053288
|
| 2023 |
YTHDC1 promotes the nuclear export of m6A-modified circRNAs (e.g., circKcnk9) in an m6A-dependent manner; siYTHDC1 increases nuclear staining of circKcnk9, which is reversed by wild-type but not m6A-binding-defective YTHDC1. |
RNA FISH, siRNA KD, YTHDC1 wild-type vs. mutant rescue, YTHDC1 RIP on circKcnk9 |
Molecular pain |
Medium |
36443649
|
| 2023 |
YTHDC1 regulates the splicing of HOXB-AS3 precursor RNA via m6A modification, upregulating the NR_033205.1 spliceosome isoform, which accelerates leukemic stem cell self-renewal and AML progression. |
m6A-MeRIP, RIP (YTHDC1 binding to HOXB-AS3), splicing analysis, KD/OE functional assays in THP-1 and mouse models |
International journal of biological macromolecules |
Medium |
36906205
|
| 2023 |
YTHDC1 binds to the transcription start sites of TP53 and other DNA damage response genes, promoting their transcriptional elongation in an m6A-independent manner; YTHDC1 also reduces intron retention in m6A-dependent fashion for key DDR factors; YTHDC1 deficiency causes genomic instability. |
CRISPR-KO screen, YTHDC1 ChIP (TSS binding), RNA-seq (intron retention analysis), m6A-dependent vs -independent rescue experiments |
The EMBO journal |
Medium |
38951610
|
| 2023 |
Depletion of YTHDC1 in cardiomyocytes causes dilated cardiomyopathy; YTHDC1 binds m6A-modified Titin mRNA and its depletion results in aberrant splicing of Titin, leading to disordered sarcomere arrangement and decreased cardiomyocyte contractility. |
Cardiac-specific conditional Ythdc1 KO, m6A-MeRIP-seq, RIP-seq, mRNA-seq, sarcomere imaging |
Journal of cellular and molecular medicine |
Medium |
34716659
|
| 2023 |
YTHDC1 O-GlcNAcylation at Ser396 (mediated upon DNA damage) promotes YTHDC1 chromatin binding, IRIF formation, m6A RNA binding, and liquid-liquid phase separation of YTHDC1 condensates at damage sites; O-GlcNAcylated YTHDC1 promotes homologous recombination-mediated repair and recruitment of Rad51. |
Site-directed mutagenesis (Ser396), RIP (m6A binding), Co-IP, FRAP, IRIF immunofluorescence, HR reporter assay, molecular dynamics simulations |
Fundamental research |
Medium |
40242544
|
| 2024 |
YTHDC1 interacts with the THO complex (THOC) and, in addition to binding m6A, binds chemically damaged N1-methyladenosine (m1A) in RNA; without YTHDC1 or THOC, damaged nuclear RNA accumulates R-loops that are converted to DNA breaks (RDIBs) by the XPG nuclease; an RNA-specific dealkylase rescues the DNA break phenotype, establishing that RNA damage drives genome instability. |
In vitro binding assays (m1A vs m6A), Co-IP (YTHDC1–THOC), R-loop immunofluorescence, comet assay, XPG epistasis, RNA dealkylase rescue |
Molecular cell |
High |
40037355
|
| 2024 |
DDX41 promotes YTHDC1 recruitment to m6A-methylated R-loops by facilitating the interaction between METTL3 and YTHDC1; DDX41 loss (KO or patient mutations R525H/Y259C) impairs this interaction, leading to increased m6A-RNA methylated R-loops and genomic instability. |
DDX41 KO and knock-in cell lines, Co-IP (DDX41–METTL3–YTHDC1 complex), m6A quantification, R-loop immunofluorescence, primary MDS patient samples |
Leukemia |
Medium |
38514771
|
| 2024 |
YTHDC1 binds m6A-modified KMT2C mRNA to stabilize it; KMT2C catalyzes H3K4 methylation required for expression of DNA damage response genes; YTHDC1 knockdown decreases YTHDC1 protein stability, reduces KMT2C levels, and attenuates DDR gene expression, sensitizing B-ALL cells to chemotherapy. |
RIP-qPCR (YTHDC1–KMT2C mRNA), RNA stability assay, H3K4 ChIP, YTHDC1/KMT2C KD, B-ALL xenograft model, molecular docking for inhibitor identification |
Leukemia |
Medium |
39501105
|
| 2024 |
YTHDC1 interacts with HP1BP3 (a nuclear RNA binding protein involved in microRNA maturation); YTHDC1 deficiency in HSCs causes significant alterations in microRNA levels (including mir-125b, mir-99b, let-7e); overexpression of these miRNAs partially rescues YTHDC1-null HSC functional defects, establishing a YTHDC1–HP1BP3–microRNA maturation axis for HSC maintenance. |
Conditional Ythdc1 KO, Ythdc1/Mettl3 double KO, Co-IP (YTHDC1–HP1BP3), small RNA-seq, miRNA rescue experiments |
Cell death discovery |
Medium |
39414764
|
| 2024 |
KAP1 (TRIM28) forms a complex with YTHDC1 and METTL3 to stabilize m6A-modified MYCN mRNA; KAP1 depletion decreases YTHDC1 protein stability and promotes MYCN mRNA degradation; MYCN in turn transcriptionally activates KAP1, forming a positive feedback loop. |
Co-IP/mass spectrometry (KAP1–YTHDC1–METTL3 complex), RIP-qPCR, RNA stability assay, Western blot, xenograft model |
Journal of experimental & clinical cancer research |
Medium |
38745192
|
| 2025 |
Lysine lactylation of YTHDC1 at K82 (mediated by p300 under hypoxia) increases YTHDC1 phase separation and expansion of nuclear condensates, protecting oncogenic BCL2 and E2F2 mRNAs from degradation by the PAXT-exosome complex in renal cell carcinoma cells. |
Lactylome mass spectrometry, K82 mutagenesis, phase separation assays (in vitro droplets, nuclear condensate imaging), RIP (YTHDC1–BCL2/E2F2 mRNA), PAXT-exosome interaction assays, in vivo RCC models |
Molecular cell |
High |
40680722
|
| 2025 |
YTHDC1 directly interacts with PPARγ through its intrinsically disordered region (IDR), protecting PPARγ from ARIH2 E3 ubiquitin ligase-mediated ubiquitination and proteasomal degradation; the ARIH2 RING2 domain is essential for PPARγ degradation, and the PPARγ A/B domain mediates the interaction with ARIH2; this function is independent of YTHDC1's m6A-binding ability. |
Co-IP (YTHDC1–PPARγ–ARIH2), domain mapping, ubiquitination assays, Ythdc1 KO in brown adipose tissue, m6A-binding-defective YTHDC1 rescue |
The EMBO journal |
Medium |
40355558
|
| 2025 |
Phase-separating YTHDC1 forms a nuclear pore complex with SRSF3, ALYREF, and exportin-5 (XPO5) to promote nuclear export of m6A-modified lncRNA lnc668; this process requires YTHDC1 phase separation and is dependent on METTL3-mediated m6A modification of lnc668. |
Co-IP (YTHDC1–SRSF3–ALYREF–XPO5), phase separation assays, FISH (nuclear/cytoplasmic lnc668), MeRIP, YTHDC1 KD in fibrosis models |
Cell death & disease |
Medium |
40221424
|
| 2024 |
Structure-based medicinal chemistry yielded YTHDC1 inhibitor compound 40 (Kd = 49 nM), validated by a 1.6 Å crystal structure of the complex; compound 40 is selective over cytoplasmic YTHDF1-3 and YTHDC2, shows antiproliferative activity against AML cell lines, and engages YTHDC1 in cells (confirmed by CETSA). |
X-ray crystallography (1.6 Å), biochemical binding assay, selectivity panel, antiproliferative assay, cellular thermal shift assay (CETSA) |
Journal of medicinal chemistry |
High |
38787793
|
| 1998 |
YTHDC1 (YT521) was identified as an RA301 (Sam68 paralog) binding protein by yeast two-hybrid screening; far Western blot showed that YT521 protein interacts with RA301, and also with splicing factors SC35 and SF2, suggesting a role as an RNA splicing-related protein; YT521 mRNA is induced by hypoxia/reoxygenation through reactive oxygen species. |
Yeast two-hybrid screening, far Western blot (YT521–RA301, SC35, SF2 interactions) |
Brain research. Molecular brain research |
Medium |
9473574
|